This is the continuation from Part I of my coverage of the 2025 edition of the Sherborne Classic and Supercar day.

MARCOS

There were a number of Marcos models on the Owners Club stand. Designed by brothers Dennis and Peter Adams, this well-known car caused something of a sensation when it was shown at the 1964 Racing Car Show. Known as the Marcos 1800, it had a glassfibre body, with a wooden chassis and was offered for sale fully built or in kit form. This was to be the design that would become familiar to sports car enthusiasts for more than 30 years, even though the original plywood chassis would later be replaced by a steel chassis and the futuristic scalloped dashboard also vanished after a few years. The plywood chassis was glued together from 386 separate pieces and was not only light and strong, but also required a minimum up front investment to construct. The extremely low Marcos required a nearly supine driving position and fixed seats, mounted lower than the floor of the car. In return, the entire pedal set could be moved fore and aft with a knob on the dashboard. If this proved not to be enough Marcos also offered optional booster pillows. This setup, with the fixed seats, remained until the end of Marcos production in late 2007. The original Marcos 1800 had a two-spoke steering wheel and a novel dash with a prominent centre console, a rather expensive design which did not survive onto the Ford-engined cars. The entire nose portion, of a long and tapered design, was hinged at the front and was held down by latches behind the front wheelwells. It used the cast-iron four-cylinder 96 hp Volvo 1778 cc B18 unit with overdrive gearbox from the Volvo P1800S  enough for a 116 mph top speed and a 0-60 mph time of 8.2 seconds. Successful in competition, the rather expensive 1800 sold very slowly, and after the first 33 cars the de Dion rear suspension was replaced by a live Ford axle. The price was dropped from ₤1500 to ₤1340, but it was not enough to make the car profitable. Cars were stockpiling in 1966, and after 106 (or 99) had been built, the 1800 was replaced by the Ford-engined 1500. Normally fitted with a four-speed manual transmission a five-speed one was also available, allowing for a higher top speed. According to some sources, a few of the last cars built had the 2 litre Volvo B20 engine fitted, as did some of the racing cars. The 1800 is the only Marcos that is eligible for historic racing and as such is considerably more valuable today than later models. In 1966 the GT was changed to a pushrod inline-four Ford Kent engine of 1500 cc, in order to lower costs as the 1800 had been rather too expensive to market. The complex dash was also replaced with a flat polished wood unit, which was soon downgraded further yet to a mass-produced “wood-effect” one. Power and performance were both down on the 1800, but sales increased considerably. To hide the fact that a common Ford engine was used, Marsh replaced the rocker covers with Marcos ones and switched from Weber to Stromberg carburettors. An overbored Lawrencetune 1650 cc version was made available in 1967 (32 built) to ameliorate the power shortage, for the Marcos 1650 GT. The 1650 also had bigger disc brakes and a standard Webasto sunroof, but proved somewhat less than reliable It and the 1500 were both replaced by Ford’s new Crossflow four not much later, in late 1967. The 1600 proved to be the most popular model yet, with 192 cars built until early 1969. Weight was 740 kg (1,631 lb) and disc brakes up front were standard, although power assist was an optional extra. Production ended in October 1969 as the new steel chassis was not well suited for the crossflow engine.  A new model, the 2 litre, appeared at the January 1969 London Show with the engine changed to the Ford Essex V4 engine from the Ford Corsair – while a V6 engine had already appeared at the top of the lineup in 1968. Also in 1969, the plywood chassis was gradually replaced by a square section steel one, which shortened production time and saved on cost. These steel framed cars required a lower sill panel and have reshaped rear bumpers, as well as some subtle interior differences. The wooden chassis had also begun to meet a certain amount of resistance from buyers. There seem to have been no V4-engined wooden cars made, although there is a few months overlap between the introduction dates. The V4 received most of the same standard and optional equipment (except the overdrive) and the same central bonnet bulge as did the V6 models; very few of the Marcos 2 litres still have their V4 engines, as a V6 swap is a rather quick job and makes for a much faster car than the original’s 85 hp. It was not exactly a success story, 78 2 litres were most likely built, although numbers as low as 40 have also been mentioned. New at the October 1968 London Show was the more powerful Marcos 3 litre. Fitted with the double-carb Ford Essex V6 engine and transmission from the Ford Zodiac, production beginning in January 1969. Max power was 140 bhp and aside from the badging, this car is most easily recognised by the large, central bonnet bulge necessary to clear the larger engine. The 3 litre had a four-speed manual with a Laycock-de-Normanville Overdrive for the third and fourth gears fitted. In December 1969 a twin-carburetted 3-litre Volvo B30 straight-six became available (initially only for the US), and in 1971 eleven or twelve cars were fitted with the 150 bhp Triumph 2.5-litre straight-six. These were called the Marcos 2½ litre. As the bonnet was a close fit over the various larger engines, this resulted in a corresponding variation in the bonnet design as regards changes designed to clear engine air intakes, often the only external sign of the type of engine fitted. All inline-sixes required a rather angular bulge right of centre on the bonnet to clear the carburettors. Around this time, some V6 cars begun sporting single rectangular headlights (not on US-market cars), borrowed from the Vauxhall Viva HB. Later in 1969 the six-cylinder cars, as with their four-cylinder counterparts, received the new steel chassis. Either 100 or 119 of the wood-chassied V6 cars were built. The Ford V6 version achieved over 120 mph on test and the Volvo-engined model was not far behind it, but the heavy cast-iron engines increased nose-heaviness in comparison to the four-cylinder variants. With US sales going strong, Marcos production was up to three per week and they had to invest in a bigger space in 1969. Cars for the North Americas market had Volvo’s inline-six cylinder, 3 litre engines with a standard Borg-Warner Type 35 automatic transmissions. They sat on tubular steel space frames, have a higher ride height, and no headlight covers – all of this was in order to get US road certification. Air conditioning was also listed as an option by New York-based importers Marcos International Inc.  Delays and problems with the federalised cars were beginning to mount. In 1970, 27 exported cars were impounded by US Customs for supposedly not meeting federal law, causing Marcos to withdraw entirely from the US market. Together with the development costs of the Mantis and the introduction of VAT on kit cars on the horizon, Marcos had to close its doors for what turned out to be the first time. About sixty US market cars were built, some of which were brought back after the US market dried up in 1970 and converted to RHD for sale in the home market. Production of the Volvo 3 litre continued for the rest of the world, with these cars fitted with a four-speed manual transmission. Either 80 or 172 of the Volvo I6-engined Marcos were built until early 1972, with the final one destined to become the last Marcos built for the next ten years. After Marcos had run out of money the company was sold to Hebron & Medlock Bath Engineering in mid-1971. They themselves had to call in the receivers only six months later. The Rob Walker Garage Group bought the factory only to sell off everything, including some finished cars such as all six Mark 2 1600s built. Jem Marsh bought up spares and other parts at the liquidation sale and proceeded to run a company servicing existing Marcos, until he resumed production of Marcos kits in 1981. The original GT continued to be built until 1989 or 1990, being developed into its altered Mantula form. This was further developed into more powerful and aggressively-styled designs, culminating in the 1994 LM600 (which competed in the 1995 Le Mans 24-hour race).

MASERATI

After producing BiTurbo based cars for 17 years, Maserati replaced their entire range with a new model in July 1998, the 3200 GT. This very elegant 2+2 grand tourer was styled by Italdesign, whose founder and head Giorgetto Giugiaro had previously designed, among others, the Ghibli, Bora and Merak. The interior design was commissioned to Enrico Fumia. Its name honoured the Maserati 3500 GT, the Trident’s first series production grand tourer. Sold mainly in Europe, the 3200 GT was powered by the twin-turbo, 32-valve, dual overhead cam 3.2-litre V8 engine featured in the Quattroporte Evoluzione, set up to develop 370 PS (365 hp). The car was praised for its styling, with the distinctive array of tail-lights, consisting of LEDs, arranged in the shape of boomerang being particularly worthy of comment. The outer layer of the ‘boomerang’ provided the brake light, with the inner layer providing the directional indicator. The car was also reviewed quite well by the press when they got to drive it in early 1999, though it was clear that they expected more power and excitement. That came after 4,795 cars had been produced, in 2001, with the launch of the 4200 models. Officially called the Coupé and joined by an open-topped Spyder (Tipo M138 in Maserati speak), these models had larger 4.2 litre engines and had been engineered so the cars could be sold in America, marking the return to that market for Maserati after an 11 year gap. There were some detailed styling changes, most notable of which were the replacement of the boomerang rear lights with conventional rectangular units. Few felt that this was an improvement. The cars proved popular, though, selling strongly up until 2007 when they were replaced by the next generation of Maserati. Minor changes were made to the model during its six year production, but more significant was the launch at the 2004 Geneva Show of the GranSport which sported aerodynamic body cladding, a chrome mesh grille, carbon fibre interior trim, and special 19-inch wheels. It used the Skyhook active suspension, with a 0.4 inch lower ride height, and the Cambiocorsa transmission recalibrated for quicker shifts. The exhaust was specially tuned to “growl” on start-up and full throttle. The GranSport was powered by the same 4244 cc, 90° V8 petrol engine used on the Coupé and Spyder, but developing 400 PS (395 hp) at 7000 rpm due primarily to a different exhaust system and improvements on the intake manifolds and valve seats. A six-speed paddle shift transmission came as standard. The GranSport has a claimed top speed of 180 mph (290 km/h) and a 0–62 mph (0–100 km/h) time of 4.8 seconds.

The Maserati GranTurismo and GranCabrio (Tipo M145) are a series of a grand tourers produced from 2007 to 2019. They succeeded the 2-door V8 grand tourers offered by the company, the Maserati Coupé, and Spyder. The GranTurismo set a record for the most quickly developed car in the auto industry, going from design to production stage in just nine months. The reason being that Ferrari, after selling off Maserati to the Fiat Chrysler Group, took the designs of the proposed replacement of the Maserati Coupé and after some modifications, launched it as the Ferrari California. Unveiled at the 2007 Geneva Motor Show, the GranTurismo has a drag coefficient of 0.33. The model was initially equipped with a 4.2-litre V8 engine developed in conjunction with Ferrari. The engine generates a maximum power output of 405 PS and is equipped with a 6-speed ZF automatic transmission. The 2+2 body was derived from the Maserati M139 platform, also shared with the Maserati Quattroporte V, with double-wishbone front suspension and a multilink rear suspension. The grand tourer emphasises comfort in harmony with speed and driver-enjoyment. The better equipped S variant was unveiled at the 2008 Geneva Motor Show and features the enlarged 4.7-litre V8 engine shared with the Alfa Romeo 8C Competizione, rated at 440 PS at 7,000 rpm and 490 Nm (361 lb/ft) of torque at 4,750 rpm. At the time of its introduction, it was the most powerful road-legal Maserati offered for sale (excluding the homologation special MC12). The engine is mated to the 6-speed automated manual shared with the Ferrari F430. With the transaxle layout weight distribution improved to 47% front and 53% rear. The standard suspension set-up is fixed-setting steel dampers, with the Skyhook adaptive suspension available as an option along with a new exhaust system, and upgraded Brembo brakes. The seats were also offered with various leather and Alcantara trim options. The upgrades were made to make the car more powerful and more appealing to the buyers while increasing performance, with acceleration from 0–100 km/h (0–62 mph) happening in 4.9 seconds and a maximum speed of 295 km/h (183 mph). Aside from the power upgrades, the car featured new side skirts, unique 20-inch wheels unavailable on the standard car, a small boot lip spoiler, and black headlight clusters in place of the original silver. The variant was available in the North American market only for MY2009 with only 300 units offered for sale. The GranTurismo MC is the racing version of the GranTurismo S developed to compete in the FIA GT4 European Cup and is based on the Maserati MC concept. The car included a 6-point racing harness, 120 litre fuel tank, 380 mm (15.0 in) front and 326 mm (12.8 in) rear brake discs with 6-piston calipers at the front and 4-piston calipers at the rear, 18-inch racing wheels with 305/645/18 front and 305/680/18 rear tyres, carbon fibre bodywork and lexan windows throughout along with a race interior. All the weight-saving measures lower the weight to about 3,000 lb (1,361 kg). The car shares the 4.7-litre V8 engine from the GranTurismo S but is tuned to generate a maximum power output of 450 PS along with the 6-speed automated manual transmission. The GranTurismo MC was unveiled at the Paul Ricard Circuit in France. It went on sale in October, 2009 through the Maserati Corse programme. 15 GranTurismo MC racecars were developed, homologated for the European Cup and National Endurance Series, one of which was taken to be raced by GT motorsport organization Cool Victory in Dubai in January, 2010. Introduced in 2008, the GranTurismo MC Sport Line is a customisation programme based on the GranTurismo MC concept. Changes include front and rear carbon-fibre spoilers, carbon-fibre mirror housings and door handles, 20-inch wheels, carbon-fibre interior (steering wheel rim, paddle shifters, instrument panel, dashboard, door panels), stiffer springs, shock absorbers and anti-roll bars with custom Maserati Stability Programme software and 10 mm (0.4 in) lower height than GranTurismo S. The programme was initially offered for the GranTurismo S only, with the product line expanded to all GranTurismo variants and eventually all Maserati vehicles in 2009. Replacing both the GranTurismo S and S Automatic, the Granturismo Sport was unveiled in March 2012 at the Geneva Motor Show. The revised 4.7L engine is rated at 460 PS. The Sport features a unique MC Stradale-inspired front fascia, new headlights and new, sportier steering wheel and seats. The ZF six-speed automatic gearbox is now standard, while the six-speed automated manual transaxle is available as an option. The latter has steering column-mounted paddle-shifters, a feature that’s optional with the automatic gearbox. New redesigned front bumper and air splitter lowers drag coefficient from Cd=0.33 to 0.32. In September 2010, Maserati announced plans to unveil a new version of the GranTurismo – the MC Stradale – at the 2010 Paris Motor Show. The strictly two-seat MC Stradale is more powerful than the GranTurismo at 450 PS, friction reduction accounts for the increase, says Maserati, due to the strategic use of “diamond-like coating”, an antifriction technology derived from Formula 1, on wear parts such as the cams and followers. It is also 110 kg lighter (1,670 kg dry weight) from the GranTurismo, and more aerodynamic than any previous GranTurismo model – all with the same fuel consumption as the regular GranTurismo. In addition to two air intakes in the bonnet, the MC Stradale also receives a new front splitter and rear air dam for better aerodynamics, downforce, and improved cooling of carbon-ceramic brakes and engine. The body modifications make the car 48 mm (2 in) longer. The MC Race Shift 6-speed robotised manual gearbox (which shares its electronics and some of its hardware from the Ferrari 599 GTO) usually operates in an “auto” mode, but the driver can switch this to ‘sport’ or ‘race’ (shifting happening in 60 milliseconds in ‘race’ mode), which affects gearbox operations, suspension, traction control, and even the sound of the engine. The MC Stradale is the first GranTurismo to break the 300 km/h (186 mph) barrier, with a claimed top speed of 303 km/h (188 mph). The push for the Maserati GranTurismo MC Stradale came from existing Maserati customers who wanted a road-legal super sports car that looked and felt like the GT4, GTD, and Trofeo race cars. It has been confirmed by the Maserati head office that only 497 units of 2-seater MC Stradales were built in total from 2011 to 2013 in the world, Europe: 225 units, China: 45 units, Hong Kong: 12, Taiwan: 23 units, Japan: 33 units, Oceania: 15 units and 144 units in other countries. US market MC’s do not have the “Stradale” part of the name, and they are sold with a fully automatic six-speed transmission rather than the one available in the rest of the world. US market cars also do not come with carbon fibre lightweight seats like the rest of the world. The MC Stradale’s suspension is 8% stiffer and the car rides slightly lower than the GranTurismo S following feedback from racing drivers who appreciated the better grip and intuitive driving feel of the lower profile. Pirelli has custom-designed extra-wide 20-inch P Zero Corsa tyres to fit new flow-formed alloy wheels. The Brembo braking system with carbon-ceramic discs weighs around 60% less than the traditional system with steel discs. The front is equipped with 380 x 34 mm ventilated discs, operated by a 6 piston caliper. The rear discs measure 360 x 32 mm with four-piston calipers. The stopping distance is 33 m at 100 km/h (62 mph) with an average deceleration of 1.2g. At the 2013 Geneva Motor Show, an update to the GranTurismo MC Stradale was unveiled. It features an updated 4.7 litre V8 engine rated at 460 PS at 7,000 rpm and 520 Nm (384 lb/ft) of torque at 4,750 rpm, as well as the MC Race Shift 6-speed robotized manual gearbox which shifts in 60 milliseconds in ‘race’ mode. The top speed is 303 km/h (188 mph). All models were built at the historic factory in viale Ciro Menotti in Modena. A total of 28,805 GranTurismos and 11,715 units of the convertible were produced. The final production example of the GranTurismo, called Zéda, was presented painted in a gradient of blue, black and white colours.

As a former owner of the Ghibli, I was pleased to see a couple of examples here. The Ghibli marked Maserati’s comeback in the mid-size luxury car segment after two decades of absence, since the last of the Biturbo family saloons went out of production in 1994; it served as a key model in Maserati’s plan of expanding its lineup to cover all segments in the luxury car market. Assembly of the Ghibli took place alongside that of the Quattroporte VI at the new Giovanni Agnelli Plant in Grugliasco near Turin, Italy. On September 24, 2019, the 100,000th Ghibli rolled off the production line as announced by Maserati. The Ghibli was introduced at the 2013 Shanghai Auto Show and marked Maserati’s entry into the mid-size executive car market as being positioned below the Quattroporte. The Ghibli is the first car to be underpinned by the Maserati M156 platform and was the company’s best seller until the Levante crossover SUV was launched. The company sold 6,000 units of the car in its first year into the market, which alone exceeded the best sales figures for Maserati for 2008, which was 9,000 cars sold in total consisting of different models. The number increased to 22,500 in 2013 and 36,448 in 2014. It continued to increase in 2015 due to the delay in the Levante’s launch. The Ghibli also marks the return of the name in the US market as the Biturbo based Ghibli (AM336) was not available for sale there. The Ghibli, which is based on a shorter wheelbase than the flagship Quattroporte, uses a steel monocoque chassis with additional subframes with the front subframe made of aluminium. Tested weight distribution for the diesel version stands at 51/49 front/rear. The diesel engine in the Ghibli, developed under Ferrari engine specialist Paulo Martinelli, is based on the V6 diesel unit found in the Jeep Grand Cherokee. The engine is exclusive to the European market only. A ZF 8HP transmission powers the rear wheels as used by all the major competition except Mercedes-Benz. Both the Ghibli and the Quattroporte share the same suspension although the Skyhook suspension is optional on the former. An optional Koni adaptive sport suspension is also available. From the 2018 model year, the Ghibli can be optioned with one of two new trims, namely GranSport and GranLusso, all of which relate to the interior of the car with the GranSport trim featuring an aggressive front bumper. A facelifted Maserati Ghibli and new, hybrid version were unveiled online on 16 July 2020. Production was phased out in 2024.

Final Maserati here was the brand’s supercar, the MC20.

McLAREN

The McLaren 570S is a sports car designed and manufactured by the British car manufacturer McLaren Automotive, produced from 2015 until 2021. It was unveiled at the 2015 New York International Auto Show. The car is powered by a new iteration of the 3.8-litre twin-turbocharged V8 engine already used in the 650S and P1, designated M838T E with thirty per cent of the parts redesigned. It delivers 562 hp and 443 lb/ft (601 Nm) of torque through a 7-speed dual-clutch transmission developed by Graziano Trasmissioni, as it is arranged in the car as a rear-mid engine configuration, The car can accelerate from 0–62 mph (0–100 km/h) in 3.2 seconds and can achieve a top speed of 204 mph (328 km/h). A total dry weight of 2,989 lb (1,356 kg) and maximum weight of 3,201 lb (1,452 kg) gives the 570S a power to weight ratio of 428 PS per tonne delivering a fuel economy of 25.5 miles per imperial gallon (11.1 L/100 km; 21.2 mpg‑US) and CO2 emissions of 249 g/km. McLaren focused on delivering “day-to-day usability and driveability” against the most sporting model options in its range with increased luggage space, greater interior storage and leather upholstery options. The car is designed with aerodynamics in mind and the teardrop shaped cockpit helps achieve that objective. The rear of the car is inspired by the P1 and borrows the slim LED tail lights and diffuser styling from the flagship sports car. The car features dihedral doors, a trademark of McLaren as featured on its ultimate and super series cars. At the 2015 Shanghai Motor Show, the entry level McLaren Sports Series car named 540C was unveiled with 533 hp (540 PS) and 540 Nm (398 lb/ft) of torque. This new entry-level model focuses on “day-to-day usability and driveability” even more than that of the 570S with improved city driving and ride quality. The car can accelerate from 0–60 mph (0–97 km/h) in 3.4 seconds and has a top speed of 199 mph (320 km/h). The 540C is cheaper than the 570S and went on sale shortly after its Shanghai debut. The 540C is not available in the US due to McLaren wanting to focus on the more powerful 570S model for the US market. At the 2016 Geneva Motor Show, McLaren presented another addition to the Sport Series and 570 line up, dubbed the 570GT. The 570GT is the less track focused, and more road trip worthy version of the 570S. The 570GT sports a side opening cargo hatch above the mid-mounted engine for additional cargo space in place of the engine cover of the 570S, slightly softer suspension settings and improved sound insulation. The 570GT went through a facelift at the start of 2018 which added ceramic brakes as standard and steel as a free option. The convertible version of the 570S was unveiled at the 2017 Goodwood Festival of Speed event. It borrows the roof folding mechanism from the Super Series line-up. The two-piece aluminium roof folds into a compartment located behind the seats of the car leaving the rear buttress in place. The roof folding mechanism takes 30 seconds to fold and unfold and is operable at speeds up to 48 km/h (30 mph). Unlike the 12C Spider and the 650S Spider, the 570S spider required no significant reengineering for the folding roof mechanism because of the carbon monocell used in the 570S. As a result, the 570S Spider is only 46 kg (101 lb) heavier than the coupe. The drivetrain of the Spider remains identical to that of the coupe which results in similar performance to the coupé counterpart with the roof up. The Spider has new forged aluminium wheels and three special launch colours namely Vega Blue, Sicilian Yellow and Ventura Orange. Deliveries of the Spider began in late 2017.

The 720S – a complete replacement for the 650S – was a star of the 2017 Geneva Show, and it was clear on looking at it, that the Woking firm really is increasingly a serious threat to Ferrari’s supercar supremacy, even before learning that total sales in just five years of production had passed 10,000 units. The 720S was presented as the firm’s new core model and the first of 15 new-generation McLarens, half of which will be hybrids, promised by 2022 under CEO Mike Flewitt’s ambitious Track 22 development plan. The 720S obeys all existing McLaren design rules. It is a two-seat supercar based on an all-carbonfibre tub, with aluminium space frames carrying the front and rear suspension, and it is powered by a twin turbo V8. However, within that envelope, it has been redesigned and updated in every detail. The exterior introduces a new ‘double skin’ door construction that eliminates the need for the prominent side air scoops previously thought essential in supercar design, while the engine grows to 4.0 litres, up from 3.8-litres, and now produces 710bhp. McLaren has further developed its carbonfibre chassis tub and upper structure, taking lessons from previous models, including the P1. Now dubbed Monocage II, the structure is cited as the key to the 720S’s 1283kg dry weight, which undercuts all competitors and beats that of its predecessor by 18kg. Monocage II’s stiffness has allowed McLaren’s designers to give the 720S remarkably thin A-pillars, a deep windscreen, B-pillars set well back and slim, glazed C-pillars, all of which contribute to first-class all-round visibility for the driver. The body panels are made either of carbonfibre or superformed aluminium, and their novel shape plays a key role in the 720S’s impressive aerodynamic performance. Low down at the front there are anti-lift aero blades reminiscent of those on the P1, while ultra-compact LED headlights fit into frontal ‘eye sockets’ that allow room for vents to feed the air conditioning and oil cooler. The body sides incorporate channels, formed by two skins and flowing past the dihedral doors, so cooling air can be directed along the body into the engine bay, uninterrupted by turbulence and resulting in a 15% improvement in cooling airflow. On the outer, lower part of the doors, there are F1-inspired blades that direct air away from the front wheel arches, assisting downforce and cutting drag. A big under-body diffuser at the rear sweeps up from the 720S’s flat floor almost to its rear wing, where the two elements frame the ultra-thin LED tail-lights. Because the top of the 720S’s engine is a remarkable 120mm lower than that of the 650S, the car also has a low, teardrop-shaped engine cover that allows an uninterrupted flow of air over the roof to the hydraulically actuated rear wing, which has a DRS drag reduction setting for optimal straight-line performance, an Aero setting for downforce in corners and a Brake setting (which sets the wing a steep 56deg from the horizontal) to increase drag and improve chassis balance under heavy braking. The result, says McLaren, is that the wing has 30% more downforce and its aero efficiency (the ratio of downforce to drag) is doubled. McLaren claims “new heights of performance” from its expanded turbo V8, now re-engineered for a capacity of 3994cc, thanks to a 3.6mm lengthening of its stroke. The engine also has lighter pistons and conrods and a stiffer, lightened crank, plus twin-scroll turbochargers with faster-spooling turbines, capable of spinning at 145,000rpm, and electronically controlled wastegates. In total, 41% of the engine’s components are new. A cast aluminium air intake system, visible through the mesh engine cover, feeds extra air to the more potent engine that now uses two injectors per cylinder. But rather than simply pumping in more fuel, the improved injection system gives more accurate metering, which helps to cut CO2 emissions by around 10%, to a class-leading 249g/km. Combined economy falls by a similar percentage to 26.4mpg. The 720S’s peak output of 710bhp is produced at 7000rpm, while maximum torque of 568lb ft is delivered at 5500rpm. The engine, longitudinally mounted behind the occupants, drives as before through a seven-speed dual-clutch automatic gearbox mounted end-on to the engine, but McLaren says further refinement of its control software brings smoother gearchanges at low speeds and faster, sharper shifts at higher speeds. The launch control has also been improved, and as before, there are three driving modes — Comfort, Sport and Track — that govern both engine and dynamics. The chassis weight savings, allied to other reductions in mass, including 2kg from the brakes, 3kg from the electrics and 1.5kg from the airboxes, contribute as much to the 720S’s enhanced performance as its 11% power increase. The power-to-weight ratio is now 553bhp per tonne (up 15%) and, according to McLaren, beats the best in the segment. As a result, McLaren claims a “crushing” 0-60mph time of just 2.8sec, 0-124mph in 7.8sec and a top speed of 212mph. The 720S will also dispatch a standing quarter-mile in 10.3sec, representing a blistering performance for a pure road car. To accompany the performance, the 720S has a carefully engineered engine note which can be further enhanced with an optional, louder, sports exhaust system. Despite its performance potential, McLaren is adamant that its new car is as easily handled by ordinary drivers as it is by experts, with throttle response calibrated to provide “the optimum blend of immediate reaction and progressive comfort”. Although only five years old, McLaren’s all-independent system of front and rear double wishbones has been completely re-engineered, both to allow wheel geometry changes and, thanks to a redesign of the uprights and wishbones, to cut unsprung mass by 16kg. The 720S has an updated version of the Proactive chassis control electronics used by the 650S. The system features hydraulically interlinked dampers at each corner that remove the need for anti-roll bars, but the big improvement for the 720S’s system, which is dubbed PCCII, results from new software developed during a six-year collaboration with the University of Cambridge and using sophisticated information gathered by 12 new sensors and accelerometers. The result is even better contact between the tyres and the road surface. The system can assess conditions and adjust the suspension every five milliseconds. It also includes a Variable Drift function, which allows you to slide the car without losing control, and McLaren Brake Steer, pioneered in F1, which enhances agility in corners and traction out of them by braking separate wheels. McLaren engineers have retained electro-hydraulic steering for the 720S, despite rivals’ adoption of electric only systems, because they still feel it gives superior “clarity of feel”. Brakes are large, ventilated carbon-ceramic discs and the tyres are specially developed Pirelli P Zeros, 245/35 ZR19s at the front (up from the 650S’s 235s) and 305/30 ZR20s at the rear. McLaren claims a 6% increase in mechanical grip, which is about the same advantage as fitting track-focused Pirelli Corsas to a 650S. Although the 720S closely follows the outgoing 650S in its major dimensions, there are differences between them. The thin pillars, the depth of the windscreen and the all-round glass give a commanding view to all points that modern supercar drivers will find surprising. The redesigned interior surfaces have been ‘pushed away’ from the occupants as much as possible, to further enhance the feeling of space. Unlock the door and various instrument and courtesy lights go through a welcome sequence as the mirrors unfold. Opening the door also triggers an elaborate sequence on the upright TFT screen which changes its configuration according to driving mode. The driver can also ‘declutter’ the instruments, for example when on a track, via a special Slim mode. There’s a central 8.0in infotainment screen on the centre console, with ventilation settings carried along the bottom. The layout of switches, most of which are machined from aluminium, is simple. Standard cabin trim and seats are plush but, as with previous models, colour and trim material upgrades are available.  McLaren has already begun taking orders, with the first cars due to be delivered in May. The entry price in the UK was £207,900. All 400 units of the Launch Edition version were sold even before the general public saw the car though many of these then hit the pre-owned market quite quickly, traded in once owners could take delivery of a car in the spec that they really wanted. McLaren’s goal is to sell around 1200 – 1500 720S models a year.

Also here was the Artura, the somewhat challenged replacement for the 570S family of cars that had a very protracted delivery thanks to lots of issues arising from its sheer complexity.

The McLaren GT is the company’s first dedicated grand tourer and is based on the same platform underpinning the 720S with the addition of a carbon fibre rear deck topped by a glazed tailgate creating significantly greater storage capacity. The GT was first announced at the 2019 Geneva Motor Show, but full details of the car were not released until May 15 of the same year. The GT features a new variation of the 3,994 cc twin-turbocharged M840T V8 engine found in the 720S. Having a new dedicated codename of M840TE, the new engine has smaller turbochargers that deliver lower peak performance than its Super Series variant but greater low RPM-performance and responsiveness. The GT has a rated power output of 620 PS at 7,000 rpm, and the maximum torque is 465 lb/ft (630 Nm) at 5,500 rpm. The suspension system in the GT is also derived from the system in the 720S. The car utilizes double wishbones at the front and rear axles, and a modified version of the ProActive Chassis Control II active damping system called Proactive Damping Control. The company claims that the GT has a top speed of 326.7 km/h (203 mph), it can accelerate from 0–60 mph in 3.1 seconds, and 0–200 km/h (0–124 mph) in 9 seconds. The McLaren GT features 150 litres of storage space at the front and 420 litres in the rear, accommodating a full-sized set of golf clubs. Napa leather is standard upholstery, but drivers can also choose from a softer hide made by Bridge of Weir Leather in Scotland or in the future, cashmere. The new comfort seats have increased shoulder padding and back support, with electrical adjustment and heating as standard on Pioneer and Luxe models. A 7-inch touchscreen mounted in the centre controls a revamped infotainment system and is supplemented by a 12.3-inch driver information display which changes in layout depending on whether Comfort, Sport or Track mode is selected.

MERCEDES-BENZ

Replacement for the 190SL cars of the 1950s were the “Pagoda” series of W113 cars. By 1955, Mercedes-Benz Technical Director Prof. Fritz Nallinger and his team held no illusions regarding the 190 SL’s lack of performance, while the high price tag of the legendary 300 SL supercar kept it elusive for all but the most affluent buyers. Thus Mercedes-Benz started evolving the 190 SL on a new platform, model code W127, with a fuel-injected 2.2 litre M127 inline-six engine, internally denoted as 220SL. Encouraged by positive test results, Nallinger proposed that the 220SL be placed in the Mercedes-Benz program, with production commencing in July 1957. However, while technical difficulties kept postponing the production start of the W127, the emerging new S-Class W112 platform introduced novel body manufacturing technology altogether. So in 1960, Nallinger eventually proposed to develop a completely new 220SL design, based on the “fintail” W 111 sedan platform with its chassis shortened by 11.8 in, and technology from the W112. This led to the W113 platform, with an improved fuel-injected 2.3 litre M127 inline-six engine and the distinctive “pagoda” hardtop roof, designated as 230 SL. The 230 SL made its debut at the prestigious Geneva Motor Show in March 1963, where Nallinger introduced it as follows: “It was our aim to create a very safe and fast sports car with high performance, which despite its sports characteristics, provides a very high degree of travelling comfort”. The W113 was the first sports car with a “safety body,” based on Bela Barényi’s extensive work on vehicle safety: It had a rigid passenger cell and designated crumple zones with impact-absorbing front and rear sections built into the vehicle structure. The interior was “rounded,” with all hard corners and edges removed, as in the W111 sedan. Production of the 230 SL commenced in June 1963 and ended on 5 January 1967. Its chassis was based on the W 111 sedan platform, with a reduced wheelbase by 11.8 in, recirculating ball steering (with optional power steering), double wishbone front suspension and an independent single-joint, low-pivot swing rear-axle with transverse compensator spring. The dual-circuit brake system had front disc brakes and power-assisted rear drum brakes. The 230 SL was offered with a 4-speed manual transmission, or an optional, very responsive fluid coupled (no torque converter) 4-speed automatic transmission, which was popular for US models. From May 1966, the ZF S5-20 5-speed manual transmission was available as an additional option, which was particularly popular in Italy. The 2,308 cc M127.II inline-six engine with 150 hp and 145 lb/ft torque was based on Mercedes-Benz’ venerable M180 inline-six with four main bearings and mechanical Bosch multi-port fuel injection. Mercedes-Benz made a number of modifications to boost its power, including increasing displacement from 2,197 cc, and using a completely new cylinder head with a higher compression ratio (9.3 vs. 8.7), enlarged valves and a modified camshaft. A fuel injection pump with six plungers instead of two was fitted, which allowed placing the nozzles in the cylinder head and “shooting” the fuel through the intake manifold and open valves directly into the combustion chambers. An optional oil-water heat exchanger was also available. Of the 19,831 230 SLs produced, less than a quarter were sold in the US. Looking identical, the 250 SL was introduced at the 1967 Geneva Motor Show. Production had already commenced in December 1966 and ended in January 1968. The short one-year production run makes the 250 SL the rarest of the W113 series cars. The 250 SL retained the stiffer suspension and sportier feel of the early SLs, but provided improved agility with a new engine and rear disc brakes. Range also improved with increased fuel tank capacity from 65 litres to 82. Like its predecessor, the 250 SL was offered with a 4-speed automatic transmission, and 4-speed or ZF 5-speed manual transmissions.  For the first time, an optional limited slip differential was also available. The main change was the use of the 2,496 cc M129.II engine with a larger stroke, increased valve ports, and seven main bearings instead of four. The nominal maximum power remained unchanged at 150 hp, but torque improved from 145 lb/ft to 159 lb/ft. Resiliency also improved with a new cooling water tank (“round top”) with increased capacity and a standard oil-water heat exchanger. The 250 SL also marked the introduction of a 2+2 body style, the so-called “California Coupé”, which had only the removable hardtop and no soft-top: a small fold-down rear bench seat replaced the soft-top well between passenger compartment and boot. It is estimated that only 10% of the 250SLs that were brought into America were California Coupes. Of the 5,196 250 SLs produced, more than a third were sold in the US.The 280 SL was introduced in December 1967 and continued in production through 23 February 1971, when the W 113 was replaced by its successor, the entirely new and substantially heavier R107 350 SL. The main change was an upgrade to the 2,778 cc M130 engine with 170 hp and 180 lb/ft, which finally gave the W 113 adequate power. The performance improvement was achieved by increasing bore by 4.5 mm (0.2 in), which stretched the limits of the M180 block, and required pairwise cylinder casts without cooling water passages. This mandated an oil-cooler, which was fitted vertically next to the radiator. Each engine was now bench-tested for two hours prior to being fitted, so their power specification was guaranteed at last. The M130 marked the final evolution of Mercedes-Benz’ venerable SOHC M180 inline-six, before it was superseded by the entirely new DOHC M110 inline-six introduced with R107 1974 European 280 SL models. For some time, it was also used in the W 109 300 S-Class, where it retired the expensive 3 liter M189 alloy inline-six. Over the years, the W 113 evolved from a sports car into a comfortable grand tourer, and US models were by then usually equipped with the 4-speed automatic transmission and air conditioning. Manual transmission models came with the standard 4-speed or the optional ZF 5-speed, which was ordered only 882 times and thus is a highly sought-after original option today. In Europe, manual transmissions without air conditioning were still the predominant choice. Of the 23,885 280 SLs produced, more than half were sold in the US.

This one comes from the W108 family. The car’s predecessor, the Mercedes-Benz W111 (produced 1959–1971) helped Daimler develop greater sales and achieve economy of scale production. Whereas in the 1950s, Mercedes-Benz was producing the coachwork 300 S and 300 SLs and all but hand-built 300 Adenauers alongside conveyor assembled Pontons (190, 190SL and 220) etc., the fintail (German: Heckflosse) family united the entire Mercedes-Benz range of vehicles onto one automobile platform, reducing production time and costs. However, the design fashion of the early 1960s changed. For example, the tail fins, originally intended to improve aerodynamic stability, died out within a few years as a fashion accessory. By the time the 2-door coupé and cabriolet W111s were launched, the fins lost their chrome trim and sharp appearance, the arrival of the W113 Pagoda in 1963 saw them further buried into the boot’s contour, and finally disappeared on the W100 600 in 1964. The upgrade of the W111 began under the leadership of designer Paul Bracq in 1961 and ended in 1963. Although the fins’ departure was the most visible change, the W108 compared to the W111 had a lower body waist line that increased the window area, (the windscreen was 17 percent larger than W111). The cars had a lower ride (a decrease by 60 mm) and wider doors (+15 mm). The result was a visibly new car with a more sleek appearance and an open and spacious interior. The suspension system featured a reinforced rear axle with hydropneumatic compensating spring. The car sat on larger wheels (14”) and had disc brakes on front and rear. The W109 was identical to the W108, but featured an extended wheelbase of 115 mm (4.5 in) and self-levelling air suspension. This was seen as a successor to the W112 300SEL that was originally intended as an interim car between the 300 “Adenauer” (W189) and the 600 (W100) limousines. However, its success as “premium flagship” convinced Daimler to add an LWB car to the model range. From that moment on, all future S-Class models would feature a LWB line. Although the W108 succeeded the W111 as a premium range full-size car, it did not replace it. Production of the W111 continued, however the 230S was now downgraded to the mid-range series, the Mercedes-Benz W110, and marketed as a flagship of that family until their production ceased in 1968. The W108 is popular with collectors and the most desirable models to collect are the early floor shift models with the classic round gear knob and the 300 SEL’s. The car was premièred at the Frankfurt Auto Show in 1965. The initial model lineup consisted of three W108s: 250S, 250SE, and 300SE, as well as a sole W109, the 300SEL. Engines for the new car were carried over from the previous generation, but enlarged and refined. The 250S was the entry-level vehicle fitted with a 2496 cm³ Straight-six M108 engine, with two dual downdraft carburettors, delivering 130 bhp at 5400 rpm which accelerated the car to 100 km/h (62 mph) in 13 seconds (14 on automatic transmission) and gave a top speed of 182 km/h (177 on auto). The 250SE featured an identical straight-six, but with a six-plunger fuel injection (designated M129) with performance improved to 150 bhp at 5500 rpm, which decreased 0-100 acceleration by one second and increased top speed by 11 km/h (7 mph) for both manual and automatic versions. Both the 300SE and 300SEL came with the M189 2996 cm³ engine, originally developed for the Adenauers. It had a modern six-plunger pump that adjusted automatically to accelerator pedal pressure, engine speed, atmospheric pressure, and cooling water temperature, to deliver the proper mixture depending on driving conditions. Producing 170 bhp at 5,400 rpm the cars could accelerate to 200 km/h (195 km/h with automatic transmission) and reach 100 km/h (62 mph) in 12 seconds. The cylinder capacity of the three litre Mercedes engine was unchanged since 1951. From 1965 to 1967, fewer than 3,000 W109s were produced. However, approximately 130,000 of the less powerful 250 S/SE models were built during the first two years of the W108/109’s existence. By 1967 the fuel consumption of the 3 litre unit in this application was becoming increasingly uncompetitive.

With prices of the classic Pagoda model having risen to unaffordable for most people attention has started to switch to it successor, the R107 SL range, which had a long production life, being the second longest single series ever produced by the automaker, after the G-Class. The R107 and C107 took the chassis components of the mid-size Mercedes-Benz W114 model and mated them initially to the M116 and M117 V8 engines used in the W108, W109 and W111 series. The SL variant was a 2-seat convertible/roadster with standard soft top and optional hardtop and optional folding seats for the rear bench. The SLC (C107) derivative was a 2-door hardtop coupe with normal rear seats. The SLC is commonly referred to as an ‘SL coupe’, and this was the first time that Mercedes-Benz had based a coupe on an SL roadster platform rather than on a saloon, replacing the former saloon-based 280/300 SE coupé in Mercedes lineup. The SLC was replaced earlier than the SL, with the model run ending in 1981, with a much larger model, the 380 SEC and 500SEC based on the new S class. Volume production of the first R107 car, the 350 SL, started in April 1971 alongside the last of the W113 cars; the 350 SLC followed in October. The early 1971 350SL are very rare and were available with an optional 4 speed fluid coupling automatic gearbox. In addition, the rare 1971 cars were fitted with Bosch electronic fuel injection. Sales in North America began in 1972, and cars wore the name 350 SL, but had a larger 4.5L V8 with 3 speed auto (and were renamed 450 SL for model year 1973); the big V8 became available on other markets with the official introduction of the 450 SL/SLC on non-North American markets in March 1973. US cars sold from 1972 through 1975 used the Bosch D Jetronic fuel injection system, an early electronic engine management system. From July 1974 both SL and SLC could also be ordered with a fuel-injected 2.8L straight-6 as 280 SL and SLC. US models sold from 1976 through 1979 used the Bosch K Jetronic system, an entirely mechanical fuel injection system. All US models used the 4.5 litre engine, and were called 450 SL/SLC. In September 1977 the 450 SLC 5.0 joined the line. This was a homologation version of the big coupé, featuring a new all-aluminium five-litre V8, aluminium alloy bonnet and boot-lid, and a black rubber rear spoiler, along with a small front-lip spoiler. The 450SLC 5.0 was produced in order to homologate the SLC for the 1978 World Rally Championship. Starting in 1980, the 350, 450 and 450 SLC 5.0 models (like the 350 and 450 SL) were discontinued in 1980 with the introduction of the 380 and 500 SLC in March 1980. At the same time, the cars received a very mild makeover; the 3-speed automatic was replaced by a four-speed unit, returning to where the R107 started in 1971 with the optional 4 speed automatic 350SL. The 280, 380 and 500 SLC were discontinued in 1981 with the introduction of the W126 series 380 and 500 SEC coupes. A total of 62,888 SLCs had been manufactured over a ten-year period of which just 1,636 were the 450 SLC-5.0 and 1,133 were the 500 SLC. Both these models are sought by collectors today. With the exception of the SL65 AMG Black Series, the SLC remains the only fixed roof Mercedes-Benz coupe based on a roadster rather than a sedan. Following the discontinuation of the SLC in September 1981, the 107 series continued initially as the 280, 380 and 500 SL. At this time, the V8 engines were re-tuned for greater efficiency, lost a few hp and consumed less fuel- this largely due to substantially higher (numerically lower) axle ratios that went from 3.27:1 to 2.47:1 for the 380 SL and from 2.72:1 to 2.27:1 for the 500 SL. From September 1985 the 280 SL was replaced by a new 300 SL, and the 380 SL by a 420 SL; the 500 SL continued and a 560 SL was introduced for certain extra-European markets, notably the USA, Australia and Japan. Also in 1985, the Bosch KE Jetronic was fitted. The KE Jetronic system varied from the earlier, all mechanical system by the introduction of a more modern engine management “computer”, which controlled idle speed, fuel rate, and air/fuel mixture. The final car of the 18 years running 107 series was a 500 SL painted Signal red, built on August 4, 1989; it currently resides in the Mercedes-Benz museum in Stuttgart.

Mercedes-Benz introduced the W123 four-door versions on 29 January 1976. While there were some technical similarities to their predecessors, the new models were larger in wheelbase and exterior dimensions. The styling was also updated, although stylistic links with the W114 / W115 were maintained. Initially, all models except 280/280E featured quad unequal-size round headlights and the latter large rectangular units. When facelifted, these units became standard across the range. All W115 engines were carried over, with the 3-litre 5-cylinder diesel model being renamed from “240D 3.0” to “300D” (as it had already been called before in North American markets). The only new engine was the 250’s 2,525 cc inline-six (Type M123, a short-stroke version of the 2.8-litre six Type M110) that replaced the old 2,496 cc Type M114 “six”. In the spring of 1976, a Coupé version was introduced on a shorter wheelbase than the saloon (106.7 in versus 110.0 in). This W123C/CE was available as a 230C (later 230CE) and as a 280C/CE in most markets; in North America there were additional 300CD versions with naturally aspirated, later turbocharged 3-litre diesel engines. In North America, buyers favored diesel engines for upmarket cars, while CAFE legislation meant that Mercedes-Benz North America had to lower their corporate average fuel economy. This led to the introduction of a few diesel models only sold in the United States. It is a tribute to the car’s instant popularity – and possibly to the caution built into the production schedules – that nine months after its introduction, a black market had developed in Germany for Mercedes-Benz W123s available for immediate delivery. Customers willing to order new cars from their local authorised dealer for the recommended list price faced waiting times in excess of twelve months. Meanwhile, models that were barely used and were available almost immediately commanded a premium over the new price of around DM 5,000. From August 1976, long-wheelbase versions (134.8 in) were produced. These were available as 7/8 seater saloons with works bodies or as a chassis with complete front body clip, the latter serving as the base for ambulance and hearse bodies by external suppliers like Binz or Miesen. These “Lang” versions could be ordered as 240D, 300D and 250 models. At the Frankfurt Auto Show in September, 1977 the W123T estate was introduced; the T in the model designation stood for “Touring and Transport”. All engines derivative except “200TD” were available in the range. T production began in March, 1978 in Mercedes’ Bremen factory. It was the first factory-built Mercedes-Benz estate, previous estates had been custom-built by external coachbuilders, such as Binz. In early 1979, the diesel models’ power output was increased; power rose from 54 hp to 59 hp in the 200D, from 64 hp to 71 hp in the 240D and from 79 hp to 87 hp in the 300D; at the same time, the 220D went out of production. The first Mercedes turbo diesel production W123 appeared in September, 1981. This was the 300 TD Turbodiesel, available with automatic transmission only. In most markets, the turbocharged 5-cylinder 3-litre diesel engine (Type OM617.95) was offered only in the T body style, while in North America it was also available in saloon and coupé guises. June 1980 saw the introduction of new four-cylinder petrol engines (Type M102). A new 2-litre four with shorter stroke replaced the old M115, a fuel-injected 2.3-litre version of this engine (in 230E/TE/CE) the old carburettor 230. Both engines were more powerful than their predecessors. In 1980/81, the carburettor 280 versions went out of production; the fuel-injected 280E continued to be offered. In September 1982, all models received a mild facelift. The rectangular headlights, previously fitted only to the 280/280E, were standardised across the board, as was power steering. Since February 1982, an optional five-speed manual transmission was available in all models (except the automatic-only 300 turbodiesel). W123 production ended in January, 1986 with 63 final T-models rolling out. Most popular single models were the 240D (455,000 built), the 230E (442,000 built), and the 200D (378,000 built). The W123 introduced innovations including ABS (optional from August, 1980), a retractable steering column and an airbag for the driver (optional from 1982). Power (vacuum servo) assisted disc brakes were standard on all W123s. Available options included MB-Tex (Mercedes-Benz Texturized Punctured Vinyl) upholstery or velour or leather upholstery, interior wood trim, passenger side exterior mirror (standard on T models), 5-speed manual transmission (European market only), 4-speed automatic transmission (standard in turbodiesel models), power windows with rear-seat switch cut-outs, vacuum powered central locking, rear-facing extra seats (estate only), Standheizung (prestart timer-controlled engine heating), self-locking differential, sun roof, air conditioning, climate control, “Alpine” horn (selectable quieter horn), headlamp wipers (European market only), Tempomat (cruise control), power steering (standard after 1982/08), seat heating, catalytic converter (available from 1984 for California only, from fall (autumn) 1984 also in Germany for the 230E of which one thousand were built). These days, the cars are very popular “youngtimer” classics, with all models highly rated.

Mercedes spent over £600 million researching and developing the 190 and subsequently said it was ‘massively over-engineered’. It marked a new venture for Mercedes-Benz, finally giving it a new smaller model to compete with the likes of the BMW 3 Series. The W201-based 190 was introduced in November 1982, and was sold in right-hand drive for the UK market from September 1983. Local red tape in Bremen (which produced commercial vehicles at the time) prevented Daimler-Benz from building the 190 there, so production was started in Sindelfingen at a capacity of just 140,000 units per year. Eventually after just the first year, Bremen was cleared for production of the 190, replacing its commercial vehicle lines, and there the 190 was built with the first running modifications since release. Initially there were just two models, the 190 and 190 E. Each was fitted with an M102 1,997 cc displacement engine. The 190 was fitted with an M102.921 90 hp engine and the 190 E fitted with an M102.962 122 hp engine. In September 1983, the 190 E 2.3 (2,299 cc) was released for the North American market only (although a 190 E 2.3 appeared in other countries later), fitted with a 113 hp M102.961 engine. This reduction in power was due to the emissions standards in the North American market at the time. The intake manifold, camshaft, and fuel injection system were refined in 1984, and the engine produced 122 hp. The carburettor 190 was revised in 1984 as well, increasing its horsepower rating to 105 hp. 1984 also saw the arrival of the 2.3-16 “Cosworth.” In 1985, the 190 E 2.3 now came fitted with the M102.985 engine, producing 130 hp until it was revised in 1987 to use Bosch KE3-Jetronic Injection, a different ignition system, and a higher compression ratio, producing 136 hp. 1987 marked the arrival of the first inline-six equipped 190, the 190 E 2.6. Fitted with the M103.940 engine, the 190 E 2.6 provided 160 hp with a catalyst and 164 hp without. In the North American market, the 190 E 2.6 was sold until 1993, the end of the W201 chassis’s production. From 1992-1993 the 2.6 was available as a special “Sportline” model, with an upgraded suspension and interior. The 190 E 2.3 was sold until 1988, then went on a brief hiatus until it was sold again from 1991 until 1993. The W201 190 D is known for its extreme reliability and ruggedness with many examples doing more than 500,000 miles without any major work. The 190 D was available in three different engines. The 2.0 was the baseline, and was never marketed in North America. The 2.2, with the same power as the 2.0, was introduced in September 1983. It was only available in model years 1984 and 1985, and only in the USA and Canada. The 2.5 was available in the late 80’s and early 90’s. The 2.5 Turbo, while sold in mainland Europe, but not the UK for many years, was available to American buyers only in 1987 and is now somewhat of a collectors item. The exterior of the 2.5 Turbo is different from other models in that it has fender vents in the front passenger side wing for the turbo to breathe. Although the early cars were very basic and not very powerful, they sold strongly, and things only got better as the model evolved, with the result that over 1.8 million had been produced by the time the W202 model arrived in 2002 to replace it.

The Mercedes-Benz W124 is a range of executive cars made by Daimler-Benz from 1984 to 1997. The range included numerous body configurations, and though collectively referred to as the W-124, official internal chassis designations varied by body style: saloon (W 124); estate (S 124); coupé (C 124); cabriolet (A 124); limousine (V 124); rolling chassis (F 124); and long-wheelbase rolling chassis (VF 124). From 1993, the 124 series was officially marketed as the E-Class. The W 124 followed the 123 series from 1984 and was succeeded by the W 210 E-Class (saloons, estates, rolling chassis) after 1995, and the C 208 CLK-Class (coupés, and cabriolets) in 1997. In North America, the W124 was launched in early November 1985 as a 1986 model and marketed through the 1995 model year. Series production began at the beginning of November 1984, with press presentation on Monday, 26 November 1984 in Seville, Spain, and customer deliveries and European market launch starting in January 1985. The W124 was a mid-sized vehicle platform, which entered planning in the autumn of 1976 under development Hans Scherenberg. In July 1977, the W124 program officially began, with R&D commencing work under newly appointed Werner Breitschwerdt. In April 1978, decisions were made to base it on the Mercedes-Benz W201 model program. By April 1979, a package plan was completed for the program, laying out the guidelines of the project. During the winter of 1980–1981, the final exterior for the W124 program was completed, chosen as the leading proposal by design director Bruno Sacco, and approved by the board of management in early 1981. By mid-1982, the first prototypes reflective of the production design, were assembled and sent to testing. In March 1984, pilot production commenced and development of the sedan concluded with engineering sign-off. Front suspension used a separate spring and damper with a rubber top mount. The rear suspension of the W124 featured the Mercedes multi-link axle introduced in 1982 with the Mercedes W201 and which is now standard on many modern cars. Estate cars (and optionally, saloons and coupés) had Citroën-like rear self-levelling suspension with suspension struts rather than shock absorbers, gas-filled suspension spheres to provide damping and an under bonnet pressurizing pump. Unlike the traditional Citroën application, the Mercedes suspension system had a fixed ride height and employed rear coil springs to maintain the static ride height when parked. The W124 was the first Mercedes series to be fitted with the iconic 15-hole, flat-faced alloy wheels characteristic of Mercedes-Benz cars of the 1980s and 1990s. The alloy wheels were nicknamed ‘Gullideckel’ or manhole covers, because they resemble manhole or drainage covers in Germany, which are consistently round in shape with a series of 15- or 16-holes around the outer edge, often within a concentric ring. Gullideckel wheels in a variety of diameter and offset specifications were later incorporated into the facelift versions of the W126 S-Class, R107 SL and W201 190E series, and were also the ‘non-option’ wheel on the R129 SL-Class roadster. Much of the 124’s engineering and many of its features were advanced automotive technology at its introduction, incorporating innovations that have been adopted throughout the industry. It had one of the lowest coefficient of drag (Cd) of any vehicle of the time (0.28 for the 200/200D model for the European market with 185/65 R15 tyres) due to its aerodynamic body, that included plastic moulding for the undercarriage to streamline airflow beneath the car, reducing fuel consumption and wind noise. It had a single windscreen wiper that had an eccentric mechanism at its base that extended the wiper’s reach to the top corners of the windscreen (more than if it had travelled in a simple arc). The saloon/sedan, coupés and convertibles had optional rear headrests that would fold down remotely to improve rearward visibility when required. This feature was not available for the T-model because of its specific layout (no space to store the retractable headrests), but the estate serially came with a “neighbour-friendly” rear door that was pulled in the shut-position silently and automatically by a sensor-controlled servomotor. This allowed the use of a tighter fitting rear gate, minimizing the cabin noise in the T-model – sometimes an area of concern for station wagons. The estate cars (chassis designation S124) came in 5 or 7-seat models, the 7-seater having a rear-facing bench seat that folded flush luggage compartment cover and an optional (in the US until 1994) retractable cargo net. To provide a flat loading floor with the seat folded down, the T-model’s rear seat squab was mounted about 10 cm (3.9 in) higher than in saloons, robbing rear seat passengers of some head room. The S124 estate continued in production alongside the new W210 until the S210 estate launched more than a year later. A two-door coupé version was also built, with the chassis designation C124. The E 320, E 220, and E 200 cabriolets ceased production in 1997. Indian assembly (in a joint-venture with Telco called Mercedes-Benz India) began in March 1995. Offered with five-cylinder diesel engines built by Mercedes’ Indian partner Bajaj Tempo, the W124 was replaced there in December 1997. The pre-facelift models from 1985 to 1993 used the model designations: 200/200 T (carburettor), 200 E/200 TE (originally intended for Italian market due to Italy’s tax rates on cars larger than 2 liters; available in Germany since September 1988),[ 200 CE, 230 E/230 TE, 230 CE, 260 E (saloon only), 300 E/TE, 300 CE, 300 E-24/300 CE-24/300 TE-24 valve, 400 E (not in the UK), & 500 E (LHD only in the UK). Diesel models consisted of the following designations; the 200 D/200 TD (not in the UK), 250 D/250 TD and the 300 D/300 TD. Facelift models produced from 1993 to 1996 used the following model designations: E 200, E 220, E 280, E 320, E 420 (not in the UK) & E 500 (LHD only in the UK). Both saloon and estate versions of the facelifted model carried the same model designation on their boot lid, i.e. the T was no longer used for estate versions. In the UK post-facelift diesels were E 250 Diesel (saloon only) and E 300 Diesel (saloon & estate) models. The W124 was also offered as a long wheelbase saloon targeted for taxi companies, but the more luxury equipped version was also used as a limousine .Daimler lists November 1984 as the start of production for the series but also lists 1985 as part of preproduction for any specific early model. No regular deliveries occurred in 1984.

Designed in 1984, and launched in 1989, the R129 was based on the shortened floorpan of the Mercedes-Benz W124 and featured many innovative details for the time, for instance electronically controlled damping (Adaptive Damping System ADS, optional) and a hidden, automatically extending roll-over bar. The R107’s somewhat dated rear suspension with semi-trailing arms gave way to a modern multi-link axle. The number of standard features was high, with electric action for the windows, mirrors, seats and hydraulic convertible top. This car has the distinction of being the first passenger vehicle to have seat belts integrated into the seats as opposed to anchoring to the floor, B-pillar, and transmission tunnel. Initially, there were three different engines available: 300 SL with a M103 3.0 L 12-valve SOHC I6 (188 bhp), a 300 SL-24 with a M104 3.0 L 24-valve DOHC I6 (228 bhp)  and the 500 SL with a M119 5.0 L 32-valve DOHC V8 (322 bhp) . These were joined in July 1992 by the 600 SL with a M120 6.0 L 48-valve DOHC V12 (389 bhp). There was a choice of 5-speed manual or 4–5 speed automatic for the six-cylinder cars; the V8 and V12 could only be ordered with a 4-speed automatic gearbox. In autumn 1993 Mercedes-Benz rearranged names and models. Also, the 300 SL and 300 SL-24 were respectively replaced by:  SL 280 with a M104 2.8 L 24-valve DOHC I6 (190 bhp) and the SL 320 with a M104 3.2 L 24-valve DOHC I6 (228 bhp). Only the 280 was available with a manual gearbox. SL 500 and 600 continued with their respective engines. Starting in 1993, the cars were re-designated. For example, 500 SL became SL 500. Starting in model year 1994, Mercedes-Benz offered special SL models from time to time, such as the Mille Miglia edition cars of model year 1994 or the SL edition of model year 2000. 1994 cars had minor updates for the car and then in 1995 there was a minor facelift for the car, with the front fender vents updated to only 2 rounded slots, rather than 3 squared slots, and bumpers in body colour. The V8 and V12s were  upgraded to 5 speed electronic transmission, the previous transmission was hydraulic 4-speed. A second facelift occurred in 1998 with many detailed changes applied, including  new external mirrors, 17″ wheels and new bumpers. Also new were the engines, a SL 280 with a M112 2.8 L 18-valve SOHC V6 (201 bhp);  SL 320 with a M112 3.2 L 18-valve SOHC V6 (221 bhp) and a  SL 500 with a M113 5.0 L 24-valve SOHC V8 (302 bhp). The V12 engine remained unchanged. The car was replaced by the R230 generation SL in 2001, after 213,089 had been built. There were a number of very low volume AMG versions of the car, including this SL70 AMG. This was powered by a 7.1 litres (7,055 cc) V12 engine developing 496 PS (489 bhp) at 5,500 rpm and a maximum torque of 720 Nm (531 lb/ft) at 3,900 rpm. It was a bored out version of M120 6.0 V12 and with a longer stroke. Produced between 1996 and 1997, just 150 units were made.

The CLK 63 AMG Black Series is a high-performance version of the CLK 63 AMG coupé, produced between 2007 and 2009. 500 examples were produced in total, with 349 headed to the United States and only 120 examples built with right-hand drive. It is powered by the M156 6.2 L (6,208 cc) V8, producing 500 bhp at 6,800 rpm and 630 Nm (465 lb/ft) of torque at 5,250 rpm. It uses Pirelli P-Zero Corsa tyres and features Mercedes’ SpeedShift 7G-Tronic transmission. Additional features also include a manually adjustable suspension system designed and manufactured by KW, a limited-slip differential, larger air intakes, bucket seats, 19-inch alloy wheels, a spoiler, diffuser, and wider fenders made of carbon fibre. The rear seats have also been removed in order to save weight, and the top speed has been increased to 300 km/h (186 mph)

The SLS was the first Mercedes-Benz designed and built from scratch entirely by AMG. Upon its introduction at the 2009 Frankfurt Motor Show, the SLS AMG’s 571 PS (563 bhp) M159 engine was according to AMG “the world’s most powerful naturally aspirated production series engine” ever produced. The SLS AMG was designed by Mark Fetherston to be a modern 300SL Gullwing, adopting the feature of the gull-wing doors that swing open upwards on gas struts, and must be closed manually as AMG engineers decided against the 41 kg (90 lb) of additional weight that auto-closing systems would have added to the car. In case of a roll-over, the doors can be fully detached to allow the occupants to leave the vehicle. The SLS AMG Roadster was unveiled at the 2011 Frankfurt International Motor Show, as convertible variant, with conventional doors and three-layered fabric soft top (having a magnesium, steel and aluminium construction) which opens and closes in 11 seconds, and can be operated on the move at up to 50 km/h (31 mph). The roadster’s DIN kerb weight is 40 kg (88 lb) more than the SLS AMG Coupé. Certain reinforcements were made to the roadster in order to compensate for the loss of roof which includes side skirts with greater wall thicknesses and more chambers, a dashboard cross-member is supported against the windscreen frame and centre tunnel by additional struts, a curved strut between the soft top and the tank reinforces the rear axle, a reinforcing cross-member behind the seats to support the fixed roll-over protection system. An electric version of the car, the SLS AMG Electric Drive, was presented at the 2012 Paris Motor Show, but never entered production. The more focused Black Series, with more power and reduced weight did, though, following a presentation at the 2012 Los Angeles Show. Plenty of special editions of the car did, though, culminating in the 2014 SLS AMG GT Final Edition. The SLS was replaced by the somewhat cheaper (to build and hence to buy) AMG GT which remains in production. Seen here was the SLS AMG E-Cell. Unveiled at the 2011 North American International Auto Show, the SLS AMG E-Cell is based on the SLS AMG Coupé, but is powered by four electric motors that provide a combined power output of 533 PS/526 bhp and 880 Nm (649 lb/ft). The battery is a 400 Volt lithium unit with a capacity of 48 kWh. Other features include pushrod damper struts, 402 x 39 mm (front) and 360 x 32 mm (rear) carbon ceramic brake discs. Full-LED headlamps, AMG 10-spoke light-alloy wheels with smooth-surfaced design, 265/35 R 19 (front) and 295/30 R 20 (rear) tyres, AMG Drive Unit angled towards the driver, sports seats made of quality Nappa leather in a black/white colour combination, performance leather/Alcantara steering wheel and the door linings, centre tunnel. The battery was manufactured by Deutsche Accumotive GmbH & Co. KG, a joint venture between Daimler AG and Evonik Industries AG. The drivetrain has been in development since 2010 as a result of the cooperation between Mercedes-AMG and Mercedes AMG High Performance Powertrains in Brixworth.

Something rather different is this, the “Black Crystal AMG”, a custom 2016 Mercedes-AMG GT S hand-embellished with 1.2 million black Swarovski crystals applied by Vince Vinceri. These were hand-applied over 5 months, featuring 500 colour-changing interior LED lights. The car has been tuned by Mac Tuning to roughly 580–600 bhp and 800 Nm of torque.

MESSERSCHMITT

The Messerschmitt KR200, or Kabinenroller (Cabin Scooter), is a three-wheeled bubble car designed by the aircraft engineer Fritz Fend and produced in the factory of the German aircraft manufacturer Messerschmitt from 1955 until 1964. Messerschmitt, temporarily not allowed to manufacture aircraft, had turned its resources to making other products. In 1952, Fend approached Messerschmitt with the idea of manufacturing small motor vehicles. These were based on his Fend Flitzer invalid carriage. The first of Fend’s vehicles to enter production at Messerschmitt’s Regensburg factory was the KR175. The title Kabinenroller means “scooter with cabin”. While the Messerschmitt name and insignia were used on the car, a separate company, incorporated as Regensburger Stahl- und Metallbau GmbH, was created to manufacture and market the vehicle. The KR200 replaced the KR175 in 1955. While using the same basic frame as the KR175 with changes to the bodywork (notably including wheel cutouts in the front fenders) and an improved canopy design, the KR200 was otherwise an almost total redesign. The rear suspension and engine mounting were reworked, and hydraulic shock absorbers were installed at all three wheels. Tire sizes were enlarged to 4.00×8. Retailing for around DM 2,500, the KR200 was considered an instant success with almost 12,000 built during its first year, which was the highest annual production for Kabinenroller models. A maximum speed in excess of 90 km/h (56 mph) despite a claimed power output of only 10 PS, 1 more PS than the 175 cc engine from the KR175, reflected the vehicle’s light weight and low aerodynamic drag. The KR200, however, was 23 kg heavier than the KR175 it replaced but had a 10 km/h (6 mph) higher top speed. An “Export” package included a two-tone paint scheme, painted hubcaps, a fully trimmed interior, a heater, a clock, and a sunshade for the canopy. In 1956, around a year after West Germany joined NATO, Messerschmitt was allowed to manufacture aircraft again and lost interest in Fend’s microcars. Messerschmitt sold the Regensburg works to Fend who, with brake and hub supplier Valentin Knott [de], formed Fahrzeug- und Maschinenbau GmbH Regensburg (FMR) to continue production of the KR200 and his other vehicles. In 1957 the KR201 Roadster was launched and remained in production until 1964 with very limited numbers produced. It had a frameless windscreen with no window frames, an optional folding cloth roof and removable side curtains made from transparent plastic. In February 1958, the KR200 Kabrio Limousine model was released, featuring a cloth convertible top and fixed side window frames. A Sport model was later offered with a cut down plexiglas windscreen with no roof and with fixed side panels so that the driver would have to climb in and out at the top of the car. Production of the Sport was extremely limited and, apart from the KR200 ‘Super’ it is the rarest type of KR200. Production of the KR200 was heavily reduced in 1962 and ceased in 1964 as sales had been dropping for a few years. The demand for basic economical transport in Germany had diminished as the German economy boomed. A similar situation developed in other parts of Europe such as in the manufacturer’s biggest export destination, the United Kingdom, where sales were particularly affected by the increasing popularity of the Mini. A total of 30,286 units of the KR200 were built.

MEYERS MANX

The Meyers Manx dune buggy is a small recreationally-oriented automobile, designed initially for desert racing by Californian engineer, artist, boat builder and surfer Bruce F. Meyers. It was produced by his Fountain Valley, California company, B. F. Meyers & Co. from 1964 to 1971, in the form of car kits applied to shortened chassis of Volkswagen Beetles. The car line dominated dune racing in its time, breaking records immediately, and was eventually also released in street-oriented models, until the company’s demise due to tax problems after Meyers’s departure. New vehicles inspired by the original Manx buggy have been produced by Meyers’s re-founded operation, Meyers Manx, Inc., since 2000. The name and cat logo of the brand derives from the Manx cat, by virtue of the tailless breed’s and the shortened vehicle’s truncated “stubbiness”. Drawing on his experience in sailboat construction, Meyers modeled and built his first dune buggy, “Old Red”, a shortened VW Beetle with a monocoque, fiberglass shell and Chevrolet pickup truck (trailing arm style) suspension, in late 1963 to May 1964 in his garage in Newport Beach, California. The first known street-legal fiberglass dune buggy, it featured a unibody shell that fused body, fenders and frame, retaining just the engine, transmission and other mechanicals of the VW, and with no top and no hood. The use of compound curves throughout provided great rigidity. The fenders were arched high, to make room for large, knobby dirt-racing wheels. The “Manx” name for the shortened, taller-wheeled, more maneuverable VW Beetle mods refers to and derives from the comparably stubby Manx cat breed,  colloquially called “stubbins”; they are short-spined and stub-tailed-to-tailless, long-legged, and known for their turning ability while chasing. The Meyers Manx logo prominently features a Manx cat.  The tailless cat in the logo, as featured on the hood ornament, is stylized after a passant heraldic lion, its right forepaw brandishing a sword. The name also suggests racing fitness, as the already globally renowned, British-manufactured Norton Manx motorcycle dominated the Isle of Man TT, Manx Grand Prix and other Isle of Man-based (i.e. Manx) international races from the 1940s to the early 1970s. The Meyers Manx has no direct connection to the Isle of Man. Meyers produced kits later in 1964 and into 1965, marketed under the name Meyers Manx.  Although this early design was critically acclaimed, even featured on the April 1967 cover of Car & Driver magazine, and drew much attention, it proved too expensive to be profitable; ultimately only 12 kits of the monocoque Manx were produced. Meyers and a friend (both amateur racers) broke by over four hours the Ensenada – La Paz run’s record of 39 hours, until then held by a pro racer.  According to James Hale, compiler of the Dune Buggy Handbook, this feat ushered in an era of Meyers Manx “domination in off-road events … and the formation of NORRA (National Off-Road Racing Association)”. The commercially manufactured Meyers Manx Mk I featured an open-wheeled fiberglass bodyshell, coupled with the Volkswagen Beetle H4 flat-four engine (1.2 L, 1.3 L, 1.5 L and 1.6 L, in different models) and a modified, RR-layout Beetle frame. It is a small car, with a wheelbase 14¼ inches (36.2 cm) shorter than a Beetle automobile for lightness and better maneuverability. For this reason, the car is capable of very quick acceleration and good off-road performance, despite not being four-wheel drive. The usually street-legal car redefined and filled a recreational and competitive niche that had been essentially invented by the first civilian Jeep in 1945, and which was later to be overtaken by straddle-ridden, motorcycle-based all-terrain vehicles (introduced in 1970) and newer, small and sporty (but usually four-wheel-drive), off-road automobiles. The commercial Meyers Manx received widespread recognition when it defeated motorcycles, trucks and other cars to win the inaugural 1967 Mexican 1000 race (the predecessor of the Baja 1000). It crossed automotive press genre lines, being selected as the cover story in the August 1966 issue of Hot Rod magazine. Approximately 6,000 of the original Meyers Manx dune buggies were produced, but when the design became popular many copies (estimated at a quarter of a million worldwide) were made by other companies. Although already patented, Meyers & Co. lost in court to the copiers, the judge rescinding his patent as unpatentable, opening the floodgates to the industry Meyers started.[citation needed] Since then, numerous vehicles of the general “dune buggy” or “beach buggy” body type, some VW-based, others not, have been and continue to be produced. An early example was the Imp by EMPI (1968–1970), which borrowed stylistic elements from the Chevrolet Corvette but was otherwise Manx-like. A later 1970s Manx clone was the Dune Runner from Dune Buggy Enterprises in Westminster, California. The Meyers company attempted to stay ahead of this seemingly unfair competition with the release of the distinctive, and harder-to-copy, Meyers Manx Mk II design. B. F. Meyers & Co. also produced other Beetle-based vehicles, including the May 1970 Car & Driver magazine cover sporty Manx SR variant (street roadsters, borrowing some design ideas from the Porsche 914), the Meyers Tow’d (sometimes referred to as the “Manx Tow’d”, a non-street-legal racing vehicle designed to be towed to the desert or beach), the Meyers Tow’dster (a street-legal hybrid of the two, and Meyers Resorter a.k.a. Meyers Turista (a small recreational or “resort” vehicle inspired by touring motorcycles). The Manx SR2 was a modified SR that was only produced by later manufacturers including Karma Coachworks, Heartland Motors and Manx Motors of MD. While the Tow’d was a minimal off-road racer and the SR/SR2 was a showy roadster, the Tow’dster was a compromise between a dune-capable vehicle and a more utilitarian street rod, and “paved the way for the rail-type buggy that was to dominate the buggy scene following the demise of the traditional Manx-type buggy.” The company ceased operation in 1971, after financial troubles, including with the Internal Revenue Service and Bruce Meyers himself had already left his own company by then.

MG

The post-war TC was replaced in 1950 by the TD, which combined the TC’s drivetrain, a modified hypoid-geared rear axle, the MG Y-type chassis, a familiar T-type style body and independent suspension using coil springs from the MG Y-type saloon. A 1950 road-test report described as “most striking” the resulting “transformation … in the comfort of riding”. Also lifted from the company’s successful 1¼-litre YA saloon for the TD was the (still highly geared) rack and pinion steering. In addition the TD featured smaller 15-inch disc type road wheels, a left-hand drive option and standard equipment bumpers and over-riders. The car was also 5 inches wider with a track of 50 inches. For the driver the “all-weather protection” was good by the standards of the time. For night driving, instrument illumination was “effective but not dazzling, by a pale green lighting effect”.  There was still no fuel gauge, but the 12 gallon tank capacity gave a range between refuelling stops of about 300 miles and a green light on the facia flashed a “warning” when the fuel level was down to about 2½ gallons. In 1950 the TD MkII Competition Model was introduced, produced alongside the standard car, with a more highly tuned engine using an 8.1:1 compression ratio giving 57 bhp at 5,500 rpm. The higher compression ratio engine was offered with export markets in mind, and would not have been suitable for the UK, where thanks to the continued operation of wartime fuel restrictions, buyers were still limited to 72 octane “Pool petrol”. The TD MkII also featured twin fuel pumps, additional Andrex dampers, and a higher ratio rear-axle. Nearly 30,000 TDs had been produced, including about 1700 Mk II models, when the series ended in 1953 with all but 1656 exported, 23,488 of them to the US alone.

The MGA replaced the long running T Series sports cars and presented a complete styling break from MG’s earlier sports cars. Announced on 26 September 1955, the car was officially launched at the Frankfurt Motor Show. A total of 101,081 units were sold through the end of production in July 1962, the vast majority of the 58.750 cars made were exported. Only 5869 cars were sold on the home market, the lowest percentage of any British car. It was replaced by the MGB. The MGA design dates back to 1951, when MG designer Syd Enever created a streamlined body for George Philips’ TD Le Mans car. The problem with this car was the high seating position of the driver because of the limitations of using the TD chassis. A new chassis was designed with the side members further apart and the floor attached to the bottom rather than the top of the frame sections. A prototype was built and shown to the BMC chairman Leonard Lord. He turned down the idea of producing the new car as he had just signed a deal with Donald Healey to produce Austin-Healey cars two weeks before. Falling sales of the traditional MG models caused a change of heart, and the car, initially to be called the UA-series, was brought back. As it was so different from the older MG models it was called the MGA, the “first of a new line” to quote the contemporary advertising. There was also a new engine available, therefore the car did not have the originally intended XPAG unit but was fitted with the BMC corporate B-Series type allowing a lower bonnet line. The MGA convertible had no exterior door handles, however the coupe did. It was a body-on-frame design and used the straight-4 1489cc “B series” engine from the MG Magnette saloon driving the rear wheels through a 4-speed gearbox. Suspension was independent with coil springs and wishbones at the front and a rigid axle with semi-elliptic springs at the rear. Steering was by rack and pinion. The car was available with either wire-spoked or steel-disc road wheels. The 1489 cc engine fitted with twin H4 type SU Carburettors produced 68 hp at first, but was soon uprated to 72 hp. Lockheed hydraulic drum brakes were used on all wheels. A high-performance Twin-Cam model was added for 1958. It used a high-compression (9.9:1 later 8.3:1) DOHC aluminium cylinder head version of the B-Series engine producing 108 hp. Due to detonation problems, a 100 bhp low-compression version was introduced later. Four-wheel disc brakes by Dunlop were fitted, along with Dunlop peg drive knock-off steel wheels similar to wheels used on racing Jaguars, unique to the Twin-Cam and “DeLuxe” MGA 1600 and 1600 MkII roadsters. These wheels and chassis upgrades were used on a small number of the “DeLuxe” models built after Twin-Cam production came to a halt. Aside from the wheels, the only outside identifier was a “Twin-Cam” logo near the vent aside the bonnet. A careful look at the rear wheel vents would also reveal another feature unique to Twin-Cam and DeLuxe: those 4 wheel Dunlop disc brakes . The temperamental engine was notorious for warranty problems during the course of production, and sales dropped quickly. The engine suffered from detonation and burnt oil.  Most of the problems with the Twin-Cam engine were rectified with the low-compression version, but by then the damage had been done. Many restored Twin-Cams are running more reliably today than they ever did during production. The Twin-Cam was dropped in 1960 after 2,111 had been produced. Production ended in April 1960, but had slowed to a trickle long before. In May 1959 the standard cars also received an updated engine, now at 1588 cc producing 79.5 bhp . At the front disc brakes were fitted, but drums remained in the rear. Externally the car was very similar to the 1500 with differences including: amber or white (depending on market) front turn indicators shared with white parking lamps, separate stop/tail and turn lamps in the rear, and 1600 badging on the boot and the cowl. 31,501 of these were produced in less than three years. A number of 1600 De Luxe versions were produced with leftover special wheels and four-wheel disc brakes of the departed Twin-Cam, or using complete modified Twincam chassis left redundant by the discontinuance of that model. Seventy roadsters and 12 coupés were built. The engine size was increased again to 1622 cc by increasing the bore from 75.4 mm to 76.2 mm for the 1961 Mark II MGA. The cylinder head was also revised with larger valves and re-engineered combustion chambers. Horsepower increased to 90 bhp. It also had a higher ratio 4:1 rear axle, which made for more relaxed high-speed driving. An inset grille and Morris Mini tail lamps appearing horizontally below the deck lid were the most obvious visual changes. 8,198 Mark II roadsters and 521 coupés were built. As with the 1600 De Luxe, there were also some Mark II De Luxe versions; 290 roadsters and 23 coupés were produced.

As one of Britain’s most popular classic cars, it was no surprise to find several examples of the MGB here, with cars from throughout the model’s long life, both in Roadster and MGB GT guise, as well as one of the short-lived V8 engined cars. Launched in October 1962, this car was produced for the next 18 years and it went on to become Britain’s best selling sports car.  When first announced, the MGB was an innovative, modern design, with a monocoque structure instead of the traditional body-on-frame construction used on both the MGA and MG T-types and the MGB’s rival, the Triumph TR series, though components such as the brakes and suspension were developments of the earlier 1955 MGA and the B-Series engine had its origins back in 1947. The lightweight design reduced manufacturing costs while adding to overall vehicle strength, and with a 95hp 3-bearing 1798cc engine under the bonnet, performance was quite respectable with a 0–60 mph time of just over 11 seconds. The car was rather more civilised than its predecessor, with wind-up windows now fitted as standard, and a comfortable driver’s compartment offered plenty of legroom. The roadster was the first of the MGB range to be produced. The body was a pure two-seater but a small rear seat was a rare option at one point. By making better use of space the MGB was able to offer more passenger and luggage accommodation than the earlier MGA while being 3 inches shorter overall. The suspension was also softer, giving a smoother ride, and the larger engine gave a slightly higher top speed. The four-speed gearbox was an uprated version of the one used in the MGA with an optional (electrically activated) overdrive transmission. A five-bearing engine was introduced in 1964 and a number of other modifications crept into the specification. In late 1967, sufficient changes were introduced for the factory to define a Mark II model. Alterations included synchromesh on all 4 gears with revised ratios, an optional Borg-Warner automatic gearbox, a new rear axle, and an alternator in place of the dynamo with a change to a negative earth system. To accommodate the new gearboxes there were significant changes to the sheet metal in the floorpan, and a new flat-topped transmission tunnel. US market cars got a new safety padded dashboard, but the steel item continued for the rest of the world. Rostyle wheels were introduced to replace the previous pressed steel versions in 1969 and reclining seats were standardised. 1970 also saw a new front grille, recessed, in black aluminium. The more traditional-looking polished grille returned in 1973 with a black “honeycomb” insert. Further changes in 1972 were to the interior with a new fascia. To meet impact regulations, in late 1974, the chrome bumpers were replaced with new, steel-reinforced black rubber bumpers, the one at the front incorporating the grille area as well, giving a major restyling to the B’s nose, and a matching rear bumper completed the change. New US headlight height regulations also meant that the headlamps were now too low. Rather than redesign the front of the car, British Leyland raised the car’s suspension by 1-inch. This, in combination with the new, far heavier bumpers resulted in significantly poorer handling. For the 1975 model year only, the front anti-roll bar was deleted as a cost-saving measure (though still available as an option). The damage done by the British Leyland response to US legislation was partially alleviated by revisions to the suspension geometry in 1977, when a rear anti-roll bar was made standard equipment on all models. US emissions regulations also reduced horsepower. In March 1979 British Leyland started the production of black painted limited edition MGB roadsters for the US market, meant for a total of 500 examples. Due to a high demand of the limited edition model, production ended with 6682 examples. The United Kingdom received bronze painted roadsters and a silver GT model limited editions. The production run of home market limited edition MGBs was split between 421 roadsters and 579 GTs. Meanwhile, the fixed-roof MGB GT had been introduced in October 1965, and production continued until 1980, although export to the US ceased in 1974. The MGB GT sported a ground-breaking greenhouse designed by Pininfarina and launched the sporty “hatchback” style. By combining the sloping rear window with the rear deck lid, the B GT offered the utility of a station wagon while retaining the style and shape of a coupe. This new configuration was a 2+2 design with a right-angled rear bench seat and far more luggage space than in the roadster. Relatively few components differed, although the MGB GT did receive different suspension springs and anti-roll bars and a different windscreen which was more easily and inexpensively serviceable. Although acceleration of the GT was slightly slower than that of the roadster, owing to its increased weight, top speed improved by 5 mph to 105 mph because of better aerodynamics. 523,826 examples of the MGB of all model types were built, and although many of these were initially sold new in North America, a lot have been repatriated here.

The 1961 Midget resurrected the name that was used by MG for their smallest car, the M Type, in the late 20s, was the Midget announced in 1961, and was essentially a slightly more expensive badge-engineered version of the MkII Austin-Healey Sprite. The original ‘Frogeye’ Sprite had been introduced specifically to fill the gap in the market left by the end of production of the MG T-type Midget as its replacement, the MGA had been a significantly larger and more expensive car with greater performance. Many existing MG enthusiast and buyers turned to the Sprite to provide a modern low-cost sports car and so a badge-engineered MG version reusing the Midget name made sense. The new Midget differed from the Sprite only in its grille design, badging, colour options and having both leather seats and more external chrome trim as standard to justify its higher purchase price. Mechanically the car was identical to its Austin-Healey counterpart, retaining the rear suspension using quarter-elliptic leaf springs and trailing arms from the ‘Frogeye’. The engine was initially a 948 cc A-Series with twin SU carburettors producing 46 hp at 5500 rpm and 53 lb/ft at 3000 rpm. Brakes were 7″ drums all round. A hard top, heater, radio and luggage rack were available as factory-fitted extras. In October 1962 the engine was increased to 1098 cc, raising the output to 56 hp at 5500 rpm and 62 lb/ft at 3250 rpm, and disc brakes replaced the drums at the front. Wire spoked wheels became available. The doors had no external handles or locks and the windows were sliding Perspex side-screens. A heater was still an optional extra. The car sold well, with 16,080 of the small-engined version and 9601 of the 1098 being made before the arrival in 1964 of the Mark II. Externally the main changes were to the doors, which gained wind-up windows, swivelling quarter lights, external handles and separate locks. The windscreen also gained a slight curvature and was retained in a more substantial frame. The hood, though modified, continued to have a removable frame that had to be erected before the cover was put on. The rear springs were replaced by more conventional semi-elliptic types which gave a better ride. The engine block was strengthened and larger main bearings were fitted, increasing the power to 59 hp at 5750 rpm and torque to 65 lbf·ft at 3500 rpm. A total of 26,601 were made. 1967 saw the arrival of the Mark III. The engine now grew to 1275 cc using the development seen on the Mini-Cooper ‘S’. Enthusiasts were disappointed that this was a detuned version of the 76-bhp Cooper ‘S’ engine, giving only 65 hp at 6000 rpm and 72 lbf·ft  at 3000 rpm. A reduced compression ratio of 8.8:1 was used instead of the 9.75:1 employed on the Cooper S engine. The Midget used the 12G940 cylinder head casting that was common to other BMC 1300 cars, whereas the Cooper ‘S’ had a special head with not only larger inlet, but also larger exhaust valves; however, these exhaust valves caused many ‘S’ heads to fail through cracking between the valve seats. The detuned engine was used for reasons of model range placement – with the Cooper ‘S’ spec engine, the Midget would have been faster than the more expensive MGB. The hydraulic system gained a separate master cylinder for the clutch. The hood was now permanently attached to the car, with an improved mechanism making it much easier to use. Minor facelift changes were made to the body trim in late 1969 with the sills painted black, a revised recessed black grille, and squared off taillights as on the MGB. The 13″ “Rostyle” wheels were standardised, but wire-spoked ones remained an option. The square-shaped rear wheel arches became rounded in January 1972 and later that year a Triumph steering rack was fitted, giving a gearing that was somewhat lower than earlier Midgets. A second exhaust silencer was also added in 1972. Alternators were fitted instead of dynamos from 1973 onwards. Many consider the round-arch Midgets with chrome bumpers produced for model years 1972 and 1974 to be the most desirable. These round-arch cars started leaving the Abingdon factory in late 1971. Between 1966 and the 1969 face lift, 22,415 were made, and a further 77,831 up to 1974. In late 1974, to meet US federal regulations, large black plastic bumpers (usually called rubber bumpers, despite not actually being rubber) were added to the front and rear and the ride height was increased. The increased ride height affected handling, and an anti-roll bar was added to help with higher centre of gravity. The A-Series engine was replaced by the 1493 cc unit from the Triumph Spitfire with a modified Morris Marina gearbox with synchromesh on all four gears. The increased displacement of the new engine was better able to cope with the increasing emission regulations. Although the horsepower ratings were similar, at 65 bhp, the 1493 cc engine produced more torque. The increased output combined with taller gear ratios resulted in faster acceleration and  a top speed of just over 100 mph. In the US market British Leyland struggled to keep engine power at acceptable levels, as the engines were loaded with air pumps, EGR valves and catalytic converters to keep up with new US and California exhaust emission control regulations. The home market’s dual SU HS4 carbs were swapped for a single Zenith-Stromberg 150 CD4 unit, and the power fell to 50 bhp at 5000 rpm and 67 lb-ft of torque at 2500 rpm. The round rear-wheel arches were now square again, to increase the body strength.  The last car was made on 7 December 1979, after 73,899 of the 1500 model had been made, with the last 500 home-market cars painted black.

The MG Metro was launched in May 1982, to more than a few howls of protest from MG purists who decried the fact that it was not a proper sports car. It was, however, a well-considered upgrade on the more prosaic Austin models, and it proved popular from the outset. Styling touches included MG badging, liberal use of red inside – even the seat belts – and different wheel trims. Mechanically there were alterations, too. The changes between the MG engine (taken directly from the Mini Cooper) and the standard 1275 included a modified cylinder head, with larger valves and improved porting, altered cam profile and larger carburettor leading to a 20% increase in BHP to 72 bhp. At the October 1982 Birmingham Motor Show the MG Metro Turbo variant was first shown. With a quoted bhp of 93, 0–60 mph in 8.9 seconds, and top speed of 115 mph (185 km/h) this car had few direct competitors at the time, although the growing demand for “hot hatches” meant that it soon had a host of competitors including the Ford Fiesta XR2, Peugeot 205 GTI and Renault 5 GT Turbo. This model had a few addition modifications bolted on over the normally aspirated MG model to give an additional 21 bhp. Aside from the turbocharger and exhaust system itself, and what was (at the time) a relatively sophisticated boost delivery and control system, the MG Turbo variant incorporated stiffer suspension (purportedly with engineering input from Lotus), and an uprated crankshaft of nitrided steel and sodium-cooled exhaust valves. Both MG variants were given a “sporty” interior with red seat belts, red carpets and a sports-style steering wheel. The Turbo also benefitted from an LCD boost pressure gauge. The Turbo also received alloy wheels, black wheel arch extensions, blacked out trim, a rear spoiler surrounding the windshield, and prominent “TURBO” decals. While it retained rear drums, the front disc brakes were changed to ventilated units. The later MG variants were emblazoned with the MG logo both inside and out, which only served to fuel claims of badge engineering from some of the more steadfast MG enthusiasts. Others believed that this sentiment was unfounded, particularly in the case of the turbo variant, due to the undeniably increased performance and handling when compared to the non-MG models. From 1983, the MG badge also found its way onto higher performance versions of the Maestro, and shortly afterwards it was adopted for higher performance versions of the Montego. Sadly, there are relatively few survivors.

In advance of the all-new MX5 rival that was still some way off production, MG decided to re-enter the open topped sports car market in 1992 when they launched the MGR V8, which combined new body panels with the standard MGB body shell to create an updated MGB model. The suspension was only slightly updated, sharing the leaf spring rear of the MGB. The boot lid and doors were shared with the original car, as were the rear drum brakes. The engine was the 3.9-litre version of the aluminium Rover V8, similar to the one previously used in the MGB GT V8. A limited-slip differential was also fitted. The interior featured veneered burr elm woodwork and Connolly Leather. The engine produced 190 bhp at 4,750 rpm, achieving 0–60 mph in 5.9 seconds, which was fast but largely due to the rear drum brakes and rear leaf springs, the RV8 was not popular with road testers at the time. A large proportion of the limited production went to Japan – 1579 of the 2000 produced. Only 330 RV8s were sold initially in the UK, but several hundred (possibly as many as 700) of these cars were re-imported back to the UK and also Australia between 2000–2010 with a peak number of 485 registered at the DVLA in the UK.

Less than a year after the Rover 25 was launched, BMW sold the Rover Group to the Phoenix consortium for a token £10. By the summer of 2001, the newly named MG Rover Group introduced a sporty version of the Rover 25: the MG ZR. It had modified interior and exterior styling, as well as sports suspension, to give the car the look of a “hot” hatchback. The largest engine in the range was the 1.8 VVC 160 PS unit, which had a top speed of 130 mph . It was frequently Britain’s best-selling “hot hatch”. By 2004, the age of the Rover 25 / MG ZR’s interior design in particular was showing, so MG Rover gave the cars an exterior restyle to make them look more modern. The majority of changes however were focussed on the interior, which featured a completely new layout and fascia design. Production of both cars was suspended in April 2005 when the company went into administration. In March 2005 the 25 won the “Bargain of the Year Award” at the prestigious Auto Express Used Car Honours: “The compact hatchback was recognised by the judges for the availability and affordability that help make five-year old examples an attractive purchase proposition.”

In mid 2001, an MG version of the 45 had been launched, called the ZS, which gave MG a range of 3 different models as well as the TF sports car. The view of the press was that the suspension and steering alterations completely transformed the car, but this model was in a difficult part of the market, compared to the smaller ZR and is found fewer buyers. Those who did sample the ZS, especially in ZS 180 guise with the 2.5 litre KV6 got an absolutely cracking car though. It sported a V6 with all the aural benefits when all its rivals had 4 cylinder turbo engines. Later cars were facelifted to distinguish them more clearly from the Rover 45, with elements of the X Power bodykit being made standard.

MILITARY VEHICLES

MINI

Issigonis’ friend John Cooper, owner of the Cooper Car Company and designer and builder of Formula One cars, saw the potential of the Mini for competition. Issigonis was initially reluctant to see the Mini in the role of a performance car, but after John Cooper appealed to BMC management, the two men collaborated to create the Mini Cooper. The Austin Mini Cooper and Morris Mini Cooper debuted in September 1961. The 848 cc engine from the Morris Mini-Minor was given a longer stroke to increase capacity to 997 cc increasing power from 34 to 55 bhp. The car featured a race-tuned engine, twin SU carburettors, a closer-ratio gearbox and front disc brakes, uncommon at the time in a small car. One thousand units of this version were commissioned by management, intended for and designed to meet the homologation rules of Group 2 rally racing. The 997 cc engine was replaced by a shorter stroke 998 cc unit in 1964. In 1962, Rhodesian John Love became the first non-British racing driver to win the British Saloon Car Championship driving a Mini Cooper. A more powerful Mini Cooper, dubbed the “S”, was developed in tandem and released in 1963. Featuring a 1071 cc engine with a 70.61 mm bore and nitrided steel crankshaft and strengthened bottom end to allow further tuning; and larger servo-assisted disc brakes, 4,030 Cooper S cars were produced and sold until the model was updated in August 1964. Cooper also produced two S models specifically for circuit racing in the under 1,000 cc and under 1,300 cc classes respectively, rated at 970 cc and a 1,275 cc both had a 70.61 mm bore and both were also offered to the public. The smaller-engine model was not well received, and only 963 had been built when the model was discontinued in 1965. The 1,275 cc Cooper S models continued in production until 1971. Sales of the Mini Cooper were: 64,000 Mark I Coopers with 997 cc or 998 cc engines; 19,000 Mark I Cooper S with 970 cc, 1,071 cc or 1,275 cc engines; 16,000 Mark II Coopers with 998 cc engines; 6,300 Mark II Cooper S with 1,275 cc engines. There were no Mark III Coopers and 1,570 Mark III Cooper S.

There were plenty of examples of the Mini from the 80s and 90s. Many of them were from among the vast array of limited edition cars, but there were some regular models, too.

This elegant looking Mini was built in 1989 to mark the 30th anniversary of the model. Based on the Mini Mayfair, it had the standard 998 cc and was mechanically identical to the normal production cars. It could be distinguished by its chrome bumpers and grille, coachlines and 1959-1989 crests, whilst inside there was half leather/lightning cloth upholstery with red piping. Additional equipment included Minilite-style wheels, a security coded stereo and a leather-bound copy of Rob Golding’s book (“Mini”). Of the 3,000 produced for the UK, 2,000 were in Cherry Red and 1,000 were Black; 2,800 were manual and 200 had an automatic gearbox. 600 were made with an optional sun roof.

Slightly earlier than that was this, the Red Hot, one of a vast number of limited editions that came in the late 1980s. It premiered in January 1988, and was based on the Mini City with a 998cc engine. The car was painted in GPO Red and had chrome bumpers and grille surround, with a black coachline and ‘Red Hot’ logos. The interior was trimmed in Black velour. There were full width wheel trims, 14570R12 Pirelli Cinturato CN54tyres, opening side windows, tinted glass and a push button radio. 3,000 were built, of which 1,000 were for the UK market.

First launched in France in May 1987 to coincide with the French Open, the Mini Advantage also appeared in the UK in June of that year to be available during The Championships, Wimbledon. Originally the name was to be the Mini Wimbledon, to match the London theme of the other names, but the All England Lawn Tennis Association would not allow this use of name with a tennis themed styling. The car was known as the Mini Masters in Germany. It was based on the Mini Mayfair, which meant a 998 cc engine. The cars were painted in Diamond White and had grey bumpers and door handles, black door mirrors, white wheel covers for the 12-inch steel wheels and Nimbus grey plastic wheel arch extensions and sill finishers. There was a tennis-net theme on lower body sides with “Advantage” script logo; Advantage logo on upper right of bootlid. Inside it was Flint Grey and Jade Green “Tennis Net” cloth on seats and door panels. Equipment included a tachometer, radio-cassette, tinted glass, opening rear windows with chrome surround. Production totalled 4,675, of which 2,500 were for the UK.

Originally designed as part of the Great Brits Minis (along with David Bowie’s chromed Mini, Natasha Caine’s bullion Mini, Kate Moss’s Spider Web Mini and the ‘Design a Mini’ competition winner Mark ward’s clock cogs mini), the 84 striped, 24 colour car (I believe 2 were made) appeared at the 1997 Tokyo Motor Show, and inspired a run of limited edition minis. 300 UK cars were made, with a total of 1800 worldwide. The Paul Smith mini is one of the best equipped limited edition Minis, and in the UK, was only available in Paul Smith Blue. This colour is reputed to be the colour of the shirt that Paul Smith was wearing at the meeting with the rover designers, and when asked what colour he wanted the car, he tore a section off his shirt!! (How true this story is is unknown, but is one we have heard for years in the mini community, and we like it!!) The Japanese spec cars were also available in Old English White, and Anthracite Black, together with air conditioning. The Paul Smith Mini was designed to mimic a Paul Smith Suit. It had a conservative appearance, but had a bright twist! Several parts were given the ‘Paul Smith’ treatment and were coloured in bright Citrus Green. These parts were the rocker cover, HT leads, inside the glove box, the petrol tank and the boot board. The Paul Smith Mini was available from May 1998 at a cost of £10225 on the road. Although the Paul Smith was one of the most luxurious production minis ever made, initially sales were, allegedly, not very good, and rumour has it that after the 300 UK cars were made, only a few hundred of the remaining 1500 export models were ever made, although this has never been proven.

This one is the Mini Sidewalk, known as the Mini Tartan in Japan. It was produced in June 1995 and was based on the Mini Sprite, with a 1,275 cc engine. It was available in a choice of four different colours: Charcoal Metallic; Kingfisher Blue; Diamond White and British Racing green (pearl). There were chrome bumpers and “Sidewalk” decals. Inside there were red seat belts and blue tartan trim and equipment included a Radio/cassette. 1,000 were made for the UK.

This is the British Open Classic which was made in June 1992, and based on the Mayfair. They all came in British Racing Green and had chrome bumpers, grille, and handles, body-colour door mirrors, black wheelarch extensions and sill finishers and coachlines with “British Open Classic” decals and coat of arms. The interior featured Stone Beige Countryman Tweed upholstery with leather inserts and green piping, cream leather steering wheel, matching doorcards and seatbelts, label stitched to seats reading “By Appointment to Her Majesty the Queen”. Equipment included an electrically operated full-length Webasto sunroof, Minilite-style alloy wheels, R552 stereo, opening rear windows. A similar folding sunroof that appeared on the British Open Classic had been an option in 1991 only in Japan, but the model was known as the ‘Canvas Top.’ Only 400 were made. Some unsold models were registered as 1992s, but this model was only officially sold in Japan in 1991. One difference between the British Open Classic and the Japanese Canvas Top model was the fact that the Japanese canvas top could be opened from the rear as well as the front. Opening from the rear was done manually by first releasing two latches on the inside rear of the top akin to those commonly found on convertible tops, and physically pushing the top forward. Opening from the front was accomplished via an electric motor just like in the British Open Classic. The British Open Classic was also made for other markets in larger numbers, these can be identified by either being left hand drive, fuel injected or no tweed inserts in the seats. UK spec Open Classics were all carburettor engines but the shell is single point injection as it has the bracket on the bulk head to the right of the carburettor. Unlike most limited editions the Open Classic has opening rear windows and a two pod dash, i.e. no rev counter. The export version has a three pod dash (this seems to vary, a German version and an Italian version are known, which have two pod dashes, so further research please). Also, there are export versions in existence, which are black, again, known are German and Italian cars. The Italian version also has beige cloth upholstery, without leather trimmings, also prepared for a radio (speakers, cables and antenna, but delivered without actual stereo unit). 1000 were made for the UK.

The Mini was the model that refused to die, with sales continuing after the launch of the Metro in 1980, and gathering momentum again in the 1990s, thanks in no small part to interest from Japan and because Rover Group decided to produce some more Cooper models. The first series of Cooper cars had been discontinued in 1971, replaced by the cheaper to build 1275GT, but when a limited edition model was produced in 1990, complete with full endorsement from John Cooper, the model was a sell out almost overnight, which prompted the decision to make it a permanent addition to the range. A number of refinements were made during the 90s, with fuel injection adding more power, a front mounted radiator and more sound deadening making the car quieter and new seats adding more comfort and a new dash making the car look less spartan inside.  It formed part of the range until production of all Issigonis Minis ended in 2000.

There were plenty of limited edition versions of this late model Cooper, too. This is one of the most distinctive, created for the 35^th anniversary in May 1996. These had the 1,275 cc with single point fuel injection. The engine number on the UK cars is prefixed with 12A2EJ66 and the Japanese cars were prefixed with 12A2EJ34. These engine prefixes were shared with the 1994 Monte Carlo LE and is one of the key identifiers of a genuine Cooper 35 LE. The cars were finished either in  Almond Green with Diamond White roof for the UK and Japan and the Japanese also got Flame Red with Diamond White roof. There were body-coloured door mirrors and wheel arches. Some Japanese green and red cars had white door mirrors. Some red cars had black plastic wheel arches. Furthe recognition points came from coach lines with “Mini Cooper 1961-1996 Anniversary Edition” decals on sides and boot lid. 1.3i boot badges on UK cars and A panels on Japanese cars (some UK cars left the factory with A panel badges). Inside, Almond Green cars had Porcelain Green leather seats with embossed Cooper logos; matching leather steering wheel and gear knob; “Anniversary” badge on steering wheel; wooden dash with cream-faced dials. Flame Red cars had Black leather seats with embossed Cooper logos; red leather steering wheel and gear knob; “Anniversary” badge on steering wheel; wooden dash with cream-faced dials but with no clock, the Japanese cars have air conditioning vents where the clock would be. UK cars came with Gunmetal grey centred Minilite-style 4.5×12-inch alloy wheels with silver outer rims, two spotlights, two fog lamps. Japanese cars – silver alloy wheels and four fog type lamps instead of two spotlights & two foglamps of the UK model. All Japanese cars had factory fitted Air Conditioning, no alarm or immobiliser. There were 200 for the UK market (5 of which received official John Cooper Garages S specification), 1501 were manufactured for Japan, the first (used in Rover’s Japanese launch brochure) remained in the UK. Japanese cars featured air conditioning as standard, fixed rear quarterlights, and four fog style lamps (but still functioning as spot and fog). Rover Japan sources have said that no more than 10% of the Japanese cars were sold in Flame Red. Both the green and red Japanese models were available with the option of an automatic gearbox, something that was not available on the UK market cars. The five, John Cooper S specification Cooper 35 produced 86 hp. The conversion consisted of a replacement cylinder head, 1.5 roller rockers, Janspeed exhaust, K&N air filter element and modifications to the injection system. An oil cooler was also fitted. These cars had the roof resprayed in Old English White with matching painted on bonnet stripes which run over the scuttle panel as a tribute to the Cooper Car Co racing cars. Badging was updated with red enamelled Cooper inserts on the winged bonnet and boot badges, and the 1.3i badge on the boot lid was replaced by a Si badge. The original side graphics were retained. They also had a unique dashboard and matching door capping’s in elm rather than the walnut which featured on the factory car, and three signed ivory auxiliary dials were added, clock, voltmeter and oil pressure, rather than just a clock on the standard car. Alloy door furniture was fitted, signed on some cars, but not all as the door furniture was redesigned around this time. A steering drop bracket was also standard on the Si. The factory steering wheel and gear knob was retained. Externally, in addition to the changes already highlighted, the Si gained clear indicator lenses, and polished metal Cooper wheel centre badges. Only four of the five John Cooper S specification Cooper 35’s still exist. A number of cars were subsequently converted to S specification by John Cooper Garages

The Van version was launched in May 1960, a matter of weeks after the Countryman and Traveller had appeared and on whose extended platform this light commercial was based. The shape was the same as those Estate models, but clearly without the side windows or a rear seat. It proved popular in 1960s Britain as a cheaper alternative to the car:, as it was classed as a commercial vehicle and as such carried no sales tax. A set of simple stamped steel slots served in place of a more costly chrome grille. The Mini Van was renamed as the Mini 95 in 1978, the number representing the gross vehicle weight of 0.95 tons. 521,494 were built, but few survive.

MITSUBISHI

This is an Evo X, the last (for now) of a series of highly-regarded performance saloons generated by Mitsubishi’s rally program. In 2005, Mitsubishi introduced a concept version of the next-gen Evolution at the 39th Tokyo Motor Show named the Concept-X, designed by Omer Halilhodžić at the company’s European design centre. Mitsubishi unveiled a second concept car, the Prototype-X, at the 2007 North American International Auto Show (NAIAS). The Lancer Evolution X featured a newly designed 4B11T 1,998 cc turbocharged, all-aluminium alloy GEMA Inline-four engine. Power and torque depend on the market, but all versions had at least 276 bhp. UK models were reworked by Mitsubishi UK, in accordance with previous MR Evolutions bearing the FQ badge, with power between 300 bhp and 360 bhp.  It also featured Mitsubishi’s new sequential semi-automatic six speed SST twin-clutch transmission with steering-mounted magnesium alloy shift paddles. It replaced the Tiptronic automatic transmission, hence the SST version replaced the GT-A version (which was used in Evolution VII and Evolution IX Wagon). A five speed manual gearbox was also available. Two versions of the car are offered in the U.S. The Lancer Evolution MR, with 6-speed Twin Clutch Sportronic Shift Transmission (TC-SST). The other version is the GSR which has a 5-speed manual transmission system. The car also has a new full-time four-wheel drive system named S-AWC (Super All Wheel Control), an advanced version of Mitsubishi’s AWC system used in previous generations. The S-AWC uses torque vectoring technology to send different amounts of torque to the rear wheels. The Evolution X went on sale October 1, 2007 in Japan, January 2008 in the USA, February in Canada (as the first version of Evolution in Canada) and in March 2008 in the UK. The Twin Clutch SST version was available in Japan from November 2007. The introduction of the 2010 MR-Touring moved the car even further upscale. Leather and a sunroof became standard while revising the rear spoiler to just a lip spoiler. The car remained on sale until 2017, though as the market focus moved elsewhere, relatively few were registered in the model’s later years and there was no direct replacement.

MORGAN

First referred to in 2011, and launched in production spec in 2012, the Three Wheeler has been a huge success for Morgan, and for a while the company simply could not build them fast enough. Relatively affordable, compared to the other products in the range, this fun machine has a 2 litre S&S engine coupled to an MX-5 gearbox, and a weight of 550 kg, which is enough to give it a top speed of around 115 mpg and a 0- 60 time of less than 5 seconds.

MORRIS

The Morris Oxford Six is a motor car produced by Morris of the United Kingdom from 1921 until 1926, and again from 1929 until 1935. Initially produced as a straight-six engined version of the Morris Oxford bullnose, the original Oxford Six was the first car produced by Morris with a six-cylinder engine, but proved to be unreliable. The versions produced from 1929 onwards were introduced as a replacement for the Morris Oxford 16/40. A 1938 cc six-cylinder version, the LA series Oxford Six, was made between 1929 and 1933. It was much more successful than the 1921 version. Alongside the tourer and the new all-steel saloon, a fabric-bodied car was offered until 1932, when it and the tourer were dropped and a coupé introduced. The all-steel body was made over the road at Cowley by W R Morris’s joint venture with American Edward G Budd, Pressed Steel Company. It had striking similarities to a recent Dodge body. By 1930 supply problems were such that it was replaced by a similar but coachbuilt (wood framed) body. This is a 1931 car.

This is a Series II Oxford Traveller. A fully redesigned Oxford was announced in May 1954, and following the formation of BMC, notably received the Austin-designed B-Series OHV straight-4. This modern 1.5 L (1489 cc) engine produced a respectable 50 hp and allowed the Oxford to reach 74 mph (119 km/h). Hydraulic drum brakes all round were still used but increased to 9-inch (230 mm) diameter. Steering was still of the beautifully light and precise rack and pinion type. Styling was entirely new though the rounded body maintained a family resemblance to the Morris Minor. Again, a pair of four-seat configurations, 4-door saloon and 2-door Traveller, were offered. The column gear change and front bench seat allowed the saloon to be advertised as a full six-seater. The handbrake lever was located between the side of the seat and the driver’s side door. Unusually for a British car of its class at the time, the heater was a standard fitting but the radio remained an extra. Sales remained strong when the Series III arrived in 1956.

No surprise to see the evergreen Morris Minor here as this is a very popular classic. The Minor was conceived in 1941. Although the Nuffield Organization was heavily involved in war work and there was a governmental ban on civilian car production, Morris Motors’ vice chairman, Miles Thomas, wanted to prepare the ground for new products to be launched as soon as the war was over.  Vic Oak, the company’s chief engineer, had already brought to Thomas’ attention a promising junior engineer, Alec Issigonis, who had been employed at Morris since 1935 and specialised in suspension design but he had frequently impressed Oak with his advanced ideas about car design in general.  Issigonis had come to Oak’s particular attention with his work on the new Morris Ten, which was in development during 1936/7. This was the first Morris to use unitary construction and was conceived with independent front suspension. Issigonis designed a coil-sprung wishbone system which was later dropped on cost grounds. Although the design would later be used on the MG Y-type and many other post-war MGs the Morris Ten entered production with a front beam axle. Despite his brief being to focus on the Ten’s suspension Issigonis had also drawn up a rack and pinion steering system for the car. Like his suspension design this was not adopted but would resurface in the post-war years on the MG Y-type, but these ideas proved that he was the perfect candidate to lead the design work on a new advanced small car. With virtually all resources required for the war effort, Thomas nonetheless approved the development of a new small family car that would replace the Morris Eight. Although Oak (and Morris’ technical director, Sidney Smith) were in overall charge of the project it was Issigonis who was ultimately responsible for the design, working with only two other draughtsmen.  Thomas named the project ‘Mosquito’ and ensured that it remained as secret as possible, both from the Ministry of Supply and from company founder William Morris (now Lord Nuffield), who was still chairman of Morris Motors and, it was widely expected, would not look favourably on Issigonis’ radical ideas. Issigonis’ overall concept was to produce a practical, economical and affordable car for the general public that would equal, if not surpass, the convenience and design quality of a more expensive car. In later years he summed up his approach to the Minor; that he wanted to design an economy car that “the average man would take pleasure in owning, rather than feeling of it as something he’d been sentenced to” and “people who drive small cars are the same size as those who drive large cars and they should not be expected to put up with claustrophobic interiors.” Issigonis wanted the car to be as spacious as possible for its size and comfortable to drive for inexperienced motorists. Just as he would with the Mini ten years later, he designed the Mosquito with excellent roadholding and accurate, quick steering not with any pretence of making a sports car, but to make it safe and easy to drive by all. As work proceeded, there were plenty of battle to overcome, to get Issigonis’ ideas approved, and not all of them were. The production car, called the Minor was launched at the British Motor Show at Earls Court in London on October 27, 1948.  At the same show Morris also launched the new Morris Oxford and Morris Six models, plus Wolseley variants of both cars, which were scaled-up versions of the new Minor, incorporating all the same features and designed with Issigonis’ input under Vic Oak’s supervision. Thus Issigonis’ ideas and design principles underpinned the complete post-war Morris and Wolseley car ranges. The original Minor MM series was produced from 1948 until 1953. It included a pair of four-seat saloons, two-door and (from 1950) a four-door, and a convertible four-seat Tourer. The front torsion bar suspension was shared with the larger Morris Oxford MO, as was the almost-unibody construction. Although the Minor was originally designed to accept a flat-4 engine, late in the development stage it was replaced by a 918 cc side-valve inline-four engine, little changed from that fitted in the 1935 Morris 8, and producing 27.5 hp and 39 lbf·ft of torque. This little engine pushed the Minor to just 64 mph but delivered 40 mpg. Brakes were four-wheel drums. Early cars had a painted section in the centre of the bumpers to cover the widening of the production car from the prototypes. This widening of 4 inches is also visible in the creases in the bonnet. Exports to the United States began in 1949 with the headlamps removed from within the grille surround to be mounted higher on the wings to meet local safety requirements. In 1950 a four-door version was released, initially available only for export, and featuring from the start the headlamps faired into the wings rather than set lower down on either side of the grille. The raised headlight position became standard on all Minors in time for 1951. From the start, the Minor had semaphore-type turn indicators, and subsequent Minor versions persisted with these until 1961  An Autocar magazine road test in 1950 reported that these were “not of the usual self-cancelling type, but incorporate[d] a time-basis return mechanism in a switch below the facia, in front of the driver”.  It was all too easy for a passenger hurriedly emerging from the front passenger seat to collide with and snap off a tardy indicator “flipper” that was still sticking out of the B-pillar, having not yet been safely returned by the time-basis return mechanism to its folded position. Another innovation towards the end of 1950 was a water pump (replacing a gravity dependent system), which permitted the manufacturer to offer an interior heater “as optional equipment”. When production of the first series ended, just over a quarter of a million had been sold, 30 per cent of them the convertible Tourer model. In 1952, the Minor line was updated with an Austin-designed 803 cc overhead valve A-series engine, replacing the original side-valve unit. The engine had been designed for the Minor’s main competition, the Austin A30, but became available as Austin and Morris were merged into the British Motor Corporation. The new engine felt stronger, though all measurements were smaller than the old. The 52 second drive to 60 mph was still calm, with 63 mph as the top speed. Fuel consumption also rose to 36 mpg. An estate version was introduced in 1952, known as the Traveller (a Morris naming tradition for estates, also seen on the Mini). The Traveller featured an external structural ash (wood) frame for the rear bodywork, with two side-hinged rear doors. The frame was varnished rather than painted and a highly visible feature of the body style. Commercial models, marketed as the Morris Quarter Ton Van and Pick-up were added in May 1953.  Rear bodies of the van versions were all steel. The 4-seat convertible and saloon variants continued as well. The car was again updated in 1956 when the engine was increased in capacity to 948 cc. The two-piece split windscreen was replaced with a curved one-piece one and the rear window was enlarged. In 1961 the semaphore-style trafficators were replaced by the flashing direction indicators, these were US-style red at the rear (using the same bulb filament as the brake lamp) and white at the front (using a second brighter filament in the parking lamp bulb) which was legal in the UK and many export markets at the time (such as New Zealand). An upmarket car based on the Minor floorpan using the larger BMC B-Series engine was sold as the Riley One-Point-Five/Wolseley 1500 beginning in 1957: versions of this Wolseley/Riley variant were also produced by BMC Australia as the Morris Major and the Austin Lancer. In December 1960 the Morris Minor became the first British car to sell more than 1,000,000 units. To commemorate the achievement, a limited edition of 350 two-door Minor saloons (one for each UK Morris dealership) was produced with distinctive lilac paintwork and a white interior. Also the badge name on the side of the bonnet was modified to read “Minor 1,000,000” instead of the standard “Minor 1000”. The millionth Minor was donated to the National Union of Journalists, who planned to use it as a prize in a competition in aid of the union’s Widow and Orphan Fund. The company, at the same time, presented a celebratory Minor to London’s Great Ormond Street Hospital for Sick Children, but this car was constructed of cake. The final major upgrades to the Minor were made in 1962. Although the name Minor 1000 was retained, the changes were sufficient for the new model to be given its own ADO development number. A larger version of the existing A-Series engine had been developed in conjunction with cylinder head specialist Harry Weslake for the then new ADO16 Austin/Morris 1100 range. This new engine used a taller block than did the 948 cc unit, with increased bore and stroke bringing total capacity up to 1,098 cc. Although fuel consumption suffered moderately at 38 mpg, the Minor’s top speed increased to 77 mph with noticeable improvements in low-end torque, giving an altogether more responsive drive. Other changes included a modified dashboard layout with toggle switches, textured steel instrument binnacle, and larger convex glove box covers. A different heater completed the interior upgrade, whilst the larger combined front side/indicator light units, common to many BMC vehicles of the time, were fitted to the front wings. These now included a separate bulb and amber lens for indicators while larger tail lamp units also included amber rear flashers. During the life of the Minor 1000 model, production declined. The last Convertible/Tourer was manufactured on 18 August 1969, and the saloon models were discontinued the following year. Production of the more practical Traveller and commercial versions ceased in 1972, although examples of all models were still theoretically available from dealers with a surplus of unsold cars for a short time afterwards.  1,619,857 Minors of all variants were ultimately sold.

This could become a very confused story, as the ‘Marina van’ went through many name changes and evolutions in its long career – but, for most of that time, it could be ordered with the 1098cc A-Series engine (never available in that capacity in the Morris Marina car range, perhaps thankfully). Although everybody referred to the Morris Marina van, that was never its official name in the UK (though it was in some export markets). So technically speaking, you could never buy a Morris Marina 1100 – and certainly not as a car. Except when you could – but that’s a ‘twist in the tale’ we’ll leave to the end. Some believe the lower payload van (initially called 7cwt, later 440) came with the 1098cc engine and the 10cwt (or 575) version with 1275cc – but it’s more complicated than that. ‘Cwt’ incidentally is the short form of ‘Hundredweight’ – a unit of measurement equivalent (in the UK) to 112lb or 50.8kg. And the rather clumsy marketing name of 7/10 cwt van indicated there was a choice of two versions with differing payloads. When first introduced in 1972 (in both Austin and Morris versions) there was a grim Standard specification for these vans (whether Austin or Morris badged) together with a Deluxe trim level. The Standard specification was only available on the 7cwt van and buyers would receive their vehicle with the 1098cc engine, no passenger seat, no blower-heater, no vinyl door trim, no cab headlining, a painted front bumper rather than chrome and no rear quarter bumpers. However, the lucky owners of the Deluxe 7cwt van enjoyed all the above, plus the 1275cc engine and chrome exterior mirrors, (though brake servo, interior rear view mirror and load compartment lamp were optional on both). Meanwhile, the more expensive 10cwt van had a stronger rear axle and bigger brakes, wide-rim pressed steel wheels, and always came with the 1275cc engine as standard, as did the pick-up. Owners of a 1098cc van could use cheaper two-star fuel thanks to a low-compression ratio, which was a key selling point, but the performance was leisurely. Autocar tested a Morris 7cwt 1100 van in 1972 and recorded a 0-60 mph time of 33.5 seconds and top speed of 71 mph. You could just exceed the legal limit – at least, with an empty load-bay… At launch in 1972, the 1100cc Standard 7cwt van cost £665 (pre tax). Adding the 1275cc engine as an option (but keeping Standard specification) cost just £30 more. An affordable purchase price was important for these vans which replaced the old Morris Minor-based vehicles (also powered by the 1098cc A-Series) as well as the larger A60 van and pick-up. Though names changed several times, a similar choice of engine existed in 1979 when the Morris 440 van came in either base form in conjunction with the 1098cc engine, or Deluxe specification (later called the L variant) in conjunction with the 1275cc engine, which also remained standard on 575 vans and pick-ups. The new 440/575 nomenclature referred to payload in kilograms rather than the old hundredweight system. It wasn’t long before the separate Austin and Morris branded 7/10cwt vans and 10cwt pick-up evolved into Austin-Morris branded (and badged) vehicles. However, when a revised Morris Ital van arrived in 1982 in 440/575 form together with 575 pick-up, the 1098cc engine option had disappeared (not least because the new A-Plus engine was not built in that capacity). That’s why – however you look at it – there wasn’t a Morris Ital 1100. Survivors of the early-1970s Standard vans with 1098cc engine, painted bumpers and no passenger seat are hard to come by and, in later years, the passenger seat and associated equipment (seat belt, sun visor and floor mat) was standardised. But the passenger seat could still be removed which increased the load capacity of the Marina van from 88cu ft to a useful 104cu ft. For most of their career all these vans (and the pick-ups) had their own single dial instrument panel with the dial drawn from the same parts bin the Sherpa raided. But for the later Ital 440/575 van/pick-up the moulded dashboard of the car was substituted. Though the specific dash of the original van and pick-up with its single-dial binnacle suggests cost-cutting, practical advantages could be claimed: the open storage shelf was better suited than the car’s glovebox for commercial use – and the design encroached less on the passenger footwell – allowing vans not equipped with a passenger seat (as was possible) to offer more load capacity than otherwise. The single instrument dial was updated as part of a 1978 cosmetic overhaul of these vehicles, which also included a better trimmed interior, black grille and bigger bumpers (similar to the Series 3 Morris Marina cars). A cigar lighter (as the brochure called it optimistically) was also standard on the higher specification versions. While the original instrument dial with its little jewel-like warning lights and inset fuel gauge looked very familiar to drivers of early Minis – or Morris Minors – the new revised version (pictured below) was a lot more up to date. Warning lights were now arranged in an arc of coloured squares vaguely reminiscent of Saturday Night Fever’s disco dancefloor, and a temperature gauge was squeezed in alongside the fuel gauge… Graphics were updated from the old “Morris Motors” look to something much more in tune with the times. Until 1978, the vans (and pick-up) had retained the grille with ‘windsplit’ of the early Marina 1300 car, so they were never built with the full-width chrome grille of Series 2 (1975-78) Morris Marinas. All the above specification details refer to ‘public offer’ vans on the UK market, but all sorts of variations were created for fleet customers like the Post Office (some pictures in the Gallery below), and for export markets. One surprise is that the 1.5-litre diesel engine (as used in the export-market Morris Marina diesel) was never offered to the general public in these vans or pick-ups, even though it was in export markets in both commercials and in the Marina car. However, fleet customers in the UK (including the RAF) did receive diesel Marina commercial vehicles (and there have been conversions). It appears there was never a 1098cc rear-drive Morris Marina car, anywhere in the world, though such a vehicle would have made sense in markets like Greece where engines were taxed heavily based on displacement. Ford built a special Cortina Mk2 1100 for Greece, for example. Is this another one of those fabled ‘missed opportunities of British Leyland’ one might ask?

In 1973, west country Leyland distributors and dealers Mumford of Plymouth commissioned Crayford to develop a Marina convertible. They paid all the development costs in exchange for manufacturing rights and the sole franchise to market the car. Based on the two door hardtop coupe, Crayford found the Marina was a poor candidate to be redesigned as a convertible, they cut up Motor Magazine pictures of the new Marina coupe in an attempt to get the shape but it did not look right. It was normal practice for vehicle manufacturers to have longer doors on a two door model but Leyland could not afford to tool up for this, hardly noticed by the public or the press, Layland got away with using the short front doors from the four door saloon. Unfortunately for Crayford this made the convertible structurally weak, and odd looking in profile, the back end appeared too long when the roof was off. Crayford got round both problems by introducing a unique and very clever double rollover bar with a glass inlay between the two bars, this drew the top side profile visibly back. It was shown for the first time on Crayford’s stand at the Motor Show in London in October 1973. Production was at Mumford’s Plymouth plant and each car carried a Mumford boot badges. It was available as a 1.3 or 1.8 car, and also as a desirable 1.8 TC. With the twin cam MGB engine it was a fast, value for money convertible, until you showed it a corner. The conversion sold at a £550 premium making a convertible £1.822, this went up to £2,156 for a 1.8 TC in 1975. Mumford was slowly brought down and into receivership when its caravan and camper conversion business collapsed. Today, 17 cars exist on the clubs Marina register.

NISSAN

Like its predecessor, the R33 GT-R was the most extreme version of a range of Skyline cars, which in R33 guise were launched in 1993 and would go on to be produced for 6 years. The previous R32 model was a well proven build but the R32 wasn’t without faults and suffered with uplift and balance issues. Along with that, Nissan was as other Japanese companies were under strict restrictions on power gains. So Nissan had to combat all these areas so the sophisticated strength Programme was made. Nissan increased the width by about one inch on the R33 to the R32 and made it about 4 inches longer. This gave the R33 a longer wheelbase overall and lower stance mixed with new technology now from the computer aerodynamic age. Each line on the R33 was intended to give the car ultimate aerodynamics with wider gaps in the bumper and angles of air movement which allowed better cooling, in addition to the fuel tank lifted; the battery moved to the boot/trunk. Rigidity points were added mixed with improvements on the Attessa and Hicas all now offered the R33 with the best aerodynamics, balance, and handling. Nissan engineers also found other ways to reduce weight, even by a few grams. This includes: Hollowing out the side door beams. Using high tensile steel on body panels. Reduction in sound deadening materials. Super HICAS becoming electric. Hollowing out of rear stabiliser bar. Use of high tensile springs front and rear. Shrinking the ABS actuator. Light aluminium wheels with higher rigidity The front and rear axles were made of aluminium (as in the BNR32) but also so were engine mount insulators and brackets New plastics were used for : fuel tank, head lamps, super high strength “PP” bumpers, air cleaner, changing the headlining material, changing material of rear spoiler. All this put together meant we saw an improved time against the R32 of 21 seconds faster around the Nurburgring and 23 seconds faster in V spec trim. Still making the R33 the fastest skyline around the Nurburgring. The BCNR33 GT-R version also had the same RB26DETT engine that the BNR32 was equipped with, although torque had been improved, due to changes in the turbo compressor aerodynamics, turbo dump pipe, and intercooler. The turbo core changed from a sleeve bearing to a ball bearing, but the turbine itself remained ceramic, except on N1 turbos (steel turbine, sleeve bearing). From the R33 onward, all GT-Rs received Brembo brakes. In 1995 the GT-R received an improved version of the RB26DETT, the ATTESA-ETS four-wheel-drive system, and Super HICAS 4-wheel steering. A limited edition model was created in 1996, called the NISMO 400R, that produced 400 hp from a road-tuned version of Nissan’s Le Mans engine. A stronger six-speed Getrag gearbox was used. An R33 GT-R driven by Dirk Schoysman lapped the Nordschleife in less than 8 minutes. The Skyline GT-R R33 is reported to be the first production car to break 8 minutes, at 7 minutes and 59 seconds. Other manufacturers had caught up since the R32 was released, and the R33 never dominated motorsport to the extent of the R32. The R33 saw victory in the JGTC GT500 dominating the class and taking victory each year until its final racing year in which it was finally beaten by the Mclaren F1 GTR. The R33 saw huge favour in the tuning world with it being a popular model on the Wangan and top tuning companies building heavily tuned version from Top Secret ran by Smokey Nagata to Jun etc. and later by companies like Sumo. HKS GT-R would hold a drag series record for several years in there drag series making a record win of 7.671-second pass at Sendai Hi-Land Raceway with Tetsuya Kawasaki behind the wheel and taking it to be the World’s fastest AWD car.

Also here was the long-lived and only recently discontinued R35 generation GT-R.

NOBLE

Follow on to the Noble M10, the M12 was a two-door, two-seat model, originally planned both as a coupe and as a convertible. All M12s were powered by modified bi-turbocharged Ford Duratec V6 engines. There was a full steel roll cage, steel frame, and G.R.P. (fibreglass) composite clam shell body parts. Although looking to be track derived, the M12 was street-legal, ready for both road and track. The M12 has no anti-roll bars on the car, allowing for a comfortable feel. The coupe evolved through four versions of Noble cars, with the 425 bhp M400 as the ultimate version of the M12, following the first 2.5 litre 310 bhp car, the 352 bhp 3 litre GTO-3 and the GTO-3R. The car was sold in the US, where it proved quite popular, with 220 GTO-3Rs and M400s sold there. US production rights were sold in February 2007 to 1G Racing from Ohio. Due to high demand of these cars, 1G Racing (now Rossion Automotive) released its own improved car based on the M400, named Rossion Q1. Another company which is also producing a model developed from the M12 is Salica Cars 1 with their Salica GT and Salica GTR.

PACKARD

In many ways, Packard’s 14th series marked a significant turning point for the company. Introduced in 1936 to replace the 12th series (there was no 13th series for superstitious reasons), the model itself was very much evolutionary. But it marked the end of the line for many signature Packard features such as the 17” wire wheels, ride control shocks, Bijur chassis lubrication and most notably, it was the final year for the legendary 385 cubic inch straight eight engine before the 320 cubic inch unit replaced it. As before, three distinct model lines were available; the Eight, Super Eight and Twelve. All were available in a tremendous variety of body styles and configurations. The Super Eight was the top eight cylinder model and it shared some key features and options from the Twelve, such as the special fluid-filled counter-weight bumpers that smoothed the ride on rough roads. Streamlining was beginning to take hold in American design language, and the styling for the 14th series was tweaked with the radiator tilted back a further 5 degrees, and full, curvaceous fenders wearing bullet headlamps. Just a few short years later, the headlamps would be enveloped within the fenders and the classic era of Packard styling would come to a close. 1936 models remain very collectible for their “last of the line” appeal and beautiful classic-era style. This 1936 Packard Super Eight 956 Club Sedan is a rare example from the fourteenth series. Fewer than 1,500 Super Eights were built in 1936, and they remain very desirable among Packard enthusiasts.

PAGANI

The Pagani Huayra is a mid-engine sports car produced by Italian sports car manufacturer Pagani, superseding the company’s previous offering, the Zonda. It is named after Wayra Tata, the Quechua (indigenous South American) wind god. The Huayra was named “The Hypercar of the Year 2012” by Top Gear magazine. On 11th February 2015 it was reported that the Pagani Huayra had been sold out. The Huayra was limited to just 100 units as part of Pagani’s agreement with engine supplier Mercedes-AMG. The Pagani Huayra was officially debuted online with several pictures in a press release on the 25th January 2011. The official world debut was at the headquarters of Pirelli in Milan in February 2011. The Huayra has a top speed of about 383 km/h (238 mph) and it has a 0-97 km/h (60 mph) acceleration time of 2.8 seconds. Using Pirelli tyres, the Pagani Huayra is capable of 1.66 g of lateral acceleration. The Pagani Huayra uses a seven-speed sequential gearbox and a single disc clutch. The choice not to use a dual-clutch was due to the increase in weight of over 70 kg (154 lb), thus negating any advantage of the faster gear changes in a double-clutch transmission. As a result, the transmission weighs 96 kg (212 lb). The car is equipped with Brembo brake calipers, rotors and pads. The calipers have six pistons at the front and four at the rear. The rotors are drilled carbon ceramic, 380 mm (15.0 in) in diameter and 34 mm (1.3 in) thick. The Huayra uses a 6.0 L (5,980 cc) twin-turbocharged M158 60° V12 engine developed by Mercedes-AMG specially for the Huayra, which has a power output of 740 PS (730 bhp) at 5,800 rpm and 1,000 Nm (738 lb/ft) of torque at 2,250-4,500 rpm. The engine has been designed at the request of Pagani to reduce turbo lag and improve response, achieved with smaller turbochargers, a different intercooler configuration and re-programmed ECU settings. Like many high-performance cars, the Huayra uses dry sump lubrication. This has several key benefits including guaranteeing oil flow even when the car is subjected to extreme lateral acceleration, preventing “oil surge” which allows the engine to operate more efficiently while the lack of an oil pan allows mounting the engine lower, lowering the car’s centre of gravity and improving handling. The fuel consumption of the Huayra is 10 mpg‑US (23.5 L/100 km; 12.0 mpg‑imp) in city and 14 mpg‑US (16.8 L/100 km; 16.8 mpg‑imp) in highway (EPA testing). A water/oil heat exchanger reduces engine warm-up times on cold days and helps maintain a stable temperature for refrigerants and lubricants. To minimise the use of pipes and fittings (and the overall weight of the vehicle), the coolant expansion tank is mounted directly on the engine. Intercooler fins act as an expansion tank circuit at low temperatures. The titanium exhaust system was designed and built by MHG-Fahrzeugtechnik. Hydroformed joints were developed to reduce back pressure and ensure a free flow exhaust. Titanium reduces the weight of the exhaust system while the Inconel silencers improve reliability in the most exposed parts of the exhaust at high temperatures. The entire system weighs less than 10 kg (22 lb). The Pagani Huayra is different from its predecessor in that it incorporates active aerodynamics. It is capable of changing the height of the front from the ground and independently operating four flaps placed at the rear and front of the car. The behaviour of the flaps is managed by a dedicated control unit that is fed information from systems such as the ABS and ECU, which pass on information about the car’s speed, yaw rate, lateral acceleration, steering angle and throttle position. This is intended to achieve minimal drag coefficient or maximum downforce depending on the situation. The Huayra’s designer Horacio Pagani states that it has a variable drag coefficient of between .31 and .37. The system also prevents excess body roll in the corners by raising the “inside” flaps (i.e. the left ones in a left-handed corner and vice versa), increasing the downforce on that side of the car. The rear flaps also act as an airbrake. Under hard braking, both the front suspension and the two rear flaps are raised to counter-act weight transfer to the front wheels and keep the whole car stable, for instance when entering a corner. Air from the radiator is extracted through an arch in the bonnet at an angle that is designed not to affect the streamline around the body. The side air intakes behind the front wheels create a low pressure zone, resulting in downforce. The Huayra BC is a track focused version of the Huayra which was unveiled at the 2016 Geneva Motor Show. The Huayra BC is named after the late Benny Caiola, a friend of Horacio Pagani, and the first Pagani customer. The Huayra BC has an improved version of the standard Huayra’s 6.0 L twin-turbocharged V12 engine having a power output of 764 PS (754 bhp) at 5900 rpm as well as 1,000 Nm (738 lb/ft) at 2500-5600 rpm of torque. The dry weight is reduced by 132 kg (291 lb) to just 1,218 kg (2,685 lb), thanks to the use of a new material called ‘carbon triax’ which Pagani claims is 50% lighter and 20% stronger than regular carbon fibre, giving the car a power-to-weight ratio of 1.62 kg (3.57 lb) per horsepower. The Huayra BC comes with a lighter titanium exhaust system, new aluminium alloy wheels, and a stripped out interior. The tires are Pirelli P-Zero Corsas that feature 12 different rubber compounds, and the suspension and wishbones are made of aeronautical grade aluminum, known as Avional. The Huayra BC also has a new front bumper with a front splitter and winglets, deeper side skirts, and an air diffuser that stretches the entire width of the rear bumper with a large rear wing. The car could be ordered with an optional roof scoop. All of the exterior components in the car are used to optimize downforce and drag. The Huayra BC uses an Xtrac 7-speed sequential manual transmission. Pagani has stuck with a single-clutch gearbox because it weighs 40% less than double-clutch gearboxes. Pagani planned to make 20 units of the Huayra BC, which were all sold out. In reality, Pagani drastically overproduced the Huayra BC, producing 30 units instead of the promised 20, to the irritation of some owners. After 2 years of development, the Huayra Roadster was officially unveiled at the 2017 Geneva Motor Show. The over-all appearance of the car has changed, with the most obvious being the removable top (hence the Roadster name). This part of the vehicle is also its key element. The design of the rear is also different, with new eyelid-like fixed flaps that continue with the design and eventually end on the rear lights. The rear engine cover also has a new shape to adapt to the roadster form and now has vents for efficient cooling. The wheels are unique and specifically constructed for the car. The car has conventional doors instead of the Gull-wing doors of the coupé as they are impossible to fit on an open top car while maintaining the low weight. The vehicle utilises the same twin-turbocharged M158 V12 engine as the coupé, but it now has a total power output of 764 PS (754 hp) at 6,200 rpm and 1,000 Nm (738 lb/ft) of torque at 2,400 rpm. All of this power is delivered to the rear wheels via a 7-speed automated manual transmission by Xtrac. The car now uses a hydraulic and electronic activation system with carbon synchronizers. Bosch has also contributed in the construction of the car and the car uses their ECU system. The weight is now 70 kg (154 lb) lighter, for a total of 1,280 kg (2,820 lb), making it the first roadster lighter than the coupe version. Only 100 will be made, all of which have already been sold. The tyre supplier is Pirelli, with P-Zero tyres. The tyre have a white narrow outline, resembling those of an F1 race car. Pagani has also used a new material for the Roadster called carbon triax, which is a tri-axis fiberglass meshed with carbon-fibre power bands. Pagani states that the car produces 816 kg (1,800 lb) of downforce or 1.8 lateral G-force. This figure is unproven, but if true, Pagani will have set a new record. Introduced in July 2019, the Huayra Roadster BC, often mistakenly called the Huayra BC Roadster, is the track-oriented version of the Roadster. It shares few aerodynamic parts as present on the BC and has a modified version of the 6.0-litre twin-turbocharged V12 engine rated at 802 PS (791 bhp) and 1,050 Nm (774.5 lb/ft) of torque. The 7-speed Xtrac sequential gearbox with single clutch used on the roadster is 35% lighter than a contemporary dual-clutch gearbox. The Huayra Roadster BC sits at 1,250 kg (2,756 lb) which is slightly heavier than the coupe, with a dry weight of 1,218 kg (2,685 lb). It is 30 kg (66 lb) lighter than the Huayra Roadster 1,280 kg (2,822 lb). The monocoque of the Roadster BC is constructed of carbon-titanium HP62 material to keep weight low and make the construction rigid. The Roadster BC is claimed to generate 500 kg (1,102 lb) of downforce at 280 km/h (174 mph) due to its large fixed rear wing and aerodynamic elements. In addition to movable active Aero elements, the titanium exhaust incorporates flaps in the catalytic converters to divert exhaust gases over the underfloor elements like a Formula 1 car’s blown diffuser. Production of the Huayra Roadster BC will be limited to 40 units only. Introduced in February 2020, the Imola is named after the Autodromo Internazionale Enzo e Dino Ferrari (Imola Circuit), where it underwent 16,000km of high-speed testing. It is the most powerful street-legal variant of the Huayra, using the same Mercedes-AMG V12 tuned to 838 PS (827 hp) and 1,100 Nm (811 lb/ft). Weight saving measures such as a new carbon fibre blend and lightweight paint application have reduced the Imola’s dry weight to 1,246 kg (2,747 lb). Exterior changes from the standard Huayra include a large seven-section diffuser, a large roof scoop, a shark fin, more pronounced side skirts and a wide fixed rear wing with an integrated stoplight. Six Imola were built: 5 for customers and 1 prototype for Horacio Pagani. On December 16, 2020, Pagani introduced the Huayra Tricolore, was built to celebrate the 60th Anniversary of Frecce Tricolori, Italy’s aerobatic team. The Tricolore uses a twin-turbo 6.0-liter V12 engine sourced from Mercedes-AMG which has been tuned to produce 829 horsepower and 811 pound-feet of torque, which is 38bhp and 37lb ft more than the power and torque produced by a standard Huayra BC engine. The car is only available in roadster form and shares much of the bodywork of the Roadster BC. It is unpainted except for a clear blue lacquer, and red, white, and green stripes from the nose along the top of the car’s surface. Inside, the Tricolore is equipped with white and blue leather seats with Italian flag stripes, and the Tricolori logo is embroidered into the headrests. The Pitot tube mounted on the nose of the car, a metal measuring device that’s typically uses on planes to measure air speed, is a unique feature of the Tricolore. The production is limited to three customer units as its predecessor and priced at €5,500,000+taxes ($6.7 Million+taxes) each. In reality, there will be four Huayra Tricolore: 3 customer cars and 1 prototype owned by the company. The first two customer cars have been delivered, as of early 2022. One car went to a customer in Stuttgart, Germany, while another went to a customer in Wisconsin, USA (but delivered through Pagani of Dallas). In March 2021, Pagani introduced the Huayra R, a track-only version of the Huayra and the successor of the Pagani Zonda R. The Huayra R uses the “Pagani V12-R”, a version of the 6.0 L naturally aspirated Mercedes-Benz V12 engine built from the ground up by HWA AG to produce 850 PS (838 bhp) at 8,250 rpm as well as 750 Nm (553 lb/ft) of torque at 5,500 rpm to 8300 rpm, and a redline at 9,000 rpm. The Huayra R has a 6-speed sequential transmission newly developed for the car, and various weight saving measures have resulted in a lower dry weight of 1,050 kg (2,315 lb). Pagani plans a limited 30-car production run for the Huayra R, similar to the limited 15-car production run of the track-only version of the Pagani Zonda, the Zonda R. It will cost €2.6mln + taxes (around $3.1mln + taxes). On June 16, 2022, Pagani introduced the Huayra Codalunga, a 5 units limited version of the Huayra, to pay homage to the lines of racecars from the 1960s, like the Porsche 917 (Horacio’s favorite car).[36] Prices started at €7mln+tax (around $7.36mln+tax) with all 5 units being sold before its unveiling. This car was the result of a special project by Pagani Grandi Complicazioni. On November 23, 2023, Pagani introduced the Imola Roadster, the convertible version of the Pagani Imola but inspired by the Huayra R. The Imola Roadster uses the same Mercedes-AMG V12, 6.0-liter twin-turbo engine to produce 850 PS (838 hp) at 5,600 rpm as well as 1,100 Nm (553 lb/ft) of torque from 3,600 to 5,600 rpm. Production of the Imola Roadster will be limited to 8 units only. In December 2017, Pagani introduced the Huayra Lampo in partnership with Lapo Elkann of Garage Italia Customs. The car is inspired by the Fiat Turbina concept introduced in 1954. This particular Huayra gets the ‘Tempesta’ pack too: larger front openings, plus new aero elements on the front splitter and sills. In July 2024, Pagani introduced a one-off version of the Huayra called the Huayra Epitome, which was developed by Pagani Grandi Complicazioni. It is powered by a twin-turbocharged 6.0-liter V-12 engine sourced from Mercedes-AMG that develops 852 horsepower and 811 pound-feet of torque, and revs to 6,700 rpm mated to a seven-speed manual transmission.

PEUGEOT

Mindful of the success of the Golf GTi, in the class above, and how a small car with good handling could take more power, as the Mini Cooper had proved, Peugeot came up with the GTi in early 1984. The first models had a 1.6 litre XU5J engine, producing 105 PS, which was uprated in 1987 with a cylinder head with larger valves thus becoming XU5JA, which took the power output up to 115 bhp. Visually the car retained the good looks of the 3 door version of the regular models, but it featured plastic wheel arch extensions and trim, beefier front and rear bumper valances and judicious use of red badging and trim. The shell also underwent some minor changes, including larger wheel arches (to suit the larger wheels , and the suspension was redesigned and sat lower on the GTI with stiffer springs, different wishbones and a drop-linked anti-roll bar. Red was a dominant colour inside. The car was an instant hit. At the end of 1986, Peugeot followed up with a more potent model, the 1.9 GTi, whose XU9JA engine produced 128 PS. Internally the engine of this car and the 1.6 model are very similar, the main differences on 1.9 litre versions being the longer stroke, oil cooler, and some parts of the fuel injection system. The shorter stroke 1.6 litre engine is famed for being revvy and eager, while the 1.9 litre feels lazier and torquier. Outside the engine bay the main differences between the 1.6 GTi and the 1.9 GTi are half-leather seats on the 1.9 GTi vs. cloth seats and disc brakes all-round (1.9 GTi) vs. discs at the front and drum brakes at the back; as well as the 14-inch Speedline SL201 wheels on the 1.6 GTi  vs. 15 inch Speedline SL299 alloys on the 1.9 GTi. The 205 is still often treated as a benchmark in group car tests of the newest GTI models or equivalent. Peugeot itself has never truly recreated this success in future GTI models, although they came very close with the highly regarded GTI-6 variant of the Peugeot 306.

PLYMOUTH

The second-generation Barracuda was redesigned for 1967 with model-specific sheet metal, yet still shared many components with the Valiant. It rode on a 108 in (2,743 mm) wheelbase A-body and was available as a convertible, and a notchback coupe, in addition to the fastback design. The new Barracuda was chiefly the work of John E. Herlitz and John Samsen, with Coke-bottle side contours and heavily revised front and rear ends. Design changes included wider wheel openings, curved side glass, and S-curved roof pillars on the hardtop. The roofline on the fastback coupe was more streamlined, more steeply raked, and with a much smaller flush rear window in place of the distinctive massive wraparound in the original model. Also, the overall use of chrome trim was more restrained. During this time the first U.S. Federal auto safety standards were phased in, and Chrysler’s response a requirement for side-marker lights distinguishes each model year of the second-generation Barracuda: 1967: no sidemarker lamps or reflectors, and backup lights on the rear valance by the license plate; 1968: round side marker lamps without reflectors, mostly white tail lamps with backup lights in the tail lamp housing; 1969: little changes on the front grille, rectangular side marker reflectors without lamps, and the backup lamps were moved back to the rear valance by the license plate. As the pony-car class became established and competition increased, Plymouth began to revise the Barracuda’s engine options. In 1967, while the 225 cu in (3.7 L) slant-6 was still the base engine, the V8 options ranged from the two- and four-barrel versions of the 273 cu in (4.5 L) to a seldom-ordered 383 cu in (6.3 L) “B” big-block, rated at 280 bhp, the latter available only with the Formula S package. In 1968, the 273 was replaced by the 318 cu in (5.2 L) LA engine as the smallest V8 available, and the new 340 cu in (5.6 L) LA four-barrel was released. The 383 Super Commando engine was upgraded with the intake manifold, camshaft, and cylinder heads from the Road Runner and Super Bee, but the more restrictive exhaust manifolds specific to the A-body cars limited its output to 300 bhp. Also in 1968, Chrysler made approximately fifty fastback Barracudas equipped with the 426 cu in (7.0 L) Hemi for Super Stock drag racing. These cars were assembled by Hurst Performance and featured items such as lightweight Chemcor side glass, fiberglass front fenders, fiberglass hood with scoop, and lightweight front seats, and street features such as rear seats and sound deadener omitted. An included sticker indicated that the car was not for use on public roads; it could run the quarter-mile in the mid-tens in 1968. For the South African export market, a 190 bhp high-performance version of the 225 slant-6 called Charger Power was offered with 9.3:1 compression, two-barrel carburettor, more aggressive camshaft, and low-restriction exhaust system. A handful of Savage GTs were also built from the second-generation Barracuda. In 1969, Plymouth placed an increased emphasis on performance. A new option was the Mod Top, a vinyl roof covering with a floral motif, available in 1969 and 1970. Plymouth sold it as a package with seat and door panel inserts done in the same pattern. The 1969 version of the 383 engine was upgraded to increase power output to 330 bhp, and a new trim package called ‘Cuda was released. The ‘Cuda, based on the Formula S option, was available with either the 340, 383 and, new for 1969, the 440 Super Commando V8. A third generation model arrived for 1970.

PORSCHE

The 356 was created by Ferdinand “Ferry” Porsche (son of Dr. Ing. Ferdinand Porsche, founder of the German company), who founded the Austrian company with his sister, Louise. Like its cousin, the Volkswagen Beetle (which Ferdinand Porsche Senior had designed), the 356 was a four-cylinder, air-cooled, rear-engine, rear-wheel-drive car utilising unitised pan and body construction. The chassis was a completely new design as was the 356’s body which was designed by Porsche employee Erwin Komenda, while certain mechanical components including the engine case and some suspension components were based on and initially sourced from Volkswagen. Ferry Porsche described the thinking behind the development of the 356 in an interview with the editor of Panorama, the PCA magazine, in September 1972. “….I had always driven very speedy cars. I had an Alfa Romeo, also a BMW and others. ….By the end of the war I had a Volkswagen Cabriolet with a supercharged engine and that was the basic idea. I saw that if you had enough power in a small car it is nicer to drive than if you have a big car which is also overpowered. And it is more fun. On this basic idea we started the first Porsche prototype. To make the car lighter, to have an engine with more horsepower…that was the first two seater that we built in Carinthia (Gmünd)”. The first 356 was road certified in Austria on June 8, 1948, and was entered in a race in Innsbruck where it won its class. Porsche re-engineered and refined the car with a focus on performance. Fewer and fewer parts were shared between Volkswagen and Porsche as the ’50’s progressed. The early 356 automobile bodies produced at Gmünd were handcrafted in aluminium, but when production moved to Zuffenhausen, Germany in 1950, models produced there were steel-bodied. Looking back, the aluminium bodied cars from that very small company are what we now would refer to as prototypes. Porsche contracted with Reutter to build the steel bodies and eventually bought the Reutter company in 1963. The Reutter company retained the seat manufacturing part of the business and changed its name to Recaro. Little noticed at its inception, mostly by a small number of auto racing enthusiasts, the first 356s sold primarily in Austria and Germany. It took Porsche two years, starting with the first prototype in 1948, to manufacture the first 50 automobiles. By the early 1950s the 356 had gained some renown among enthusiasts on both sides of the Atlantic for its aerodynamics, handling, and excellent build quality. The class win at Le Mans in 1951 was clearly a factor.  It was always common for owners to race the car as well as drive them on the streets. They introduced the four-cam racing “Carrera” engine, a totally new design and unique to Porsche sports cars, in late 1954. Increasing success with its racing and road cars brought Porsche orders for over 10,000 units in 1964, and by the time 356 production ended in 1965 approximately 76,000 had been produced. The 356 was built in four distinct series, the original (“pre-A”), followed by the 356 A, 356 B, and then finally the 356 C. To distinguish among the major revisions of the model, 356’s are generally classified into a few major groups. 356 coupés and “cabriolets” (soft-top) built through 1955 are readily identifiable by their split (1948 to 1952) or bent (centre-creased, 1953 to 1955) windscreens. In late 1955 the 356 A appeared, with a curved windshield. The A was the first road going Porsche to offer the Carrera 4 cam engine as an option. In late 1959 the T5 356 B appeared; followed by the redesigned T6 series 356 B in 1962. The final version was the 356 C, little changed from the late T6 B cars but with disc brakes to replace the drums. This one is one of many replica and recreation cars that have been made.

The 914 is a model born of a joint need that Porsche had for a replacement for the 912, and Volkswagen’s desire for a new range-topping sports coupe to replace the Karmann Ghia. At the time, the majority of Volkswagen’s developmental work was handled by Porsche, part of a setup that dated back to Porsche’s founding; Volkswagen needed to contract out one last project to Porsche to fulfill the contract, and decided to make this that project. Ferdinand Piëch, who was in charge of research and development at Porsche, was put in charge of the 914 project. Originally intending to sell the vehicle with a flat four-cylinder engine as a Volkswagen and with a flat six-cylinder engine as a Porsche, Porsche decided during development that having Volkswagen and Porsche models sharing the same body would be risky for business in the American market, and convinced Volkswagen to allow them to sell both versions as Porsches in North America. On March 1, 1968, the first 914 prototype was presented. However, development became complicated after the death of Volkswagen’s chairman, Heinz Nordhoff, on April 12, 1968. His successor, Kurt Lotz, was not connected with the Porsche dynasty and the verbal agreement between Volkswagen and Porsche fell apart. In Lotz’s opinion, Volkswagen had all rights to the model, and no incentive to share it with Porsche if they would not share in tooling expenses. With this decision, the price and marketing concept for the 914 had failed before series production had begun. As a result, the price of the chassis went up considerably, and the 914/6 ended up costing only a bit less than the 911T, Porsche’s next lowest price car. The 914/6 sold quite poorly while the much less expensive 914/4 became Porsche’s top seller during its model run, outselling the Porsche 911 by a wide margin with over 118,000 units sold worldwide. Volkswagen versions originally featured an 80 PS fuel-injected 1.7 L flat-4 engine based on the Volkswagen air-cooled engine. Porsche’s 914/6 variant featured a carburettor 110 PS 2.0 litre flat-6 engine from the 1969 911T, placed amidships in front of a version of the 1969 911’s “901” gearbox configured for a mid-engine car. Karmann manufactured the rolling chassis at their plant, completing Volkswagen production in-house or delivering versions to Porsche for their final assembly. 914/6 models used lower gear ratios and high brake gearing in order to try to overcome the greater weight of the 6 cylinder engine along with higher power output. Suspension, brakes, and handling were otherwise the same. A Volkswagen-Porsche joint venture, Volkswagen of America, handled export to the U.S., where both versions were badged and sold as Porsches, except in California, where they were sold in Volkswagen dealerships. The four-cylinder cars were sold as Volkswagen-Porsches at European Volkswagen dealerships. Slow sales and rising costs prompted Porsche to discontinue the 914/6 variant in 1972 after producing 3,351 of them; its place in the lineup was filled by a variant powered by a new 100 PS 2.0 litre, fuel-injected version of Volkswagen’s Type 4 engine in 1973. For 1974, the 1.7 L engine was replaced by a 85 PS 1.8 litre, and the new Bosch L-Jetronic fuel injection system was added to American units to help with emissions control. 914 production ended in 1976. The 2.0 litre flat-4 engine continued to be used in the 912E, which provided an entry-level model until the 924 was introduced.

The 911 traces its roots to sketches drawn by Ferdinand “Butzi” Porsche in 1959. The Porsche 911 was developed as a more powerful, larger and a more comfortable replacement for the 356, the company’s first model. The new car made its public debut at the 1963 Frankfurt Motor Show.  The car was developed with the proof-of-concept twin-fan Type 745 flat-six engine, but the car presented at the auto show had a non-operational mockup of the single-fan 901 engine, receiving a working unit in February 1964. It originally was designated as the “Porsche 901” (901 being its internal project number). A total of 82 cars were built as which were badges as 901s. However, French automobile manufacturer Peugeot protested on the grounds that in France it had exclusive rights to car names formed by three numbers with a zero in the middle. Instead of selling the new model with a different name in France, Porsche changed the name to 911. Internally, the cars’ part numbers carried on the prefix 901 for years. Production began in September 1964, with the first 911s exported to the US in February 1965. The first models of the 911 had a rear-mounted 130 hp Type 901/01 flat-6 engine, in the “boxer” configuration like the 356, the engine is air-cooled and displaces 1,991 cc  as compared to the 356’s four-cylinder, 1,582 cc unit. The car had four seats although the rear seats were small, thus it is usually called a 2+2 rather than a four-seater (the 356 was also a 2+2). A four or five-speed “Type 901” manual transmission was available. The styling was largely penned by Ferdinand “Butzi” Porsche, son of Ferdinand “Ferry” Porsche. Butzi Porsche initially came up with a notchback design with proper space for seating two rear passengers but Ferry Porsche insisted that the 356’s successor was to use its fastback styling. 7 prototypes were built based on Butzi Porsche’s original design and were internally called the Porsche 754 T7.  Erwin Komenda, the leader of the Porsche car body construction department who initially objected, was also involved later in the design. In 1966, Porsche introduced the more powerful 911S with Type 901/02 engine having a power output of 160 PS. Forged aluminum alloy wheels from Fuchsfelge, with a 5-spoke design, were offered for the first time. In motorsport at the same time, the engine was developed into the Type 901/20 and was installed in the mid-engine 904 and 906 with an increased power output of 210 PS, as well as fuel injected Type 901/21 installed in later variants of the 906 and 910 with a power output of 220 PS. In August 1967, the A series went into production with dual brake circuits and widened (5.5J-15) wheels still fitted with Pirelli Cinturato 165HR15 CA67 tyres. and the previously standard gasoline-burning heater became optional. The Targa version was introduced. The Targa had a stainless steel-clad roll bar, as automakers believed that proposed rollover safety requirements by the US National Highway Traffic Safety Administration (NHTSA) would make it difficult for fully open convertibles to meet regulations for sale in the US, an important market for the 911. The name “Targa” came from the Targa Florio sports car road race in Sicily, Italy in which Porsche had several victories until 1973. The last win in the subsequently discontinued event was scored with a 911 Carrera RS against prototypes entered by Ferrari and Alfa Romeo. The road going Targa was equipped with a removable roof panel and a removable plastic rear window (although a fixed glass version was offered from 1968). The 110 PS  911T was also launched in 1967 with Type 901/03 engine. The 130 PS model was renamed the 911L with Type 901/06 engine and ventilated front disc brakes. The brakes had been introduced on the previous 911S. The 911R with 901/22 engine had a limited production (20 in all), as this was a lightweight racing version with thin fibreglass reinforced plastic doors, a magnesium crankcase, twin overhead camshafts, and a power output of 210 PS. A clutchless semi-automatic Sportomatic model, composed of a torque converter, an automatic clutch, and the four-speed transmission was added in Autumn 1967. It was cancelled after the 1980 model year partly because of the elimination of a forward gear to make it a three-speed. The B series went into production in August 1968, replacing the 911L model with 911E with fuel injection. It remained in production until July 1969. The 911E gained 185/70VR15 Pirelli Cinturato CN36. and 6J-15 wheels. The C series was introduced in August 1969 with an enlarged 2.2-litre engine. The wheelbase for all 911 and 912 models was increased from 2,211–2,268 mm (87.0–89.3 in), to help as a remedy to the car’s nervous handling at the limit. The overall length of the car did not change, but the rear wheels were relocated further back. Fuel injection arrived for the 911S (901/10 engine) and for a new middle model, 911E (901/09 engine). The D series was produced from Aug. 1970 to July 1971. The 2.2-litre 911E (C and D series) had lower power output of the 911/01 engine (155 PS) compared to the 911S’s Type 911/02 (180 PS, but 911E was quicker in acceleration up to 160 km/h. The E series for 1972–1973 model years (August 1971 to July 1972 production) consisted of the same models, but with a new, larger 2,341 cc engine. This is known as the “2.4 L” engine, despite its displacement being closer to 2.3 litres. The 911E (Type 911/52 engine) and 911S (Type 911/53) used Bosch mechanical fuel injection (MFI) in all markets. For 1972 the 911T (Type 911/57) was carbureted, except in the US and some Asian markets where the 911T also came with (MFI) mechanical fuel injection (Type 911/51 engine) with power increase over European models (130 hp) to 140 hp commonly known as a 911T/E. With power and torque increase, the 2.4-litre cars also got a newer, stronger transmission, identified by its Porsche type number 915. Derived from the transmission in the 908 race car, the 915 did away with the 901 transmission’s “dog-leg” style first gear arrangement, opting for a traditional H pattern with first gear up to the left, second gear underneath first, etc. The E series had the unusual oil filler behind the right side door, with the dry sump oil tank relocated from behind the right rear wheel to the front of it in an attempt to move the center of gravity slightly forward for better handling. An extra oil filler/inspection flap was located on the rear wing, for this reason it became known as an “Oil Klapper”, “Ölklappe” or “Vierte Tür (4th door)”. The F series (August 1972 to July 1973 production) moved the oil tank back to the original behind-the-wheel location. This change was in response to complaints that gas-station attendants often filled gasoline into the oil tank. In January 1973, US 911Ts were switched to the new K-Jetronic CIS (Continuous Fuel Injection) system from Bosch on Type 911/91 engine. 911S models also gained a small spoiler under the front bumper to improve high-speed stability. The cars weighed 1,050 kg (2,310 lb). The 911 ST was produced in small numbers for racing (the production run for the ST lasted from 1970 to 1971). The cars were available with engines of either 1,987 cc or 2,404 cc, having a power output of 270 PS at 8,000 rpm. Weight was down to 960 kg (2,120 lb). The cars had success at the Daytona 6 Hours, the Sebring 12 Hours, the 1000 km Nürburgring, and the Targa Florio. The G Series cars, with revised bodies and larger impact-absorbing bumpers arrived in the autumn of 1973 and would continue in production with few visual changes but plenty of mechanical ones for a further 16 years.

The 911 continued to evolve throughout the 1960s and early 1970s, though changes initially were quite small. The SC appeared in the autumn of 1977, proving that any earlier plans there had been to replace the car with the front engined 924 and 928 had been shelved. The SC followed on from the Carrera 3.0 of 1967 and 1977. It had the same 3 litre engine, with a lower compression ratio and detuned to provide 180 PS . The “SC” designation was reintroduced by Porsche for the first time since the 356 SC. No Carrera versions were produced though the 930 Turbo remained at the top of the range. Porsche’s engineers felt that the weight of the extra luxury, safety and emissions equipment on these cars was blunting performance compared to the earlier, lighter cars with the same power output, so in non-US cars, power was increased to 188 PS for 1980, then finally to 204 PS. However, cars sold in the US market retained their lower-compression 180 PS engines throughout. This enabled them to be run on lower-octane fuel. In model year 1980, Porsche offered a Weissach special edition version of the 911 SC, named after the town in Germany where Porsche has their research centre. Designated M439, it was offered in two colours with the turbo whale tail & front chin spoiler, body colour-matched Fuchs alloy wheels and other convenience features as standard. 408 cars were built for North America. In 1982, a Ferry Porsche Edition was made and a total of 200 cars were sold with this cosmetic package. SCs sold in the UK could be specified with the Sport Group Package (UK) which added stiffer suspension, the rear spoiler, front rubber lip and black Fuchs wheels. In 1981 a Cabriolet concept car was shown at the Frankfurt Motor Show. Not only was the car a true convertible, but it also featured four-wheel drive, although this was dropped in the production version. The first 911 Cabriolet debuted in late 1982, as a 1983 model. This was Porsche’s first cabriolet since the 356 of the mid-1960s. It proved very popular with 4,214 sold in its introductory year, despite its premium price relative to the open-top targa. Cabriolet versions of the 911 have been offered ever since. 911 SC sales totalled 58,914 cars before the next iteration, the 3.2 Carrera, which was introduced for the 1984 model year. Coupe models outsold the Targa topped cars by a big margin.

It was only really with the launch in 1989 of the 964 that a truly “new” model would appear. Designed by Benjamin Dimson in 1986, it featured significant styling revisions over previous 911 models, most prominently the more integrated bumpers. The 964 was considered to be 85% new as compared to its predecessor. The first 964s available in 1989 were all wheel drive equipped “Carrera 4” models; Porsche added the rear wheel drive Carrera 2 variant to the range in 1990. Both variants were available as a coupe, Targa or Cabriolet. The 964 Carrera was the last generation sold with the traditional removable Targa roof until the 2011 991. A new naturally aspirated engine called the M64 was used for 964 models, with a flat-6 displacement of 3.6 litres. Porsche substantially revised the suspension, replacing torsion bars with coil springs and shock absorbers. Power steering and ABS brakes were added to the 911 for the first time; both were standard. The exterior bumpers and fog lamps became flush with the car for better aerodynamics. A new electric rear spoiler raised at speeds above 50 mph and lowered down flush with the rear engine lid at lower speeds. A revised interior featured standard dual airbags beginning in 1990 for all North American production cars. A new automatic climate control system provided improved heating and cooling. Revised instrumentation housed a large set of warning lights that were tied into the car’s central warning system, alerting the driver to a possible problem or malfunction. In 1992, Porsche produced a super-lightweight, rear-wheel-drive only version of the 964 dubbed Carrera RS for the European market. It was based on Porsche’s 911 “Carrera Cup” race car and harked back to the 2.7 and 3.0 RS and RSR models. It featured a revised version of the standard engine, titled M64/03 internally, with an increased power output of 260 bhp and lightweight flywheel coupled to the G50/10 transmission with closer ratios, asymmetrical Limited Slip Differential and steel synchromesh. A track-oriented suspension system with 40 mm (1.6 in) lower ride height, stiffer springs, shocks and adjustable stabiliser bars without power steering (RHD UK cars did have power steering). A stripped-out interior devoid of power windows or seats, rear seats, air conditioning, cruise control, sound deadening or a stereo system (optionally fitted) and new racing-bucket front seats were part of the package. The front boot cover was made of aluminium and the chassis was seam welded. Wheels were made of magnesium and the glass was thinner in the doors and rear window. The Carrera RS is approximately 345 pounds (155 kg) lighter than the Carrera 2 model. Also available were a heavier Touring variant (with sound deadening, power seats (optional), undercarriage protection and power windows) and an N/GT racing variant with a stripped, blank metal interior and a roll cage. They also came with optional lights on the visors. The RS was regarded as somewhat challenging to drive, though as time has gone by, everyone seems to have warmed to it.

Replacing the 964, the 993 models were first seen in October 1993, with production starting a few weeks later. Its arrival marked the end of air-cooled 911 models. The 993 was much improved over, and quite different from its predecessor. According to Porsche, every part of the car was designed from the ground up, including the engine and only 20% of its parts were carried over from the previous generation. Porsche refers to the 993 as “a significant advance, not just from a technical, but also a visual perspective.” Porsche’s engineers devised a new light-alloy subframe with coil and wishbone suspension (an all new multi-link system), putting behind the previous lift-off oversteer and making significant progress with the engine and handling, creating a more civilised car overall providing an improved driving experience. The 993 was also the first 911 to receive a six speed transmission. The 993 had several variants, as its predecessors, varying in body style, engines, drivetrains and included equipment. Power was increased by the addition of the VarioRam system, which added additional power, particularly in the mid-ranges, and also resulted in more throttle noise at higher revs; as a consequence, resulted in a 15% increase in power over its predecessor. The external design of the Porsche 993, penned by English designer Tony Hatter, retained the basic body shell architecture of the 964 and other earlier 911 models, but with revised exterior panels, with much more flared wheel arches, a smoother front and rear bumper design, an enlarged retractable rear wing and teardrop mirrors. A major change was the implementation of all alloy multi-link rear suspension attached to an alloy sub frame, a completely new design derived from the 989, a four-door sedan which never went into production. The system later continued in the 993’s successor, the 996, and required the widening of the rear wheel arches, which gave better stability. The new suspension improved handling, making it more direct, more stable, and helping to reduce the tendency to oversteer if the throttle was lifted during hard cornering, a trait of earlier 911s. It also reduced interior noise and improved ride quality. The 993 was the first generation of the 911 to have a 6-speed manual transmission included as standard; its predecessors had 4 or 5-speed transmissions. In virtually every situation, it was possible to keep the engine at its best torque range above 4,500 rpm. The Carrera, Carrera S, Cabriolet and Targa models (rear wheel drive) were available with a “Tiptronic” 4-speed automatic transmission, first introduced in the 964. From the 1995 model year, Porsche offered the Tiptronic S with additional steering wheel mounted controls and refined software for smoother, quicker shifts. Since the 993’s introduction, the Tiptronic is capable of recognising climbs and descents. The Tiptronic equipped cars suffer as compared to the manual transmission equipped cars in both acceleration and also top speed, but the differences are not much notable. Tiptronic cars also suffered a 55 lb (25 kg) increase in weight. The 993’s optional all wheel drive system was refined over that of the 964. Porsche departed from the 964’s setup consisting of three differentials and revised the system based on the layout from its 959 flagship, replacing the centre differential with a viscous coupling unit. In conjunction with the 993’s redesigned suspension, this system improved handling characteristics in inclement weather and still retained the stability offered by all wheel drive without having to suffer as many compromises as the previous all-wheel-drive system. Its simpler layout also reduced weight, though the four wheel drive Carrera 4 weighs 111 lb (50 kg) more than its rear wheel drive counterpart (at 3,131 lb (1,420 kg) vs. 3,020 lb (1,370 kg)). Other improvements over the 964 include a new dual-flow exhaust system, larger brakes with drilled discs, and a revised power steering. A full range of models arrived before the arrival of the 996 generation in 1998.

During the 1990s, Porsche was facing financial troubles and rumours of a proposed takeover were being spread. The signature air-cooled flat-6 of the 911 was reaching the limits of its potential as made evident by the 993. Stricter emissions regulations world wide further forced Porsche to think of a replacement of the air-cooled unit. In order to improve manufacturing processes, Porsche took the aid of leading Japanese car manufacturer Toyota whose consultants would assist in the overhaul of the Zuffenhausen manufacturing facility introducing mass production techniques which would allow Porsche to carry out production processes more efficiently. Porsche had realised that in order to keep the 911 in production, it would need radical changes. This led to the development of the 996. The sharing of development between the new 911 and the entry level Boxster model allowed Porsche to save development costs. This move also resulted in interchangeable parts between the two models bringing down maintenance costs. The Porsche 996 was a new design developed by Pinky Lai under Porsche design chief Harm Lagaay from 1992 to 1994; it was the first 911 that was completely redesigned, and carried over little from its predecessor as Porsche wanted the design team to design a 911 for the next millennium. Featuring an all new body work, interior, and the first water-cooled engine, the 996 replaced the 993 from which only the front suspension, rear multi-link suspension, and a 6-speed manual transmission were retained in revised form. The 996 had a drag coefficient of Cd=0.30 resulting from hours spent in the wind tunnel. The 996 is 185 mm (7 in) longer and 40 mm (2 in) wider than its predecessor. It is also 45% stiffer courtesy of a chassis formed from high-strength steel. Additionally, it is 50 kg (110 lb) lighter despite having additional radiators and coolant. All of the M96 engines offered in the 996 (except for the variants fitted to the Turbo and GT2/GT3 models) are susceptible to the Porsche Intermediate Shaft Bearing issue which can potentially cause serious engine failure if not addressed via a retrofit. The 996 was initially available in a coupé or a cabriolet (Convertible) bodystyle with rear-wheel drive, and later with four-wheel drive, utilising a 3.4 litre flat-6 engine generating a maximum power output of 296 bhp. The 996 had the same front end as the entry-level Boxster. After requests from the Carrera owners about their premium cars looking like a “lower priced car that looked just like theirs did”, Porsche redesigned the headlamps of the Carrera in 2002 similar to the high performance Turbo’s headlamps. The design for the initial “fried egg” shaped headlamps could be traced back to the 1997 911 GT1 race car. In 2000, Porsche introduced the 996 Turbo, equipped with a four-wheel-drive system and a 3.6-litre, twin-turbocharged and intercooled flat-six engine generating a maximum power output of 420 bhp, making the car capable of accelerating from 0–60 mph in 4.2 seconds. An X50 option which included larger turbochargers and intercoolers along with revised engine control software became available from the factory in 2002, increasing power output to 451 bhp. In 2005, Porsche introduced the Turbo S, which had the X50 option included as standard equipment, with the formerly optional Carbon fibre-reinforced Silicon Carbide (C/SiC) composite ceramic brakes (PCCB) also included as standard. In 2000, power output on the base Carrera model was increased to 300 bhp. 2001 marked the final year of production for the base Carrera 4 Coupé in narrow body format. In 2002, the standard Carrera models underwent the above-mentioned facelift. In addition, engine capacity was also increased to 3.6-litres across the range, yielding gains of 15 bhp for the naturally aspirated models. 2002 also marked the start of the production of the 996 based Targa model, with a sliding glass “green house” roof system as introduced on its predecessor. It also features a rear glass hatch which gave the driver access to the storage compartment. Also in 2002, the Carrera 4S model was first introduced.

Porsche unveiled the facelifted 991.2 GT3 at the 2017 Geneva Motor Show. Extensive changes were made to the engine allowing for a 9,000 rpm redline from the 4.0 litre flat-six engine derived from Porsche 911 GT3 R and Cup racing cars. The engine has a power output of 500 PS (493 bhp) and 460 Nm (339 lb/ft) of torque. Porsche’s focus was on reducing internal friction to improve throttle response. Compared to the 991.1, the rear spoiler is 0.8 inch taller and located farther back to be more effective resulting in a 20% increase in downforce. There is a new front spoiler and changes to the rear suspension along with larger ram air ducts. The car generates 154 kg (340 lb) of downforce at top speed. The 991.2 GT3 brought back the choice between a manual transmission or a PDK dual clutch transmission. Performance figures include a 0-60 mph acceleration time of 3.8 seconds (3.2 seconds for the PDK version) and a quarter mile time of 11.6 seconds. The GT3 can attain a top speed of 319 km/h (198 mph).

Also here among the pretty sizeable assembly of Porsche models were examples of the still-current 992 generation car.

In February 2021, Porsche introduced the 992’s GT3 version. Like most other GT3 Porsches, it is intended for mixed usage with a more track-focused setup. It uses the same 4.0 litre naturally aspirated flat-6 as the 991.2, and producing over 510 PS (503 hp). It reaches 100 km/h (62 mph) in 3.4 seconds while the top speed is 320 km/h (199 mph). The 992 GT3 recently set a lap time at Nürburgring Nordschleife with a time of 6:55.34 minutes. Unlike the standard model, the GT3 features a large rear spoiler with larger air vents, a bigger diffuser, two large exhaust connections, bucket seats in its interior, and an optional roll cage. The GT3 uses a 7-speed PDK or a 6-speed manual instead of the 7-speed manual or 8-speed PDK used in other models.

The 924 was originally another joint project of Volkswagen and Porsche created by the Vertriebsgesellschaft (VG), the joint sales and marketing company funded by Porsche and VW to market and sell sports cars, For Volkswagen, it was intended to be that company’s flagship coupé sports car and was dubbed “Project 425” during its development. For Porsche, it was to be its entry-level sports car replacing the 914. At the time, Volkswagen lacked a significant internal research and design division for developing sports cars; further, Porsche had been doing the bulk of the company’s development work anyway, per a deal that went back to the 1940s. In keeping with this history, Porsche was contracted to develop a new sporting vehicle with the caveat that this vehicle must work with an existing VW/Audi inline-four engine. Porsche chose a rear-wheel drive layout and a rear-mounted transaxle for the design to help provide 48/52 front/rear weight distribution; this slight rear weight bias aided both traction and brake balance. The 1973 oil crisis, a series of automobile-related regulatory changes enacted during the 1970s and a change of directors at Volkswagen made the case for a Volkswagen sports car less striking and the 425 project was put on hold. After serious deliberation at VW, the project was scrapped entirely after a decision was made to move forward with the cheaper, more practical, Golf-based Scirocco model instead. Porsche, which needed a model to replace the 914, made a deal with Volkswagen leadership to buy the design back. The deal specified that the car would be built at the ex-NSU factory in Neckarsulm located north of the Porsche headquarters in Stuttgart, Volkswagen becoming the subcontractor. Hence, Volkswagen employees would do the actual production line work (supervised by Porsche’s own production specialists) and that Porsche would own the design. It became one of Porsche’s best-selling models, and the relative cheapness of building the car made it both profitable and fairly easy for Porsche to finance. The original design used an Audi-sourced four-speed manual transmission from a front wheel drive car but now placed and used as a rear transaxle. It was mated to VW’s EA831 2.0 litre 4 cylinder engine, subsequently used in the Audi 100 and the Volkswagen LT van (common belief is that ‘the engine originated in the LT van’, but it first appeared in the Audi car and in 924 form has a Porsche-designed cylinder head). The 924 engine used Bosch K-Jetronic fuel injection, producing 125 bhp in European cars, but a rather paltry 95 bhp for the US market models, though this was improved to 110 hp in mid-1977 with the introduction of a catalytic converter, which reduced the need for power-robbing smog equipment. The four-speed manual was the only transmission available for the initial 1976 model, later this was replaced by a five-speed dog-leg unit. An Audi three-speed automatic was offered starting with the 1977.5 model. In 1980 the five-speed transmission was changed to a conventional H-pattern, with reverse now on the right beneath fifth gear. Porsche made small improvements to the 924 each model year between 1977 and 1985, but nothing major was changed on non-turbo cars. Porsche soon recognised the need for a higher-performance version of the 924 that could bridge the gap between the basic 924s and the 911s. Having already found the benefits of turbochargers on several race cars and the 1975 911 turbo, Porsche chose to use this technology for the 924, eventually introducing the 924 turbo as a 1978 model. Porsche started with the same Audi-sourced VW EA831 2.0 litre engine, designed an all new cylinder head (which was hand assembled at Stuttgart), dropped the compression to 7.5:1 and engineered a KKK K-26 turbocharger for it. With 10 psi boost, output increased to 170 hp. The 924 turbo’s engine assembly weighed about 65 lb more, so front spring rates and anti-roll bars were revised. Weight distribution was now 49/51 compared to the original 924 figure of 48/52 front to rear. In order to help make the car more functional, as well as to distinguish it from the naturally aspirated version, Porsche added an NACA duct in the bonnet and air intakes in the badge panel in the nose, 15-inch spoke-style alloy wheels, four-wheel disc brakes with five-stud hubs and a five-speed transmission. Forged 16-inch flat wheels of the style used on the 928 were optional, but fitment specification was that of the 911 which the 924 shared wheel offsets with. Internally, Porsche called it the “931” (left hand drive) and “932” (right hand drive). The turbocharged VW EA831 engine allowed the 924’s performance to come surprisingly close to that of the 911 SC (180 bhp), thanks in part to a lighter curb weight, but it also brought reliability problems.This was in part due to the fact that the general public did not know how to operate, or care for, what is by today’s standards a primitive turbo setup. A turbocharger cooled only by engine oil led to short component life and turbo-related seal and seat problems. To fix the problems, Porsche released a revised 924 turbo series 2 (although badging still read “924 turbo”) in 1979. By using a smaller turbocharger running at increased boost, slightly higher compression of 8:1 and an improved fuel injection system with DITC ignition triggered by the flywheel, reliability improved and power rose to 177 hp. In 1984, VW decided to stop manufacturing the engine blocks used in the 2.0 litre 924, leaving Porsche with a predicament. The 924 was considerably cheaper than its 944 stablemate, and dropping the model left Porsche without an affordable entry-level option. The decision was made to equip the narrower bodied 924 with a slightly detuned version of the 944’s 163 bhp 2.5 litre straight four, upgrading the suspension but retaining the 924’s early interior. The result was 1986’s 150 bhp 924S.  In 1988, the 924S’ final year of production, power increased to 160 bhp matching that of the previous year’s Le Mans spec cars and the base model 944, itself detuned by 3 bhp. This was achieved using different pistons which raised the S’ compression ratio from 9.7:1 to 10.2:1, the knock-on effect being an increase in the octane rating, up from 91 RON to 95. This made the 924S slightly faster than the base 944 due to its lighter weight and more aerodynamic body. With unfavourable exchange rates in the late 1980s, Porsche decided to focus its efforts on its more upmarket models, dropping the 924S for 1989 and the base 944 later that same year.

There were several 944 models here, too. Whilst its precursor, the 924, had received largely positive reviews, it was criticised by many including Porsche enthusiasts for its Audi-sourced engine and although the Turbo model had increased performance, this model carried a high price, which caused Porsche to decide to develop the 924, as they had with generations of the 911. They re-worked the platform and a new all-alloy 2.5 litre inline-four engine, that was, in essence, half of the 928’s 5.0 litre V8, although very few parts were actually interchangeable. Not typical in luxury sports cars, the four-cylinder engine was chosen for fuel efficiency and size, because it had to be fitted from below on the Neckarsulm production line. To overcome roughness caused by the unbalanced secondary forces that are typical of four-cylinder engines, Porsche included two counter-rotating balance shafts running at twice engine speed. Invented in 1904 by British engineer Frederick Lanchester, and further developed and patented in 1975 by Mitsubishi Motors, balance shafts carry eccentric weights which produce inertial forces that balance out the unbalanced secondary forces, making a four-cylinder engine feel as smooth as a six-cylinder. The engine was factory-rated at 150 hp in its U.S. configuration. Revised bodywork with wider wheel arches, similar to that of the 924 Carrera GT, a fresh interior and upgrades to the braking and suspension systems rounded out the major changes and Porsche introduced the car as the  944 in 1982. It was slightly faster (despite having a poorer drag co-efficient than the 924), the 944 was better equipped and more refined than the 924; it had better handling and stopping power, and was more comfortable to drive. The factory-claimed 0-60 mph time of less than 9 seconds and a top speed of  130 mph which turned out to be somewhat pessimistic,  In mid-1985, the 944 underwent its first significant changes. These included : a new dash and door panels, embedded radio antenna, upgraded alternator, increased oil sump capacity, new front and rear cast alloy control arms and semi-trailing arms, larger fuel tank, optional heated and powered seats, Porsche HiFi sound system, and revisions in the mounting of the transaxle to reduce noise and vibration. The “cookie cutter” style wheels used in the early 944s were upgraded to new “phone dial” style wheels (Fuchs wheels remained an option). 1985 model year cars incorporating these changes are sometimes referred to as “1985B”, “85.5” or “1985½” cars. For the 1987 model year, the 944 Motronic DME was updated, and newly incorporated anti-lock braking and air bags. Because of the ABS system, the wheel offset changed and Fuchs wheels were no longer an option. In early 1989 before the release of the 944S2, Porsche upgraded the 944 from the 2.5 to a 2.7 litre engine, with a rated 162 hp and a significant increase in torque. For the 1985 model year, Porsche introduced the 944 Turbo, known internally as the 951. This had a turbocharged and intercooled version of the standard car’s engine that produced 220 PS at 6000 rpm. In 1987, Car and Driver tested the 944 Turbo and achieved a 0-60 mph time of 5.9 seconds. The Turbo was the first car using a ceramic port liner to retain exhaust gas temperature and new forged pistons and was also the first vehicle to produce identical power output with or without a catalytic converter. The Turbo also featured several other changes, such as improved aerodynamics, notably an integrated front bumper. This featured the widest turn signals (indicators) fitted to any production car, a strengthened gearbox with a different final drive ratio, standard external oil coolers for both the engine and transmission, standard 16 inch wheels (optional forged Fuchs wheels), and a slightly stiffer suspension (progressive springs) to handle the extra weight. The Turbo’s front and rear brakes were borrowed from the Porsche 911, with Brembo 4-piston fixed calipers and 12-inch discs as ABS also came standard. Engine component revisions, more than thirty in all, were made to the 951 to compensate for increased internal loads and heat. Changes occurred for the 1987 model year. On the interior, the 1987 944 Turbo for North America became the first production car in the world to be equipped with driver and passenger side air bags as standard equipment. A low oil level light was added to the dash as well as a 180 mph (290 km/h) speedometer as opposed to the 170 mph speedometer on the 1986 model Turbos. Also included is the deletion of the transmission oil cooler, and a change in suspension control arms to reduce the car’s scrub radius. The engine remained the same M44/51 as in the 1986 model. In 1988, Porsche introduced the Turbo S. The 944 Turbo S had a more powerful engine (designation number M44/52) with 250 hp and 258 lb·ft torque (standard 944 Turbo 220 hp and 243 lb·ft. This higher output was achieved by using a larger K26-8 turbine housing and revised engine mapping which allowed maintaining maximum boost until 5800 rpm, compared to the standard 944 Turbo the boost would decrease from 1.75 bar at 3000 rpm to 1.52 bar at 5800 rpm. Top speed was factory rated at 162 mph. The 944 Turbo S’s suspension had the “M030” option consisting of Koni adjustable shocks front and rear, with ride height adjusting threaded collars on the front struts, progressive rate springs, larger hollow rear anti-roll/torsion bars, harder durometer suspension bushings, larger hollow anti-roll/torsion bars at the front, and chassis stiffening brackets in the front frame rails. The air conditioning dryer lines are routed so as to clear the front frame brace on the driver’s side. The 944 Turbo S wheels, known as the Club Sport design, were 16-inch Fuchs forged and flat-dished, similar to the Design 90 wheel. Wheel widths were 7 inches in the front, and 9 inches in the rear with 2.047 in offset; sizes of the Z-rated tyres were 225/50 in the front and 245/45 in the rear. The front and rear fender edges were rolled to accommodate the larger wheels. The manual transmission featured a higher friction clutch disc setup, an external cooler, and a limited slip differential with a 40% lockup setting. The Turbo S front brakes were borrowed from the Porsche 928 S4, with larger Brembo GT 4-piston fixed calipers and 12-inch discs; rear Brembo brakes remained the same as a standard Turbo. ABS also came standard. The 944 Turbo S interior featured power seats for both driver and passenger, where the majority of the factory-built Turbo S models sported a “Burgundy plaid” (Silver Rose edition) but other interior/exterior colours were available. A 10-speaker sound system and equalizer + amp was a common option with the Turbo S and S/SE prototypes. Only the earlier 1986, 250 bhp prototypes featured a “special wishes custom interior” options package. In 1989 and later production, the ‘S’ designation was dropped from the 944 Turbo S, and all 944 Turbos featured the Turbo S enhancements as standard, however the “M030” suspension and the Club Sport wheels were not part of that standard. The 944 Turbo S was the fastest production four cylinder car of its time. For the 1987 model year, the 944S “Super” was introduced, featuring a high performance normally aspirated, dual-overhead-cam 16-valve 190 PS version of the 2.5 litre engine (M44/40) featuring a self-adjusting timing belt tensioner. This marked the first use of four-valve-per-cylinder heads and DOHC in the 944 series, derived from the 928 S4 featuring a redesigned camshaft drive, a magnesium intake tract/passages, magnesium valve cover, larger capacity oil sump, and revised exhaust system. The alternator capacity was 115 amps. The wheel bearings were also strengthened and the brake servo action was made more powerful. Floating 944 calipers were standard, but the rear wheel brake circuit pressure regulator from the 944 turbo was used. Small ’16 Ventiler’ script badges were added on the sides in front of the body protection mouldings. Performance was quoted as 0 – 100 km/h in 6.5 seconds and a 144 mph top speed due to a 2857 lb weight. It also featured an improved programmed Bosch Digital Motronic 2 Computer/DME with dual knock sensors for improved fuel performance for the higher 10.9:1 compression ratio cylinder head. Like the 944 Turbo, the 944S received progressive springs for greater handling, Larger front and rear anti-roll bars, revised transmission and gearing to better suit the 2.5 litre DOHC higher 6800 rpm rev limit. Dual safety air bags, limited-slip differential, and ABS braking system were optional on the 944S. A Club Sport touring package (M637) was available as was the lightweight 16 inch CS/Sport Fuch 16×7 and 16×9 forged alloy wheels. This SC version car was raced in Canada, Europe and in the U.S. IMSA Firehawk Cup Series. Production was only during 1987 and 1988. It was superseded in 1989 by the ‘S2’ 944 edition. The 1987 944S power-to-weight ratio was such that it was able to accelerate from 0 to 62 mph in 6.5 seconds thus matching the acceleration of its newer larger displacement 3.0 litre 944 S2 sibling. In 1989 the 944S2 was introduced, powered by a 211 PS normally aspirated, dual-overhead-cam 16-valve 3.0 litre version of the 944S engine, the largest production 4-cylinder engine of its time. The 944S2 also received a revised transmission and gearing to better suit the 3.0 litre M44/41 powerplant. The 944S2 had the same rounded nose and a rear valance found on the Turbo model. This was the first example of the use of an integrated front bumper, where the fender and hood profiles would merge smoothly with the bumper, a design feature that has only now seen widespread adoption on the 1990 onward production cars. Performance was quoted as 0-60 mph in 6.0 seconds with a top speed of 240 km/h (150 mph) via manual transmission. A Club Sport touring package (M637) was also available. Dual air bags (left hand drive models), limited-slip differential and ABS were optional. Series 90 16-inch cast alloy wheels were standard equipment. In 1989, Porsche released the 944 S2 Cabriolet, a first for the 944 line that featured the cabriolet body built by ASC-American Sunroof Company at Weinsberg Germany. The first year of production included sixteen 944 S2 Cabriolet for the U.S. market. For the 1990 model year, Porsche produced 3,938 944 S2 Cabriolets for all markets including right-hand drive units for the United Kingdom, Australia and South Africa. This car was raced, including the British championship that was called the Porsche Motorsport Championship. Production was during 1989, 1990, and 1991. The 944 S2 power-to-weight ratio was such that it was able to accelerate from 0 to 60 mph in 6.5 seconds. In February 1991, Porsche released the 944 Turbo Cabriolet, which combined the Turbo S’s 250 hp engine with the cabriolet body built by ASC-American Sunroof Company at Weinsberg Germany. Porsche initially announced that 600 would be made; ultimately 625 were built, 100 of which were right-hand drive for the United Kingdom, Japanese, Australian, and South African market. None were imported to the U.S. and The Americas. In early 1990, Porsche engineers began working on what they had intended to be the third evolution of the 944, the S3. As they progressed with the development process, they realised that so many parts were being changed that they had produced an almost entirely new vehicle. Porsche consequently shifted development from the 944 S/S2 to the car that would replace the 944 entirely, the 968. The 944’s final year of production was 1991. A grand total 163,192 cars in the 944 family were produced between 1982 and 1991. This made it the most successful car line in Porsche’s history until the introductions of the Boxster and 997 Carrera.

Much rumoured for some time, the Cayman GT4 was officially launched at the 2015 Geneva Show, positioned to sit  between the Cayman GTS and the 911 GT3. By the time of the official unveiling, the car was supposedly sold out many times over, though more recently it has become apparent that at least some Porsche dealers have been holding onto cars claiming that the first purchaser changed their mind, and then offering them to those who did not get one of the allocation a year ago, at vastly inflated prices. If true, this is very sharp practice indeed, but seems to be the sort to tricks that are becoming increasingly common as enthusiasts are being fleeced in the name of extra profit. For a starting price of around £65,000 in the UK, the lucky customer would get a car which used used a stiffened and strengthened Cayman bodyshell as a starting point, but lowered by 30mm . Porsche say that in fitting as many GT parts as possible, they did not  make it out of a Cayman GTS, but rather they produced an entry-level mid-engined GT3 car. That sounds like PR spin to me, as of course the car does use an awful lot of parts from the regular Cayman. However, plenty is changed, too. There is a reworked version of the Carrera S’s 3.8-litre flat six engine, producing  380bhp at 7400rpm and 310lb ft at 4750-6000rpm, hooked up to a modified version of the Cayman GTS’s six-speed manual gearbox. A PDK dual-clutch automatic was considered but rejected, meaning the Cayman GT4 is manual only. This is enough to mean that the 0-62mph sprint takes 4.4sec and the top speed is 183mph, with combined fuel economy of 27.4mpg and CO2 emissions rated at 238g/km. The front axle and suspension are borrowed from the 911 GT3 and the rear axle and forged aluminium double wishbone suspension are completely new. Dampers are taken from the 911 GT3. The electric steering system from the 911 GT3 does make it onto the Cayman GT4 but is given new software. Stopping power is provided by standard steel brakes, or optional carbon-ceramics from the 911 GT3. The forged 20in alloy wheels were new and are shod with Michelin Pilot Sport Cup 2 tyres. The rear 295/30 ZR20 tyres are bespoke, but the front 245/35 ZR20s were borrowed from the 911 GT3 as they were “a perfect match”. design-wise, the goal was to create a “zero lift car”, but thanks to the extensive aerodynamic and cooling package on the car – which includes a front splitter, a larger front grille and increased frontal air intakes, side air intakes, not one but two rear spoilers and a fully functional diffuser – the Cayman GT4 produces as much downforce at speed (100kg) as the 911 GT3. Every single part on the Cayman GT4 has a functional use. Other design features include  “cool” black glass on the front and rear lights, blackened twin central exhausts and quality stitching on the twin lightweight bucket seats, taken from the 918 Spyder, as small details adding to that ‘want factor’.Despite all the extra equipment, the Cayman GT4 weighs no more than a Cayman GTS, tipping the scales at 1340kg dry. You could delete items such as the sat-nav and air-con to save weight, but few customers did, just as with the 911 GT3 RS were just 2% of buyers deleted the air-con. Inside, the steering wheel was new. The sports seats were trimmed in both leather and Alcantara. Standard equipment included bi-xenon headlights, a sports exhaust system, a Sport Chrono Package with dynamic engine mounts, the Porsche Torque Vectoring system, a mechanical limited-slip differential at the rear and the Porsche Stability Management system. On the options list were items such as carbonfibre-reinforced, plastic-backed seats for the two-seat interior. These weigh just 15kg each and were inspired by the 918 Spyder. A customised version of the Sport Chrono Package was offered, as is a Club Sport Package. Initially it was declared that production would be very limited, but Porsche soon relented and far more were built than had originally been declared.

In 2021, Porsche unveiled the 718 Cayman GT4 RS, the first Cayman to receive the RS treatment which is usually reserved for the 911 models. With a 4.0 naturally aspirated flat-six derived from the 911 GT3, it puts out 500 PS (490 bhp) and 450 Nm (330 lb/ft) with an rpm limit of 9,000rpm, which allows it to sprint from 0–100 km/h (0–62 mph) in just 3.4 seconds. It generates 25% more downforce than the GT4 variant, through a swan-neck attachment fixed rear wing. The GT4 RS lapped the Nürburgring Nordschleife 23 seconds faster than the GT4. There is a hefty price premium over the GT4 model. An open-topped 718 Boxster RS Spyder model followed a few months later, mechanically the same, just with the different body.

The 718 Cayman GT4 and 718 Spyder (previously named the Boxster Spyder) were revealed in June 2019. Both are differentiated from less powerful models by more aggressive bodywork, including a lower stance, new front bumper, a large new diffuser, and exhaust pipes that are spaced farther apart. The GT4 also features larger side intakes and an adjustable wing, the latter of which helps it generate up to 150 kg (330 lb) of downforce, 50 percent more than its predecessor. Both have a naturally aspirated 4.0-litre flat-6 derived from the 992’s 3.0-litre 9A2EVO engine, which is rated at 414 bhp at 7,600 rpm and 420 Nm (310 lb/ft) of torque at 5,000–6,800 rpm. The engine has cylinder deactivation, a first for Porsche. Porsche claims a top speed of 304 km/h (189 mph) for the GT4, and 301 km/h (187 mph) for the Spyder. The front suspension and brakes are borrowed from the 911 GT3, and the adaptive dampers, ABS and stability-control programming are borrowed from the 911 GT3 RS. The anti-roll bar end links, camber and toe can be manually adjusted, but the ride height–3 cm (1.2 in) lower than a standard 718–is fixed. Both are around 15 kg heavier than the GTS models. Sales commenced in the spring of 2020. For the 2021 model year, the GT4 and Spyder became available with the 7-speed PDK dual-clutch transmission as an option. It reduces the 0-60 mph (97 km/h) acceleration time from 4.3 seconds to 3.7 seconds. In March of 2023, Porsche announced that 718 GT4 and Spyder Models would cease production as of the 2024 model year, however it was later extended through the 2025 model year with production ending October 2025.

The 918 Spyder was first shown as a concept at the 80th Geneva Motor Show in March 2010. On 28 July 2010, after 2,000 declarations of interest, the supervisory board of Porsche AG approved series development of the 918 Spyder. The production version was unveiled at the September 2013 Frankfurt Motor Show. Porsche also unveiled the RSR racing variant of the 918 at the 2011 North American International Auto Show, which combines hybrid technology first used in the 997 GT3 R Hybrid, with styling from the 918 Spyder. But that version didn’t make it to production. The 918 Spyder was the second plug-in hybrid car manufactured by Porsche, after the 2014 Panamera S E-Hybrid. The 918 Spyder is powered by a 4,593 cc naturally aspirated V8 engine built on the same architecture as the one used in the RS Spyder Le Mans Prototype racing car without any engine belts. The engine weighs 135 kg (298 lb) according to Porsche and delivers 599 bhp at 8,700 rpm and 540 Nm (398 lb/ft) of maximum torque at 6,700 rpm. This is supplemented by two electric motors delivering an additional 282 bhp. One 154 bhp electric motor drives the rear wheels in parallel with the engine and also serves as the main generator. This motor and engine deliver power to the rear axle via a 7-speed gearbox coupled to Porsche’s own PDK double-clutch system. The front 127 bhp electric motor directly drives the front axle; an electric clutch decouples the motor when not in use. The total system delivers 874 bhp and 1,280 Nm (944 lb/ft) of torque. Porsche provided official performance figures of 0-100 km/h (62 mph) in 2.6 seconds, 0-200 km/h (120 mph) in 7.2 seconds, 0-300 km/h (190 mph) in 19.9 seconds and a top speed of 345 km/h (214 mph). Those numbers were surpassed in independent tests which yielded 2.5 seconds for 0-100 km/h, 7.0 seconds for 0-200 km/h, 19.1 seconds for 0-300 km/h, a top speed of 351.5 km/h (218.4 mph) and 17.75 seconds for the standing kilometer with a speed of 295.9 km/h (183.9 mph). The energy storage system is a 312-cell, liquid-cooled 6.8 kWh lithium-ion battery positioned behind the passenger cell. In addition to a plug-in charge port at the passenger-side B pillar, the batteries are also charged by regenerative braking and by excess output from the engine when the car is coasting. CO2 emissions are 79 g/km and fuel consumption is 3 L/100 km (94 mpg) under the New European Driving Cycle (NEDC). The U.S. Environmental Protection Agency (EPA) under its five-cycle tests rated the 2015 model year Porsche 918 Spyder energy consumption in all-electric mode at 50 kWh per 100 miles, which translates into a combined city/highway fuel economy of 3.5 L/100 km (81 mpg). When powered only by the gasoline engine, EPA’s official combined city/highway fuel economy is 26 mpg. The 918 Spyder’s engine is based on the unit used in the Porsche RS Spyder. The 4.6 litre V8 petrol engine can recharge an empty battery on about two litres of fuel. The supplied Porsche Universal Charger requires seven hours to charge the battery on a typical 110 volt household AC socket or two hours on a dedicated Charging Dock installed with a 240 volt industrial supply. An optional DC Speed Charging Station can restore the battery to full capacity in 25 minutes. The 918 Spyder offers five different running modes: E-Drive allows the car to run under battery power alone, using the rear electric motor and front motor, giving a range of 29 kilometres (18 mi) for the concept model. The official U.S. EPA all-electric range is 12 mi (19 km). The total range with a full tank of gasoline and a fully charged battery is 420 miles (680 km) according to EPA tests. Under the E-Drive mode the car can attain a maximum speed of 150 km/h (93 mph). Two hybrid modes (Hybrid, and Race) use both the engine and electric motors to provide the desired levels of economy and performance. In Race mode a push-to-pass button initiates the Hot Lap setting, which delivers additional electrical power. The chassis is a carbon-fibre-reinforced plastic monocoque and the brakes used are electromechanical brakes. The production version was unveiled at the 2013 Frankfurt Motor Show. The 918 Spyder was produced in a limited series and it was developed in Weissach and assembled in Zuffenhausen. Pricing for the 918 Spyder started at €611,000 (US$845,000) or £511,000. Production ended in June 2015 as scheduled. The country with the most orders was the United States with 297 units, followed by China and Germany with approximately 100 orders each, and Canada ordering 35 units.

RALLY CARS

There was a small display of historic rally cars, featuring a mix of familiar and less well-known cars. Among them were a Ford Anglia, a Lancia Stratos (replica), an MGB, an Opel Ascona A and Opel Manta 400 as well as a Subaru Impreza WRX.

RAMBLER

The Rambler Marlin (later AMC Marlin) is a two-door fastback automobile produced in the United States by American Motors Corporation from 1965 to 1967. A halo car for the company, it was marketed as a personal luxury car. In 1965, the car was marketed as “Rambler Marlin”. For 1966, the car featured “Marlin” identification only and was officially named “AMC Marlin”, as was the 1967 model. Its fastback roof design was previewed on the 1964 Rambler Tarpon show car, based on the compact Rambler American. The 1965 and 1966 model year production Marlins were fastback versions of the mid-sized two-door hardtop Rambler Classic, and 1967 brought a major redesign in which the car was given the new, longer AMC Ambassador full-sized chassis. This version had a longer hood and numerous improvements, including more interior room and new V8 engines. As American prosperity increased in the early 1960s, the U.S. automobile market expanded. Whereas American Motors’ profitable marketing strategy under George W. Romney had concentrated on compact, economical cars, Romney’s successor as CEO, Roy Abernethy, sought to compete with the “Big Three” automobile manufacturers (General Motors, Ford, and Chrysler) by expanding AMC’s model lines into additional market segments; particularly by developing a sporty, roomy, six-passenger sedan that would occupy a unique niche in the market. The idea was that the new car would be a distinctive, low-volume model symbolizing a new Rambler look and spearheading a full product line. To be a distinctive competitor to the Big Three, it should be flashy and intermediate-sized, and in an era when other automakers were stressing the power of muscle cars for their intermediate-sized image vehicles, the new model—the Marlin—was to feature comfort and spaciousness. Initially, in response to a proposal for a sporty, youth-oriented car, a four-seat fastback design study, the Rambler Tarpon, had been built on the compact-sized Rambler American platform. This was shown as a concept car at various auto shows, but AMC’s current “GEN-I” V8 engine would not fit in the comparatively small Rambler chassis; also, the new “GEN-II” V8 designs were still in development, and market research showed that a six-cylinder engine alone would not satisfy potential customers. Management at the small automaker wanted to change “its tune” with “a reasonably sporty ‘upsized’ response of sorts to Ford’s Mustang.” The “fastback” appearance was a revival of sedans built after World War II, as demonstrated by the 1940s Nash Ambassador. Ultimately, and in line with Roy Abernethy’s new marketing strategy, the decision was made to build the new fastback model on AMC’s intermediate-sized Rambler Classic platform. The development team, under distinguished American designer Dick Teague, had to work with considerably smaller budgets than their counterparts at Detroit’s Big Three to create the new Marlin. They created a large, roomy and luxurious fastback which incorporated a number of design features from the Tarpon show car. The signature roof line from the windshield with the Marlin’s “skylight permits carrying through the true fastback line in an unbroken sweep.” However, the roof was raised over the rear passenger area when Abernethy, who was six-foot-four (193 cm tall), insisted on being able to sit in the back seat of the design studies. Teague worked for Chrysler as a stylist during the mid-1950s and the fastback-styling of the lost 1956 Chrysler Norseman concept car’s “resemblance to (that of) the 1965 Rambler Marlin fastback coupe, or vice versa, was (said to be) uncanny.” As the Marlin was targeted at the evolving “personal luxury” segment, its long list of standard equipment was supplemented by numerous options that enabled buyers to personalize their car. American Motors billed the Marlin as a new addition to the company’s self-styled “Sensible Spectaculars” model line. Backed by extensive advertising and merchandising, the car was officially announced on 10 February 1965, and unveiled in Rambler dealer showrooms on 19 March. New car introductions, more significant in the 1960s than today, were often accompanied by special invitations and heavy publicity. The Marlin was advertised in 2,400 newspapers on its launch day, and American Motors’ news releases positioned it as aimed at buyers wanting a sporty fastback that was also roomy and comfortable. This contrasted it with the smaller Barracuda and Mustang fastbacks that had arrived a year earlier. AMC’s first model following the muscle car launches of the 1960s, the Marlin was intended to fill a niche left by their competitors. Within a year, Chrysler would enter that marketplace with the Dodge Charger, and a year later Ford, with the Mercury Cougar. The initial Rambler Marlin advertisements stated “now in limited production.” Every dealership received one or two units to increase showroom traffic, whereas the production numbers are a direct reflection upon the actual number of Rambler automobile dealers and AMC sent bulletins to dealerships telling “How to use Marlin to sell the Rambler Classic.” According to Tom Coupe, AMC’s vice-president for sales, “the basic reason we produced the Marlin, is to attract attention to American Motors.” The Marlin followed the signature design features of the Ford Galaxie “Sports Roof”, the Plymouth Barracuda, the Mustang 2+2, and the 1965 fastback models from General Motors, including the Chevrolet Impala “Sport Coupe” versions. A book on American muscle cars says V8-powered Marlins provided appropriate performance for the streamlined appearance. As part of Roy Abernethy’s remake of AMC’s corporate identity, divorcing the larger car lines from the historic Rambler brand that had “become synonymous with frugality” and the economy compact car image. The Rambler Marlin became known as the AMC Marlin starting with the 1966 model year. All references to “Rambler” were removed from the car and promotional materials. The other changes were minor (e.g. a slight modification to the extruded aluminum grille, a front sway bar made standard on six-cylinder models, and an optional black vinyl roof cover that continued over the trunk opening). New was an electronic tach on the top of the dash. The 1967 model year saw an increase in specialty market segment that included “the luxurious personal cars, Thunderbird, Riviera, Marlin, Charger, Toronado and Eldorado.” The Marlin was made larger and more expensive for the 1967 model year. It was now built on AMC’s completely redesigned 118 in (2,997 mm) wheelbase “senior” platform, i.e. the AMC Ambassador chassis. The retooling for 1967 design changes that were mostly to the “senior” line of AMC cars (Ambassador, Marlin, Rebel) cost $35 million. The overall length of the new Marlin’s body increased by 6.5 inches (165 mm) with more rear seat legroom, as well as being wider resulting in 2.2 inches (56 mm) of additional interior room, but in the process the car gained 350 pounds (159 kg) compared to the previous models. Making the Marlin larger was a design requirement in anticipation of the 1968 entry of the compact-platform based Javelin.

RELIANT

Tom Karen of Ogle was asked to submit some body designs based on the Ogle Design GTS estate car experiment for a new four-seater Scimitar, the SE5 Reliant Scimitar. Managing Director Ray Wiggin, Chief Engineer John Crosthwaite and fibreglass body expert Ken Wood went to Ogle’s in Letchworth to view some mock-up body designs for the new SE5. Wiggin told Wood to proceed with a proper master. The SE5 was conceived and ready for the 1968 Motor Show in less than 12 months. For the SE5 John Crosthwaite and his team designed a completely different longer chassis frame, revised suspension, new and relocated fuel tank, a rollover bar, new cooling system, spare wheel mounted in the nose to give increased rear space and a 17+1⁄4 imperial gallons (78 L) fuel tank. When designing the chassis Crosthwaite worked closely with Ogle body stylist Peter Bailey to modify and refine the prototype. The main change introduced in the SE5 was the sports estate hatchback body shape, although other car manufacturers had also produced hatchback models. The SE5 came with the same 3.0-litre Ford Essex engine used in the SE4a/b. This gave the SE5 a claimed top speed of over 120 mph (193 km/h). A Borg-Warner 35 automatic transmission was added as an option in 1970 and by 1971, overdrive on the 4-speed manual was offered. In 1972 several improvements were included in the upgrade to SE5A, including a boost in power. The extra 7 hp and maximum engine speed raised performance and the GTE was now capable of 0–60 mph (0–97 km/h) in 8.5 seconds and top speed was raised to 121 mph (195 km/h). The SE5’s flat dashboard also gave way to a curved and moulded plastic one. The SE5A can be recognised from a SE5 at the rear by the reverse lamps which are below the bumper on the earlier model and are incorporated into the rear clusters on the later version (these were also carried over onto the SE6 and later). Badging changes included changing the “SCIMITAR” lettering from a narrow type-style to a fatter one. Directly following the announcement of the car, Autocar magazine tested a 3-litre GTE (with manual transmission) in October 1968. They reported a maximum speed of 117 mph (188 km/h) and a 0–60 mph (0–97 km/h) time of 10.7 seconds. Overall fuel consumption for the test came in at 18.5 mpg. The manufacturer’s UK market recommended retail price, including sales taxes, was £1,759. The 3-litre MG MGC GT was retailing at this time for £1,337 while Rover’s 3500 was offered for £1,791. Launch of the more directly comparable Volvo 1800ES was still four years away. 4,311 SE5s were produced. It was an instant success; GT production was cut down and the proportion of GTEs to GTs being built was four-to-one. Reliant increased its volume by 20% in the first year. The 5A model sold more than any other Scimitar, with 5105 manufactured. Princess Anne was given a manual overdrive SE5 as a joint 20th birthday present and Christmas present in November 1970 by the Queen and the Duke of Edinburgh. It was Air Force blue in colour with a grey leather interior and registered 1420 H in recognition of her position as Colonel-in-Chief of the 14th/20th Hussars. Anne subsequently owned eight other GTEs.

More of a luxury model than the SE5, the SE6 series Scimitar GT, launched in October 1975,  was aimed more at the executive market. These models were two-door sports estates, again with the Ford V6 3.0 litre engine as used in the 5a with 135 bhp,: the wheelbase was increased by 4 inches and the track by 3 inches making the cars correspondingly longer and wider than their predecessors. The extra length was used to improve rear-seat legroom and access which enhanced the car’s credentials as a ‘genuine’ four-seater. The SE6 was replaced by the SE6A in late 1976. 543 SE6 models were produced. The SE6A displayed a number of changes, including Lockheed brakes and suspension revisions. An easy way to spot a 6A from a 6 is the change to orange from red reflectors on the rear extractor vents, and the 3 vertical grooves in the front bumper (in front of the wheelarches) were removed. 3877 SE6As were made – making it the most popular version of all the SE6 shape. Ford stopped making the “Essex” engine for the Capri by 1981, and production stopped completely in 1988 so one of the major differences with the SE6B was the engine. The German-built Ford “Cologne” 2.8 litre V6 was used instead (thus the chassis on the 6B differs from the 6/6A at the front) and provided similar power but rather less torque at low revs. The final drive ratio was lowered from 3.31:1 to 3.54:1 to compensate. All SE6Bs (and the SE8) were equipped with the quite troublesome Pierburg/Solex carburettored engines (many owners have changed to the Weber 38DGAS from the Essex engine) and although the battery was moved from the 6/6A position to allow for injection equipment to be fitted, none ever left the factory so fitted. Some late versions (around 1983 on) came with the galvanised chassis as standard but the exact numbers and chassis details are vague. Introduced at the 1980 Geneva Motor Show, only 437 SE6Bs were manufactured. Production ceased by 1986. But that was not the end of the story. After production at Reliant ceased, Middlebridge Scimitar Ltd. acquired the manufacturing rights to the Scimitar GTE and GTC in June 1987. This company, based in Beeston, Nottingham, produced a 2.9 litre version of the GTE with many modifications and modernisations (over 450) including electronic fuel injection and a five-speed Ford T9 gearbox.(with the Ford A4LD 4 speed auto as an option). The fifth Middlebridge Scimitar built was delivered to HRH The Princess Anne. Only 78 Scimitars (all but 3 cars in RHD) were ever produced by Middlebridge before the company went into receivership in 1990. One GTC was made, using a LHD body from Reliant which was converted by Middlebridge to RHD but the car was never completed and eventually the body and chassis were separated and sold off to new owners. The production rights were subsequently acquired by Graham Walker Ltd., which as of 2014 built Scimitars to order

Tamworth-based manufacturer began planning an open topped version of their popular Scimitar GTE as early as 1977, and they Ogle Design, who were also responsible for the GTE, to create a proposal. Tom Karen adapted his earlier GTE design and created a beautifully proportioned four-seater convertible with a good sized boot. From the B post back, all of the panels were new, with extra bracing introduced between the rear side panels and door hinge plates running under the dash board. The roll hoop from the GTE was retained, and for additional support this was linked to extra tubes running around the front screen creating a T bar design that would ensure the rigidity of the new body design. As the car sported a separate chassis and the extra bracing it did not suffer from the scuttle shake that can bedevil many monocoque convertibles. The hood was designed in house by adapting the hood frame from a Triumph Stag, with a bespoke cover made of mohair. A prototype car was produced in 1978, still in existence today, powered by a 3.0 Essex engine. Later Reliant replaced it with a 2.8 Cologne engine, because had Ford withdrawn their Essex engines from the European market in favour of the Cologne unit. This was slightly down on torque compared to the Essex engine, so to improve performance Reliant changed the final drive ratio from 3.31 to 3.54. The GTC, which surprisingly is lighter than the SE6B model GTE, was launched in March 1980 and was well received by the motoring press. However, in 1980 the country was heading into a recession and Reliant struggled to sell their £11,360 convertibles in great numbers. As a result, many cars were left sitting at the factory for months until owners could be found. A total of 442 production GTCs were manufactured by Reliant, 340  of which were manufactured in 1980. Just 3 were manufactured in 1981, 20 in 1982, 24 in 1983, 29 in 1984, 13 in 1985 and the final 13 in 1986. Today the GTC is a very rare sight on our roads and is possibly the most desirable of the Scimitar models.

The Reliant Scimitar SS1 is an automobile which was produced from 1984 to 1995. Aiming to fill a gap in the small sports car market, Scimitar SS1 was launched in 1984 at the British International Motor Show in Birmingham. It was Giovanni Michelotti’s last design. The name was reported to stand for Small Sports 1. Despite plans for production of 2000 a year, only 1,507 models were produced in the ten years of overall production. In 1990, the SS1 was renamed as the Scimitar SST following a facelift and in 1992 was re-launched as the Scimitar Sabre. Sales of the Sabre ceased in 1995 with the collapse of Reliant. The chassis was inspired by that of the Lotus Elan. The 1.3 L (later replaced with a 1.4 L) and 1.6 L engines were Ford CVH units, front mounted driving the rear wheels through a four-speed gearbox on the 1300 and 1400, and a five-speed gearbox with the 1600. Originally, the car was planned to use the new EFI 1.6 L Ford engine introduced on the Escort XR3i, however, the lower hood line of the SS1 meant that it had to use the slightly shorter carbureted version to fit. The suspension was independent all round using coil springs with semi trailing arms at the rear. The body panels were made of polyurethane or glass reinforced polyester, fitted to a semi-space frame backbone chassis. The panels were designed to be easily removed and replaced to repair accident damage. A removable hard top was available as an option. The SS1 1.6 L had an engine capacity of 1596 cc with a power output of 96 bhp at 6000 rpm and 98 lb/ft (133 Nm) at 4000 rpm of torque. It could reach a top speed of 110 mph (177.0 km/h) and accelerated from 0-60 mph in 9.6 seconds. In 1986, the range was joined by the CA18ET 1809 cc turbocharged engine from the Nissan Bluebird. The 1800Ti, as the Nissan-engined version was known, received standard alloy wheels and a small rear spoiler and gave the car a significant performance boost with a power output of 135 bhp at 6000 rpm and 143 lb/ft (194 Nm) of torque. This allowed for a top speed of 126 mph (202.8 km/h) and 0-60 mph in 6.8 seconds. This car had unusual uncovered rectangular Porsche 928-style pop-up headlamps and shared many components with production cars of the day, such as Austin-Rover switchgear and gauges. The post 1986 models with a galvanised chassis can be identified by having a single windscreen wiper.

Some of the styling features of the SS2 prototype were incorporated into a facelifted SS1 model, renamed Scimitar SST (“T” for “Towns”). The SST was launched in 1990. More than a mere facelift, the new body was also of a very different construction. The SS1’s bodypanels were mounted on a steel framework, itself mounted to the chassis, while the SST’s body was of a “semi-monocoque” design fixed directly to the chassis. The bodywork, consisting of two large pieces (front and rear), thus did not suffer the unsightly panel gaps that were so characteristic of the SS1. The engines were Nissan’s CA18ET (1800Ti) producing 135 bhp and Ford’s CVH (1400) producing 75 bhp. The only transmission available was a five-speed manual unit

The Reliant Rialto is a three-wheeled car that was manufactured by Reliant Motor Company, replacing the original Mk 1 Reliant Robin in 1982. It featured a much squarer aerodynamic body, servicing panels, a single large windscreen wiper, a thicker fibreglass body, and altered interior, but the chassis, engine, and a lot of large components were carried over from the previous model. The improvements gave the Rialto improved high-speed stability as well as improved fuel economy. The Rialto was the first Reliant to be designed by International Automotive Design (IAD UK Ltd), where previous Reliant models were generally conceived by Ogle Design. The Rialto was built in a number of different configurations, including: a saloon, estate, van, hatchback, pick-up, and flatbed. Rialtos also came in a number of different series: the Mk 1 models from 1982 to 1983; the Rialto 2 series from 1983 to 1986; and the Rialto SE from 1987 until 1995 – the estate model was built in tandem with the Robin Mk 2 estate, which was introduced in 1992. The last Rialto model to be built was the 1997 ‘Giant’ pick up. Upon release, the Rialto had a 12-month waiting list in 1982, and was one of Reliant’s best-selling models ever, but never gained as much praise[citation needed] as the better-known Robin. In the 1980s the Rialto was Reliant’s only 3 wheeler model; production of the Mk 1 Robin ended in 1981, and its successor – the Robin Mk 2 – wouldn’t materialise until 1989. Even after the introduction of the new Robin, the Rialto estate was available to order until 1996. The idea of updating the Robin dates back to 1978, but by 1980 sales were slowing, and Reliant thought a simple facelift may have fixed this. Originally the Rialto was nothing more than a nose-end treatment with the same square headlamps and black grille. This was eventually rejected, as it was said the squarer front end didn’t look good against the rounder body shape of the Mk 1 Robin. A design by International Automotive Design was also presented for the Rialto: an entirely new model in the form of a larger 3-wheeled hatchback whose design was not dissimilar to the Mk 3 Ford Escort, even using the same front and rear lights. In the end Reliant decided to save money by continuing to use the mechanical parts of the Mk 1 Robin, such as its running gear, but update the whole car with a new style of body, and rename it the Rialto. The Rialto was designed to have a higher compression engine and high geared rear axle for the 1980s “motorway age”, but because the company wanted to bring the car to market quickly, it was launched in 1982 using the same engine, gearbox, and axle line up from the original Robin. The mechanical improvements were ready a year later, when the car was relaunched as the Rialto 2. The Mk 1 Rialto series was available in three separate body styles: saloon, estate, and van. The range consisted of basic specification with a vinyl interior, and could be ordered with a list of choice optional extras. GLS specification cars which came with a clock, FM/AM radio, voltage gauge, cloth covered seats with extra matching cloth covered areas on the interior, extra thick carpets with a carpeted boot area, GLS decals, leather steering wheel, a spare wheel, and radial tyres. All cars had a dark green dash with dark grey door cards. The sole available engine was Reliant’s own four-cylinder 850 cc “red top” (so-called because of its red rocker cover) mated to a four-speed gearbox. This engine was carried over from the previous Mk 1 Robin, and produced 40 hp (30 kW), a top speed of 85 mph (137 km/h), and fuel consumption of up to 60 mpg (imp). The most recognisable feature of a Mk 1 Rialto is the thick stripe which runs front to rear, in either gold, graphite, or silver –according to body colour. The Rialto 2 model was the second version of the Rialto, and was released to the public in late 1983. It featured a number of improvements over its predecessor, including a reworked engine (the 850 engine now had an ultra skimmed head to raise the compression ratio, along with a new camshaft for improved low-end torque), a new needle in the SU carburettor, and a specific distributor. This engine was named the “economy” engine, with each unit featuring a capital ‘E’ stamped on the cylinder head, and every engine number ending with a capital ‘E’. The rocker cover was painted yellow, which gave the engine the nickname “the yellow top”. Reliant had initially wanted to launch the original Rialto with these improvements, but were unable to do so due to time pressures during development. Therefore, the original Mk 1 Rialto was a compromise to build demand using a number of carryover parts from the Robin. To match the new engine, the rear axle ratio was raised to 2.78/1 (and can be identified with ‘B’ stamped on the diff case). This, combined with the engine, gave the car a much higher top speed of 100 mph, and a fuel economy figure of 72mpg at 56 mph. The engine now produced peak torque at lower engine speeds, and the axle allowed the Rialto to cruise at 70 mph at lower revs. This created the disadvantage of not being able to cruise at 30 mph in 4th gear. Rialto 2s now had vinyl seats on basic models, or corduroy cloth seats on GLS models. All Rialto 2 models, regardless of specification, were fitted with a vacuum economy gauge, along with a new decal set of a double coach line with “RIALTO 2” on the wings and rear door, and new wheel trims. Another visual improvement on GLS models took the form of black plastic bumpers which wrapped around the front and rear. By late 1984, the Rialto 2 was re-released with an altered specification; the rear axle ratio was returned to 3.23/1, as customers complained of being unable to use 4th gear at city speeds, and the economy gauge was no longer fitted. The Rialto SE was introduced in 1986. Whilst the best selling model in the Rialto 2 range was the estate, Reliant introduced for the first time a hatchback Rialto, after much development to the roof structure to add enough strength for the tailgate hinges. This model was a huge commercial success,[citation needed] and soon become Reliant’s best selling model. Mechanical parts of the new Rialto SE had reverted to the standard specification engine, but now with a grey rocker cover, and were equipped with a pre-engaged starter motor for improved starting. Bodywork now came in brighter colours than before, as well as having a black body decals running along the bottom of the car, plus a single orange pin stripe running front to rear in the centre of the car. The introduction of the Rialto SE hatchback resulted in the Rialto saloon becoming the cheapest car in the whole range, poor sales of the saloon would result it ending production in 1995. By 1990, a roller bearing clutch was also introduced on all models. After the launch of the Mk 2 Robin hatchback in 1989 (replacing the rialto hatchback) many customers asked for an estate model, this appeared in 1992 but wasn’t advertised, the Robin estate was simply the mk2 Robin nose on a rialto estate body but was sold as a higher model with better trim levels. In 1996, after Reliant Motor company came out of receivership all Rialto models ended production immediately, from now on only mk2 Robin estates would be built. Reliant motor company didn’t have type approval for a mk2 Robin estate so all estate models were registered as Rialto, this often confused buyers and still does to this day. The newly launched Robin estate would now receive a number of updates & improvements: it gained 12-inch wheels, a new braking system, different interior trim, and an updated dashboard design with new dials. Also the estate model gained the same rear lamps as the hatchback to save on costs. Additionally, a Reliant Rialto pickup named ‘Giant’ was built which was introduced as a production model in 1997, but only for a limited time on a small production run. The ‘Giant’ Rialto was the last true Rialto model to be built in 1997 with its original nose end design. The Rialto name would finally die in 1998 when Reliant motors started to register Robin estate models correctly.

RENAULT

There was a display of the latest Renault models here, featuring the Rafale and the retro-styled all-electric R5.

A rather different sort of Renault is this Renault Clio V6 Renault Sport, to give the car its full and rather cumbersome name. This was a rear mid-engine, rear-wheel-drive layout hot hatch based on the Renault Clio launched in 2001, very much in the same style as the earlier mid-engined R5 Turbo models of the 1980s.  Designed by Renault,  the Phase 1 models were built by Tom Walkinshaw Racing and Phase 2 were designed and helped by Porsche and built by Renault Sport in Dieppe. The Clio V6 was based on the Clio Mk II, though it shared very few parts with that car. The 3.0 litre 60° V6 engine, sourced from the PSA group. It was the ES9J unit as used in the Peugeot 406, 407 and  607, and the Citroen C 5 and not the one that Renault used in the 3 litre Laguna engine, which had an PRV (Peugeot, Renault & Volvo) an earlier development 90° V based on a V8 that never was. For this car it was upgraded to around 227 bhp and placed in the middle of the vehicle where the more ordinary Clios have rear seats – making this car a two-seater hot hatch. In order to accommodate the radical change from front-engine, front-wheel drive hatchback to mid-engine, rear-wheel drive two-seater quasi-coupé, the car had to be extensively reworked structurally, leading to the Phase 1 version being some 300 kg (660 lb) heavier than the sportiest “regular” Clio, the 172 Cup. Due to this, even though the V6 model had significantly more power, it was not remarkably faster in a straight line accelerating to legal road speeds than the 172 Cup – accelerating to 60 mph in 6.2 seconds compared to the Cup’s 6.7 seconds – though its maximum speed was significantly higher at 146 mph compared to 138 mph. Opinions varied on the handling, but many found it very twitchy and the car soon a gained a reputation for breaking away with little warning. That was largely addressed by the Phase 2 cars which were launched in 2003. The front end took on the same sort of new design as had been applied to the regular models. The engine was upgraded, to make the Phase 2 Clio V6 the most powerful serial produced hot hatch in the world with 255 bhp exceeding the 247 bhp of the Alfa Romeo 147 GTA and the 222 bhp SEAT León Cupra R. Based on the Phase 1 engine, its extra performance was helped with assistance from Porsche  and although the Phase 2 gained even more weight, the result was a a reduced 0–60 mph run at 5.9 seconds and a top speed of 153 mph. Though based on a utilitarian hatchback, the Clio V6 was not a practical family car. With an average fuel consumption of 24 mpg, this resulted in an empty fuel tank in just over 300 miles. The loss of the back seats and most of the boot space, due to the engine placement, resulted in a severe restriction in luggage space – there was only a small space in the front where the engine used to be, suitable for a holdall or week-end groceries, a small netted area behind the seats plus a small stash area under the tailgate. The enhanced steering made tight manoeuvring a little challenging, the turning circle being a rather awkward 13 m (42.7 ft) – around three car lengths – turning what might normally be a three-point turn into a five-point turn.  Standard equipment in the car was good, this was not a stripped-out special, and it included rain sensing windscreen wipers, automatic headlights, air conditioning, and six speakers and CD changer. The Phase 2 Clio V6 retailed for £27,125 in the United Kingdom, until it was withdrawn from sale in 2005 coinciding with a facelift for the Clio range. The Phase 2 was received far more enthusiastically by the ever-critical UK press. These days there is no doubting the fact that this is a modern classic.

RILEY

The Riley RM Series was the last model developed independently by Riley. RM vehicles were produced from 1945, after the Second World War, until the 1952 merger of Riley’s parent company, the Nuffield Organisation with Austin to form BMC. They were originally made in Coventry, but in 1949 production moved to the MG works at Abingdon. The RM models were marketed as the Riley 1½ Litre and the Riley 2½ Litre. There were three types of RM vehicles produced: the RMA was a large saloon, and was replaced by the updated RME, both of which had the 1.5 litre engine; the RMB was an even larger car, and was replaced by the RMF, and these cars had the 2.5 litre engine; the RMC and RMD were open topped cars produced in  limited numbers, intended largely for the all important export markets, with about 500 of each being made. These were nicely produced quality cars and considered quite sporting in their day, with the sort of appeal that many years later would be inherent in a BMW. Ironically, of course, BMW now own the rights to the Riley brand.

ROLLS ROYCE

Changing times after WWI eventually forced the abandonment of Rolls-Royce’s ‘one model’ policy, an all-new 20hp car joining the existing 40/50hp Silver Ghost in 1922. The ‘Twenty’ reflected Henry Royce’s interest in contemporary trends within the American automobile industry, incorporating unitary construction of engine and gearbox, the latter featuring the modern innovation of a central ball change, and a ‘Hotchkiss drive’ rear axle. The engine, Rolls-Royce’s first with overhead valves, was a six-cylinder unit displacing 3,127cc. Favourably received as the Twenty was, its three-speed transmission’s central gear change was not well liked, and when four-wheel, servo-assisted brakes were introduced in 1925, a four-speed gearbox with right-hand, gated change replaced the original three-speeder. The Twenty’s introduction enabled the company to cater for the increasingly important owner-driver market that appreciated the quality of Rolls-Royce engineering but did not need a car as large as a 40/50hp Ghost or Phantom. It proved eminently suited to town use yet could cope admirably with Continental touring when called upon. In total, 2,940 were produced. Chassis number ‘GPK70’ was delivered to the Eaton Garage, London SW1 in November 1925 and sent directly to coachbuilders Hooper & Co for bodying as a limousine. Its body ordered in December 1925, the completed Rolls-Royce was delivered in February 1926 to Sir Edwin Lutyens, arguably this country’s greatest 20th Century architect, who kept the car until 1934 when it was acquired by Oliver Hill of Hanover Square. It was subsequently re-bodied as a sedanca coupé by Salmons & Sons of Newport Pagnell, one of the most commercially successful of all British coachbuilders and originators of the ‘Tickford’ all-weather saloon body. Sometime later, the Rolls-Royce was exported to the USA where it spent time in a private collection before returning to the UK in the early 1980s. The present owner purchased the Rolls-Royce at auction in November 1993. At that time, it was stated that Healey Bros had carried out extensive restoration work, although the car had been found to be generally sound. Furthermore, the engine was said to have been rebuilt fewer than 2,000 miles since the restoration’s completion. The car was offered from an important private collection, the owner at that time being a Rolls-Royce Enthusiasts Club member. The car is finished blue/black livery with black duck top with dummy irons, the interior being trimmed in blue Connolly hide with matching Wilton carpets.

This one is also a Twenty, dating from 1928

And there were a few other pre-war Rolls Royce models here, too.

The Silver Wraith was the first post-war Rolls-Royce. It was made from 1946 to 1958 as only a chassis at the company’s Crewe factory, its former Merlin engine plant, alongside the shorter Bentley Mark VI. The Bentley was also available as a chassis for coachbuilders, but for the first time could be bought with a Rolls-Royce built Standard Steel body. The use of the name “wraith” coincided with the established tradition of naming models after “ghosts”. It was announced by Rolls-Royce in April 1946 as the 25/30 hp replacement for the 1939 Wraith in what had been their 20 hp and 20/25 hp market sector, that is to say Rolls-Royce’s smaller car. The size was chosen to be in keeping with the mood of post-war austerity. Even very limited production of the chassis of the larger car, the Phantom IV, was not resumed until 1950 and then, officially, only for Heads of State. Improvements announced were: chromium-plated cylinder bores for the engine; a new more rigid chassis frame to go with new independent front suspension; and a new synchromesh gearbox. Chassis lubrication was now centralised. The straight six-cylinder postwar engine, which had been briefly made for the aborted by war Bentley Mark V, replaced conventional overhead valve gear with an F-head configuration of overhead inlet valves and side exhaust valves and reshaped combustion chambers. There were new main and big-end bearings and a more efficient drive to the timing gear. To this prewar mix Rolls-Royce added chromed bores. Initially, this engine retained the Mark V’s capacity of 4,257 cc increased from 1951 to 4,566 cc and in 1955, after the introduction of the (standard wheelbase) Silver Cloud, to 4,887 cc for the remaining Silver Wraiths. The first cars had an entirely new 127 inch (3226 mm) wheelbase chassis which differed considerably from that of the pre-war Wraith and was much nearer rigid. It matched the new Bentley chassis but with an extra 7 inch section added to the centre. The new chassis had coil sprung independent front suspension, which required a very rigid chassis to function properly, and at the rear conventional semi-elliptic springs and live axle. The braking system was a hydro-mechanical hybrid of hydraulic fronts and mechanical rears using the mechanical servo similar to that of the pre-war cars. The last short-wheelbase cars were delivered in November 1953. The long, 133 inch (3378 mm), wheelbase chassis was announced in 1951 and the first delivered in January 1952. 639 were made by the time of the last deliveries in October 1958. This was not quite the last Rolls-Royce model to be supplied as a rolling chassis ready for a wide variety of bespoke coachwork designed and made by a rapidly declining number of specialist coachbuilders. Most of the bodies selected used “formal” limousine designs. From 1949 until 1955 customers wishing to buy a Rolls-Royce fitted with a much smaller standard steel body could purchase the Silver Dawn. It rode on a chassis seven inches shorter than the Silver Wraith, and was almost identical to Rolls-Royce’s Bentley Standard Steel saloon available alongside the Silver Wraith since July 1946.

When new, the Silver Shadow was considered a big car, but looking at this one, it does not seem quite so massive any more. The Silver Shadow was produced from 1965 to 1976, and the Silver Shadow II from 1977 to 1980. Initially, the model was planned to be called “Silver Mist”, a natural progression from its predecessor Silver Cloud. The name was changed to “Silver Shadow” after realising that “Mist” is the German word for manure, rubbish, or dirt. The design was a major departure from its predecessor, the Silver Cloud; although several styling cues from the Silver Cloud were modified and preserved, as the automobile had sold well. The John Polwhele Blatchley design was the firm’s first single bow model. The original Shadow was 3 1⁄2 inches narrower and 7 inches shorter than the car it replaced, but nevertheless managed to offer increased passenger and luggage space thanks to more efficient packaging made possible by unitary construction. Aside from a more modern appearance and construction, the Silver Shadow introduced many new features such as disc rather than drum brakes, and independent rear suspension, rather than the outdated live axle design of previous cars. The Shadow featured a 172 hp 6.2 litre V8 from 1965 to 1969, and a 189 hp 6.75 litre V8 from 1970 to 1980. Both powerplants were coupled to a General Motors-sourced Turbo Hydramatic 400 automatic gearbox, except on pre-1970 right-hand-drive models, which used the same 4-speed automatic gearbox as the Silver Cloud (also sourced from General Motors, the Hydramatic). The car’s most innovative feature was a high-pressure hydropneumatic suspension system licensed from Citroën, with dual-circuit braking and hydraulic self-levelling suspension. At first, both the front and rear of the car were controlled by the levelling system; the front levelling was deleted in 1969 as it had been determined that the rear levelling did almost all the work. Rolls-Royce achieved a high degree of ride quality with this arrangement. In 1977, the model was renamed the Silver Shadow II in recognition of several major changes, most notably rack and pinion steering; modifications to the front suspension improved handling markedly. Externally, the bumpers were changed from chrome to alloy and rubber starting with the late 1976 Silver Shadows. These new energy absorbing bumpers had been used in the United States since 1974, as a response to tightening safety standards there. Nonetheless, the bumpers on cars sold outside of North America were still solidly mounted and protruded 2 in less. Also now made standard across the board was the deletion of the small grilles mounted beneath the headlamps. Outside of North America, where tall kerbs and the like demanded more ground clearance, a front skirt was also fitted to the Silver Shadow II and its sister cars. In 1979 75 Silver Shadow II cars were specially fitted to commemorate the 75th anniversary of the company with the original red “RR” badges front and rear, pewter/silver paint, grey leather with red piping, scarlet red carpets, and a silver commemorative placard on the inside of the glove box door. 33 75th anniversary cars were designated for and shipped to the North American market. 8425 examples of the Shadow II were made, which, when added to the total of over 16,000 of the first generation cars made this the biggest selling Rolls Royce of all time.

Follow on to the Silver Shadow was the Rolls-Royce Silver Spirit, produced from 1980 to 1997. It was the first model in the SZ series. The Silver Spur is a long-wheelbase version of the Silver Spirit, produced from 1980 to 2000. It was the first car to feature a retractable Spirit of Ecstasy. The spring-loaded mascot sank into the radiator shell if dislodged from its position. The Silver Spirit was introduced by Rolls-Royce in 1980 as the first of a new generation of company models. It formed the basis for the Flying Spur, Silver Dawn, Touring Limousine, Park Ward, and Bentley Mulsanne/Eight series. The Spirit/Spur carried over the basic design of the Silver Shadow, its 6.75 L L410 V8 engine and GM-sourced THM400 3-speed automatic gearbox, and similarly styled unitary bodywork manufactured at Pressed Steel. The Spur/Spirit continued the Silver Shadow’s emphasis on ride quality by utilising its hydropneumatic self-levelling suspension, modified with Girling automatic hydraulic ride height control system and gas-charged shock absorbers. The Silver Spirit II and Silver Spur II were refinements of the original models, introduced at the 1989 Frankfurt Motor Show. Suspension design saw the most change, with “Automatic Ride Control” introduced, a fully automatic system that adjusted dampers at all four wheels in real time. Other updates included the adoption of ABS and fuel injection as standard for all models and markets. The last Mark I Silver Spirit/Spur was chassis no KCH27798, with Mark II cars starting with 29001. The fuel injection system was now Bosch’s MK-Motronic. Originally retaining the three-speed Turbo Hydramatic GM400 transmission from earlier Spirits/Spurs, a four-speed unit (the GM 4L80E) was introduced in the winter of 1991. The size of the petrol tank was also increased, up to 107 L (24 imp gal), meaning that the car’s range was now up to well over 500 km (311 mi). Exterior and interior changes were minimal, with a considerably smaller steering wheel and two additional ventilation outlets added to the fascia mildly modernising the look up front. The Silver Spirit III and Silver Spur III were introduced in 1993, featuring engine improvements and some cosmetic updates. A new design of intake manifold and cylinder heads increased power output. The parameters of the semi-active suspension system were modified so that shock absorbers would default into “soft” ride mode when they wore out (rather than “hard” in the previous Mark II, noticeably impacting ride quality). Dual airbags were introduced inside, along with independent adjustment of the rear seats. The 1994–1995 Flying Spur was a turbocharged, higher performance version of the Silver Spur III. 134 cars were produced. The Silver Dawn is a special edition of the Silver Spur III with several additional options, such as Electronic Traction Assistance System and rear seat heaters. The radiator height is reduced by 51 mm (2 in) and the size of the Spirit of Ecstasy was reduced by 20 percent. The new front was later inherited by the Mark IV series. Silver Dawn appeared one year earlier on the American market.  Designed in the autumn of 1992, the New Silver Spirit/New Silver Spur was the final revision of the Silver Spirit and Silver Spur, introduced late in 1995 as a 1996-year model. A marketing decision had been made that the cars should not get a “series IV” designation because the number four is a homonym for death in some Far Eastern languages. Major changes included the introduction of a Garrett turbocharger on all models and the replacement of the previous Bosch engine management systems with one by Zytec. Also new were updated integrated front and rear bumpers and sixteen-inch wheels. As of 1997, the long wheelbase became standard, with limousine models offered in extra-long only. Inside, a wooden column running down the centre of the dashboard was added. Silver Spirit production closed with the model year 1997, although vehicles continued to be produced through 2000 to use up Silver Spirit bodies and parts remaining in stock.

Also here from the current era of Rolls Royce was this Ghost.

ROVER

This final Rover 12 model was part of the Rover P2 range, along with Rover 10, Rover 14, Rover 16 and Rover 20 variants. This updated version appeared in 1937 with mainly styling changes but the chassis was stiffened and Girling rod brakes replaced the hydraulic ones that had been fitted to earlier cars. Bodies were a 6-light saloon and a 4-light sports saloon. There were no more tourers pre war but 200 were made in 1947 and 1948 with the first four bodies by Rover and the remaining 196 by AP Coachbuilders of Coventry. The 1938 models had fixed bonnet sides and for 1939 synchromesh was added to the top two ratios on the gearbox. Disc wheels became an option to wire wheels in 1939 and standard on post war models. 11,786 were made pre war and 4840 after. The final cars were made in 1948 and there was no real replacements as subsequent models featured larger engines.

The first new car that Rover announced after the war was the P4 model, known as the 75. It was launched at the Earls Court Motor Show in September 1949, to replace all previous models and then continued in production until 1964, though the car underwent lots of change under the skin in those 15 years. Designed by Gordon Bashford, the car went into production in 1949 as the 6-cylinder 2.1-litre Rover 75.  It featured unusual modern styling in stark contrast with the outdated Rover P3 model 75 which it replaced. Gone were the traditional radiator, separate headlamps and external running boards. In their place were a chromium grille, recessed headlamps and a streamlined body the whole width of the chassis. The car’s styling was derived from the then controversial 1947 Studebakers. The Rover executives purchased two such vehicles and fitted the body from one of them to a prototype P4 chassis to create a development mule. In James Taylor’s highly regarded book ‘Rover P4 – The Complete Story’ he advised that this vehicle was affectionately known as the ‘Roverbaker’ hybrid. Another, at the time minor, distinctive feature but this one did not catch-on was the centrally mounted light in the grille where most other manufacturers of good quality cars provided a pair, one fog and one driving light often separately mounted behind the bumper. Known, unkindly, as the “Cyclops eye” it was discontinued in the new grille announced 23 October 1952. The earliest cars used a more powerful version of the Rover engine from the 1948 Rover P3 75, a 2103 cc straight-6 engine now with chromium plated cylinder bores, an aluminium cylinder head with built-in induction manifold and a pair of horizontal instead of downdraught carburetters. A four-speed manual transmission was used with a column-mounted gear lever which was replaced by a floor-mounted mechanism in September 1953.  At first the gearbox only had synchromesh on third and top but it was added to second gear as well in 1953. A freewheel clutch, a traditional Rover feature, was fitted to cars without overdrive until mid-1959, when it was removed from the specifications, shortly before the London Motor Show in October that year. The cars had a separate chassis with independent suspension by coil springs at the front and a live axle with half-elliptical leaf springs at the rear. The brakes on early cars were operated by a hybrid hydro-mechanical system but became fully hydraulic in 1950. Girling disc brakes replaced drums at the front from October 1959. The complete body shells were made by the Pressed Steel company and featured aluminium/magnesium alloy (Birmabright) doors, boot lid and bonnets until the final 95/110 models, which were all steel to reduce costs. The P4 series was one of the last UK cars to incorporate rear-hinged “suicide” doors. After four years of the one model policy Rover returned to a range of the one car but three different sized engines when in September 1953 they announced a four-cylinder Rover 60 and a 2.6-litre Rover 90. A year later, an enlarged 2230cc engine was installed in the 75, and an updated body was shown with a larger boot and a bigger rear window and the end of the flapping trafficators, with redesigned light clusters. Further detailed changes would follow. Announced 16 October 1956, the 105R and 105S used a high-output, 8.5:1 compression version of the 2.6 litres engine used in the 90. The higher compression was to take advantage of the higher octane fuel that had become widely available. This twin-SU carburettor engine produced 108 hp. Both 105 models also featured the exterior changes of the rest of the range announced a month earlier. The 105S featured separate front seats, a cigar lighter, chromed wheel trim rings and twin Lucas SFT 576 spotlamps. To minimise the cost of the 105R, these additional items were not standard, however they were provided on the (higher priced) 105R De Luxe. The 105R featured a “Roverdrive” automatic transmission. This unit was designed and built by Rover and at the time was the only British-built automatic transmission. Others had bought in units from American manufacturers such as Borg-Warner. This unit was actually a two-speed automatic (Emergency Low which can be selected manually and Drive) with an overdrive unit for a total of three forward gears. The 105S made do with a manual transmission and Laycock de Normanville overdrive incorporating a kick-down control. The 105S could reach a top speed of 101 mph. Production of the 105 line ended in 1958 for the 105R and 1959 for the manual transmission 105S, 10,781 had been produced, two-thirds with the manual transmission option. For 1959 the manual model was described simply as a 105 and the trim and accessory level was reduced to match the other models. In 1959, the engines were upgraded again, with the 80 replacing the 60 and the 100 replacing the 90 and the 105. The four cylinder cars were not particularly popular, though and in September they were replaced by the six cylinder 95. Final model was the 110, which took its place at the top of the range until production ceased, a few months after the very different P6 model 2000 had come along. These cars are popular classics these days.

Beloved of Government Ministers, who kept the car in service long after production had ceased in 1973, thanks to an amount of stock-piling, and now a much loved classic, the P5 is a quintessentially British motor car. Launched in late 1958, it was a partial replacement for the then 10 year old P4 model, but also an extension of the Rover range further upmarket. Early cars were known as the 3 litre, as they had It was powered by a 2,995 cc straight-6 engine which used an overhead intake valve and side exhaust valve, an unusual arrangement inherited from the Rover P4. In this form, output of 115 bhp was claimed. An automatic transmission, overdrive on the manual, and Burman power steering were optional with overdrive becoming standard from May 1960. Stopping power came originally from a Girling brake system that employed 11″drums all round, but this was a heavy car and by the time of the London Motor Show in October 1959 Girling front-wheel power discs brakes had appeared on the front wheels. The suspension was independent at the front using wishbones and torsion bars and at the rear had a live axle with semi-elliptic leaf springs. A Mark I-A line, introduced in September 1961, featured a minor restyle with added front quarter windows, intended to “assist the dashboard ventilation”. Under the skin, the 1A featured modifications to the engine mountings and the automatic transmission and hydrosteer variable ratio power steering as an option. By 1962, when production of the original Mark I series ended, 20,963 had been produced. The Mark II version was introduced in 1962. It featured more power,129 hp, from the same 3 litre engine and an improved suspension, while dropping the glass wind deflectors from the top of the window openings which also, on the front doors, now featured “quarterlight” windows. The most notable addition to the range was the option of the Coupé body style launched in autumn 1962. Unlike most coupés, which tend to be two-door versions of four-door saloons, this retained the four doors and was of the same width and length as the saloon, but featured a roofline lowered by two and a half inches along with thinner b-pillars, giving it the look of a hardtop. Hydrosteer was standard on the Coupe and optional on the Saloon. Production of the Mark II ended in 1965, by which time 5,482 coupés and 15,676 saloons had been produced. The Mark III was presented at the London Motor Show in October 1965, described at the time as “even more luxuriously trimmed and furnished”. It was again available in two 4-door body styles, coupé and saloon. The Mark III used the same engine as its predecessor, but it now produced 134 hp. Externally it could be distinguished by the full-length trim strip along the body and Mark III badging; internally it replaced the rear bench seat with two individually moulded rear seats, making it more comfortable to ride in for four occupants but less so for five. A total of 3,919 saloons and 2,501 coupés had been sold by the time production ended in 1967. The final iteration of the P5 appeared in September 1967. Now powered by the 3,528 cc Rover V8 engine also used in the P6 model 3500, the car was badged as the “3.5 Litre”, and commonly known as the 3½ Litre. The final letter in the “P5B” model name came from Buick, the engine’s originator. Rover did not have the budget or time to develop such engines, hence they chose to redevelop the lightweight aluminium concept Buick could not make successful. They made it considerably stronger, which added some weight but still maintained the engine’s light and compact features. The Borg Warner Type-35 automatic transmission, hydrosteer variable ratio power steering and front Lucas fog lights were now standard. Output of 160 bhp was claimed along with improved torque. When compared to its predecessor, the aluminium engine enabled the car to offer improved performance and fuel economy resulting both from the greater power and the lesser weight of the power unit. The exterior was mostly unchanged, apart from bold ‘3.5 Litre’ badging, a pair of fog lights which were added below the head lights, creating a striking 4 light array, and the fitting of chrome Rostyle wheels with black painted inserts. The P5B existed as both the 4-door coupe and saloon body style until end of production. Production ended in 1973, by when 9099 coupés and 11,501 saloons had been built.

Whilst the 3 litre P5 model may have been thought of as a replacement for the top end of the long running P4 Rovers, it was really this car, the P6 model, first seen in October 1963 which was its true successor. Very different from the long-running 60/75/80/90/95/100/105/110 models, this car took some of its inspiration, it is claimed, from the Citroen DS as well as lessons learned from Rover’s Jet Turbine program of the 1950s and early 60s. It was a “clean sheet” design, carrying nothing over, and was  advanced for the time with a de Dion tube suspension at the rear, four-wheel disc brakes (inboard on the rear), and a fully synchromesh transmission. The unibody design featured non-stressed panels bolted to a unit frame. The de Dion set-up was unique in that the “tube” was in two parts that could telescope, thereby avoiding the need for sliding splines in the drive shafts, with consequent stiction under drive or braking torque, while still keeping the wheels vertical and parallel in relation to the body. The Rover 2000 won industry awards for safety when it was introduced and included a carefully designed “safety” interior. One innovative feature was the prism of glass on the top of the front side lights. This allowed the driver to see the front corner of the car in low light conditions, and also confirmed that they were operative. One unique feature of the Rover 2000 was the design of the front suspension system, in which a bell crank (an L-shaped rotating bracket trailing the upper hub carrier joint) conveyed the vertical motion of the wheel to a fore-and-aft-horizontally mounted spring fastened to the rear wall of the engine compartment. A single hydraulically damped arm was mounted on the firewall for the steering. The front suspension was designed to allow as much width for the engine compartment as possible so that Rover’s Gas Turbine engine could be fitted. In the event, the engine was never used for the production vehicle, but the engine compartment width helped the accommodation of the V8 engine adopted years after the car’s initial launch for the 2000. The luggage compartment was limited in terms of usable space, because of the “base unit” construction, complex rear suspension and, in series II vehicles, the battery location. Lack of luggage space (and hence the need to re-locate the spare tyre) led to innovative options for spare tyre provision including boot lid mountings and optional Dunlop Denovo run-flat technology. The car’s primary competitor on the domestic UK market was the Triumph 2000, also released in October 1963, just one week after the Rover, and in continental Europe, it contended in the same sector as the Citroen DS which, like the initial Rover offering, was offered only with a four-cylinder engine – a deficiency which in the Rover was resolved, four years after its launch, when Rover’s compact V8 was engineered to fit into the engine bay. The Rover 2000 interior was not as spacious as those of its Triumph and Citroen rivals, especially in the back, where its sculpted two-person rear seat implied that Rover customers wishing to accommodate three in the back of a Rover should opt for the larger and older Rover 3 Litre. The first P6 used a 1,978 cc engine designed specifically for the car, which put out around 104 bhp. That was not enough to live up to the sports saloon ambitions, so Rover later developed a twin SU carburettor version with a re-designed top end and marketed the revised specification vehicles as the 2000 TC. The 2000 TC was launched in March 1966 for export markets in North America and continental Europe, relenting and making it available to UK buyers later that year. This engine generated  around 124 bhp. The standard specification engines continued in production in vehicles designated as 2000 SC models. These featured the original single SU. More performance was to come. Rover saw Buick’s compact 3528 cc V8 unit that they had been looking at developing as the means of differentiating the P6 from its chief rival, the Triumph 2000. They purchased the rights to the innovative aluminium engine, and, once improved for production by Rover’s own engineers, it became an instant hit. The Rover V8 engine, as it became known, outlived its original host, the P5B, by more than thirty years. The 3500 was introduced in April 1968, one year after the Rover company was purchased by Triumph’s owner, Leyland and continued to be offered until 1977. The light metal V8 engine weighed the same as the four-cylinder unit of the Rover 2000, and the more powerful car’s maximum speed of 114 mph as well as its 10.5-second acceleration time from 0–60 mph were considered impressive, and usefully faster than most of the cars with which, on the UK market, the car competed on price and specifications. It was necessary to modify the under-bonnet space to squeeze the V8 engine into the P6 engine bay: the front suspension cross-member had to be relocated forward, while a more visible change was an extra air intake beneath the front bumper to accommodate the larger radiator. There was no longer space under the bonnet for the car’s battery, which in the 3500 retreated to a position on the right side of the boot. Nevertheless, the overall length and width of the body were unchanged when compared with the smaller-engined original P6. Having invested heavily in the car’s engine and running gear, the manufacturer left most other aspects of the car unchanged. However, the new Rover 3500 could be readily distinguished from the 2000 thanks to various prominent V8 badges on the outside and beneath the radio. The 3500 was also delivered with a black vinyl covering on the C-pillar, although this decoration later appeared also on four-cylinder cars. A 3-speed Borg Warner 35 automatic was the only transmission until the 1971 addition of a four-speed manual 3500S model, fitted with a modified version of the gearbox used in the 2000/2200. The letter “S” did not denote “Sport”, it was chosen because it stood for something specific on those cars: “Synchromesh”. However it is important to note that the 3500S was noticeably quicker than the automatic version of this car with a 0-60mph time of 9 seconds, compared with 10.1 for the standard car. Moreover, due to the fuel-guzzling nature of automatic gearboxes of this era, the manual car’s official cycle was 24mpg compared to the automatic’s 22mpg. The Series II, or Mark II as it was actually named by Rover, was launched in 1970. All variants carried the battery in the boot and had new exterior fixtures such as a plastic front air intake (to replace the alloy version), new bonnet pressings (with V8 blips even for the 4-cylinder-engined cars) and new rear lights. The interior of the 3500 and 2000TC versions was updated with new instrumentation with circular gauges and rotary switches. The old-style instrumentation with a linear speedometer and toggle switches continued on the 2000SC versions. The final changes to the P6 came in the autumn of 1973 when the 2200 SC and 2200 TC replaced the 2000 SC and TC. These cars used an enlarged 2,205 cc version of the 2000 engine, which increased power outputs to 98 and 115 bhp respectively as well as offering improved torque. The P6 was replaced by the SD1 Rover, a completely different sort of car indeed, after 322,302 cars had been built.

When news of Project YY, a new mid-sized car started to filter out, another joint Honda-Rover development, it was assumed that once again each would adopt their own body style. Honda was first to market, by some months, with their Concerto, and when the Rover 200 Series as the new 5 door hatch models were called, were then revealed in the autumn of 1989, there was much disappointment expressed that it seemed that Rover had merely changed the details of lights, bumpers and grille, as well putting their own touches to the interior. They had also put their brand new K Series 1.4 litre engine under the bonnet, though, and once the press and then the public got to drive the new car, any thoughts that this might be another dull Japanese car were dispelled, as it was evident that this was a cracking new car in every respect. Only high prices counted against it, but look past that, and the choice between a Rover 214 with a 92 bhp engine and sweet five speed gearbox and a quality interior, or a Ford Escort 1.4 saddled with the rough and crude 75 1.4 litre CVH engine and a decidedly mass-market feeling interior pointed in the Rover’s favour every time. The 216 model retained a Honda engine, but with 125 bhp, this was unbelievably rapid for the class. The 4 door saloon version, the 400, followed a few months later, and then Rover added their own unique 3 door body style, as well as the option of a 2 litre model for a hot hatch to rival the Golf GTi and 309 GTi. Coupe, Cabrio and 400 Tourer versions followed soon after, giving a comprehensive range which was a clear class leader. I had a 414 Si from January 1992 for three years, during which time I put over 100,000 miles on the clock, the highest mileage I had covered to date, and I thought the car was absolutely brilliant. It would have been even better with power steering, probably, but this was an era when you needed to go up a size or two to find this feature as standard. Rover changed the front end of the cars with a false grille not long after the October 1992 launch of the Coupe, the car that was codenamed TomCat, so you don’t see many with the simple front end, but there was one here, along with a large number of cars with the grille. With a choice of 1.6 and 2,0 injected engines or a 2.0 Turbo that was astonishingly fast for its day and the money charged, these were popular cars which sold well, with only really the Calibra as a true market rival

In December 1994 the revised R6 model appeared. In the United Kingdom, Rover finally scrapped the Metro nameplate, replacing it with a new name, Rover 100, which had been adopted on continental Europe on the Rover Metro’s launch in 1990, due to the weakness of the Austin marque in Europe. The mechanics of the car remained much the same with 1.1 and 1.4 petrol engines and Hydragas suspension, but there was now the option of a Peugeot-sourced 1.5 diesel rather than the previous 1.4. The exterior was altered in an attempt to disguise the car’s age, meet the increased cooling requirements of the Peugeot motor and offer a reduced-format Rover family grille. This was achieved through fitment of new front and rear bumpers, sill covers, rear boot handle and headlamps, bonnet and grille. A variety of bolder paint colours and the use of chrome trim helped give a more upmarket appearance. The interior trim was revised to give a greater impression of quality and luxury, but since the basic architecture had remained unchanged since the original 1980 car it was considered by many as being short on space and outdated in comparison to its most modern rivals (most of which had been replaced with all-new models since the launch of the Rover Metro, and in the cases of the Ford Fiesta and Vauxhall Nova/Corsa, replaced with all-new models twice) It was criticised by the press for its lack of equipment, with front electric windows only available on the range-topping 114 GSi. Rear electric windows were never an option on the 100. Neither were Anti-Lock Brakes, Power Steering or a rev-counter (except the GTa and later manual 114 GSi models) One saving grace for the 100 was the option of full leather trim, a rarity in a small car and coupled with the standard wood veneer dashboard inserts, a tinted glass sunroof and the optional wood veneer door cappings, the 114 GSi made for traditional luxury motoring; an image Rover was trying to retain. The only safety efforts came in the form of an optional drivers airbag, an alarm, a passive engine immobiliser, a removable radio keypad, central locking and side intrusion beams. Overall, the 100 series was considered a rather typical facelift of a car which had been a class leader on launch some years earlier, only to be overtaken by newer cars including the Renault Clio, Fiat Punto and Volkswagen Polo. It was launched only a year before a heavily revised Ford Fiesta. A ‘warm’ version of the 100 called the 114 GTa was available from launch. The main differences over the 114 SLi three-door – which has the same engine – were sports seats, red seatbelts, a rev-counter, sports suspension, a slightly higher top speed, faster acceleration, GSi alloy wheels and GTa badging. It was only available as a three-door. In 1997, the Rover 100 gave a poor performance in Euro NCAP crash tests (despite the improved safety features, including side impact bars in the doors and an optional driver’s airbag, the 1970s design was showing its age) – it was at the time the only car tested to receive a one-star Adult Occupant Rating. Other small cars tested at the same time received 2 or 3 stars out of five. The passenger compartment was subjected to severe structural damage in the frontal-offset test and results showed a high risk of injury to all body regions for the driver. Meanwhile, the side impact test also showed high injury risks. The Rover 100’s dismal safety showing was not its only problem by 1997. It was fast falling behind the best cars in its sector when it came to design, build quality, refinement and specification, although it remained strong in terms of fuel economy and affordability. Unlike the Ford Fiesta, Volkswagen Polo and Vauxhall Corsa, the Rover 100 could still provide sub-£7,000 motoring. Facing a complete collapse of sales, Rover withdrew the 100 from production – marking the end of nearly 18 years of production. There was no direct replacement for the Metro/100, although the 1995 Rover 200 had been developed inside Rover Cars to serve as a replacement for the 100 as well as the previous 200 model, which was slightly larger. The 100 and 200 were sold concurrently until 1998, when the 100 was withdrawn. When the Rover 200 was facelifted in late 1999 and rebadged as the Rover 25, Rover marketed this as a supermini reflecting the continued, steady, growth of all car classes. The plan was for both the 100 and the 25 to be on the market until the launch of the true replacement for the Metro in the shape of the MINI. However, BMW’s sale of Rover put an end to those plans. BMW kept the MINI design and MG Rover’s notional successor to the Metro was the Rover 25 and its MG ZR relative. The gap left by the Metro as a true Rover city car was not filled until late 2003, when the Rover CityRover was launched – it was a 1.4 engined city car built in India alongside the Tata Indica. This model was nowhere near as popular as the Metro or even the Rover 100, and was not included in the revived product range by Nanjing Automobile following MG Rover’s bankruptcy in 2005.

STANDARD

The Nine is the result of some major re-styling Standard performed for the 1934 season. It was intended as the replacement for the 1933 “Little Nine” and was little changed for 1935 apart from the introduction of a four door version. The Nine saloon was available in standard and de luxe forms which predominantly in their level of trim. It has a 1052cc side valve engine developing 25 bhp at 3800 rpm giving it a peak power to weight ratio of 29.9 bhp per ton. For comparison a 1965 Morris Minor 1000 has 64 bhp per ton. Taxation rules in the 30s favoured engines with relatively small cylinder bores. In order to achieve higher capacity manufacturers made long stroke engines with relatively low maximum revs. The nine has an advertised top speed of 58 mph but the engine feels a bit busy over 40 mph. It was replaced by the Flying Standard Nine in 1936.

SUBARU

Now heading towards 30 years old are the first generation Impreza Turbo models. There have been seven noted versions of the WRX dating back from Subaru’s original World Rally Cross staging vehicles. Subaru adopted the name “WRX” to stand for “World Rally eXperimental” as all WRX versions (1992 to present) feature rally inspired technology, including all wheel drive, stiffened suspensions and turbocharged four cylinder engines. The STi versions were marketed with consecutive numbers. Another way to determine the version of a WRX was to look at the chassis code. All WRX sold between 1992 and 2000 have the beginning chassis code of GC8 2/4 door sedan or GF8 hatchback; this is followed by a letter from A to G. Coupe versions share the “GC” code with sedans, except in the US, where they have a separate chassis code of “GM”. In 1994, Subaru introduced Subaru Tecnica International (STi badged) versions of the WRX in Japan. These models were upgraded from the standard WRX in many categories, including blueprinted performance-tuned engines, transmissions, and suspensions. The STi versions of the WRX were immensely successful in rallies and popular among street racers but were only sold in the Japanese market. Compared to the WRX, the STi had mostly mechanical modifications. (STi prepped Subaru rally cars since 1988 including the Legacy RS, the WRX STi Version was just the first car with an actual STi badge, though with handcrafted tuning). The WRX debuted in November 1992 with 240 PS. The centre differential was a viscous coupling type, the rear limited slip differential was a viscous type. The WRX Type RA is a stripped down version of the WRX that was available in the Japanese market for people to purchase for motorsports and tuning. Targeted for race and rally, the RA versions were generally lighter in weight; featuring reduced soundproofing, manual windows, car horn delete, no air conditioning, no anti-lock brakes, and added racing features such as more robust engines, 5th injection, intercooler water spray and shorter gearing. The WRX Type RA uses a closer ratio gearbox and a three-spoke leather steering wheel from Nardi. The ra model chassis code between GC8-(000000 to 005000) are only sold to the race team by order. Close ratio transmission is anticipated race use, the gap between each gear is brought closer together and a specific close ratio transmission is used. In Europe, the WRX was introduced as the Impreza GT, and as the Impreza Turbo 2000 (UK). It came with 208 hp. A bewildering array of different versions would follow until the release of the second generation Impreza in 2000.

   

Subaru introduced the “New Age” Impreza, the second generation car, to Japan in August 2000, and it arrived in Europe towards the end of that year. Larger in size compared to the previous iteration, the sedan increased its width by 40 millimetres (1.6 in), while the wagon notably increased by just 5 millimetres (0.2 in)—placing the two variants in different Japanese classification categories. The coupe body style from the first generation did not reappear for the new series, and the off-road appearance package that included contrasting-coloured bumpers did carry over forward. Marketed as a separate model line, this North America-only variant was, as before, badged the Outback Sport. Naturally aspirated flat-four (boxer) engines comprised the 1.5-litre EJ15, the 1.6-litre EJ16, the 2.0-litre EJ20, and the 2.5-litre EJ25. Turbocharged versions of the 2.0- and 2.5-litre engines were offered in the WRX and WRX STI models. STI models featured a more powerful 2.0-litre (2.5-litre outside of the Japanese market) turbocharged engine. WRX models featured a 2.0-litre turbocharged boxer engine until 2005, after which they switched to the 2.5-litre turbocharged engine. As with the first generation, the turbocharged STI variants were available in numerous specifications with a myriad of limited edition variants sold. The bug-eyed styling was not well received, and Subaru had two further attempts at the front end, neither of which was entirely successful, either, but enthusiasts were happy to overlook the gawky looks because the way the car drove. Subaru issued yearly updates to the STI, tweaking cosmetics and equipment levels, and also improving performance and handling. The car was replaced in 2007 by the third generation Impreza, widely regarded as inferior in many ways to this version.

In 2004, Subaru launched the Forester STi for the Japanese market only. A “sportier” version of the standard second-gen (SG) Forester, the Forester STi incorporated most of the running components from the WRX STi, with several other changes. It was never sold outside of Japan. The Forester STi exterior was modified with additions such as a redesigned front fascia with new headlights, front bumper, grille and “STi” badged covered fog lights, like those seen on the Impreza WRX STi. The rear fascia was also redesigned with revised taillights, a revised rear bumper, and an added rear spoiler. Multiple changes were made to the engine and the mechanical components of the Forester to create the Forester STi. They include the engine, which received a 2.5-litre turbocharged flat-four [block designated EJ255, not from the WRX STi which used a block designated EJ257], making 265 PS (261 bhp) and 186 lb/ft of torque. While the block was not shared with the STI, the Forester STI shared the STI’s better breathing manifold, painted in matt crinkle red, allowing it to produce more power and torque than other 2.5l EJ255 engined SG9 Foresters sold in AU/NZ from 2003-2008. A much stronger six-speed manual gearbox, from the WRX STI, a larger intercooler, and a low-back-pressure exhaust system were also added. The top three ratios of the gearbox are 14 percent taller to match the engine’s torque curve, raising the vehicle’s top speed and allowing more relaxed highway cruising at lower rpm. As the result, the 2006 Forester STi accelerates from 0–60 mph in 5.2 seconds, 0–62 mph (0–100 km/h) in 5.4 seconds, and does the quarter mile in 14.1 seconds at 97.0 mph (156.1 km/h). It can reach a top speed of 140 mph (230 km/h) and has a power to weight ratio of 174 hp per ton. To cope with the extra power made by the new engine, the Forester STi got many upgraded suspension components including STi sport springs, revised struts at each corner, and bigger anti-roll bars and cross-members. These changes resulted in a 1.2 inch lower ride height and improved resistance to torsional forces. Rolling resistance was also improved, but the higher center of gravity of the Forester still remained.  The Forester STi is also equipped with a new steering rack with a quicker ratio that leads to a more deliberate turn-in. The Forester STi got 18-inch, 10-spoke alloy wheels with 225/45R-18 Bridgestone Potenza tires. Four-piston Brembo brakes, painted red, are employed on the front wheels, and two-piston Brembo are used at the rear, greatly enhancing braking performance and lowering stopping distances and fade resistance under heavy use. It also has special STi bucket seats, unique to the Forester STI, trimmed in dark grey cloth, deeply moulded for much stronger hip and torso support. A smaller leather MOMO steering wheel, and a weighted, leather shift knob with red stitching and a H-pattern 6-speed shift map

SUZUKI

The Cappuccino was a tiny Japanese sports car that found a small niche when offered to UK buyers. Designed to meet the Kei car specifications for lower tax and insurance in Japan, this tiny front mid-engined machine weighed just 725 kg and took its power from a turbocharged, three-cylinder, 12 valve 657 cc DOHC engine which generated 63 bhp. Its dimensions also conformed to Kei car regulations on length and width, being 3,295 mm (129.7 in) long and 1,395 mm (54.9 in) wide. Three removable roof panels meant that the car can be used as a closed coupé; T-top; targa; or, on retraction of the rear window and roll bar, a full convertible. Roof panels stowed in the boot, taking almost all the luggage space), and the rear window/rollcage assembly retracts into the body behind the seats. Unlike many convertibles of the time, the rear window is glass and wraparound, with demisting elements. Production began in 1991 and ceased in 1997. Suzuki UK decided that they wanted to sell the car, and it took 18 months of negotiation and technical co-operation between the Suzuki Motor Corporation and Suzuki GB to get the Cappuccino type approved and homologated for the UK market, with 23 adaptations to the Japanese Cappuccino. Finally, in October 1992 the Cappuccino had its first public viewing outside Japan, at the British International Motor Show. At the show, the Cappuccino won two prestigious IBCAM Design awards: “best sportscar under £20,000” and “best car of the show”. In October 1993 the Cappuccino was officially launched in the UK with a price of £11,995. Due to the car’s initial success in Japan, and the tight import quota of Japanese products to the UK, the original allocation of 1,500 cars was cut to 1,182. Such limited quantities dictated a streamlined colour choice: red and silver in the ratio 80:20. Between 1993–95 a total of 1,110 cars were registered in the UK, with the balance sold to other Suzuki distributors across Europe: Germany, France, the Netherlands and Sweden.

TOYOTA

Needing little introduction, perhaps, is this car, a 2nd generation MR2. Toyota proved that the market for small affordable sports cars was far from dead when they launched the first generation MR2 in 1984. As was the trend at the time among Japanese manufacturers, models were replaced on quite a regular 4/5 year cycle, so it was little surprise when a second generation car appeared in 1989. However, this one would go on to be produced for 10 years, The overall design changed little in that time, but there were lots of small details that were refined during that time. The car was generally well received, with its “mini Ferrari” looks proving quite an attraction, as were the willing engines and the entertaining handling. There are not that many nice clean examples left now, though.

This is from the fifth generation of the Celica, which was introduced in September 1989. The Celica received new Super Round organic styling, upgraded wheels and tyres, more powerful GT-Four (All-Trac Turbo in the US) with better cooling system, and for the Japanese market only, the four-wheel steering (4WS) models. Toyota engineers claimed that the round styling and lack of straight edges increased strength without adding weight. The styling was later copied by other manufacturers. Japanese market models were now S-R, Z-R, GT-R, Active Sports (first Toyota with Toyota Active Control Suspension), and GT-Four. The S-R and Z-R were powered by a 3S-FE engine, while the GT-R and Active Sports came with a 3S-GE. The 3S-GTE in the GT-Four features an air-to-air intercooler and CT26 twin entry turbo to eliminate exhaust gas interference. The Japanese market GT-Four has (221 bhp and 304 N⋅m (224 lb⋅ft) of torque, a result of more aggressive ignition advance and ceramic turbine. The Full-time 4WD system in the GT-Four has viscous coupling limited slip centre differential and Torsen rear differential. Trim levels for the European Celica were 1.6 ST-i, 2.0 GT-i 16, and GT-Four. The 2.0 GT-i 16 cabriolet was offered only in certain European countries. Only the 2.0 GT-i 16 liftback and GT-Four were officially sold in the UK.  The model was superceded by a sixth generation car in 1993.

This is an example of the J40 series of the long-lived Land Cruiser. The Toyota Land Cruiser (J40), is a series of Land Cruisers made by Toyota from 1960 until 2001. Traditional body on frame, most 40 series Land Cruisers were built as 2-door models with slightly larger dimensions than the similar Jeep CJ. The model was available in short (J40/41/42), medium (J43/44/46) and long (J45/47) wheelbase versions, with petrol and diesel engines. The 20 Series was upgraded to the now classic 40 Series. Toyota made many production changes by buying new steel presses. Mechanically, the FJ40 was given a new 126 PS/125 hp, 3.9 L F engine and the Land Cruiser finally received low-range gearing, but continued the three-speed main gearbox. In 1965, global production surpassed 50,000 vehicles. The Land Cruiser was the best selling Toyota vehicle in the United States. By 1968 the 100,000th Land Cruiser was sold worldwide. Brazilian J40 production, as the Bandeirante, commenced in September. The Bandeirante has a Mercedes-Benz built diesel engine generating a power output of 78 bhp. In 1972, the 200,000th Land Cruiser was sold. In 1973 the 300,000th Land Cruiser was sold. The first diesel Land Cruiser was introduced for export based on a long wheelbase with a six-cylinder H engine. For 1974 a four-cylinder 3.0 L B diesel engine was offered. The introduction of this engine boosted sales in Japan by putting the Land Cruiser in a lower tax compact freight-car category as compared to the 3.9 L petrol version. In 1975  the 3.9 L petrol engine was replaced by a larger, more powerful 4.2 L 2F unit and the FJ55 received front disc brakes. The 3.6 L H diesel engine was optional in some markets in the HJ45. Changes continued to be incremental For 1976 the FJ40 Land Cruiser (United States version) received front disc brakes like the FJ55. The Toyota Land Cruiser Association was founded in California. In 1977 the Irish Army took delivery of the first of 77 FJ45 Land Cruisers. Although fast, reliable, and with good off-road performance, the vehicle tended to rust excessively in the wet Irish climate. A few which did not succumb to the effects of weather were repainted in gloss olive green and survive as ceremonial gun tractors at military funerals. In 1978 the first BJ/FJ40 and FJ55 models were officially sold in West Germany with both diesel (BJ40) and petrol engines (FJ40/55). In 1979  the J40 (United States-version) was updated this year with a new wider, square bezel surrounding the headlights. Power steering and cooler were offered in FJ40 for the first time. The diesel engine was improved, evolving into the 3.2 L 2B unit but only in Japanese markets. In 1980 the H diesel engine (HJ45) was replaced by the 4.0 L 2H engine (now with chassis code HJ47). For 1981 the Diesel version received front disc brakes and the more powerful 3.4 L 3B engine, and the LWB BJ45 with 3B engine was added to the range. In 1983 the last FJ40s imported to the U.S. were 1983 models (mid-1982 to mid-1983). It is unknown how many were imported by Toyota, but many guess the number to be around 300. The 1983 FJ40s typically bring a premium for their rarity, though they are not much different from 1982 models (mid-1981 to mid-1982). For 1984, the North American market was limited to Canada with the BJ42, which had a 5-speed (overdrive) transmission that was widely sought. The original cost was around CA$14,000

TRIUMPH

By the mid 1960s, money was tight, so when it came to replacing the TR4 and TR5 models, Triumph were forced into trying to minimise the costs of the redesign, which meant that they kept the central section of the old car, but came up with new bodywork with the front and back ends were squared off, reportedly based on a consultancy contract involving Karmann. The resulting design, which did look modern when it was unveiled in January 1969 has what is referred to as a Kamm tail, which was very common during 1970s era of cars and a feature on most Triumphs of the era. All TR6 models featured inline six-cylinder engines. For the US market the engine was carburetted, as had been the case for the US-only TR250 engine. Like the TR5, the TR6 was fuel-injected for other world markets including the United Kingdom, hence the TR6PI (petrol-injection) designation. The Lucas mechanical fuel injection system helped the home-market TR6 produce 150 bhp at model introduction. Later, the non-US TR6 variant was detuned to 125 bhp for it to be easier to drive, while the US variant continued to be carburetted with a mere 104 hp. Sadly, the Lucas injection system proved somewhat troublesome, somewhat denting the appeal of the car. The TR6 featured a four-speed manual transmission. An optional overdrive unit was a desirable feature because it gave drivers close gearing for aggressive driving with an electrically switched overdrive which could operate on second, third, and fourth gears on early models and third and fourth on later models because of constant gearbox failures in second at high revs. Both provided “long legs” for open motorways. TR6 also featured semi-trailing arm independent rear suspension, rack and pinion steering, 15-inch wheels and tyres, pile carpet on floors and trunk/boot, bucket seats, and a full complement of instrumentation. Braking was accomplished by disc brakes at the front and drum brakes at the rear. A factory steel hardtop was optional, requiring two people to fit it. TR6 construction was fundamentally old-fashioned: the body was bolted onto a frame instead of the two being integrated into a unibody structure; the TR6 dashboard was wooden (plywood with veneer). Other factory options included a rear anti-roll bar and a limited-slip differential. Some say that the car is one of Leyland’s best achievements, but a number of issues were present and remain because of poor design. As well as the fuel injection problems, other issues include a low level radiator top-up bottle and a poor hand-brake. As is the case with other cars of the era, the TR6 can suffer from rust issues, although surviving examples tend to be well-cared for. The TR6 can be prone to overheating. Many owners fit an aftermarket electric radiator fan to supplement or replace the original engine-driven fan. Also the Leyland factory option of an oil cooler existed. Despite the reliability woes, the car proved popular, selling in greater quantity than any previous TR, with 94,619 of them produced before production ended in mid 1976. Of these, 86,249 were exported and only 8,370 were sold in the UK. A significant number have since been re-imported, as there are nearly 3000 of these much loved classics on the road and a further 1300 on SORN, helped by the fact that parts and services to support ownership of a TR6 are readily available and a number of classic car owners’ clubs cater for the model.

Envisioned as a luxury sports car, the Stag was designed to compete directly with the Mercedes-Benz SL. It started as a styling experiment, cut and shaped from a 1963–4 Triumph 2000 pre-production saloon, which had also been styled by Michelotti, and loaned to him by Harry Webster, Director of Engineering at Triumph. Their agreement was that if Webster liked the design, Triumph could use the prototype as the basis of a new Triumph model. Harry Webster, who was a long time friend of Giovanni Michelotti, whom he called “Micho”, loved the design and took the prototype back to England. The end result, a two-door drop head (convertible), had little in common with the styling of its progenitor 2000, but retained the suspension and drive line. Triumph liked the Michelotti design so much that they propagated the styling lines of the Stag into the new Mark 2 2000/2500 saloon and estate. The initial Stag design was based around the saloon’s 2.5-litre six cylinder engine, but Harry Webster intended the Stag, large saloons and estate cars to use a new Triumph-designed overhead cam 2.5-litre fuel injected  V8. Under the direction of Harry Webster’s successor, Spen King in 1968, the new Triumph OHC 2.5 PI V8 was enlarged to 2997 cc to increase torque. To meet emission standards in the USA, a key target market, the troublesome mechanical fuel injection was dropped in favour of dual Zenith-Stromberg 175 CDSE carburettors. A key aim of Triumph’s engineering strategy at the time was to create a family of engines of different size around a common crankshaft. This would enable the production of power plants of capacity between 1.5 and 4 litres, sharing many parts, and hence offering economies of manufacturing scale and of mechanic training. A number of iterations of this design went into production, notably a slant four-cylinder engine used in the later Triumph Dolomite and Triumph TR7, and a variant manufactured by StanPart that was initially used in the Saab 99. The Stag’s V8 was the first of these engines into production. Sometimes described as two four-cylinder engines Siamesed together, it is more correct to say that the later four-cylinder versions were half a Stag engine. It has sometimes been alleged that Triumph were instructed to use the proven all-aluminium Rover V8, originally designed by Buick, but claimed that it would not fit. Although there was a factory attempt by Triumph to fit a Rover engine, which was pronounced unsuccessful, the decision to go with the Triumph V8 was probably driven more by the wider engineering strategy and by the fact that the Buick’s different weight and torque characteristics would have entailed substantial re-engineering of the Stag when it was almost ready to go on sale. Furthermore Rover, also owned by British Leyland, could not necessarily have supplied the numbers of V8 engines to match the anticipated production of the Stag anyway. As in the Triumph 2000 model line, unitary construction was employed, as was fully independent suspension – MacPherson struts in front, semi-trailing arms at the rear. Braking was by front disc and rear drum brakes, while steering was power-assisted rack and pinion.  Although other bodystyles were envisaged, these never made production, so all  Stags were four-seater convertible coupés. For structural rigidity – and to meet new American rollover standards of the time – the Stag required a B-pillar “roll bar” hoop connected to the windscreen frame by a T-bar. A removable hardtop was a popular factory option for the early Stags, and was later supplied as a standard fitment. The car was launched one year late in 1970, to a warm welcome at the various international auto shows. Sadly, it rapidly acquired a reputation for mechanical unreliability, usually in the form of overheating. These problems arose from a variety of causes, all of which are now well understood, and for which solutions have been identified, but at the time, they really hurt the reputation and hence sales of the car. They ranged from late changes to the engine which gave rise to design features that were questionable from an engineering perspective, the choice of materials which necessitated the use of antifreeze all year round, the engine’s use of long, simplex roller link chains, which would first stretch and then often fail inside fewer than 25,000 miles; the arrangement of the cylinder head fixing studs, half of which were vertical and the other half at an angle causing sideways forces which caused premature failure of the cylinder head gaskets. and poor quality production from a plant troubled with industrial unrest and poor quality control. At the time, British Leyland never provided a budget sufficient to correct the few design shortcomings of the Triumph 3.0 litre OHC V8, and the dealers did not help matters. The Stag was always a relatively rare car. British Leyland had around 2,500 UK dealers when the Stag was on sale and a total of around 19,000 were sold in the UK. Thus the average dealer sold only seven or eight Stags during the car’s whole production run, or roughly one car per year. This meant that few dealers saw defective Stags often enough to recognise and diagnose the cause of the various problems. Many owners simply replaced the engine altogether, often with the Rover V8, Ford Essex V6, or even the Triumph 6-cylinder engine around which the car was originally designed. Perhaps thanks to such a reputation for its unreliable engine, only 25,877 cars were produced between 1970 and 1977. Of this number, 6780 were export models, of which 2871 went to the United States. The majority of cars were fitted with a Borg-Warner 3-speed automatic transmission. The other choice was a derivative of the ancient Triumph TR2 gearbox which had been modified and improved over the years for use in the TR series of sports cars. Other than the choice of transmissions there were very few factory-installed options. On early cars buyers could choose to have the car fitted with just the soft-top, just the hard-top (with the hood storage compartment empty) or with both. Later cars were supplied with both roofs. Three wheel styles were offered. The standard fitments were steel wheels with Rostyle “tin-plate” trims. Five-spoke alloy wheels were an option, as were a set of traditional steel spoke wheels with “knock-off”‘ hubcaps. The latter were more commonly found on Stags sold in North America on Federal Specification vehicles. Electric windows, power steering and power-assisted brakes were standard. Options included air conditioning, a luggage rack, uprated Koni shock absorbers, floor mats and Lucas Square Eight fog lamps, and a range of after-market products, most of which were dealer installed as optional accessories could also be fitted. Rather unusually for a 4-seat touring car, the accessory list included a sump protector plate that was never produced. This was probably included as a slightly “gimmicky” tribute to Triumph’s rallying successes. Nowadays, the Stag is seen in a very different light, with lots of very enthusiastic and knowledgeable owners who enjoy the good points of this attractive looking car and who revel in the fact that the market has not yet boosted prices into the unaffordable category, as one day will surely happen.

The Triumph Vitesse was introduced on 25 May 1962, reusing a name previously used by the pre-Second World War Triumph Motor Company from 1936–38, and was an in-line 6-cylinder performance version of the Triumph Herald small saloon. The Herald had been introduced on 22 April 1959 and was a 2-door car styled by the Italian designer Giovanni Michelotti. Within two years, Triumph began to give thought to a sports saloon based on the Herald and using their 6-cylinder engine. Michelotti was again approached for styling, and he came up with a car that used almost all body panels from the Herald, combined with a new front end with a slanted 4-headlamp design. Standard-Triumph fitted a 1596 cc version of their traditional straight-6 derived from the engine used in the Standard Vanguard Six, but with a smaller bore diameter of 66.75 mm, compared with the 74.7 mm bore on the Vanguard, equipped with twin Solex B32PIH semi-downdraught carburettors. These were soon replaced by B321H carburettors, as the accelerator pumps proved a problem. The curious observer will notice a “seam” on the cylinder block between the third & fourth cylinders revealing the design beginnings from the 803 cc Standard SC engine block, first used in the Standard Eight of 1953. The gearbox was strengthened and upgraded to closer (more sporting) gear ratios, and also offered with optional Laycock De Normanville ‘D-type’ overdrive with a 20% higher ratio for the top gear (the equivalent change from 3rd to 4th in a standard transmission), giving more relaxed and economical cruising at the expense of slight oil drag from the pump in the overdrive unit. Models fitted with overdrive had a chrome badge with “Overdrive” in italic text on the left side of the boot opposite the Vitesse 6 chrome script badge on the right. Synchromesh was present on 2nd, 3rd and 4th gears. The rear axle was changed to a slightly uprated differential, but retaining the same 4.11:1 ratio and flange sizes as the Herald. Front disc brakes were standard as were larger rear brake drums, and the Herald fuel tank was enlarged, retaining the reserve feature (essentially a curved pickup pipe that could be rotated to dip into the last few centimetres of fuel) of the smaller Herald tank. The front suspension featured uprated springs to cope with the extra weight of the new engine, but the rear suspension was almost the same as on the Herald—a swing-axle transverse-leaf system which quickly proved inadequate for the relatively powerful Vitesse. The chassis looked outwardly similar to the early Heralds but in fact was substantially re-designed and strengthened, especially around the differential mountings, improvements which were immediately passed through to Herald production. The dash and instrument panel of the earliest Vitesse was the same as the Herald, with a single speedo dial featuring fuel and temperature gauge insets. The Vitesse was available in convertible and saloon forms; a coupé never got beyond the prototype stage. The separate chassis construction of the car meant that no additional strengthening to chassis or body was considered necessary for the convertible model, the only concession being additional door catches to prevent the doors opening during hard cornering. The gearboxes of all the Vitesse and GT6 models were a weak point being derived from the earlier Heralds. The increased power caused accelerated wear on the bearing and forward end of the main shaft which would eventually wear through the hardened surface, leading to large amounts of play between the input and main shafts. This was characterised by growling gear noise on acceleration and deceleration in 1st, 2nd and 3rd getting high in each gear as the torque transmission from the lay shaft moved further from the rear of the box where the bearing support was intact. Repair involved either a new mainshaft or metal spraying/stellite repair. Some engineers suggested repairs were more long lived than a new shaft as the technology 10-20 and more years after manufacture meant that the repaired mainshaft had better specifications that new old stock. The remote lever construction suffered from the same regular bushing wear as the herald spitfire etc where sloppy gearchange and rattling can be cured (easy diy job) with a kit of new parts. A handful of Vitesse estates also were assembled to special order at Standard-Triumph’s Service Depot at Park Royal in West London. The interior was much improved over the Herald; wooden door cappings were added to match the wooden dashboard and the car featured slightly better seats and door trims. Optional extras included a vinyl/fabric, (Britax Weathershield), sunroof on saloon models. Exterior trim was also improved with an elongated stainless steel trim piece which extended further down the body than the Herald, including a Vitesse specific piece of trim rearward of the petrol filler cap and satin-silver anodised alloy bumper cappings replacing the white rubber Herald items. In September 1963 the Vitesse received its first facelift, when the dashboard was revised with a full range of Smith instruments instead of the large single dial from the Herald (large speedometer and cable driven tachometer flanked by smaller 2 inch fuel and temperature gauges). From September 1965, at commission number HB27986, the twin Solex carburettors were replaced by twin Stromberg CD 150 carburettors. Power output increased from the original 70 bhp at 5,000 rpm and torque of 92.5 lb/ft (125 Nm), enough to provide a useful performance boost and making the car a more flexible performer. There was a claimed, although somewhat optimistic increase of 13–14 bhp, and the motoring magazine tested top speed rose to 91 mph (146 km/h), with the 0–80 mph (0–129 km/h) time decreasing from 46.6 seconds to just 33.6 seconds. The Vitesse 6 sold extremely well for Triumph, and was by some way the most popular Vitesse sold during the model’s lifetime. The car was well liked for its performance and reasonable fuel economy, and the well-appointed interior. The exceptionally small turning circle was also liked by users. With its ability to perform as well as many sports cars, but with room for a family, the Vitesse had few rivals for the price. The convertible in particular was virtually unique in the marketplace; another genuine four-seater sporting convertible would not reappear from a British manufacturer until the Triumph Stag several years later. In September 1966 Triumph upgraded the engine to 1998 cc, in line with the new Triumph GT6 coupé, and relaunched the Vitesse as the Vitesse 2-Litre. Power was increased to 95 bhp, endowing the new car with a claimed 0–60 mph time of just under 12 seconds, and lifting top speed to 104 mph (167 km/h). (The 2-Litre was advertised by Triumph as “The Two Seater Beater”). The performance increase was welcome, but it highlighted the deficiencies of the rear suspension. Other detail modifications for the 2-litre, included a stronger clutch, all synchromesh gearbox, larger front brakes (still without a servo), and a stronger differential with a slightly higher 3.89:1 ratio. Wider & stronger 4.5-inch wheel rims were fitted, but radial-ply tyres were still optional, at extra cost. There was a satin silver anodised aluminium-alloy cowling above the new reversing light, and badges on the side of the bonnet and in the centre of the grille read 2 litre. The Vitesse boot badge was retained as italic script but lost the 6 of the earlier model – replacing that with the rectangular 2 litre badge and with a chrome strip underlining the Vitesse badge. Cars with overdrive had a separate badge on the cowling above the number plate/reversing light. Inside the car, the seats were greatly improved, with softer (more plush) covering and a better back-rest shape which slightly improved rear-seat knee-room. A new leather-covered three-spoke steering wheel was also added. The Vitesse Mk I was sold until 1968. The Vitesse Mark 2 was launched in October 1968 as the final update to the Vitesse range. Essentially intended to be Triumph’s answer to growing criticism of the rear suspension, the Mark 2 was fitted with a redesigned layout using new lower wishbones and Rotoflex half-shaft couplings. This system, also shared with the new GT6 MKII (GT6+ in the US market), and the first GT6 MkIIIs, tamed the wayward handling and endowed the Vitesse with more firm, progressive roadholding. The solid swing axles of the Herald and earlier Vitesses had camber changes of some 15 degrees from the limits of travel. By adding the lower wishbone and the divided drive shaft whilst retaining the transverse leaf spring as the top link, this camber change was reduced to about 5 degrees. While this was a considerable improvement, it was still a system that struggled to keep up with a really good link-located live axle (such as Triumph would introduce on the Toledo, 1500TC and later Dolomite saloons). There were other improvements: the engine was tweaked once more to provide 104 bhp, cutting the 0–60 mph time to just over 11 seconds and providing a top speed of over 100 mph (160 km/h). The main changes were to the valve timing, to give earlier opening and later closing of the inlet valves compared with the earlier 2-litre engine. (38/78 btdc/atdc for the Mk2 vs 30/60 for the 2 litre). Design changes to the cylinder head allowed for increased inlet valve diameters and better porting. Another major difference in the cylinder head removed the “step” in earlier 1600 and 2 litre incarnations. This meant that in the earlier cars the head studs on the right (manifold) side were short and ended under the manifolds, necessitating unbolting the (hot) manifolds and dropping them back to retorque the studs after a head gasket replacement. The MKII head was full width so all the studs were accessible. The inlet manifolds of the mkII were shorter than the 2 litre to keep inlet tract length the same. The Stromberg carburetors were also changed from 150 CD to 150 CDS, the S referring to the use of a spring between the dashpot cover and piston. The exterior featured a new grille with 3 sets of horizontal elements that were also used (in longer form) in the herald 13/60, Rostyle wheel trims and silver painted steel rear panel, (described by Triumph as “ceramic”), and the interior was upgraded once more in order to share parts with the new Herald 13/60, although there were significant differences between the two models; the inclusion of a tachometer being an obvious one, the provision of a larger ash tray in the Vitesse not quite so obvious. A new colour range was offered for the Mark 2 models. The aluminium cowling above the reversing light gained an oblong chromed VITESSE badge, and the separate chromed Mazak TRIUMPH letters on the bonnet and the boot lid were also deleted. The badges on the bonnet sides were changed to read Mk2 instead of 2 litre. Cars with overdrive had a small badge that fitted below the new rectangular Triumph boot badge. This was the ultimate Vitesse, a saloon or convertible with performance superior to the MGB and the Sunbeam Alpine sports car (in both acceleration and top speed) but with four seats and a large boot. Contemporary testing in the UK press listed the Vitesse’s 0-70 mph time as 15.0 seconds against 17.9 for both the MGBGT and the Sunbeam Alpine Series IV, and standing-quarter-mile times were 18.1, 19.5, and 19.0 respectively. The Vitesse sold well until its withdrawal in July 1971, seven months before the new Triumph Dolomite saloon entered the performance luxury sector for Triumph. Although the Vitesse was an older model, it proved to be more reliable than its replacement, due to its simpler and more proven engine design

Launched at the same time as the Rover 2000 was Triumph’s large saloon car, also called 2000. A replacement for the long running Standard Vanguard, this was the more sporting of the duo, with a subtly different appeal from the Rover. Between them, the cars defined a new market sector in the UK, promising levels of comfort and luxury hitherto associated with larger Rover and Jaguar models, but with usefully lower running costs and purchase prices, all in a modern package. Both added more powerful models to their range, with Rover going down the twin carburettor route, whilst in 1967, Triumph installed a larger 2.5 litre engine and the then relatively new fuel injection system, creating the 2.5PI, which is what was to be seen here. This Lucas system was not renowned for its reliability in the early days, but it did make the car rapid and refined. A facelift in 1969 brought new styling front and rear, which turned out to be a taster for a new grand tourer model which would emerge a few months later, and in this Mark 2 guise, the car was sold until 1977, in both saloon and estate guises. A mid range model, with twin carburettors but the larger engine, the 2500TC was introduced in 1974 and the 2500S arrived in 1975 with more power but also carb fed, to replace the troublesome and thirsty PI. These are the most sought after models now.

TVR

The TVR M Series cars were built between 1972 and 1979, replacing the Vixen and Tuscan models. The styling showed a clear resemblance to the models that the M replaced, with the centre section of the car being carried forward and conceptually, the cars were little different, with a front mid-engine, rear-wheel drive layout and body-on-frame construction. The bodies themselves were built from glass-reinforced plastic (GRP). The engines were bought in, sourced from Triumph and Ford, which resulted in a number of different models being made. These included the 1600M, 2500M, 3000M, 3000S, and Taimar, as well as turbocharged versions of the 3000M, 3000S, and Taimar. The first model to start production was the 2500M in March 1972, after being built as a prototype in 1971, which had the 2500cc engine from the Triumph 2.5PI and TR6 under the bonnet. Ford engined 1600M and 3000M models followed later. The American market was financially very important to TVR, and Gerry Sagerman oversaw import and distribution of the cars within the United States from his facility on Long Island. Approximately thirty dealers sold TVRs in the eastern part of the country. John Wadman handled distribution of the cars in Canada through his business, JAG Auto Enterprises.. A small number of 5.0 litre Ford V8-powered cars were finished or converted by the TVR North America importer; these were sold as the 5000M. A total of 2,465 M Series cars were built over the nine years of production. Because of the hand-built and low-volume nature of TVR production, there are many small and often-undocumented variations between cars of the same model that arise due to component availability and minor changes in the build process. The M Series was regarded by contemporary reviewers as being loud and fast and having excellent roadholding. This came at the expense of unusual ergonomics, and heating and ventilation systems that were sometimes problematic. The first major alteration to the M Series body was the hatchback Taimar, introduced at the October 1976 British International Motor Show and using the same mechanicals as the 3000M. The name was inspired by the name of Martin’s friend’s girlfriend, Tayma. The opening hatchback alleviated the previous difficulty of manoeuvering luggage over the seats to stow it in the cargo area, and the hatch itself was opened electrically via a solenoid-actuated latch triggered by a button on the driver’s doorjamb. Over its three-year production, a total of 395 normally aspirated Taimars were built. The final body style for the M Series, an open roadster, arrived in 1978 as the TVR 3000S (marketed in some places as the “Convertible”, and referred to at least once as the “Taimar Roadster”.) Like the Taimar, the 3000S was mechanically identical to the 3000M; the body, however, had undergone significant changes. Only the nose of the car was the same as the previous coupes, as the windscreen, doors, and rear end had all been reworked. The redesign of the doors precluded the possibility of using wind-up windows, so sliding sidecurtains were instead fitted. These could be removed entirely and stowed in the boot, which, for the first time on a TVR, was a separate compartment with its own lid. The boot lid was operated electrically in a manner similar to the Taimar’s hatch. Its design was not finalised by the time the first cars entered production, so the first several cars (including the prototype) were built with no cutout for boot access. The final styling tweaks and the production of moulds for the fibreglass were done by Topolec Ltd. of Norfolk. The styling of the 3000S was revived in a somewhat modernised form later, with the 1987 introduction of the TVR S Series (although the S Series shared almost no components with the M Series cars.) The windscreen and convertible top had been adapted from those used on the Jensen-Healey roadster. Because Jensen Motors had ceased operation in 1976, the windscreen and sidecurtain designs were done by a company named Jensen Special Products, which was run by former Jensen employees. The design for the convertible top was finalised by Car Hood Company in Coventry. One of the minor undocumented variations found on M Series cars is the presence of a map light built into the upper windscreen surround of the 3000S. It appears to have been included only on a very small number of cars built near the end of the production run. When production of the 3000S ended (with 258 cars built), it cost £8,730. Reportedly, 67 of these cars were in a left-hand drive configuration, and 49 were exported to North America.

TVR replaced their long-running shape with something really quite radical looking in early 1980. with the Tasmin, and there was a relatively early version of these “wedge” era TVRs here. During the 1970s, when Martin Lilley started to look where to take the Blackpool based company next, he noted that Lotus appeared to have reinvented itself with the Elite, Eclat and Esprit, losing much of the kit-car image in the process, and he thought he needed to do something similar. He needed a new design language, so he contacted Oliver Winterbottom who had done the Elite/Eclat for the Norfolk firm, hoping for something new. The wedge-shaped design that Winterbottom created was produced in 1977, and a prototype was created the following year, before the new car’s launch very early in 1980. Based on the Taimar, but with very different wedge styling, the car was not exactly received with massive enthusiasm. The styling looked a bit like yesterday’s car, as the wedge era was on the wane, and the car’s price pitched it against cars like the Porsche 924 Turbo. Development of the new car had drained TVR’s finances, which led to Lilley ceding control of the company in 1981 to Peter Wheeler. The convertible that followed helped matters a bit, whereas the 2 litre 200 and the 2+2 model did not, but in 1983, TVR announced a revised version with the potent Rover 3.5 litre V8 under the bonnet, in lieu of the 2.8 litre Ford Essex unit, and it transformed the car. It was just what was needed, and over the next few years, a series of ever more potent models, with ever wilder styling came into the range. By 1986, the 450SEAC boasted 340 bhp, making this something of a supercar.

The Chimaera was originally intended to replace the Griffith but sufficient demand for both of the models led TVR continuing them. In 1994, TVR introduced the Chimaera 500, a high performance derivative of the Chimaera. The BorgWarner T5 manual transmission replaced the Rover LT77 unit on the rest of the range. A new alternator, power steering and a single Vee belt were fitted to improve reliability. The 4.3 litre engine option was replaced by the 4.0 litre High Compression option. The Chimaera was mildly updated in 1996. Updates included a rear bumper shared with the Cerbera, push button doors with the buttons located under the wing mirrors, a boot lid shared with the Cerbera and the replacement of the front mesh grille with a horizontal bar. The GKN differential was also replaced by a BTR unit. A 4.5 litre model was added to the lineup in 1997. It was originally intended to be fitted with the AJP8 V8 engine but due to the engine not being ready on time, a bored version of the Rover V8 was used instead. In 1998, the rear light styling and the number plate mounting angle was updated while the base 4.0 litre model was discontinued. In 2001, the Chimaera was again facelifted and now featured the Griffith’s headlights as well as seats from the Cerbera. The Chimaera was succeeded by the Tamora in 2002.

The Cerbera was first shown as a prototype at the 1994 Birmingham Show, entering production in 1996. The name derives from Cerberus the three-headed beast of Greek legend that guarded the entrance of Hades. This was the third car manufactured by TVR under the leadership of Peter Wheeler, and it represented three firsts for the Wheeler-led company: the first hard-top—the Griffith and the Chimaera were both convertibles; the first 2+2—TVRs were traditionally two-seaters; the first to be driven by TVR’s own engines—historically, TVR had purchased engines from mainstream manufacturers like Rover, Ford and Triumph. Prior to the Cerbera, TVR had purchased V8 engines from Rover and then tuned them for their own use. When Rover was purchased by BMW, Peter Wheeler did not want to risk problems should the Germans decide to stop manufacturing the engine. In response, he engaged the services of race engineer Al Melling to design a V8 engine that TVR could manufacture in-house and even potentially offer for sale to other car-makers. In an interview for the television programme Top Gear, Wheeler explained “Basically, we designed the engine as a race engine. It was my idea at the time that if we wanted to expand, we ought to make something that we could sell to other people. We’ve ended up with a 75-degree V8 with a flat-plane crank. The bottom-half of the engine to the heads is exactly as you would see in current Formula One engines.” Wheeler was quoted at the time of the car’s launch as saying that the combination of light weight and high power was too much for a road car, a quote which ensured much free publicity in the press. Enthusiasts still argue about whether this was a typical example of Wheeler’s legendary frankness, or an equally typical example of his PR chief Ben Samuelson’s knack for saving on advertising costs by creating a story. The result was dubbed the “Speed Eight” (official designation ‘AJP8’) after Al Melling, John Ravenscroft and Peter Wheeler, a 4.2 litre V8 producing 360 hp and gave the Cerbera a top speed of 185 mph (297 km/h). A 4.5 litre version of the engine was later offered with 420 hp. The AJP8 has one of the highest specific outputs of any naturally aspirated V8 in the automotive world at 83.3 hp/litre for the 4.2 and 93.3 hp/litre for the 4.5. Later models of the 4.5 litre engine had the ‘Red Rose’ option, which increased output to 440 bhp (97.7 hp/litre) when fuelled with super-unleaded (high octane) and the driver pushed the unmarked button on the dashboard which altered the engine mapping to suit. In some cases, real-world outputs for production V8s (4.5 in particular) were down from TVRs quoted output. Some of these have seen some form of modification (ECU, induction, exhaust etc.) to bring the power back up to the factory quoted output. One of the attractions of the V8 Cerberas for many owners was the loud backfire produced on overrun, particularly at low speeds. In fact this was the result of an argument at the factory between one of TVR’s executives and the engineers mapping the engine. The engineers wanted to map out this “irregularity” to improve fuel efficiency and CO2 emissions, whilst the executive insisted it was exactly the kind of thing owners would like. In the end a compromise was reached in which the popping and banging remained on the 4.5 litre cars. With the success of the Speed Eight program, Wheeler also undertook the design of a “Speed Six” engine to complement it. This engine also made its debut in the Cerbera but was a 4.0 litre inline slant six design with four valves per cylinder to the Speed Eight’s two. In service however it gained a reputation for unreliability and many engines had to be rebuilt. The car itself was designed from the start as a four-seater. The rear seats are smaller than the front, a design commonly referred to as a “2+2”. However, the interior is designed so that the passenger seat can slide farther forward than the driver’s seat. This allows more room for the person sitting behind the front passenger. TVR have referred to this as a “3+1” design. TVR maintained its tradition of building cars that were not only exceptionally powerful but also very light for their size and power output. The Cerbera’s weight was quoted by TVR at 1100 kilograms, although customers claimed the weight varied between 1,060 kg (2,337 lb) and 1,200 kg (2,646 lb). The dashboard was designed especially for the Cerbera and uses a two-spar steering wheel as opposed to the typical three-spar previously found in most TVRs. The reason for this is that minor instruments are located on a small panel below the steering wheel and a third spar in the wheel would have made them difficult to read. Like all TVRs of the Peter Wheeler era, the Cerbera had a long-travel throttle to compensate for the lack of electronic traction-control and very sharp steering. The V8 powered cars were two turns from lock to lock and the Speed Six car was 2.4 turns. This made it easier for experienced drivers to maintain or regain control of the car in the event of a loss of traction but some less experienced drivers complained that it made the cars feel “twitchy” and more responsive than they would otherwise have preferred. In 2000, TVR changed the styling of the car slightly by modifying the headlights to more closely resemble those seen in the TVR Tuscan. The “facelift” features were available with all three engine configurations. In addition, the cars equipped with the 4.5 litre engine were offered with the “lightweight” option, reducing the overall weight through the use of lighter body panels and a slightly reworked interior. The final car was made in 2006

The Tuscan was launched in 2000, by which time there had been a series of what we think of as the modern era TVRs produced for nearly a decade, the Chimaera, Griffith and Cerbera. The Tuscan did not replace any of them, but was intended to help with the company’s ambitious push further up market to become a sort of Blackpool-built alternative to Ferrari. It did not lack the styling for the task, and unlike the preceding models with their Rover V8 engines, the new car came with TVR’s own engine, a straight six unit of 3.6 litre capacity putting out 360 bhp. The Tuscan was intended to be the grand tourer of the range, perfectly practical for everyday use, though with only two seats, no ABS, no airbags and no traction control, it was a tough sell on wet days in a more safety conscious world, but at least there was a removable targa top roof panel for those days when the sun came out. The car may have lacked the rumble of a V8, but when pushed hard, the sound track from the engine was still pretty special, and the car was faster than the Cerbera, but sadly, the car proved less than reliable, which really started to harm TVR’s reputation, something which would ultimately prove to be its undoing.

Final TVR present was a Tamora. This car was launched in 2002, as the entry point of the range, taking over from the Chimaera. It was fitted with TVR’s in-house ‘Speed Six’, a DOHC 3605 cc six-cylinder engine rated at 350 hp and 290 lb/ft of torque at 5500 rpm, mated to a five-speed manual. Brake rotors were 12.0 inches up front, and 11.1 inches in the back, both clamped by AP Racing calipers. The suspension is a double wishbone setup at all four corners. Standard wheels are 16×7 inch aluminium, with 225/50ZR-16 Avon ZZ3 tyres. The Tamora was built on a 93-inch wheelbase, and the car’s overall profile measured 154.5 inches long, 67.5 inches wide and 47.4 inches high. It weighed 2,337 pounds, with 58/42 weight distribution. Keeping with the TVR tradition, the Tamora lacked driving aids such as traction control and ABS as well as air bags. It was still in production when TVR went bankrupt in 2006.

ULTIMA

Although the model has been in low volume “production” for many years now, there are still plenty of people who do not know what the car is, and the fact that there are no badges on it, and now no tax disc, means that there are no clues even when you see it in person. The Ultima is manufactured by Ultima Sports Ltd of Hinckley in Leicestershire, and is generally described by commentators as a supercar. It is available both in kit form and as a “turnkey” (i.e. assembled by the factory) vehicle. The design is a mid-engined, rear wheel drive layout, with a tubular steel space frame chassis and GRP bodywork. Both close coupe and convertible versions have been made. The latter is called the Ultima Can-Am. Kit builders are free to source and fit a variety of engines and transmissions but the Chevrolet small block V8 supplied by American Speed mated to either a Porsche or Getrag transaxle is the factory recommended standard, and this configuration is fitted to all turnkey cars.

VAUXHALL

After a gap of three years with no new models emerging from Vauxhall there was much excitement on the release of a modern looking small hatchback, the Chevette, first seen in March 1975. Although some were disappointed that this was not an all-new design, but an adaptation of the Opel Kadett which had been on sale for 18 months, the reality was that the Vauxhall version of the global T Car program, which saw versions of the car produced with Isuzu, Holden and Chevrolet badges as well, was a worthy entrant in the class and it sold strongly, especially as the range expanded to include two and four door saloons, an estate and even a van.

The front-wheel drive Opel Corsa was first launched in September 1982. It went on sale first in France, Italy, and Spain – markets where small cars represented from 34 to 43 percent of sales. Built-in Zaragoza, Spain, the first Corsas were three-door hatchback and two-door saloon models, with four-door and five-door versions arriving in 1984. In certain markets, commercial “van” models were also sold, with or without rear windows depending on local requirements. In mainland Europe, the saloon versions were known as the “Corsa TR” until May 1985 and received an egg-crate grille rather than the four slits used on hatchbacks. The saloons were intended to appeal to customers of the Opel Kadett C and its sister the Vauxhall Chevette who still desired a traditional 3-box sedan shape – but it did not sell particularly well in most of Europe but were popular in Spain and Portugal, among other markets. While only taking ten percent of French Corsa sales during the car’s first half-year, the TR represented half of all Corsas sold in Spain. The basic trim level was called just the Corsa, which was followed by the Corsa Luxus, Corsa Berlina, and the sporty Corsa SR. The SR receives a spoiler which surrounds the rear window, alloy wheels, checkered sport seats, and a somewhat more powerful 70 PS engine. Six years later, the Corsa received a facelift, which included a new front fascia and some other minor changes. The models were called LS, GL, GLS, and GT. The Corsa A was known in the United Kingdom market as the Vauxhall Nova (as it was considered that Corsa sounded too much like “coarser”), where it was launched in April 1983, following a seven-month-long union dispute due to British workers being angry about the car not being built there, in contrast to the rival Ford Fiesta, Austin Metro and Talbot Samba. In addition, there was also a dispute about the disparity of import tariffs, as while cars exported from Spain to the European Community were subject to tariffs of only 4.4 per cent, those exported in the other direction were subject to tariffs as high as 36.7 per cent. Power first came from 1.0 L 45 hp, 1.2 L 55 hp, and 1.3 L 70 hp petrol engines. (The first engines were all equipped with carburettors; fuel injection came later, but never for the 1.0.) The engines were based on the well proven Family II design, except for the 1.0 L and early 1.2 L engines, which were based on the OHV unit from the Kadett C. There was also an Isuzu-built, 67 PS 1.5 L turbo diesel engine available, which was also used in the Isuzu Gemini at around the same time. The diesel joined the line up in May 1987, at the Frankfurt Motor Show, along with the sporty GSi. The engines and most of the mechanical componentry were derived from those used in the Astra/Kadett. In September 1987 the Corsa received a light facelift, with a new grille that was now the same on hatchbacks and sedans, an updated interior, and other slight changes. For the 1989 model year, the 1.3 was bored out to 1.4 liters. Power remained the same, although torque increased. A rare “Sport” model was produced in 1985 to homologate for the sub 1,300 cc class of Group A for the British Rally Championship. These Sport models were white and came with unique vinyl decals, a 13SB engine with twin Weber 40 DCOE carburettors, an optional bespoke camshaft, a replacement rear silencer, and few luxuries. This gave 93 hp and a top speed of 112 mph (180 km/h) with a 0–60 mph time of 8.9 seconds. These are by far the rarest models (500 produced) and thus acquire a high market price if one does become available. A 1.6 L multi point fuel-injected engine with 101 PS at 5600 rpm (98 PS in the catalysed version) and capable of 186 km/h (116 mph) was added to the Corsa/Nova at the 1987 Frankfurt Motor Show, giving decent performance and being badged as a GSi (“Nova GTE” in pre-facelift models in the United Kingdom, later models were all called GSi). The GSi’s engine mapping had been carried out by Opel tuning specialists Irmscher. A model with the 82 PS 1.4 L multi-point fuel-injected engine, which was otherwise mechanically identical to the GSi, also became available as the Nova SRi in the United Kingdom. In January 1988, a turbocharged version of the Isuzu diesel engine was introduced, with power increased to 67 PS. The design was freshened in September 1990, with new bumpers, headlights, grille, and interior, but it was clearly recognisable as a gentle makeover of an early 1980s design when it had to compete with the latest two all-new superminis in Europe – the Peugeot 106 and the Renault Clio. The car was finally replaced in the spring of 1993.  Nearly 500,000 Novas were sold in Britain over its ten years on sale. In its best year, 1989, it was Britain’s seventh best selling car with more than 70,000 sales, but by February 2016, only 1,757 were still on the road.

VOLKSWAGEN

This is a splendid example of the iconic Beetle.

On display were several examples of the second generation of VW’s versatile van range, first seen in late 1967. It was built in Germany until 1979. In Mexico, the Volkswagen Kombi and Panel were produced from 1970 to 1994. Models before 1971 are often called the T2a (or “Early Bay”), while models after 1972 are called the T2b (or “Late Bay”). This second-generation Type 2 lost its distinctive split front windshield, and was slightly larger and considerably heavier than its predecessor. Its common nicknames are Breadloaf and Bay-window, or Loaf and Bay for short. At 1.6 litres and 47 bhp DIN, the engine was also slightly larger. The battery and electrical system was upgraded to 12 volts, making it incompatible with electric accessories from the previous generation. The new model also did away with the swing axle rear suspension and transfer boxes previously used to raise ride height. Instead, half-shaft axles fitted with constant velocity joints raised ride height without the wild changes in camber of the Beetle-based swing axle suspension. The updated Bus transaxle is usually sought after by off-road racers using air-cooled Volkswagen components. The T2b was introduced by way of gradual change over three years. The first models featured rounded bumpers incorporating a step for use when the door was open (replaced by indented bumpers without steps on later models), front doors that opened to 90° from the body, no lip on the front guards, unique engine hatches, and crescent air intakes in the D-pillars (later models after the Type 4 engine option was offered, have squared off intakes). The 1971 Type 2 featured a new, 1.6 litre engine with dual intake ports on each cylinder head and was DIN-rated at 50 bhp. An important change came with the introduction of front disc brakes and new roadwheels with brake ventilation holes and flatter hubcaps. Up until 1972, front indicators are set low on the nose rather than high on either side of the fresh air grille – giving rise to their being nicknamed “Low Lights”. 1972’s most prominent change was a bigger engine compartment to fit the larger 1.7- to 2.0-litre engines from the Volkswagen Type 4, and a redesigned rear end which eliminated the removable rear apron and introduced the larger late tail lights. The air inlets were also enlarged to accommodate the increased cooling air needs of the larger engines. In 1971 the 1600cc Type 1 engine as used in the Beetle, was supplemented with the 1700cc Type 4 engine – as it was originally designed for the Type 4 (411 and 412) models. European vans kept the option of upright fan Type 1 1600 engine but the 1700 Type 4 became standard for US spec models. In the Type 2, the Type 4 engine, or “pancake engine”, was an option for the 1972 model year onward. This engine was standard in models destined for the US and Canada. Only with the Type 4 engine did an automatic transmission become available for the first time in the 1973 model year. Both engines were 1.7 L, DIN-rated at 66 bhp with the manual transmission and 62 bhp with the automatic. The Type 4 engine was enlarged to 1.8 L and 67 bhp DIN for the 1974 model year and again to 2.0 L and 70 bhp DIN for the 1976 model year. The two-litre option appeared in South African manufactured models during 1976, originally only in a comparably well-equipped “Executive” model. The 1978 2.0 L now featured hydraulic valve lifters, eliminating the need to periodically adjust the valve clearances as on earlier models. The 1975 and later U.S. model years received Bosch L-Jetronic electronic fuel injection as standard equipment; 1978 was the first year for electronic ignition, utilising a hall effect sensor and digital controller, eliminating maintenance-requiring contact-breaker points. As with all Transporter engines, the focus in development was not on power, but on low-end torque. The Type 4 engines were considerably more robust and durable than the Type 1 engines, particularly in Transporter service. In 1972, exterior revisions included relocated front turn indicators, squared off and set higher in the valance, above the headlights. Also, square-profiled bumpers, which became standard until the end of the T2 in 1979, were introduced in 1973. Crash safety improved with this change because of a compressible structure behind the front bumper. This meant that the T2b was capable of meeting US safety standards for passenger cars of the time, though not required of vans. The “VW” emblem on the front valance became slightly smaller. Later model changes were primarily mechanical. By 1974, the T2 had gained its final shape. Very late in the T2’s design life, during the late 1970s, the first prototypes of Type 2 vans with four-wheel drive (4WD) were built and tested.

Conceived as a replacement for the popular Beetle Cabrio, and at the time unique in the market place, a convertible version of the Golf was presented to Volkswagen’s management by coachbuilder Wilhelm Karmann GmbH as early as 1976. This early prototype lacked the roll-over bar of the later version, and had a flat body line in the rear, where the soft top folded down below the sill level. The production version of the convertible Golf was designated Type 155. In Europe and Canada it was called the Golf Cabriolet, while in the United States it was sold as the Rabbit Convertible until 1985, when it was also renamed “Cabriolet”. The Cabriolet was sold from 1980 to 1993. It had a reinforced body, a transverse roll-over bar, and a high level of trim. From stamping to final assembly the Mk1 Cabriolet was built entirely at the Karmann factory. Volkswagen supplied engines, suspension, and interior trim for Karmann to install. The tops, of vinyl or cloth, were heavily insulated, with a heated glass rear window. The top was raised and lowered manually until 1991, when it became electrically operated. The body of the Cabriolet did not change through the entire production run except for a larger fuel tank. It kept the pre-1980 style of rear lamp clusters. A space saver spare wheel was fitted from the outset, including 1978 pre-production models, unlike the saloon which did not adopt this until 1984. All Cabriolets from 1988 on left the factory fitted with a “Clipper” bodykit that featured smooth body-coloured bumpers, wheel-arch extensions, and side skirts. Prior to the 1984 model year the highest standard specification Cabriolet was the GLI, which was essentially a GTI in all but name. It was only in late 1983 with the introduction of the 1984 model that an officially badged GTI version of the cabriolet finally became available.

Joining it was an example of the Golf GTi Mark 2. VW had launched the second generation Golf in August of 1983, nearly 9 years after production of the first model to bear the name had begun. This time, a GTi version was included in the product plans from the start, and the new GTi was announced in May 1984. Like the regular Golf 2, it was almost 7″ longer than the Mark 1, with 3″ extra in the wheelbase and a 2″ wider track. It was also 10% heavier, but with significantly improved aerodynamics, resulting from attention to detail which included integrated gutters and flush glass as well as more rounded styling, the cd fell from 0.42 to 0.34. Initially it was powered by the same 1781cc fuel injected engine, but there were all round disc brakes and longer suspension travel improved the ride. Competitors came snapping at its heels, though, so after 2/5 years, VW responded by giving the car 24% more power, achieved by doubling the number of valves to 16. Lower stiffer suspension and bigger front brakes were also fitted, all of which restored the Golf GTi 16V to the top of the Hot Hatch pile. For most people that is, though the 8v car retained a following thanks to its broader torque spread. This less powerful car changed from a mechanical K-Jetronic injection system to a new Digifant electronic set up in 1987 at which point the front quarterlights were deleted, and a digital instrument pack became an option on the 16v car. Power steering became standard in late 1990 and the 8v gained the interior from the 16v model. Production ran through to February 1992, by which time the Mark 3 GTi was waiting in the wings. over 600,000 were built over an 8 year period, around 10% of all Mark 2 Golf production.

The Volkswagen Golf Mk3 Cabrio (or Type 1E) was introduced in 1994 for the 1995 model year, replacing the previous MK1 Golf based Cabriolet. It was facelifted in 1998 (mid-1999 for non-euro markets) with the front, rear, and steering wheel styling inspired by the Golf Mk4 while still maintaining the body from the Mk3 Cabrio. These Cabrios are often referred to as the Mk3.5 Cabrios. The Volkswagen Golf Cabrio was discontinued in 2002 with a special edition called “Last Edition”.

VOLVO

This is a nice example of the Volvo P1800, a sports car that was manufactured by Volvo Cars between 1961 and 1973. The car was a one-time venture by the usually sober Swedish Volvo, who already had a reputation for building sensible sedans. The project was originally started in 1957 because Volvo wanted a sports car to compete in the US and European markets, despite the fact that their previous attempt, the P1900, had failed to take off with only 68 cars sold. The man behind the project was an engineering consultant to Volvo, Helmer Petterson, who in the 1940s was responsible for the Volvo PV444. The design work was done by Helmer’s son Pelle Petterson, who worked at Pietro Frua at that time. Volvo insisted it was an Italian design by Frua and only officially recognised that it was by Pelle Petterson many years later. The Italian Carrozzeria Pietro Frua design firm (then a recently acquired subsidiary of Ghia) built the first three prototypes between September 1957 and early 1958, later designated by Volvo in September 1958: P958-X1, P958-X2 and P958-X3. In December 1957 Helmer Petterson drove X1, the first hand-built P1800 prototype to Osnabrück, West Germany, headquarters of Karmann. Petterson hoped that Karmann would be able to take on the tooling and building of the P1800. Karmann’s engineers had already been preparing working drawings from the wooden styling buck at Frua. Petterson and Volvo chief engineer Thor Berthelius met there, tested the car and discussed the construction with Karmann. They were ready to build it and this meant that the first cars could hit the market as early as December 1958. But in February, Karmann’s most important customer, Volkswagen forbade Karmann to take on the job, as they feared that the P1800 would compete with the sales of their own cars, and threatened to cancel all their contracts with Karmann if they took on this car. This setback almost caused the project to be abandoned. Other German firms, NSU, Drautz and Hanomag, were contacted but none was chosen because Volvo did not believe they met Volvo’s manufacturing quality-control standards. It began to appear that Volvo might never produce the P1800. This motivated Helmer Petterson to obtain financial backing from two financial firms with the intention of buying the components directly from Volvo and marketing the car himself. At this point Volvo had made no mention of the P1800 and the factory would not comment. Then a press release surfaced with a photo of the car, putting Volvo in a position where they had to acknowledge its existence. These events influenced the company to renew its efforts: the car was presented to the public for the first time at the Brussels Motor Show in January 1960 and Volvo turned to Jensen Motors, whose production lines were under-utilised, and they agreed a contract for 10,000 cars. The Linwood, Scotland, body plant of manufacturer Pressed Steel was in turn sub-contracted by Jensen to create the unibody shells, which were then taken by rail to be assembled at Jensen in West Bromwich. In September 1960, the first production P1800 left Jensen for an eager public. The engine was the B18, an 1800cc petrol engine, with dual SU carburettors, producing 100 hp. This variant (named B18B) had a higher compression ratio than the slightly less powerful twin-carb B18D used in the contemporary Amazon 122S, as well as a different camshaft. The ‘new’ B18 was actually developed from the existing B36 V8 engine used in Volvo trucks at the time. This cut production costs, as well as furnishing the P1800 with a strong engine boasting five main crankshaft bearings. The B18 was matched with the new and more robust M40 manual gearbox through 1963. From 1963 to 1972 the M41 gearbox with electrically actuated overdrive was a popular option. Two overdrive types were used, the D-Type through 1969, and the J-type through 1973. The J-type had a slightly shorter ratio of 0.797:1 as opposed to 0.756:1 for the D-type. The overdrive effectively gave the 1800 series a fifth gear, for improved fuel efficiency and decreased drivetrain wear. Cars without overdrive had a numerically lower-ratio differential, which had the interesting effect of giving them a somewhat higher top speed of just under 120 mph, than the more popular overdrive models. This was because the non-overdrive cars could reach the engine’s redline in top gear, while the overdrive-equipped cars could not, giving them a top speed of roughly 110 mph. As time progressed, Jensen had problems with quality control, so the contract was ended early after 6,000 cars had been built. In 1963 production was moved to Volvo’s Lundby Plant in Gothenburg and the car’s name was changed to 1800S (S standing for Sverige, or in English : Sweden). The engine was improved with an additional 8 hp. In 1966 the four-cylinder engine was updated to 115 PS, which meant the top speed increased to 109 mph. In 1969 the B18 engine was replaced with the 2-litre B20B variant of the B20 giving 118 bhp, though it kept the designation 1800S. For 1970 numerous changes came with the fuel-injected 1800E, which had the B20E engine with Bosch D-Jetronic fuel injection and a revised camshaft, and produced 130 bhp without sacrificing fuel economy. Top speed was around 118 mph and acceleration from 0–62 took 9.5 seconds. In addition, the 1970 model was the first 1800 with four-wheel disc brakes; till then the 1800 series had front discs and rear drums. Volvo introduced its final P1800 variant, the 1800ES, in 1972 as a two-door station wagon with a frameless, all-glass tailgate. The final design was chosen after two prototypes had been built by Sergio Coggiola and Pietro Frua. Frua’s prototype, Raketen (“the Rocket”), is located in the Volvo Museum. Both Italian prototypes were considered too futuristic, and instead in-house designer Jan Wilsgaard’s proposal was accepted. The ES engine was downgraded to 125 bhp by reducing the compression ratio with a thicker head gasket (engine variant B20F); although maximum power was slightly down the engine was less “peaky” and the car’s on-the-road performance was actually improved. The ES’s rear backrest folded down to create a long flat loading area. As an alternative to the usual four-speed plus overdrive manual transmission, a Borg-Warner three-speed automatic was available in the 1800ES. With stricter American safety and emissions standards looming for 1974, Volvo did not see fit to spend the considerable amount that would be necessary to redesign the small-volume 1800 ES. Only 8,077 examples of the ES were built in its two model years.

Now quite a rare sighting, there were was also a Volvo 480ES here. This was a car produced in Born, Netherlands, at the factory that built DAF cars, including the DAF 66 based Volvo 66, and later, the Volvo 300 Series. It was the first front-wheel drive car made by the automaker. The 480 was available in only one body style on an automobile platform related to the Volvo 440/460 five door hatchback and four door sedan models. It featured an unusual four seat, three door hatchback body, somewhere between liftback and estate in form, the first Volvo of its style since the P1800ES, and the last until the unveiling of the C30. All of these models featured a frameless glass hatch for cargo access.. Volvo took six years from the time the 480 was conceived, through its development, and finally brought to production readiness. Designed by Volvo’s Dutch subsidiary, the “sporty 480 ES coupe” was introduced to change the automaker’s “frumpy image” and into the “yuppie” market segment. The concept was to market a modern, compact front wheel drive car with a unique low slung design targeting buyers “between 25 and 40, probably with a higher than average education and with a career.” The press launch was on October 15, 1985, but the 480 was first put on public show at Geneva in March 1986, becoming available to the buyers in 1987. It was initially well received, with the press describing it as having a “sleek hatch body” in contrast to Volvo’s traditional “boxcar look”. Because the 480 was originally planned for the North American market (evidenced by its front and rear side markers, not used on European automobiles). it was, Volvo claimed, one of the first cars sold in Europe featuring bumpers designed to comply with United States National Highway Traffic Safety Administration (NHTSA) regulations to withstand a 5 mph front rear impact without damage to the engine, lights, and safety equipment. This was the only Volvo to feature pop up headlamps for better aerodynamics. Volvo highlighted that the car was “well-endowed with advanced electronics” and the automaker’s press release described in detail the numerous features, though some of these would prove to be the cause of the reliability problems that plagued early cars. The 480 had good handling, due in part to its Lotus designed suspension. The normally aspirated Renault engines were reliable. The 1987 models were available with ABS as an optional extra. In 1988, a Turbo version was introduced, the Garrett AiResearch turbocharger increasing the power from 108 bhp to 118 bhp. Maximum torque was 129 lb-ft compared to 103 lb-ft for the naturally aspirated engine. In 1993 new legislation meant that catalytic converters had to be fitted to unleaded petrol engines, power dropped and so the 2.0 litre engine was developed; it was rated at 108 bhp and 122 lb-ft. A four-speed automatic transmission was also offered. In 1991, the 480 received new mirrors, headrests for the back seats, as well as subtle modifications to the trim and body colour bumpers. The 2.0 naturally aspirated engine was also introduced, again based on the Renault F3 engine. Changes between the CEM (Central Electronic Module) are externally apparent with the introduction of a total closure system whereby the key can be held in the lock position to close the windows and (where fitted) sunroof. Earlier CEM modules feature a “passing” function for the wipers, whereby fully depressing the accelerator pedal will switch intermittent wipers to full. Early 1992 saw the first release of special editions such as the “TwoTone”. 1994 saw the United Kingdom release of the “Celebration” limited edition of 480 specially equipped and numbered cars. In 1994, the 480 also received its last light update, and now sported clear front turn signals. Production ended on 7 September 1995. According to the Volvo Museum, 76,375 cars in ES and Turbo versions were made between 1986 and 1995.

WOLSELEY

Along with the 4/50, the 6/80 was the first new model that Wolseley put into production after the war. Launched in 1948, the new cars were based on the Morris Oxford MO and the Morris Six MS respectively. The 4-cylinder 4/50 used a 1476 cc 50 hp version of the 6/80 engine, while the 6/80 used a 2215 cc 72 hp straight-6 single overhead cam. It was 7″ longer, to accommodate the longer in-line 6 cylinder engine and had bigger brakes. The cars featured a round Morris rear end and upright Wolseley grille and were used extensively by the Police at the time, especially the 6/80. These models were built at Morris’ Cowley factory alongside the ‘Oxford’. They were replaced in 1953 and 1954 by the Wolseley 4/44 and 6/90.

The Riley One-Point-Five and similar Wolseley 1500 were produced from 1957 to 1965. They utilised the Morris Minor floorpan, suspension and steering but were fitted with the larger 1,489 cc B-Series engine and MG Magnette gearbox. The two models were differentiated by nearly 20 bhp, the Riley having twin SU carburettors giving it the more power at 68 bhp. The Wolseley was released in April 1957 and the Riley was launched in November, directly after the 1957 London Motor Show. The Series II was released in May 1960. The most notable external difference was the hidden boot and bonnet hinges. Interior storage was improved with the fitting of a full width parcel shelf directly beneath the fascia. The Series III was introduced in October 1961, featuring revisions to the grille and rear lights. In October 1962 the cars received the more robust crank, bearing and other details of the larger 1,622 cc unit now being fitted in the Austin Cambridge and its “Farina” styled clones. Unlike the Farina models, however, the Wolseley 1500 and Riley One-Point-Five retained the 1,489cc engine size with which they had been launched back in 1957. Production ended in 1965 with 39,568 Rileys and 103,394 Wolseleys made.

Despite the wet start, this proved to be a really great day, which I enjoyed very much. I really should not leave it another ten years before coming again!