The Queen Square Breakfast Club meets have long been the pre-eminent such gatherings in the Bristol area, attracting cars not just from the city but a much wider area. The popularity of the event meant that it outgrew the Georgian square from which it takes it name a long time ago, and so the event takes place at a number of different venues in the Bristol area, on a monthly basis. In recent months I’ve been to a couple of these but the one that always seems to attract the most enthusiasm and indeed the best photography back-drop shots has always eluded me, as the diary has always clashed. That is the area around the Lloyds amphitheatre building on the waterfront more or less across from the SS Great Britain. This is a city centre location which will become unviable once Bristol long-promised Low Emission Zone comes in, which now looks likely to be sometime in early 2022. That means that when the venue for the January 2022 event was announced as being here, it was added that this would likely be the very last time the event could be held here. The only slight downside to the venue is that space is limited. It will still accommodate around 250 cars, so it is not as if there is a small-scale event, but these breakfast Club meets regularly attract more cars than that. To ensure the quality and variety of the event this means that the Queen Square organiser, Dan Grazier, invites people to apply and carefully curates who gets a space to ensure that there are not large numbers of the same type of car. Whilst some will think this unfair, I think this is absolutely the right policy as it does ensure the best possible variety at the event. Any event is January is even more at risk of unfavourable weather than other times of the year, but the date for this one was blessed with some lovely sunshine – though that did challenge the photographers with the resulting long shadows. I got there around 8:30am, to find the site filling up nicely, and more cars queuing up to get in, and then enjoyed a whole morning looking at that carefully curated display. Here is what I saw:
As I had not booked my car in for a display space, it seemed for most of the morning as if there would be no Abarth representation, but late on, a 595 car – which I did not recognise – did appear. Having used the legendary 695 badging from the 1960s on the Tributo cars, at the 2012 Geneva Show, Abarth dusted off the 595 name that had been used on the less powerful of the Nuova 500 based cars of the same generation, and created two new versions which we should think of as Series 2 cars, the 595 Turismo and Competizione, both of which could be bought in either closed or open top C guise, with either the 5 speed manual or robotised automated gearshifts. Both models had the 160 bhp engine as standard. Effectively they were a replacement for the Esseesse kit, and it meant that the cars were produced complete at the factory, rather than needing the dealer to undertake the upgrade (and the associated paperwork), though Abarth did not withdraw the Esseesse kits from the market for some while. Turismo, as the name suggests was aimed slightly less extreme in intent, featuring standard leather upholstery, upgraded dampers and climate control, Xenon headlights and Alutex interior details. The sportier Abarth 595 Competizione replaced the leather seats with Sabelt cloth sport seats and Alutex with aluminium, while adding p-cross-drilled brakes and the Record Monza dual-mode exhaust.
The Alfa Romeo MiTo (Type 955) is a front-wheel drive, three-door supermini designed by Centro Stile Alfa Romeo and presented in 2008 at Castello Sforzesco in Milan with an international introduction at the British Motor Show in 2008. The new car was provisionally named the “Junior”. In November 2007, Alfa Romeo launched a European public naming competition; the winner from each country to win an Alfa Romeo Spider or an Alfa Romeo mountain bike. The winning name was “Furiosa”, which scored well in Italy, France, United Kingdom and Germany, but not in Spain. In 2008, Alfa Romeo announced “MiTo” as the official name, a portmanteau of Milano (Milan) & Torino (Turin), because it was designed in the former and was assembled in the latter. The name is also a play on the Italian word “mito”, meaning “myth” or “legend”. The MiTo is front-wheel drive, with a system allowing the driver to choose three driving settings: Dynamic, Normal, and All-Weather. The system, marketed as “Alfa DNA,” tunes the behavior of the engine, brakes, steering, suspension and gearbox. The MiTo also features LED tail lights and 250-litre (8.8 cu ft) of luggage space. The MiTo also features a Q2 electronic differential on the front wheels, which is active with the DNA switch in Dynamic position, and allows for faster and tighter cornering without loss of traction. In 2010 a new transmission for the MiTo was unveiled at the 2010 Geneva Motor Show, the six-speed TCT which is produced by Fiat Powertrain Technologies in Verrone (TCT Dual Dry Clutch Transmission). Magneti Marelli delivers the control system which integrates BorgWarner’s hydraulic actuation module into its own power and transmission control units. It can handle torque inputs of up to 350 N⋅m (258 lbf⋅ft) In Geneva was also unveiled Blue&Me–TomTom, this new system integrates TomTom navigation to the Blue&Me infotelematic system. At its launch the MiTo featured low-displacement turbocharged petrol and diesel engines. Also, a power limited 78 bhp naturally aspirated engine variant is produced to meet the new Italian legislation for young people. MiTo got new electro-hydraulic valve control system Multiair engines from September 2009. MultiAir engines will increase power (up to 10%) and torque (up to 15%), as well as a considerable reduction in consumption levels (up to 10%) and CO2 emissions (up to 10%), of particulates (up to 40%) and NOx (up to 60%). This new engine is available with 104 bhp,133 bhp and 168 bhp power ratings. All multiair versions have start-stop system as standard. In October 2009 was unveiled a dual fuel MiTo version, this version can run with LPG (Liquefied petroleum gas) or petrol, with this engine MiTo has range of 1,200 km (750 miles). The LPG version is made in collaboration with Landi Renzo. In Summer 2010 Alfa introduced the Dual Dry Clutch Transmission called Alfa TCT ( i.e. Twin Clutch Transmission ). From model year 2011 the start-stop system came as standard on all versions. At the 2011 Frankfurt Motor Show, AR introduced two new engines for the MiTo – The 0.9 L I2 TwinAir and a new low emission 85 PS version of the 1.3 JTD diesel engine. The Quadrifoglio Verde (green four-leaf clover) has traditionally been the highest line of Alfa Romeo models. The car (see Alfa Romeo in motorsport article for the history of this emblem) version of Mito was presented at the 2009 Frankfurt Motor Show. The QV version has the new 1.4 litres (1,368 cc) Turbo Multiair inline-four engine 168 bhp at 5500 rpm and 250 Nm (184 lb/ft) of torque at 2500 rpm, with newly engineered suspension, steering and new six-speed C635 gearbox developed by Fiat Powertrain Technologies (FPT). Its specific output of 124 PS per litre was highest in its segment at that time. The new multiair technology allows fuel consumption of 6 l/100 km (47 mpg) in EU combined driving and CO2 emissions of 139 g/km. QV had bigger 305 mm front brake discs and exclusive 18″ alloy wheels as standard and Sabelt carbon fibre backed bucket seats as an option. From 2014 QV was now available with TCT robotised gearbox which brought down the 0–100 km/h time to 7.3 s. With the 2016 facelift, the QV was renamed as the Veloce. For model year 2014, the MiTo got a new 105 PS 0.9 L Turbo TwinAir engine, new chrome-plated grille, new Anthracite grey colour and new burnished front light clusters. The car interior was also updated with new upholsteries, three new dashboards looks, as well as the new Uconnect 5.0 infotainment systems. The engine range now consists two turbo diesel engines (the updated E5+ 85 PS 1.3 L JTDM and the 120 PS 1.6 L JTDM) and five petrol engines: the 70 PS 1.4, the 78 PS 1.4, the 135 PS 1.4 MultiAir Turbo (with manual or Alfa TCT Dual Dry Clutch Transmission) and the 170 PS 1.4 MultiAir Turbo. The range has also 120 HP 1.4 LPG Turbo option. Debuting at the 2016 2016 Geneva Motor Show, the revised Mito featured a facelifted front fascia with a new updated brand logo and new lettering. Trim line up was changed to Mito, Super and Veloce. A new body colour and new rims designs also became available. The previous MiTo QV became the Mito Veloce, available with 170 PS engine and TCT transmission. The MiTo was marketed across a single generation from 2008 to 2018, sharing the Fiat Small platform with the Fiat Grande Punto. Production reached 293,428 at FCA’s Mirafiori plant.
The most recent Giulietta arrived in 2010 as a much awaited replacement for the 147. Spy photos had suggested that the car was going to look very like Fiat’s ill-fated Bravo, but the reality was that it had a style all of its own. A range of very efficient petrol and diesel engines were among the most emissions-efficient in their class at the time, and a 250 bhp Quadrifoglio version at the top of the range made sure there was something for the man who wanted a rapid, but quite subtle hatch. The car has enjoyed reasonable success in the UK, and the car has certainly found favour among Alfa enthusiasts, so it was not a surprise to see one here.
Also here, from the current range was the Giulia, seen in Veloce form.
This version of the Vanquish started life as the Project AM310 Concept that was unveiled at the 2012 Concorso D’Eleganza at Villa D’Este on the shores of Lake Como, Italy. The concept car was based on the fourth generation VH platform. It included a tweaked version of Aston Martin’s familiar grille and headlight design and a more pronounced bulge in the bonnet – with the real One-77-inspired flourishes saved for the sides and the rear, the side vents run almost to the door handles (from One-77), new rear light design from One-77, and a 5.9-litre V12 engine that produced 550 PS. Aston Martin later announced that the concept would be put into production as the all new Aston Martin Vanquish. The exterior styling of the Vanquish is an evolution of the DBS with many styling cues such as the elongated side strakes being inspired by the Aston Martin One-77. The boot lid included an integrated rear spoiler designed to look as if it is impossible to make; this was done on the orders of Aston Martin Chief Executive, Dr. Ulrich Bez. The car has an exposed carbon fibre side skirt showing its all carbon fibre body. The Vanquish uses the new VH Generation IV platform which is lighter and uses more carbon fibre components than the VH Generation II platform used in the DBS. The car featured an all new interior based on the one found in the exclusive One-77. The standard interior was trimmed in hand stitched leather and alcantara and was available in a range of colours. The centre console features an revised infotainment system over the one found in the DBS. The car was available as either a 2-seater or 2+2. The Vanquish used an upgraded version of Aston Martin’s flagship 5.9-litre AM11 V12 engine called the AM28 with a power output of 565 bhp at 6,750 rpm and torque of 457 lb/ft at 5,500 rpm. The Vanquish can accelerate from 0 to 100 km/h (62 mph) in 4.1 seconds, and has a top speed of 295 km/h (183 mph). Like most Aston Martins, the engine is front mid-mounted for better weight distribution, with the power going to the rear wheels. The Vanquish has 51/49 front/rear weight distribution, and a kerb weight of 1,739 kg (3,834 lb). It uses a fully catalysed stainless steel exhaust system with active bypass valves. The Vanquish uses an updated Touchtronic II six-speed automatic gearbox. It was the first Aston Martin model to be available with launch control. The combined space of cabin and a boot that, at 368 litres, is more than 60% larger than that of the DBS. The brakes are ventilated carbon ceramic discs, 398 mm (15.7 in) six-piston callipers in the front and 360 mm (14.2 in) four-piston callipers in the rear. The suspension is a lightweight aluminium front subframe with hollow castings with independent double wishbones incorporating anti-dive geometry, coil springs, anti-roll bar, and monotube adaptive dampers in the front and independent double wishbones with anti-squat and anti-lift geometry, coil springs, anti-roll bar, and monotube adaptive dampers in the rear. It has a three-stage adjustable adaptive damping system including normal, sport and track modes. The tyres are Pirelli P Zeros, 255/ZR20 in the front and 305/30 ZR20 in the rear. The vehicle was unveiled in the London Film Museum, Covent Garden, followed by 2012 Monterey Car Week. Deliveries to UK and Continental Europe began in late 2012. In August 2014, Aston Martin revealed technical modifications to the Vanquish. The changes include a new eight-speed Touchtronic III gearbox and upgraded AM29 V12 engine that produces 568 bhp and torque of 465 lb/ft. The changes greatly enhanced performance, with an acceleration of 0 to 100 km/h (62 mph) in 3.6 seconds, and a top speed of 324 km/h (201 mph). In 2013, Aston Martin unveiled a convertible version of the Vanquish, called Volante. The Volante includes a full carbon fibre body, triple-skin lightweight fabric roof, 50% larger boot than its predecessor and the third generation Brembo 398 mm × 36 mm front and 360 mm × 32 mm CCM rear Carbon Ceramic Matrix (CCM) brake discs with six-piston front and four-piston rear brake callipers (from the One-77). The Vanquish Volante is 13% torsionally stiffer than the outgoing DBS Volante. The carbon fibre-skin of the Vanquish Volante was created by the engineering team at Aston Martin. The vehicle was unveiled at the 2013 Pebble Beach Concours d’Elegance. Deliveries to Europe began in late 2013. On 16 November 2016, Aston Martin announced the new Vanquish S model. The Vanquish S features the same AM29 V12 engine, with power now increased to 595 bhp, and a new aerodynamic package. The Vanquish S can accelerate from 0 to 100 km/h (62 mph) in 3.5 seconds, and the top speed remains unchanged at 201 mph (324 km/h). The starting price at launch was £199,950 and deliveries started in December 2016. Aston Martin also unveiled a convertible version of the Vanquish S called the Vanquish S Volante in 2017.
Follow on to the DB7 was the DB9 (there has never been a car called DB8 – supposedly because people might have assumed this meant a V8 engine), and there was a nice example here. The Aston Martin DB9, designed by Marek Reichmann and Hendrik Fisker, was first shown by Aston Martin at the 2003 Frankfurt Auto Show, in coupe form. It was widely praised for the beauty of its lines. This was the first model to be built at Aston Martin’s Gaydon facility. It was built on the VH platform, which would become the basis for all subsequent Aston models. The Aston Martin DB9 was initially launched equipped with a 6.0 litre V12 engine, originally taken from the V12 Vanquish. The engine produced 420 lbf·ft of torque at 5,000 rpm and a maximum power of 444 hp at 6,000 rpm, allowing the DB9 to accelerate from 0 to 60 mph in 4.7 seconds and a top speed of 299 km/h (186 mph). The engine largely sits behind the front-axle line to improve weight distribution. Changes to the engine for the 2013 model year increased the power to 503 hp and torque to 457 lb-ft, decreasing the 0 to 60 mph time to 4.50 seconds and with a new top speed is 295 km/h (183 mph). The DB9 was available with either a six-speed conventional manual gearbox from Graziano or a six-speed ZF automatic gearbox featuring paddle-operated semi-automatic mode. The gearbox is rear-mounted and is driven by a carbon-fibre tail shaft inside a cast aluminium torque tube. The DB9 was the first Aston Martin model to be designed and developed on Ford’s aluminium VH (vertical/horizontal) platform. The body structure is composed of aluminium and composites melded together by mechanically fixed self-piercing rivets and robotic assisted adhesive bonding techniques. The bonded aluminium structure is claimed to possess more than double the torsional rigidity of its predecessor’s, despite being 25 percent lighter. The DB9 also contains anti-roll bars and double wishbone suspension, supported by coil springs. To keep the back-end in control under heavy acceleration or braking, the rear suspension has additional anti-squat and anti-lift technology. Later versions of the car also features three modes for the tuning: normal, for every-day use, sport, for more precise movement at the cost of ride comfort, and track, which furthers the effects of the sport setting. The Aston Martin DB9 Volante, the convertible version of the DB9 coupe, followed a few months later. The chassis, though stiffer, uses the same base VH platform. To protect occupants from rollovers, the Volante has strengthened windscreen pillars and added two pop-up hoops behind the rear seats. The hoops cannot be disabled and will break the car’s rear window if deployed. In an effort to improve the Volante’s ride while cruising, Aston Martin have softened the springs and lightened the anti-roll bars in the Volante, leading to a gentler suspension. The retractable roof of the Volante is made of folding fabric and takes 17 seconds to be put up or down. The Volante weighs 59 kilograms (130 pounds) more than the coupe. The coupe and Volante both share the same semi-automatic and automatic gearboxes and engine. The car was limited to 266 km/h (165 mph) to retain the integrity of the roof. Like the coupe, the original Volante has 420 lb·ft of torque at 5,000 rpm and a maximum power of 450 hp at 6,000 rpm. The 0 to 60 mph slowed to 4.9 seconds due to the additional weight. The DB9 was facelifted in July 2008, which mainly amounted to an increase in engine power, to 476 hp and a redesigned centre console. Externally, the DB9 remained virtually unchanged. For the 2013 model year revision, Aston made minor changes to the bodywork by adapting designs from the Virage, including enlarging the recessed headlight clusters with bi-xenon lights and LED daytime strips, widening the front splitter, updating the grille and side heat extractors, updating the LED rear lights with clear lenses and integrating a new rear spoiler with the boot lid. .On newer models, like the coupe’s, the Volante’s horsepower and torque increased to 517 PS (510 hp) and 457 lb·ft respectively. As a finale for the model, a more powerful DB9 was released in 2015, called the DB9 GT. This had 540 bhp and 457 lb-ft of torque at 5500 rpm, giving a 0 to 60mph time of 4.4 seconds and 0 to 100mph in 10.2 seconds, with the standing quarter mile dispatched in 12.8 to 12.9 seconds and a top speed of 183mph. Production of the DB9 ended in 2016 being replaced by its successor, the DB11.
Following the unveiling of the AMV8 Vantage concept car in 2003 at the North American International Auto Show designed by Henrik Fisker, the production version, known as the V8 Vantage was introduced at the Geneva Motor Show in 2005. The two seat, two-door coupé had a bonded aluminium structure for strength and lightness. The 172.5 inch (4.38 m) long car featured a hatchback-style tailgate for practicality, with a large luggage shelf behind the seats. In addition to the coupé, a convertible, known as the V8 Vantage Roadster, was introduced later in that year. The V8 Vantage was initially powered by a 4.3 litre quad-cam 32-valve V8 which produced 380 bhp at 7,300 rpm and 409 Nm (302 lb/ft) at 5,000 rpm. However, models produced after 2008 had a 4.7-litre V8 with 420 bhp and 470 Nm (347 lbft) of torque. Though based loosely on Jaguar’s AJ-V8 engine architecture, this engine was unique to Aston Martin and featured race-style dry-sump lubrication, which enabled it to be mounted low in the chassis for an improved centre of gravity. The cylinder block and heads, crankshaft, connecting rods, pistons, camshafts, inlet and exhaust manifolds, lubrication system and engine management were all designed in house by Aston Martin and the engine was assembled by hand at the AM facility in Cologne, Germany, which also built the V12 engine for the DB9 and Vanquish. The engine was front mid-mounted with a rear-mounted transaxle, giving a 49/51 front/rear weight distribution. Slotted Brembo brakes were also standard. The original V8 Vantage could accelerate from 0 to 60 mph in 4.8 seconds before topping out at 175 mph. In 2008, Aston Martin introduced an aftermarket dealer approved upgrade package for power and handling of the 4.3-litre variants that maintained the warranty with the company. The power upgrade was called the V8 Vantage Power Upgrade, creating a more potent version of the Aston Martin 4.3-litre V8 engine with an increase in peak power of 20 bhp to 400 bhp while peak torque increased by 10 Nm to 420 Nm (310 lb/ft). This consists of the fitting of the following revised components; manifold assembly (painted Crackle Black), valved air box, right and left hand side vacuum hose assemblies, engine bay fuse box link lead (ECU to fuse box), throttle body to manifold gasket, intake manifold gasket, fuel injector to manifold seal and a manifold badge. The V8 Vantage had a retail price of GB£79,000, US$110,000, or €104,000 in 2006, Aston Martin planned to build up to 3,000 per year. Included was a 6-speed manual transmission and leather-upholstery for the seats, dash board, steering-wheel, and shift-knob. A new 6-speed sequential manual transmission, similar to those produced by Ferrari and Lamborghini, called Sportshift was introduced later as an option. An open-topped model was added to the range in 2006 and then in the quest for more power a V12 Vantage joined the range not long after.
The Aston Martin Rapide is a 4-door, 4-seater, high-performance sports saloon, which the British luxury marque Aston Martin introduced in early 2010. It was first presented as a concept car at the North American International Auto Show in 2006 and the production version was shown at the 2009 Frankfurt Motor Show. The Rapide name is a reference to the Lagonda Rapide, a four-door, four-seater saloon produced by Lagonda, now a part of Aston Martin. The new Rapide is the company’s first 4-door fastback saloon since the Lagonda which was discontinued in 1990. The Rapide is based on the DB9 and is underpinned by the Aston Martin VH platform. The first cars rolled off the production line in May 2010, initially built at a dedicated plant at the Magna Steyr facility in Graz, Austria. The factory initially planned to build 2,000 cars per year, but production was relocated to England in 2012 after sales did not meet production targets. The Rapide is powered by a 5,935 cc V12 engine, generating a maximum power output 477 PS (470 bhp) and torque of 600 Nm (443 lb/ft). The car is rear-wheel drive and has a 6-speed Touchtronic II automatic transmission. The Rapide can attain a top speed of 303 km/h (188 mph), and can accelerate from 0 to 100 km/h (62 mph) in 5.2 seconds. The Rapide’s standard features include a tilt-telescoping steering wheel, bi-xenon headlamps and LED taillamps. Leather and walnut wood trim with metallic accents; power front seats with memory, cooling and heating systems; Bluetooth; satellite radio (US version only); with USB and iPod connectivity. Other standard features include a Bang & Olufsen 16-speaker sound system with two tweeters that rise from the dashboard on activation of the system. The Rapide was designed by stretching the design of the DB9 in order to accommodate an extra set of doors. Aston Martin design director, Marek Reichman has described a thoroughbred race horse as an inspiration, stating that he wanted muscles in the design to be visible through the skin. The side windows of the car were made to appear like a single unit by using a black B pillar. The roof was designed to be as low as possible so it would mimic the design language of Aston Martin’s model lineup. Due to the usage of swan doors and a low roof, the car is difficult for the accommodation of tall people. By comparison, the Porsche Panamera, a competitor of the Rapide, is 2.3 inches taller. The rear flanks of the car are wider than those on the DB9, thus smoothening the extended roof design. The rear fenders and a curvaceous design language prevent the car as being perceived as stretched. The car makes use of rear lights and diffusers from the Vantage while the front headlamps are unique to the model. Although they would find use on the later Vanquish and the facelift DB9. The Rapide S succeeded the standard Rapide in 2013. The AM11 V12 engine is upgraded and now has a power output of 558 PS (550 bhp) and torque of 620 Nm (457 lb/ft). Performance improvements include a top speed of 306 km/h (190 mph) and acceleration from 0 to 100 km/h (62 mph) reduced to 4.9 seconds. Carbon dioxide emissions are reduced by 23g/km to 332g/km. The Rapide S received further revisions in 2014, with a new 8-speed Touchtronic III automatic transmission. It also used the AM29 V12 engine, with a power output of 560 PS (552 bhp) and 630 Nm (465 lb/ft) of torque, resulting in an acceleration of 0 to 100 km/h (62 mph) in 4.4 seconds and an increased top speed of 327 km/h (203 mph). In 2015, Aston Martin was reported to be working on an all-electric version of the Rapide. The model named RapidE was confirmed for production at the 2018 Frankfurt Motor Show, the company revealed that the RapidE would go into production in the fourth quarter of 2019. The RapidE was designed to rival Porsche’s Taycan electric saloon. One hundred and fifty-five examples of the model were produced at Aston Martin’s dedicated production facility located in St Athan, Wales where future all-electric Lagonda models are produced. Williams Advanced Engineering provided R&D assistance in the protype building and testing process with close involvement from interested customers. The RapidE will be powered by a 65 kWh battery supplied by HyperBat Limited; a new joint venture between WAE and Unipart manufacturing group. The battery would be capable of 800-volt power transfers. Five thousand six hundred lithium-ion electric cells would be fitted in the engine bay along with two electric motors supplied by Integral Powertrain at the rear. Both of the motors will drive the car via an Xtrac transmission featuring a limited-slip differential. A new suspension system will be implemented to better cope with the changes in the drive train. The two electric motors will have a combined power output of 610 PS (602 hp) and 949 N⋅m (700 lb⋅ft) of torque. The car will have claimed acceleration figures of 0–97 km/h (0–60 mph) in sub-4.0 seconds’ time and 80–113 km/h (50–70 mph) in 1.5 seconds, along with a top speed of 249 km/h (155 mph). Maximum performance will be accessible regardless of battery charge. A prototype was tested at the Nürburgring to ensure that the car delivers linear power despite hard usage. The car will have a projected range of 322 km (200 mi) (WLTP) and will charge up to 185 miles of range an hour on a 400-volt, 50 kW charger. The car can also be charged on an 800-volt super charging station which increases the charging rate. The RapidE will be fitted with low-drag wheels and low-resistance Pirelli P Zero tyres for maximum efficiency.In January 2020, it was reported that the production of the Rapide E had been cancelled. In June 2018, Aston Martin unveiled the high-performance iteration of the Rapide called the Rapide AMR. The 5.9-litre naturally aspirated AM29 V12 engine produces 603 PS (595 bhp) and 630 N⋅m (465 lb⋅ft) of torque, courtesy of better air flow to the engine and new calibration software. The 8-speed automatic transmission has also received recalibration for better shift timing. The car now comes standard with Michelin Pilot Supersport tyres and 21-inch alloy wheels, the biggest wheels ever fitted to an Aston Martin. The new model features carbon ceramic braking system with six piston calipers at the front and four piston calipers at the rear featuring 400 mm and 360 mm brake rotors front and aft. The car features a new front grille, “sprout” fog lamps and side sills, rear diffuser and bootlid made from carbon fibre. The Rapide AMR can accelerate from 0–100 km/h (0–62 mph) in 4.4 seconds and can reach a claimed top speed of 330 km/h (205 mph). Interior options include a One-77 steering wheel, a personalised plaque along with logos and a variety of colour schemes. Production was limited to 210 examples only. Aston Martin opted to end its production by sub-contractor Magna Steyr in the middle of 2012, six years earlier than expected. Production of the car was also halted temporarily in May 2011. In the face of a diminishing market for luxury saloons, and to match output to shrinking sales, Aston Martin had to cut annual production from 2,000 to 1,250 in June 2011 – and was prepared to go as low as 500 annually. Rapide sales were a fraction of Aston Martin’s more popular Vantage and Vanquish nameplates. As a “four-door ‘coupe’ based on the DB9’s architecture, built hastily to compete with Porsche’s Panamera…in stark contrast to the homely-but-practical Panamera—its beguiling aesthetic is the cause of its limited four-up usefulness” with extremely cramped rear seats, as well as poor fuel economy from the V12 engine. The tagline of the Rapide was “Only four door sports car in the world” while the Panamera’s was “first sports car for four” as the Panamera has “back seats, offering terrific kneeroom, a supportive (if hard) seat cushion, and generous headroom”. Production ceased in 2018 and the car was effectively replaced by the DBX.
From the current range were examples of the latest Vantage in both coupe and roadster format and the DB11.
One of the stars of the morning was this beautifully Maestro Van, in period authentic British Telecom livery.
Donald Healey had been producing a range of expensive sports cars from the 1940s, cars such as the Silverstone, the Abbott and the Farnham. For the 1952 London Motor Show, he produced a new design, which was called the Healey Hundred, based on Austin A90 mechanicals, which he intended to produce in-house at his small car company in Warwick. It was one of the stars of the 1952 Show, and it so impressed Leonard Lord, the Managing Director of Austin, who was looking for a replacement to the unsuccessful A90. that Lord struck a deal with Healey on the spot, to build it in quantity. Bodies made by Jensen Motors would be given Austin mechanical components at Austin’s Longbridge factory. The car was renamed the Austin-Healey 100, in reference to the fact that the car had a top speed of 100 mph. Production got under way in 1953, with Austin-Healey 100s being finished at Austin’s Longbridge plant alongside the A90 and based on fully trimmed and painted body/chassis units produced by Jensen in West Bromwich—in an arrangement the two companies previously had explored with the Austin A40 Sports. By early 1956, production was running at 200 cars a month, 150 of which were being sold in California. Between 1953 and 1956, 14,634 Austin-Healey 100s were produced, the vast majority of them, as was the case for most cars in this post war era, going for export. The car was replaced by an updated model in 1956, called the 100-6. It had a longer wheelbase, redesigned bodywork with an oval shaped grille, a fixed windscreen and two occasional seats added (which in 1958 became an option with the introduction of the two-seat BN6 produced in parallel with the 2+2 BN4), and the engine was replaced by one based on the six-cylinder BMC C-Series engine. In 1959, the engine capacity was increased from 2.6 to 2.9 litres and the car renamed the Austin-Healey 3000. Both 2-seat and 2+2 variants were offered. It continued in this form until production ceased in late 1967. The Big Healey, as the car became known after the 1958 launch of the much smaller Austin-Healey Sprite, is a popular classic now. You come across the 3000 models more frequently than the 100s, as they accounted for more than 60% of all Big Healey production.
Sole Bentley here was this Continental GT Coupe
The 1600-2, as the first “02 Series” BMW was designated, was an entry-level BMW, and was smaller, less expensive, and less well-appointed than the New Class Sedan on which it was based. BMW’s design director Wilhelm Hofmeister assigned the two-door project to staff designers Georg Bertram and Manfred Rennen. The 9.1 in shorter length and wheelbase and lighter weight of the two-door sedan made it more suitable than the original New Class sedan for sporting applications. As a result, the two door sedan became the basis of the sporting 02 Series. The 1600-2 (the “-2” meaning “2-door”) made its debut at the Geneva Show in March 1966 and was sold until 1975, with the designation being simplified to “1602” in 1971. The 1.6 litre M10 engine produced 84 hp at 5,700 rpm and 96 lb·ft. A high performance version, the 1600 TI, was introduced in September 1967. With a compression ratio of 9.5:1 and the dual Solex PHH side-draft carburettor system from the 1800 TI, the 1600 TI produced 110 hp at 6,000 rpm. Also introduced in September 1967 was a limited-production cabriolet, which would be produced by Baur from 1967 through 1971. A hatchback 1600 Touring model was introduced in 1971 but was discontinued in 1972. It was what came next which was more significant. Helmut Werner Bönsch, BMW’s director of product planning, and Alex von Falkenhausen, designer of the M10 engine, each had a two litre engine installed in a 1600-2 for their respective personal use. When they realised they had both made the same modification to their own cars, they prepared a joint proposal to BMW’s board to manufacture a two litre version of the 1600-2. At the same time, American importer Max Hoffman was asking BMW for a sporting version of the 02 series that could be sold in the United States. As per the larger coupe and 4-door saloon models, the 2.0 engine was sold in two states of tune: the base single-carburettor 2002 producing 101 hp and the dual-carburettor high compression 2002 ti producing 119 hp.In 1971, the Baur cabriolet was switched from the 1.6 litre engine to the 2.0 litre engine to become the 2002 cabriolet, the Touring hatchback version of the 02 Series became available with all engine sizes available in the 02 Series at the time and the 2002 tii was introduced as the replacement for the 2002 ti. The 2002 tii used the fuel-injected 130 hp engine from the 2000 tii, which resulted in a top speed of 185 km/h (115 mph). A 2002 tii Touring model was available throughout the run of the tii engine and the Touring body, both of which ended production in 1974. The 2002 Turbo was launched at the 1973 Frankfurt Motor Show. This was BMW’s first turbocharged production car and the first turbocharged car since General Motors’ brief offerings in the early 1960s. It produced 170 hp. The 2002 Turbo used the 2002 tii engine with a KKK turbocharger and a compression ratio of 6.9:1 in order to prevent engine knocking. Kugelfischer mechanical fuel injection was used, with a sliding throttle plate instead of the usual throttle butterfly. The 2002 Turbo was introduced just before the 1973 oil crisis, therefore only 1,672 were built. The 1802 was introduced in 1971 and was available with either the original 2-door sedan body or the 3-door Touring hatchback introduced that year. Production of the Touring model continued until 1974, with the 1802 sedan ending production the following year. The 1502, an economy model with an engine displacement of 1573 cc was introduced in 1975. This engine had a lower compression ratio of 8.0:1, therefore standard-octane petrol could be used. While the rest of the 02 Series was replaced in 1975 by the E21 3 Series, the 1502 was continued until 1977.
Although many refer to this as the Z3M Coupe, the official name does not refer to Z3 at all, just calling it the M Coupé. Manufactured from 1998 until 2002, was developed under the leadership of engineer Burkhard Göschel with the intention of adding increased torsional and structural rigidity to the Z3 roadster’s chassis. The development team had a hard time convincing the Board of Directors to approve the model for production, but it was eventually given the green light as long as it remained cost-effective to produce. To achieve this goal, majority of the body panels had to be shared with the M roadster, thus the doors and everything from the A-pillar forward are interchangeable between the coupé and roadster, as are most interior parts. The Z3 coupé, which combines the M coupe’s body with the standard Z3 drivetrain, chassis and cosmetics was approved for production at the same time. Sales were slow as it didn’t generate much interest between the enthusiasts. As a result of their relative rarity, M Coupes (especially S54 powered models) retain much of their value. The S54 M Coupe is one of the lowest production BMWs with only 1112 built. It was given nicknames like “hearse” and “clown shoe” because of its distinctive styling. The Z3M Coupe and Roadster were initially powered by the engines from the E36 M3. This means that most countries initially used the 3.2 L version of the BMW S50 engine, while North American models initially used the less powerful BMW S52 engine. The S50 produces 316 bhp at 7,400 rpm and 350 Nm (260 lb/ft) at 3,250rpm, while the S52 engine produces 240 bhp at 6,000rpm and 320 Nm (240 lb/ft) at 3,800rpm. A total of 2,999 cars were built with the S50 engine and 2,180 cars were built with the S52 engine. Starting in September 2001, the engines were upgraded to the BMW S54 engine from the E46 M3. In most countries, it produces 321 bhp at 7,400 rpm and 354 Nm (261 lb/ft) at 4,900 rpm, while North American models have 315 bhp at 7,400 rpm and 341 Nm (252 lb/ft) at 4,900 rpm. The difference in peak power and torque is due to the catalytic converters being located closer to the engine on the North American spec cars, which allows the catalysts to heat up faster and reduce cold start emissions. A total of 1,112 cars were built with the S54 engine.
There were only a couple of examples of recent M cars – something which the curation of the event had probably dealt with, as otherwise there would likely have been a lot of them here. This is the recently superceded M4.
The M2 was first revealed in Need for Speed: No Limits on November 2015, before later premiering at the North American International Auto Show in January 2016. Production commenced in October 2015 and is only available as a rear-wheel drive coupé. The M2 is powered by the turbocharged 3.0-litre N55B30T0 straight-six engine producing 365 bhp at 6,500 rpm and 465 Nm (343 lb/ft) between 1,450–4,750 rpm, while an overboost function temporarily increases torque to 500 N⋅m (369 lb⋅ft). The M2 features pistons from the F80 M3 and F82 M4, and has lighter aluminium front and rear suspension components resulting in a 5 kg (11 lb) weight reduction. The M2 is available with a 6-speed manual or with a 7-speed dual-clutch transmission which features a ‘Smokey Burnout’ mode. 0-100 km/h acceleration times are 4.5 seconds manual transmission models and 4.3 seconds for models equipped with the 7-speed dual clutch transmission. Top speed is limited to 250 km/h (155 mph) but can be extended to 270 km/h (168 mph) with the optional M Driver’s package. The M2 Competition was introduced at the 2018 Beijing Auto Show and succeeded the standard M2 Coupé. Production began in July 2018. The M2 Competition uses the high performance S55 engine which is a variant of the 3.0-litre twin turbocharged straight six engine found in the F80 M3 and F82 M4. The engine features a redesigned oil supply system and modified cooling system from the BMW M4 with the Competition Package, and also features a gasoline particulate filter in certain European Union countries to reduce emissions. Compared to the standard M2, the S55 produces an additional 30 kW (40 hp) and 85 Nm (63 lb/ft), resulting in a larger and more sustained power output of 405 bhp between 5,370–7,200 rpm, and 550 N⋅m (406 lb⋅ft) at 2,350–5,230 rpm. The 0-100 km/h acceleration time is 4.4 seconds for six-speed manual transmission models, and 4.2 seconds for models with the 7-speed dual clutch transmission. Top speed is electronically limited to 250 km/h (155 mph), but the M Driver’s package can extend the limit to 280 km/h (174 mph) which is 10 km/h (6 mph) further than in the M2. The M2 Competition also has a carbon-fibre reinforced plastic strut bar, enlarged kidney grilles, and larger brake discs of 400 mm (15.7 in) in the front axle and 380 mm (15.0 in) in the rear axle. Because of the new engine and cooling system, the M2 Competition is 55 kg (121 lb) heavier than the standard M2 at 1,550 kg (3,417 lb) for manual transmission models and 1,575 kg (3,472 lb) for dual-clutch transmission models. It remains in production.
BMW’s most recent supercar is the futuristic i8. The Roadster was launched at the 2017 Los Angeles Show in December, three years after the first of the closed coupe models went on sale. For the Roadster, the basic parameters are the same as the Coupe: plug-in hybrid powertrain, housed an aluminium chassis with a carbon-fibre monotub. But the battery boasts a higher capacity, and the hybrid powertrain more muscle to take the i8 even further (and faster). The 1.5-litre turbocharged three-cylinder engine now produces 231 bhp (up from 228), and the electric motor 143 hp (up from 131 hp) for a combined output of 374 hp to rocket the i8 coupe from a standstill to 60 mph in 4.2 seconds, and the roadster in 4.4 as they rocket towards their electronically limited top speed of 155 mph. With a battery pack upgraded from 20 Ah to 34 Ah and from 7.1 kWh to 11.6, it’ll also travel on electric power alone at speeds of up to 65 mph (instead of just 43 mph) – or 75 mph in eDrive mode. All-electric range is up to 34 miles (for the coupe, 33 for the convertible) on the ambitious New European Driving Cycle. The key new thing in the Roadster is the folding soft-top. Aside from the slight performance penalty, it does mean sacrificing the rear seats, but with the inherent rigidity of the carbon cell, chopping the roof off nets only a 132-pound weight penalty for a curb weight quoted at 3,516 lbs. That roof, incidentally, can raise and lower in just 15 seconds at speeds of up to 31 mph, folding into a compact Z-shaped vertical stack. The suspension’s been retuned for the roadster too, and new wheels for both versions reduce unsprung weight. These changes have been applied to the Coupe as well.
This is an example of the fourth generation Corvette to near the name. It was was the first complete redesign of the Corvette since 1963. Production was to begin for the 1983 model year but quality issues and part delays resulted in only 43 prototypes for the 1983 model year being produced that were never sold. All of the 1983 prototypes were destroyed or serialised to 1984 except one with a white exterior, medium blue interior, L83 350 ci, 205 bhp V8, and 4-speed automatic transmission. After extensive testing and modifications were completed, it was initially retired as a display sitting in an external wall over the Bowling Green Assembly Plant’s employee entrance. Later this only surviving 1983 prototype was removed, restored and is now on public display at the National Corvette Museum in Bowling Green, Kentucky. It is still owned by GM. On February 12, 2014, it was nearly lost to a sinkhole which opened up under the museum. Regular fourth generation production began on January 3, 1983; the 1984 model year and delivery to customers began in March 1983. The 1984 model carried over the 350 cu in (5.7 litre) L83 slightly more powerful (5 bhp) “Crossfire” V8 engine from the final 1982 third generation model. New chassis features were aluminium brake calipers and an all-aluminium suspension for weight savings and rigidity. The new one piece targa top had no centre reinforcement. A new electronic dashboard with digital liquid crystal displays for the speedometer and tachometer was standard. Beginning in 1985, the 230 bhp L98 engine with tuned port fuel injection became the standard engine. September 1984 through 1988 Corvettes offered a Doug Nash designed “4+3” transmission – a 4-speed manual coupled to an automatic overdrive on the top three gears. It was designed to help the Corvette meet U.S. fuel economy standards. Since 1981, when it was last offered, a manual transmission returned to the Corvette starting with production in late-1984. The transmission proved to be problematic and was replaced by a modern ZF 6-speed manual transmission in 1989. In 1986, the second Corvette Indy Pace Car was released. It was the first convertible Corvette since 1975. A Centre High Mounted Signal Light – a third centre brake light – was added in 1986 to comply with safety regulations. While the colour of the pace car used in the race was yellow, all 1986 convertibles also had an Indy 500 emblem mounted on the console, making any colour a “pace car edition”. In 1987, the B2K twin-turbo option became available from the factory. The Callaway Corvette was a Regular Production Option (RPO B2K). The B2K option coexisted from 1990 to 1991 with the ZR-1 option, which then replaced it. Early B2Ks produced 345 bhp and 450 lb·ft later versions boasted 450 bhp and 613 lb·ft .1988 saw the 35th Anniversary Edition of the Corvette. Each of these featured a special badge with an identification number mounted next to the gear selector, and were finished with a white exterior, wheels, and interior. In 1991, all Corvettes received updates to the body, interior, and wheels. The convex rear fascia that set the 1990 ZR-1 apart from the base model was now included on L98 Corvettes, making the styling of the expensive ZR-1 even closer to that of the base cars. The most obvious difference remaining between the base and ZR-1 models besides the wider rear wheels was the location of the CHMSL, which was integrated into the new rear fascia used on the base model, but remained at the top of the rear-hatch on the ZR-1’s. For the 1992 model year, the 300 bhp LT1 engine was introduced, an increase of 50 bhp over 1991’s L98 engine. This engine featured reverse-flow cooling (the heads were cooled before the block), which allowed for a higher compression ratio of 10.5:1. A new distributor was also debuted. Called “Optispark”, the distributor was driven directly off the front of the camshaft and mounted in front of the timing cover, just above the crankshaft and harmonic balancer. Also new for 1992 was Acceleration Slip Regulation (ASR), a form of traction control which utilised the Corvette’s brakes, spark retard, and throttle close-down to prevent excessive rear wheel spin and possible loss of control. The traction control device could be switched off if desired. A special 40th Anniversary Edition was released in 1993, which featured a commemorative Ruby Red colour, 40th anniversary badges, and embroidered seat backs. The 1993 Corvette also marked the introduction of the Passive Keyless Entry System, making it the first GM car to feature it. Production of the ZR-1 ended in 1995, after 6,939 cars had been built. 1996 was the final year of C4 production, and featured special models and options, including the Grand Sport and Collector Edition, OBD II (On-Board Diagnostics), run flat tyres, and the LT4 engine. The 330 bhp LT4 V8 was available only with a manual transmission, while all 300 bhp LT1 Corvettes used automatic transmissions. Chevrolet released the Grand Sport (GS) version in 1996 to mark the end of production of the C4 Corvette. The Grand Sport moniker was a nod to the original Grand Sport model produced in 1963. A total of 1,000 GS Corvettes were produced, 810 as coupes and 190 as convertibles. The 1996 GS came with the high-performance LT4 V8 engine, producing 330 bhp and 340 lb·ft . The Grand Sport came only in Admiral Blue with a white stripe down the middle, and black wheels and two red stripes on the front left wheel arch.
The C5 Corvette was redesigned from the ground up after sales from the previous generation began to decline. Production of the C5 Corvette actually began in 1996 but quality/manufacturing issues saw its release to the public in mass delayed until 1997, and continuing through the 2004 model year. The C5 was a completely new design that featured many new concepts and manufacturing breakthroughs that would be carried forward to the C6 & C7. It had a top speed of 176 mph (283 km/h) and was judged by the automotive press as a breakthrough with vastly improved dynamics in nearly every area over the previous C4 design. Innovations included a 0.29 drag coefficient, near 50/50 weight distribution, active handling (the first stability control for a Corvette). It also weighed less than the C4. It was the first time the platform was badge engineered as the Cadillac XLR with limited sales. An all new LS1 aluminium engine (Gen III small block) featured individual ignition coils for each cylinder, and aluminium block and pistons. It was initially rated at 345 bhp and 350 lb/ft (470 Nm), but was increased to 350 bhp in the 2001 edition. The new engine, combined with the new body, was able to achieve up to 28 mpg on the highway. For its first year, the C5 was available only as a coupe, although the new platform was designed from the ground up to be a convertible, which returned in 1998, followed by the fixed-roof coupe (FRC) in 1999. One concept for the FRC was for it to be a stripped-down model with a possible V6 engine (nicknamed in-house as the “Billy Bob”). By 2000, FRC plans laid the groundwork for the return in 2001 of the Z06, an RPO option not seen since Zora’s 1963 race-ready Corvette. The Z06 model replaced the FRC model as the highest performance C5 Corvette. Instead of a heavier double-overhead cam engine like the ZR-1 of the C4 generation, the Z06 used an LS6, a 385 bhp derivative of the standard LS1 engine. Using the much more rigid fixed roof design allowed the Z06 unprecedented handling thanks to upgraded brakes and less body flex. Those characteristics, along with the use of materials such as a titanium exhaust system and a carbon fiber hood in the 2004 model year, led to further weight savings and performance gains for the C5 Z06. The LS6 was later upgraded to 405 bhp for 2002–2004. Although the Z06’s rated power output equal to that of the C4 ZR-1, the improved rigidity, suspension, brakes, and reduced weight of the C5 produced a car quicker than C4 ZR-1. A sixth generation model arrived for the 2005 model year.
The third-generation Camaro was produced from 1981 (for the 1982 model year) to 1992. These were the first Camaros to offer modern fuel injection, Turbo-Hydramatic 700R4 four-speed automatic transmissions, five-speed manual transmissions, 14,15- or 16-inch wheels, a standard OHV 4-cylinder engine,] and hatchback bodies. The cars were nearly 500 pounds (227 kg) lighter than the second generation model. The IROC-Z was introduced in 1985 and continued through 1990. National Highway Traffic Safety Administration (NHTSA) Regulations required a CHMSL (Center High Mounted Stop Lamp) starting with the 1986 model year. For 1986, the new brake light was located on the exterior of the upper center area of the back hatch glass. Additionally, the 2.5 L Iron Duke pushrod 4-cylinder engine was dropped, and all base models now came with the 2.8 L V6 (OHV). For 1987 and later, the CHMSL was either mounted inside the upper hatch glass or integrated into a rear spoiler (if equipped). In 1985, the 305 cu in (5.0 L) small block V8 was available with indirect injection called “tuned port injection” (TPI). In 1987 the L98 350 cu in (5.7 L) V8 engine became a regular option on the IROC-Z, paired with an automatic transmission only. The convertible body style returned in 1987 (absent since 1969) and all came with a special “20th Anniversary Commemorative Edition” leather map pocket. 1992 offered a “25th Anniversary Heritage Package” that included stripes and a unique spoiler plaque. Beginning in 1988, the 1LE performance package was introduced, optional on street models, and for showroom stock racing in the U.S. and Canada. The B4C or “police” package was made available beginning in 1991. This created a Z28 in more subtle RS styling.
Also here was the latest Camaro Convertible. These are available to buy new, through one dealer in the UK, though only in left hand drive form. Only a few have been sold.
This New Yorker dates from 1972. The 1969 full-size Chryslers received all new “Fuselage Styling”, shared with the completely restyled Imperial. This was a major cosmetic reworking, featuring curved sides and a higher beltline, while the previous generation’s underpinnings remained. The two-door hardtop received a new look harking back to the club coupes of the 1940s. The 1970 Chryslers received minor styling changes to the grille, taillamps, and trim. The small vent windows on the front doors were dropped on the two-door hardtops. Due to lower-than-expected sales, the facelift scheduled for 1971 was put off until 1972. Thus the 1971 models only received new grilles and taillamps. Ventless front-door windows on the four-door sedan and hardtop were new this year. In 1972 engine power dropped to meet stricter emissions standards and rising gas prices. Chryslers received a new ‘split grille’ somewhat similar to the Dodge Chargers of 1971-1974. This would be the last year for the ‘loop’-style front bumpers on Chryslers. 1973 was the final year for the distinctive Chrysler “Fuselage Styling”, with a major reworking of the front-end treatment.
It is hard to imagine just how revolutionary this car must have seemed when it was unveiled at the Paris Show in 1955. 18 years in secret development as the successor to the Traction Avant, the DS 19 stole the show, and within 15 minutes of opening, 743 orders were taken. By the end of the first day, that number had risen to 12,000. Contemporary journalists said the DS pushed the envelope in the ride vs. handling compromise possible in a motor vehicle. To a France still deep in reconstruction after the devastation of World War II, and also building its identity in the post-colonial world, the DS was a symbol of French ingenuity. It also posited the nation’s relevance in the Space Age, during the global race for technology of the Cold War. Structuralist philosopher Roland Barthes, in an essay about the car, said that it looked as if it had “fallen from the sky”. An American advertisement summarised this selling point: “It takes a special person to drive a special car”. Because they were owned by the technologically aggressive tyre manufacturer Michelin, Citroën had designed their cars around the technically superior radial tyre since 1948, and the DS was no exception. The car featured a novel hydropneumatic suspension including an automatic levelling system and variable ground clearance, developed in-house by Paul Magès. This suspension allowed the DS to travel quickly on the poor road surfaces common in France. In addition, the vehicle had power steering and a semi-automatic transmission (the transmission required no clutch pedal, but gears still had to be shifted by hand though the shift lever controlled a powered hydraulic shift mechanism in place of a mechanical linkage, and a fibreglass roof which lowered the centre of gravity and so reduced weight transfer. Inboard front brakes (as well as independent suspension) reduced unsprung weight. Different front and rear track widths and tyre sizes reduced the unequal tyre loading, which is well known to promote understeer, typical of front-engined and front-wheel drive cars. As with all French cars, the DS design was affected by the tax horsepower system, which effectively mandated very small engines. Unlike the Traction Avant predecessor, there was no top-of-range model with a powerful six-cylinder engine. Citroën had planned an air-cooled flat-6 engine for the car, but did not have the funds to put the prototype engine into production. The 1955 DS19 was 65% more expensive than the car it replaced, the Citroën Traction Avant. This did impact potential sales in a country still recovering economically from World War II, so a cheaper submodel, the Citroën ID, was introduced in 1957. The ID shared the DS’s body but was less powerful and luxurious. Although it shared the engine capacity of the DS engine (at this stage 1,911 cc), the ID provided a maximum power output of only 69 hp compared to the 75 hp claimed for the DS19. Power outputs were further differentiated in 1961 when the DS19 acquired a Weber-32 twin bodied carburettor, and the increasing availability of higher octane fuel enabled the manufacturer to increase the compression ratio from 7.5:1 to 8.5:1. A new DS19 now came with a promised 83 hp of power. The ID19 was also more traditional mechanically: it had no power steering and had conventional transmission and clutch instead of the DS’s hydraulically controlled set-up. Initially the basic ID19 was sold on the French market with a price saving of more than 25% against the DS, although the differential was reduced at the end of 1961 when the manufacturer quietly withdrew the entry level ID19 “Normale” from sale. An estate version was introduced in 1958. It was known by various names in different markets: Break in France, Safari and Estate in the UK, Wagon in the US, and Citroën Australia used the terms Safari and Station-Wagon. It had a steel roof to support the standard roof rack. ‘Familiales’ had a rear seat mounted further back in the cabin, with three folding seats between the front and rear squabs. The standard Break had two side-facing seats in the main load area at the back. During the 20 year production life, improvements were made on an ongoing basis. In September 1962, the DS was restyled with a more aerodynamically efficient nose, better ventilation and other improvements. It retained the open two headlamp appearance, but was available with an optional set of driving lights mounted on the front bumpers. A more luxurious Pallas trim came in for 1965 Named after the Greek goddess Pallas, this included comfort features such as better noise insulation, a more luxurious (and optional leather) upholstery and external trim embellishments. The cars were complex, and not always totally reliable, One of the issues that emerged during long term use was addressed with a change which came in for 1967. The original hydropneumatic system used a vegetable oil liquide hydraulique végétal (LHV), similar to that used in other cars at the time, but later switched to a synthetic fluid liquide hydraulique synthétique (LHS). Both of these had the disadvantage that they are hygroscopic, as is the case with most brake fluids. Disuse allows water to enter the hydraulic components causing deterioration and expensive maintenance work. The difficulty with hygroscopic hydraulic fluid was exacerbated in the DS/ID due to the extreme rise and fall in the fluid level in the reservoir, which went from nearly full to nearly empty when the suspension extended to maximum height and the six accumulators in the system filled with fluid. With every “inhalation” of fresh moisture- (and dust-) laden air, the fluid absorbed more water. For the 1967 model year, Citroën introduced a new mineral oil-based fluid liquide hydraulique minéral (LHM). This fluid was much less harsh on the system. LHM remained in use within Citroën until the Xantia was discontinued in 2001. LHM required completely different materials for the seals. Using either fluid in the incorrect system would completely destroy the hydraulic seals very quickly. To help avoid this problem, Citroën added a bright green dye to the LHM fluid and also painted all hydraulic elements bright green. The former LHS parts were painted black. All models, including the Safari and ID, were upgraded at the same time. The hydraulic fluid changed to the technically superior LHM (Liquide Hydraulique Minéral) in all markets except the US and Canada, where the change did not take place until January 1969, due to local regulations. Rarest and most collectable of all DS variants, a convertible was offered from 1958 until 1973. The Cabriolet d’Usine (factory convertible) were built by French carrossier Henri Chapron, for the Citroën dealer network. It was an expensive car, so only 1,365 were sold. These DS convertibles used a special frame which was reinforced on the sidemembers and rear suspension swingarm bearing box, similar to, but not identical to the Break/Safari frame.
Something rather different was this Ami, a new all-electric urban car that will go on sale here during 2022. It was attracting lots of interest.
Another current model, this is the Cupra version of the Ateca.
This is the Hellcat version of the Challenger, a 707 bhp monster.
In 1993, Ferrari presented a light weight 348 GT Competizione variant as a homologation version for competing in the GT Championship. Safety equipment such as a tool kit was carried over from the 348 Challenge. The braking system was derived from the F40 Evoluzione model. The cars also had modified racing suspension and exhaust system. The engine had a power output of 320 PS at 7,000 rpm and 324 N⋅m (239 lb⋅ft) of torque at 5,000 rpm, consistent to standard late 348 production with the F119H engine. Only 50 were made, including 8 Right Hand Drive models. Special features included a specially trimmed steering wheel indicating the number sequence in the production of the 50 cars, 5-spoke 18-inch Speedline competizione wheels and cloth trim seats with kevlar structure for weight reduction. Aiding further in the weight reduction was the carbon kevlar composite material used for the front and rear bumpers as well as the doors and a light weight polycarbonate rear window. Additional interior trim pieces such as door sills featured carbon kevlar and creature comforts such as air conditioning and sound proofing materials were removed. These changes resulted in a dry weight of 1,180 kg (2,601 lb). The final drive in the gear box was changed to 25/27 ratio for improved performance.
It was with the 360 Modena that sales of Ferrari models really took off, with unprecedented volumes of the car being sold. The 360 Modena was launched in 1999, named after the town of Modena, the birthplace of Enzo Ferrari. A major innovation in this all new model came from Ferrari’s partnership with Alcoa which resulted in an entirely new all-aluminium space-frame chassis that was 40% stiffer than the F355 which had utilised steel. The design was 28% lighter despite a 10% increase in overall dimensions. Along with a lightweight frame the new Pininfarina body styling deviated from traditions of the previous decade’s sharp angles and flip-up headlights. The new V8 engine, common to all versions, was of 3.6 litre capacity with a flat plane crankshaft, titanium connecting rods and generates 400 bhp Despite what looks like on paper modest gains in reality the power to weight ratio was significantly improved on over the F355, this was due to the combination of both a lighter car and more power. The 0 to 100 km/h acceleration performance improved from 4.6 to 4.3 seconds. The first model to be rolled out was the 360 Modena, available as a manual, or an F1 electrohydraulic manual. Next up was an open car. The 360 was designed with a Spider variant in mind; since removing the roof of a coupe reduces the torsional rigidity, the 360 was built for strength in other areas. Ferrari designers strengthened the sills, stiffened the front of the floorpan and redesigned the windscreen frame. The rear bulkhead had to be stiffened to cut out engine noise from the cabin. The convertible’s necessary dynamic rigidity is provided by additional side reinforcements and a cross brace in front of the engine. Passenger safety is ensured by a strengthened windscreen frame and roll bars. The 360 Spider displays a curvilinear waistline. The fairings imply the start of a roof, and stable roll bars are embedded in these elevations. Due to use of light aluminium construction throughout, the Spider weighs in only 60 kg heavier than the coupé. As with the Modena version, its 3.6 litre V8 with 400 bhp is on display under a glass cover. The engine — confined in space by the convertible’s top’s storage area — acquires additional air supply through especially large side grills. The intake manifolds were moved toward the center of the engine between the air supply conduits in the Spider engine compartment, as opposed to lying apart as with the Modena. In terms of performance, the 0-60 mph time was slightly slower at 4.4 seconds due to the slight weight increase, and the top speed was reduced from 189 to 180 mph. Despite the car’s mid-mounted V8 engine, the electrically operated top is able to stow into the compartment when not in use. The convertible top was available in black, blue, grey and beige. The transformation from a closed top to an open-air convertible is a two-stage folding-action that has been dubbed “a stunning 20 second mechanical symphony”. The interior of the Spider is identical to that of the coupé.
Effectively a mid-life update to the 360 Modena, the F430 debuted at the 2004 Paris Motor Show. Designed by Pininfarina, under the guidance of Frank Stephenson, the body styling of the F430 was revised from the 360 Modena, to improve its aerodynamic efficiency. Although the drag coefficient remained the same, downforce was greatly enhanced. Despite sharing the same basic Alcoa Aluminium chassis, roof line, doors and glass, the car looked significantly different from the 360. A great deal of Ferrari heritage was included in the exterior design. At the rear, the Enzo’s tail lights and interior vents were added. The car’s name was etched into the Testarossa-styled driver’s side mirror. The large oval openings in the front bumper are reminiscent of Ferrari racing models from the 60s, specifically the 156 “sharknose” Formula One car and 250 TR61 Le Mans cars of Phil Hill. Designed with soft-top-convertible. The F430 featured a 4.3 litre V8 petrol engine of the “Ferrari-Maserati” F136 family. This new power plant was a significant departure for Ferrari, as all previous Ferrari V8’s were descendants of the Dino racing program of the 1950s. This fifty-year development cycle came to an end with the entirely new unit. The engine’s output was 490 hp at 8500 rpm and 343 lb/ft of torque at 5250 rpm, 80% of which was available below 3500rpm. Despite a 20% increase in displacement, engine weight grew by only 4 kg and engine dimensions were decreased, for easier packaging. The connecting rods, pistons and crankshaft were all entirely new, while the four-valve cylinder head, valves and intake trumpets were copied directly from Formula 1 engines, for ideal volumetric efficiency. The F430 has a top speed in excess of 196 mph and could accelerate from 0 to 100 km/h in 3.9 seconds, 0.6 seconds quicker than the old model. The brakes on the F430 were designed in close cooperation with Brembo (who did the calipers and discs) and Bosch (who did the electronics package),resulting in a new cast-iron alloy for the discs. The new alloy includes molybdenum which has better heat dissipation performance. The F430 was also available with the optional Carbon fibre-reinforced Silicon Carbide (C/SiC) ceramic composite brake package. Ferrari claims the carbon ceramic brakes will not fade even after 300-360 laps at their test track. The F430 featured the E-Diff, a computer-controlled limited slip active differential which can vary the distribution of torque based on inputs such as steering angle and lateral acceleration. Other notable features include the first application of Ferrari’s manettino steering wheel-mounted control knob. Drivers can select from five different settings which modify the vehicle’s ESC system, “Skyhook” electronic suspension, transmission behaviour, throttle response, and E-Diff. The feature is similar to Land Rover’s “Terrain Response” system. The Ferrari F430 was also released with exclusive Goodyear Eagle F1 GSD3 EMT tyres, which have a V-shaped tread design, run-flat capability, and OneTRED technology. The F430 Spider, Ferrari’s 21st road going convertible, made its world premiere at the 2005 Geneva Motor Show. The car was designed by Pininfarina with aerodynamic simulation programs also used for Formula 1 cars. The roof panel automatically folds away inside a space above the engine bay. The conversion from a closed top to an open-air convertible is a two-stage folding-action. The interior of the Spider is identical to that of the coupé. Serving as the successor to the Challenge Stradale, the 430 Scuderia was unveiled by Michael Schumacher at the 2007 Frankfurt Auto Show. Aimed to compete with cars like the Porsche RS-models and the Lamborghini Gallardo Superleggera it was lighter by 100 kg/220 lb and more powerful (510 PS) than the standard F430. Increased power came from a revised intake, exhaust, and an ion-sensing knock-detection system that allows for a higher compression ratio. Thus the weight-to-power ratio was reduced from 2.96 kg/hp to 2.5 kg/hp. In addition to the weight saving measures, the Scuderia semi-automatic transmission gained improved “Superfast”, known as “Superfast2”, software for faster 60 millisecond shift-times. A new traction control system combined the F1-Trac traction and stability control with the E-Diff electronic differential. The Ferrari 430 Scuderia accelerates from 0-100 km/h in 3.6 seconds, with a top speed of 202 miles per hour. Ferrari claimed that around their test track, Fiorano Circuit, it matched the Ferrari Enzo, and the Ferrari F430’s successor, the Ferrari 458. To commemorate Ferrari’s 16th victory in the Formula 1 Constructor’s World Championship in 2008, Ferrari unveiled the Scuderia Spider 16M at World Finals in Mugello. It is effectively a convertible version of the 430 Scuderia. The engine produces 510 PS at 8500 rpm. The car has a dry weight of 1,340 kg, making it 80 kg lighter than the F430 Spider, at a curb weight of 1,440 kg (3,175 lb). The chassis was stiffened to cope with the extra performance available and the car featured many carbon fibre parts as standard. Specially lightened front and rear bumpers (compared to the 430 Scuderia) were a further sign of the efforts Ferrari was putting into this convertible track car for the road. Unique 5-spoke forged wheels were produced for the 16M’s launch and helped to considerably reduce unsprung weight with larger front brakes and callipers added for extra stopping power (also featured on 430 Scuderia). It accelerates from 0-100 km/h in 3.7 seconds, with a top speed of 315 km/h (196 mph). 499 vehicles were released beginning early 2009 and all were pre-sold to select clients.
An all new design, the 458 Italia was first officially unveiled at the 2009 Frankfurt Motor Show. Once more, Ferrari advised that the model incorporated technologies developed from the company’s experience in Formula 1. The body computer system was developed by Magneti Marelli Automotive Lighting. The 458 came with a 4,499 cc V8 engine of the “Ferrari/Maserati” F136 engine family, producing 570 PS ( 562 hp) at 9,000 rpm and 540 N·m (398 lb/ft) at 6,000 rpm with 80% torque available at 3,250 rpm. The engine featured direct fuel injection, a first for Ferrari mid-engine setups in its road cars. The only transmission available was a dual-clutch 7-speed Getrag gearbox, in a different state of tune shared with the Mercedes-Benz SLS AMG. There was no traditional manual option, making this the fourth road-car after the Enzo, Challenge Stradale and 430 Scuderia not to be offered with Ferrari’s classic gated manual. The car’s suspension featured double wishbones at the front and a multi-link setup at the rear, coupled with E-Diff and F1-Trac traction control systems, designed to improve the car’s cornering and longitudinal acceleration by 32% when compared with its predecessors.The brakes included a prefill function whereby the pistons in the calipers move the pads into contact with the discs on lift off to minimise delay in the brakes being applied. This combined with the ABS and standard Carbon Ceramic brakes caused a reduction in stopping distance from 100–0 km/h (62-0 mph) to 32.5 metres. Ferrari’s official 0–100 km/h (62 mph) acceleration time was quoted as 2.9–3.0 seconds with a top speed of 340 km/h (210 mph). In keeping with Ferrari tradition the body was designed by Pininfarina under the leadership of Donato Coco, the Ferrari design director. The interior design of Ferrari 458 Italia was designed by Bertrand Rapatel, a French automobile designer. The car’s exterior styling and features were designed for aerodynamic efficiency, producing a downforce of 140 kg (309 lb) at 200 km/h. In particular, the front grille features deformable winglets that lower at high speeds, in order to offer reduced drag. The car’s interior was designed using input from former Ferrari Formula 1 driver Michael Schumacher; in a layout common to racing cars, the new steering wheel incorporates many controls normally located on the dashboard or on stalks, such as turning signals or high beams. At launch the car was widely praised as being pretty much near perfect in every regard. It did lack a fresh air version, though, but that was addressed with the launch of the 458 Spider at the 2011 Frankfurt Motor Show. This convertible variant of the 458 Italia featured an aluminium retractable hardtop which, according to Ferrari, weighs 25 kilograms (55 lb) less than a soft roof such as the one found on the Ferrari F430 Spider, and can be opened in 14 seconds The engine cover was redesigned to accommodate the retractable roof system. It had the same 0–100 km/h time as the hard-top but a lower top speed of 199 mph. It quickly became the better seller of the two versions.
Launched at the 2015 Geneva Show, the 488GTB followed the lead set by the California T in bringing turbocharging into a modern-day, mid-engined V8 Ferrari supercar for the first time. The engine is completely new when compared with its V8 stablemate, not only in components but also in feel and character. It is a twin-turbocharged 3902cc unit whilst that in the California T is 3855cc. In the 488 GTB, it produces 660bhp at 8000rpm and 560lb ft at 3000rpm. Both outputs are significant increases over the normally aspirated 4.5-litre V8 used in the 562 bhp 458 Italia and 597 bhp 458 Speciale, and also greater than the car’s biggest rival, the McLaren 650S. The torque figure of the 488 GTB is such that it also exceeds the 509lb ft at 6000rpm of the normally aspirated V12 used in the range-topping Ferrari F12 Berlinetta. The mighty new engine in the 488 GTB drives the rear wheels through a revised seven-speed dual-clutch automatic gearbox derived from the 458. It features a new ‘Variable Torque Management’ system which, Ferrari says, “unleashes the engine’s massive torque smoothly and powerfully right across the rev range”. The gear ratios are also tuned to “deliver incredibly progressive acceleration when the driver floors the throttle”. The 488 GTB can crack 0-62mph in just 3.0sec, 0-124mph in 8.4sec and reach a top speed of 205mph. Its 0-62mph and 0-124mph times match the McLaren 650S’s, but the Woking car’s top speed is slightly higher at 207mph. The engine also accounts for the ‘488’ element of the car’s name, because each of the engine’s eight cylinders is 488cc in capacity when rounded up. The GTB suffix, standing for Gran Turismo Berlinetta, is a hallmark of previous mid-engined V8 Ferraris such as the 308 GTB. Not only is the new turbo engine more potent than the 4.5-litre V8 from the 458 Italia, but it is also more economical. Combined fuel economy is rated at 24.8mpg, compared with 21.2mpg in the 458 Italia, and CO2 emissions are 260g/km – a 47g/km improvement. Ferrari’s HELE engine stop-start system features on the 488 GTB. Developments on the dynamic side include a second generation of the Side Slip Angle Control system, called SSC2. This allows the driver to oversteer without intruding, unless it detects a loss of control. The SSC2 now controls the active dampers, in addition to the F1-Trac traction control system and E-Diff electronic differential. Ferrari says the result is “more precise and less invasive, providing greater longitudinal acceleration out of corners” and flatter, more stable behaviour during “complex manoeuvres”. Learnings from the Ferrari XX programme have also been incorporated into the 488 GTB, something that Ferrari says allows all drivers and not just professionals, to make the most of its electronic and vehicle control systems. It also claims the 488 GTB is “the most responsive production model there is”, with responses comparable to a track car. The 488 GTB has lapped Ferrari’s Fiorano test track in 1min 23sec – two seconds faster than the 458 Italia, and half a second quicker than the 458 Speciale. The dimensions of the 488 GTB – it is 4568mm in length, 1952mm in width and 1213mm in height – closely match the 458 Italia from which it has evolved. Its dry weight is 1370kg when equipped with lightweight options – 40kg more than the McLaren 650S. The new look, styled at the Ferrari Styling Centre, features several new aerodynamic features that improve downforce and reduce drag. Most notable is the addition of active aerodynamics at the rear through a ‘blown’ rear spoiler, where air is channelled from the base of the glass engine cover under the spoiler. This contributes to the 50% increase in downforce over the 458 Italia. Also new is a double front spoiler, an aerodynamic underbody, a large air intake at the front that references the 308 GTB, a diffuser with active flaps, new positioning for the exhaust flaps and new-look lights. The interior has been redesigned to be made more usable, including new switchgear, air vents and instrument panel. The multi-function steering wheel remains, while the infotainment system gets a new interface and graphics. The Spider followed the closed coupe model six months later, and supplies of that car are now reaching the UK. It is expected that this will be bigger seller of the car, as was the case with the 458 models.
The GTC4Lusso is a successor to the Ferrari FF. Like its predecessor, the GTC4Lusso is a 3-door shooting-brake with an all-wheel drive drivetrain, and is powered by a front-mid mounted V12 engine. The GTC4Lusso’s 6,262 cc Ferrari F140 65° V12 engine is rated at 690 PS at 8,000 rpm and 697 Nm (514 lb/ft) of torque at 5,750rpm. The increase in output of the engine is due to the compression ratio raised to 13.5:1. Ferrari claims a top speed of 335 km/h (208 mph), unchanged from the FF, and a 0–100 km/h (0–62 mph) acceleration time of 3.4 seconds. The car uses an improved version (called the 4RM Evo) of Ferrari’s patented four-wheel drive system introduced on the FF, integrated with four-wheel steering into the system. Collectively, the system is called 4RM-S. The GTC4Lusso was unveiled at the 2016 Geneva Motor Show. A second version joined the range, unveiled at the 2016 Paris Motor Show. This was the GTC4Lusso T, a rear wheel drive only version of the GTC4Lusso powered by a V8 engine with lesser displacement, though the 4WS four-wheel steering system from its V12 variant is retained. The GTC4Lusso T comes with a 3,855 cc Ferrari F154 twin turbocharged V8 engine rated at 610 PS at 7,500 rpm and 760 Nm (561lb/ft) of torque at 3,000–5,250 rpm. According to the manufacturer the car can attain a top speed of over 320 km/h (199 mph) and accelerate from 0 to 100 km/h (0 to 62 mph) in 3.5 seconds. The rear features Ferrari’s signature Quad Circular Rear Lights (last seen on the F430) and the interior contains a Dual Cockpit Concept Design, separating the Driver Cockpit and the Passenger Cockpit by a central divider. The front of the car has a single grille that provides all the necessary cooling.
Final Ferrari here was the 812 Superfast, the latest version of the marque’s 2-seater V12-engined GT.
The successor to the 500 was the 126, which arrived in the autumn of 1972. Initially it was produced alongside the 500, which stayed in production until 1976. The 126 used much of the same mechanical underpinnings and layout as its Fiat 500 rear-engined predecessor with which it shared its wheelbase, but featured an all new bodyshell resembling a scaled-down Fiat 127, also enhancing safety. Engine capacity was increased from 594 cc to 652 cc at the end of 1977 when the cylinder bore was increased from 73.5 to 77 mm. Claimed power output was unchanged at 23 PS, but torque was increased from 39 N·m (29 lb/ft) to 43 Nm (32 lb/ft). A slightly less basic DeVille version arrived at the same time, identified by its large black plastic bumpers and side rubbing strips. A subsequent increase in engine size to 704 cc occurred with the introduction of the 126 Bis in 1987. This had 26 PS, and a water cooled engine, as well as a rear hatchback. Initially the car was produced in Italy in the plants of Cassino and Termini Imerese, with 1,352,912 of the cars made in Italy, but from 1979, production was concentrated solely in Poland, where the car had been manufactured by FSM since 1973 as the Polski Fiat 126p. Even after the introduction of the 126 Bis the original model continued to be produced for the Polish market. The car was also produced under licence by Zastava in Yugoslavia. Western European sales ceased in 1991, ready for the launch of the Cinquecento, but the car continued to be made for the Polish market. In 1994, the 126p received another facelift, and some parts from the Fiat Cinquecento, this version was named 126 EL. The 126 ELX introduced a catalytic converter. Despite clever marketing, the 126 never achieved the popularity of the 500, with the total number produced being: 1,352,912 in Italy, 3,318,674 in Poland, 2,069 in Austria, and an unknown number in Yugoslavia.
The Mark I Ford Escort was introduced in the UK at the end of 1967, making its show debut at Brussels Motor Show in January 1968, replacing the successful, long-running Anglia. The car was presented in continental Europe as a product of Ford’s European operation. Escort production commenced at the Halewood plant in England during the closing months of 1967, and for left hand drive markets during September 1968 at the Ford plant in Genk. Initially the continental Escorts differed slightly from the UK built ones under the skin. The front suspension and steering gear were differently configured and the brakes were fitted with dual hydraulic circuits; also the wheels fitted on the Genk-built Escorts had wider rims. At the beginning of 1970, continental European production transferred to a new plant on the edge of Saarlouis, West Germany. The Escort was a commercial success in several parts of western Europe, but nowhere more than in the UK, where the national best seller of the 1960s, BMC’s Austin/Morris 1100 was beginning to show its age while Ford’s own Cortina had grown, both in dimensions and in price, beyond the market niche at which it had originally been pitched. In June 1974, six years into the car’s UK introduction, Ford announced the completion of the two millionth Ford Escort, a milestone hitherto unmatched by any Ford model outside the US. It was also stated that 60% of the two million Escorts had been built in Britain. In West Germany cars were built at a slower rate of around 150,000 cars per year, slumping to 78,604 in 1974 which was the last year for the Escort Mark I. Many of the German built Escorts were exported, notably to Benelux and Italy; from the West German domestic market perspective the car was cramped and uncomfortable when compared with the well-established and comparably priced Opel Kadett, and it was technically primitive when set against the successful imported Fiat 128 and Renault 12. Subsequent generations of the Escort made up some of the ground foregone by the original model, but in Europe’s largest auto-market the Escort sales volumes always came in well behind those of the General Motors Kadett and its Astra successor. The Escort had conventional rear-wheel drive and a four-speed manual gearbox, or three-speed automatic transmission. The suspension consisted of MacPherson strut front suspension and a simple live axle mounted on leaf springs. The Escort was the first small Ford to use rack-and-pinion steering. The Mark I featured contemporary styling cues in tune with its time: a subtle Detroit-inspired “Coke bottle” waistline and the “dogbone” shaped front grille – arguably the car’s main stylistic feature. Similar Coke bottle styling featured in the larger Cortina Mark III (also built in West Germany as the Taunus) launched in 1970. Initially, the Escort was sold as a two-door saloon (with circular front headlights and rubber flooring on the “De Luxe” model). The “Super” model featured rectangular headlights, carpets, a cigar lighter and a water temperature gauge. A two-door estate was introduced at the end of March 1968 which, with the back seat folded down, provided a 40% increase in maximum load space over the old Anglia 105E estate, according to the manufacturer. The estate featured the same engine options as the saloon, but it also included a larger, 7 1⁄2-inch-diameter clutch, stiffer rear springs and in most configurations slightly larger brake drums or discs than the saloon. A panel van appeared in April 1968 and the 4-door saloon (a bodystyle the Anglia was never available in for UK market) in 1969. Underneath the bonnet was the Kent Crossflow engine in 1.1 and 1.3 litre versions. A 940 cc engine was also available in some export markets such as Italy and France. This tiny engine remained popular in Italy, where it was carried over for the Escort Mark II, but in France it was discontinued during 1972. There was a 1300GT performance version, with a tuned 1.3 L Crossflow (OHV) engine with a Weber carburettor and uprated suspension. This version featured additional instrumentation with a tachometer, battery charge indicator, and oil pressure gauge. The same tuned 1.3 L engine was also used in a variation sold as the Escort Sport, that used the flared front wings from the AVO range of cars, but featured trim from the more basic models. Later, an “executive” version of the Escort was produced known as the “1300E”. This featured the same 13″ road wheels and flared wings of the Sport, but was trimmed in an upmarket, for that time, fashion with wood trim on the dashboard and door cappings. A higher performance version for rallies and racing was available, the Escort Twin Cam, built for Group 2 international rallying. It had an engine with a Lotus-made eight-valve twin camshaft head fitted to the 1.5 L non-crossflow block, which had a bigger bore than usual to give a capacity of 1,557 cc. This engine had originally been developed for the Lotus Elan. Production of the Twin Cam, which was originally produced at Halewood, was phased out as the Cosworth-engined RS1600 (RS denoting Rallye Sport) production began. The most famous edition of the Twin Cam was raced on behalf of Ford by Alan Mann Racing in the British Saloon Car Championship in 1968 and 1969, sporting a full Formula 2 Ford FVC 16-valve engine producing over 200 hp. The Escort, driven by Australian driver Frank Gardner went on to comfortably win the 1968 championship. The Mark I Escorts became successful as a rally car, and they eventually went on to become one of the most successful rally cars of all time. The Ford works team was practically unbeatable in the late 1960s / early 1970s, and arguably the Escort’s greatest victory was in the 1970 London to Mexico World Cup Rally, co-driven by Finnish legend Hannu Mikkola and Swedish co-driver Gunnar Palm. This gave rise to the Escort Mexico (1598cc “crossflow”-engined) special edition road versions in honour of the rally car. Introduced in November 1970, 10,352 Mexico Mark I’s were built. In addition to the Mexico, the RS1600 was developed with 1,601 cc Cosworth BDA which used a Crossflow block with a 16-valve Cosworth cylinder head, named for “Belt Drive A Series”. Both the Mexico and RS1600 were built at Ford’s Advanced Vehicle Operations (AVO) facility located at the Aveley Plant in South Essex. As well as higher performance engines and sports suspension, these models featured strengthened bodyshells utilising seam welding in places of spot welding, making them more suitable for competition. After updating the factory team cars with a larger 1701 cc Cosworth BDB engine in 1972 and then with fuel injected BDC, Ford also produced an RS2000 model as an alternative to the somewhat temperamental RS1600, featuring a 2.0 litre Pinto (OHC) engine. This also clocked up some rally and racing victories; and pre-empted the hot hatch market as a desirable but affordable performance road car. Like the Mexico and RS1600, this car was produced at the Aveley plant.
The squarer-styled Mark II Escort appeared in January 1975. The first production models had rolled off the production lines on 2 December 1974. Unlike the first Escort (which was developed by Ford of Britain), the second generation was developed jointly between the UK and Ford of Germany. Codenamed “Brenda” during its development, it used the same mechanical components as the Mark I. The 940 cc engine was still offered in Italy where the smaller engine attracted tax advantages, but in the other larger European markets in Europe it was unavailable. The estate and van versions used the same panelwork as the Mark I, but with the Mark II front end and interior. The car used a revised underbody, which had been introduced as a running change during the last six months production of the Mark I. Rear suspension still sat on leaf springs though some contemporaries such as the Hillman Avenger had moved on to coil springs. The car came in for criticism for its lack of oddments space, with a glove compartment only available on higher end models, and its stalk-mounted horn. The “L” and “GL” models (2-door, 4-door, estate) were in the mainstream private sector, the “Sport”, “RS Mexico”, and “RS2000” in the performance market, the “Ghia” (2-door, 4-door) for a hitherto untapped small car luxury market, and “base / Popular” models for the bottom end. Panel-van versions catered to the commercial sector. The 1598 cc engine in the 1975 1.6 Ghia produced 84 hp with 92 ft·lbft torque and weighed 955 kg (2105 lb). A cosmetic update was given in 1978 with L models gaining the square headlights (previously exclusive to the GL and Ghia variants) and there was an upgrade in interior and exterior specification for some models. Underneath a wider front track was given. In 1979 and 1980 three special edition Escorts were launched: the Linnet, Harrier and Goldcrest. Production ended in Britain in August 1980, other countries following soon after. Spotted here was a 1600 Sport.
A sporting version of Ford’s front wheel drive Escort was announced at the same time as the “cooking” 1.1, 1.,3 and 1,6 litre cars in October 1980. This was the XR3, and it came initially with a carb fed 1.6 litre engine generating 105 bhp and had a four speed gearbox. Fuel injection finally arrived in October 1982 (creating the XR3i), eight months behind the limited edition (8,659 examples), racetrack-influenced RS 1600i. The Cologne-developed RS received a more powerful engine with 115 PS, thanks to computerised ignition and a modified head as well as the fuel injection. For 1983, the XR3i was upgraded to 115bhp thanks to the use of fuel injection and a five speed transmission had been standardised. Both variants proved very popular, getting a significant percentage of Escort sales and also as a slightly more affordable alternative to a Golf GTi. For those for whom the performance was not quite enough, Ford had an answer, withe the RS Turbo. This 132 PS car was shown in October 1984, as a top of the range car, offering more power than the big-selling XR3i and the limited production RS1600i. Going on sale in the spring of 1985, it proved to be somewhat of a disappointment, with the chassis coming in for severe criticism. The RS Turbo Series 1 was only marketed in a few European nations as production was limited to 5,000 examples, all in white. They were well equipped, with the alloy wheels from the limited production RS 1600i, Recaro seats, and a limited slip differential. One car only was finished in black; it was built especially for Lady Diana. Ford facelifted the entire Escort range in January 1986, and a few months later, a revised Series 2 RS Turbo emerged, which adopted the styling changes of the less potent models, and the new dashboard, as well as undergoing a mechanical revision and the addition of more equipment including anti-lock brakes. The Series 2 cars were available in a wider range of colours.
The Ford Sierra is a mid-size car or large family car that was built by Ford Europe from 1982 to 1993. It was designed by Uwe Bahnsen, Robert Lutz and Patrick le Quément. The code used during development was “Project Toni”. Its name came from the Spanish word for mountain range. The Ford Sierra was first unveiled on 22 September 1982 at the British International Motor Show hosted at the NEC in Birmingham, shortly followed by the Salon de l’Automobile in Paris on 30 September 1982. Sales started on 15 October 1982, replacing the Ford Taunus TC3 (UK: Ford Cortina Mark V). Its aerodynamic styling was ahead of its time and as such, many conservative buyers (including company car drivers) did not take fondly to the Taunus’s/Cortina’s replacement. This was also due to the fact that the Sierra was not available as a saloon, in contrast to the Taunus/Cortina. A saloon model debuted in 1987 with the introduction of the facelifted Sierra. It was mainly manufactured in Germany, Belgium, and the United Kingdom, although Sierras were also assembled in Ireland, Argentina, Venezuela, South Africa and New Zealand. By 1978, Ford Europe was working on a new mid-range model to replace the Cortina/Taunus during the early 1980s, working under the codename “Project Toni”.. Although still popular with buyers, the outgoing Cortina/Taunus was essentially a 12-year old design by the time of the Sierra’s launch; despite the TC2 shape launching in 1976, and the mildly reworked TC3/Mk5 three years later, both were merely a reskinned version of the 1970 TC/Mk3 with few major mechanical changes in that time. Ford’s future model policy and styling direction had already been shown with the Escort III two years earlier, in that its conventionally styled saloons of the 1970s would be replaced by hatchbacks with advanced aerodynamic styling. Ford had confirmed during 1981, a year before the Sierra’s official launch, that its new mid-range car would carry the Sierra name, signalling the end of the Taunus and Cortina nameplates after 43 years and nine generations respectively 20 years and five generations. In September that year, it had unveiled the Probe III concept car at the Frankfurt Motor Show, hinting at what the new car would look like when the final product was unveiled 12 months later. At first, many found the design blob-like and difficult to accept after being used to the sharp-edged, straight-line three-box styling of the Taunus/Cortina, and it was nicknamed “the jellymould”. The shape served a purpose though, producing a drag coefficient of 0.34, a significant improvement over the boxy outgoing Taunus’s/Cortina’s 0.45. This aerodynamic design was key for reducing fuel consumption according to Ford, and was even used as compensation for the V6-engines. The interior was more conventional, although Ford took a page from BMW by angling the center of the dashboard towards the driver. Sales were slow in the first months – the situation being exacerbated by heavy discounting by Ford dealers of surplus Cortina stock from the autumn of 1982 onwards, with more than 11,000 new Cortinas being registered in 1983. However in 1983, its first full year of sales, the Sierra managed nearly 160,000 sales in Britain, outsold only by the smaller Escort. Ford had also launched the more conservatively designed Escort-based Orion saloon that year, which found favour with buyers who would otherwise have been the Sierra’s target customers. In West Germany, it was proving very popular from an early stage; within months of its launch, it was reportedly achieving treble the number of sales that the Taunus had been attaining – though in West Germany, the Taunus had not been quite as popular or iconic as its Cortina equivalent had been in Britain. It was later in the Sierra’s life that the styling began to pay off; ten years after its introduction, the Sierra’s styling was not nearly as outdated as its contemporaries, even though all major competitors were newer designs, though the Sierra had been tweaked on several occasions and many new engines had been added. The most notable changes came at the autumn of 1987, with a major facelift and the addition of a 4-door saloon (UK: Sapphire). As other manufacturers adopted similar aerodynamic styling, the Sierra looked more normal. At its peak, it was Britain’s second best selling car in 1983, 1988 and 1989, and was still Britain’s fifth best selling car in 1992. Its best year was 1989, when more than 175,000 were sold. However, it was outsold by the Vauxhall Cavalier in MK2 form during 1984 and 1985, and then from 1990 until its demise by the MK3 Cavalier. Nevertheless, it comfortably outsold its second key rival, the Austin Montego, which was launched in April 1984. Between 1985 and 1988, the Sierra faced fresh competition in Europe from the likes of the Renault 21 and Peugeot 405, while Japanese carmaker Nissan was producing its Bluebird model in Britain from 1986. Early versions suffered from crosswind stability problems, which were addressed in 1985 with the addition of “strakes” (small spoilers) on the rear edge of the rubber seals of the rear-most side windows. These shortcomings saw a lot of press attention, and contributed to early slow sales, when it was outsold by its key rival the Vauxhall Cavalier in 1984 and 1985. Other rumours that the car hid major crash damage (in part true, as the new bumper design sprung back after minor impact and couldn’t be “read” to interpret major damage) also harmed the car’s reputation. This reached near-hysterical heights in its early months on sale, with UK press making a report that Ford would reintroduce the previous Cortina model out of desperation. These reports were swiftly denied by Ford. However, sales began to rise during 1983, and it finished as Britain’s second best selling car behind the Escort. After being outsold by the Cavalier for the next two years, it regained its lead of the market sector in Britain during 1986, and a refreshed range (with more engine options as well as the introduction of a saloon) enjoyed a surge in sales from 1987, though the MK3 Cavalier finally outsold it in 1990. Even in 1992, the Sierra was still Britain’s fifth best selling car. It was nicknamed “the salesman’s spaceship” on account of its status as a popular fleet car in Britain. In contrast to the Sierra’s groundbreaking exterior design, its drivetrain was conservatively engineered, retaining rear-wheel drive and the same engines and transmissions as the Cortina/Taunus which were effectively 12 years old as they were first used on the TC1/MkIII generation in 1970. Much of this was done to appease the important fleet market which was wary of complexity. However, there was much modification; for example the engines were fitted with breakerless ignition, improved carburettors and the option of fuel injection, whilst 5-speed transmissions were now available. Most competitors were already switched to front-wheel drive around that time. Ford claimed however this set-up was required to offer V6-engines, which had to contribute to the Sierra’s driving comfort. New for the Sierra was a diesel engine, although the engine itself wasn’t new at all. Similar to the Ford Granada, Ford used an “Indenor”-engine which was designed by Peugeot in the 1950s. While the Granada was offered with 1.9, 2.1 and 2.5 diesels, the Sierra unit had a displacement of 2,3 liter. This engine was replaced only in 1989 by an all-new 1.8 liter turbodiesel, developed by Ford itself. The Sierra had a four-speed manual gearbox as standard, with a five-speed as option but standard on the 2.3D and 2.3 V6. At a time when the rival Vauxhall Cavalier was offered with a five-speed, this led to some critics commenting that the Sierra was somewhat underpowered. In the mid-1980s, many smaller cars (some even two segments smaller) featured five-speed gearboxes as standard. The chassis, however, was more sophisticated than the Cortina/Taunus, with fully independent suspension on both axles. The rear suspension was essentially carried over from the Granada, with trailing arms and coil springs mounted on a tubular sub-frame which also provided location for the final drive/differential housing driving the axle shafts. The front suspension dispensed with the Cortina/Taunus’ double wishbones in favour of a scaled-up version of the Fiesta and Escort/Orion’s layout with MacPherson struts, lower locating arms and anti-roll bars. One of the most striking design features of the Sierra was its closed front panel instead of a grille, which was later also to be found on the 1985 Ford Taurus. The air intake was situated below the front bumper, making the Sierra a so-called ‘bottom breather’. The headlights were integrated in this front panel while the indicators were mounted in the bumper within a combined unit with the foglights. However, this set-up was only present on the top-of-the-line “Ghia”-trim as well on the later introduced XR4i sportmodel. The other Sierra models had a more traditional front end with a two-bar grille between the headlights, being unpainted on the base model. These models had the indicators in the bumper as well, although being slimmer but wider and without the foglights. Both the Ghia and XR4i had wide headlights with two lenses while the other models had smaller lights with a single lens. For the 1985 model year, all the lower-spec models, except the base model, adopted the Ghia and XR4i’s front grille and headlight treatment. However, the second lens of the lower-spec models had no actual light within it. On the Ghia and XR4i this lens contained additional high beam lamps. The South-African XR8 model’s front end was similar to the XR4i’s but featured a small grille between the headlights. The rear lights of the Ghia, as well as the very early XR4i’s, were the same shape and layout as other models, but featured tiny horizontal black strakes on the lenses to give the impression that they were smoked. The car was replaced by the Mondeo in Europe in April 1993, though stocks lasted for about two years afterwards. The Sierra remained a popular second-hand buy and common sight on British roads until well beyond the year 2000.
The Sierra RS Cosworth model. a very sporting version of Ford’s upper-medium sized family car, was built by Ford Europe from 1986 to 1992, the result of a Ford Motorsport project with the purpose of producing an outright winner for Group A racing in Europe. The project was defined in the spring of 1983 by Stuart Turner, then recently appointed head of Ford Motorsport in Europe, who had realised right away that Ford was no longer competitive in this area. Turner got in touch with Walter Hayes, at the time the vice-president of public relations at Ford, to get support for the project. Hayes had earlier been the driving force behind the development of the Ford GT40 that won Le Mans in 1966, and the Cosworth DFV engine that brought Ford 154 victories and 12 world championships in Formula One during the 1960s and 1970s. Hayes found the project very appealing and promised his full support. Turner then invited Ken Kohrs, vice-president of development, to visit Ford’s longtime partner, the automotive company Cosworth, where they were presented a project developed on Cosworth’s own initiative, the YAA engine. This was a twin cam, 16-valve engine based on Ford’s own T88 engine block, better known as the Pinto. This prototype proved an almost ideal basis for the engine Turner needed to power his Group A winner. Therefore, an official request for a turbocharged version (designated Cosworth YBB) capable of 180 HP on the street and 300 HP in race trim, was placed. Cosworth answered positively, but they put up two conditions: the engine would produce not less than 204 HP in the street version, and Ford had to accept no fewer than 15,000 engines. Turner’s project would only need about 5,000 engines, but Ford nevertheless accepted the conditions. The extra 10,000 engines would later become one of the reasons Ford also chose to develop a four door, second generation Sierra RS Cosworth. To find a suitable gearbox proved more challenging. The Borg-Warner T5, also used in the Ford Mustang, was chosen, but the higher revving nature of the Sierra caused some problems. Eventually Borg-Warner had to set up a dedicated production line for the gearboxes to be used in the Sierra RS Cosworth. Many of the suspension differences between the standard Sierra and the Cosworth attributed their development to what was learned from racing the turbocharged Jack Roush IMSA Merkur XR4Ti in America and Andy Rouse’s successful campaign of the 1985 British Saloon Car Championship. Much of Ford’s external documentation for customer race preparation indicated “developed for the XR4Ti” when describing parts that were Sierra Cosworth specific. Roush’s suspension and aerodynamics engineering for the IMSA cars was excellent feedback for Ford. Some production parts from the XR4Ti made their way into the Cosworth such as the speedometer with integral boost gauge and the motorsport 909 chassis stiffening plates. In April 1983, Turner’s team decided on the recently launched Sierra as a basis for their project. The Sierra filled the requirements for rear wheel drive and decent aerodynamic drag. A racing version could also help to improve the unfortunate, and somewhat undeserved, reputation that Sierra had earned since the introduction in 1982. Lothar Pinske, responsible for the car’s bodywork, demanded carte blanche when it came to appearance in order to make the car stable at high speed. Experience had shown that the Sierra hatchback body generated significant aerodynamic lift even at relatively moderate speed. After extensive wind tunnel testing and test runs at the Nardò circuit in Italy, a prototype was presented to the project management. This was based on an XR4i body with provisional body modifications in fibreglass and aluminium. The car’s appearance raised little enthusiasm. The large rear wing caused particular reluctance. Pinske insisted however that the modifications were necessary to make the project successful. The rear wing was essential to retain ground contact at 300 km/h, the opening between the headlights was needed to feed air to the intercooler and the wheel arch extensions had to be there to house wheels 10” wide on the racing version. Eventually, the Ford designers agreed to try to make a production version based on the prototype. In 1984, Walter Hayes paid visits to many European Ford dealers in order to survey the sales potential for the Sierra RS Cosworth. A requirement for participation in Group A was that 5,000 cars were built and sold. The feedback was not encouraging. The dealers estimated they could sell approximately 1,500 cars. Hayes did not give up, however, and continued his passionate internal marketing of the project. As prototypes started to emerge, dealers were invited to test drive sessions, and this increased the enthusiasm for the new car. In addition, Ford took some radical measures to reduce the price on the car. As an example, the car was only offered in three exterior colours (black, white and moonstone blue) and one interior colour (grey). There were also just two equipment options: with or without central locking and electric window lifts. The Sierra RS Cosworth was first presented to the public at the Geneva Motor Show in March 1985, with plans to release it for sale in September and closing production of the 5,000 cars in the summer of 1986. In practice, it was launched in July 1986. 5545 were manufactured in total of which 500 were sent to Tickford for conversion to the Sierra three-door RS500 Cosworth. The vehicles were manufactured in right hand drive only, and were made in Ford’s Genk factory in Belgium. Exactly 500 RS500s were produced, all of them RHD for sale in the UK only – the biggest market for this kind of Ford car. It was originally intended that all 500 would be black, but in practice 56 white and 52 moonstone blue cars were produced.To broaden the sales appeal, the second generation model was based on the 4 door Sierra Sapphire body. It was launched in 1988, and was assembled in Genk, Belgium, with the UK-built Ford-Cosworth YBB engine. Cylinder heads on this car were early spec 2wd heads and also the “later” 2wd head which had some improvements which made their way to the 4X4 head. Suspension was essentially the same with some minor changes in geometry to suit a less aggressive driving style and favour ride over handling. Spindles, wheel offset and other changes were responsible for this effect. Approximately 13,140 examples were produced during 1988-1989 and were the most numerous and lightest of all Sierra Cosworth models. Specifically the LHD models which saved weight with a lesser trim level such as manual rear windows and no air conditioning. In the UK, the RHD 1988-1989 Sierra Sapphire RS Cosworth is badged as such with a small “Sapphire” badge on the rear door window trims. All 1988-1989 LHD models are badged and registered as a Sierra RS Cosworth with no Sapphire nomenclature at all. “Sapphire” being viewed as a Ghia trim level that saw power rear windows, air conditioning and other minor options. Enthusiasts of the marque are mindful of this and will describe the LHD cars by their body shell configuration, 3 door or 4 door. As the Sapphire Cosworth was based on a different shell to the original three-door Cosworth, along with its more discreet rear wing, recorded a drag co-efficient of 0.33, it registered slightly better performance figures, with a top speed of 150 mph and 0-60 of 6.1 seconds, compared to the original Cosworth. In January 1990, the third generation Sierra RS Cosworth was launched, this time with four wheel drive. As early as 1987, Mike Moreton and Ford Motorsport had been talking about a four wheel drive Sierra RS Cosworth that could make Ford competitive in the World Rally Championship. The Ferguson MT75 gearbox that was considered an essential part of the project wasn’t available until late 1989 however. Ford Motorsport’s desire for a 3-door “Motorsport Special” equivalent to the original Sierra RS Cosworth was not embraced. The more discreet 4-door version was considered to have a better market potential. It was therefore decided that the new car should be a natural development of the second generation, to be launched in conjunction with the face lift scheduled for the entire Sierra line in 1990. The waiting time gave Ford Motorsport a good opportunity to conduct extensive testing and demand improvements. One example was the return of the bonnet louvres. According to Ford’s own publicity material, 80% of the engine parts were also modified. The improved engine was designated YBJ for cars without a catalyst and YBG for cars with a catalyst. The latter had the red valve cover replaced by a green one, to emphasise the environmental friendliness. Four wheel drive and an increasing amount of equipment had raised the weight by 100 kg, and the power was therefore increased to just about compensate for this. The Sierra RS Cosworth 4×4 received, if possible, an even more flattering response than its predecessors and production continued until the end of 1992, when the Sierra was replaced by the Mondeo. The replacement for the Sierra RS Cosworth was not a Mondeo however, but the Escort RS Cosworth. This was to some extent a Sierra RS Cosworth clad in an “Escort-like” body. The car went on sale in May 1992, more than a year after the first pre-production examples were shown to the public, and was homologated for Group A rally in December, just as the Sierra RS Cosworth was retired. It continued in production until 1996. The Sierra and Sapphire Cosworths were undoubted performance bargains when new, but they also gained a reputation both for suffering a lot of accidents in the hands of the unskilled and also for being among the most frequently stole cars of their generation. These days, though, there are some lovely and treasured examples around and indeed you are far more likely to see a Cosworth version of the Sierra than one of the volume selling models.
The regular second generation Focus cars were released in late 2004. An ST version followed very quickly, and for a long time, Ford maintained that was the only sporty Focus there was going to be. Finally, on December 17, 2007 Ford of Europe confirmed that a Mk 2 Focus RS would be launched in 2009, with a concept version due in mid-2008. t with an upgraded Duratec ST engine with 305PS Duratec RS, gearbox, suspension, and LSD. In 2008, Ford revealed the new Focus RS in “concept” form at the British International Motor Show. Contrary to numerous rumours and speculation, the RS was announced by Ford to have a conventional FWD layout. The Duratec RS engine was upgraded to produce 301 bhp and 325 lb/ft of torque. 0 to 100 km/h (62 mph) acceleration was quoted to be under 6 seconds. The RS used a modified Volvo -engineered 2,522cc five-cylinder engine found in the Focus ST. A larger Borg Warner K16 turbo now delivers up to 20.3-psi of boost. A new air-to-air intercooler has been developed as a complement, while the forged crankshaft, silicon-aluminum pistons, graphite-coated cylinder bores, 8.5:1 compression ratio and variable valve timing also up the power output. The car remained front wheel drive, but to reduce torque steer used a Quaife Automatic Torque Biasing LSD, and a specially designed MacPherson strut suspension at the front called RevoKnuckle, which provided a lower scrub radius and kingpin offset than traditional designs while avoiding the increased weight and complexity of double wishbone and multi-link suspension setups. Ford UK claim: “It’s as close as you’ll come to driving a full-spec rally car (Ford Focus RS WRC). The production car was finally unveiled on 5 January 2009. It looked very distinctive, as at the rear a large venturi tunnel and a dramatic rear spoiler created a purposeful look. It was available in three expressive exterior colours: Ultimate Green, Performance Blue and Frozen White. The ‘Ultimate’ Green was a modern reinterpretation of the classic 1970s Ford Le Mans Green of the Ford Escort RS1600 era.
Ford played much the same guessing game about whether there would be an RS version of the third generation Focus as they had done with the earlier versions. Production of the regular cars started in late 2010, but it was not until the 2015 Geneva Motor Show before the production ready MKIII Ford Focus RS was unveiled. It came packing the turbocharged 2.3-litre inline-four engine found in the Mustang EcoBoost. In the Focus RS, the engine itself produces 350 hp. Power is sent to all four wheels via Ford’s all-new Torque-Vectoring All-Wheel-Drive system with a rear drive unit designed by GKN, as well as upgraded suspension and brakes. As well as that, the new Focus RS will be fitted with Drive Modes – including an industry-first Drift Mode that allows controlled oversteer drifts – and Launch Control. The RS will boast a model specific aerodynamic package that helps to differentiate it from other Focus models. The RS is capable of accelerating to 100 km/h (62 mph) in 4.7 seconds. Sales finally started in mid 2016, with long waiting lists having been created, though Ford did eventually catch up with expanded production levels allowing them to meet the demand
In November 1993, the Mustang debuted its first major redesign in fifteen years. Code-named “SN-95” by the automaker, it was based on an updated version of the rear-wheel drive Fox platform called “Fox-4.” The new styling by Patrick Schiavone incorporated several styling cues from earlier Mustangs. For the first time since its introduction 1964, a notchback coupe model was unavailable. Door windows on the coupe were once again frameless; however, the car had a fixed “B” pillar and rear windows. The base model came with a 3.8 OHV V6 engine rated at 145 bhp in 1994 and 1995, or 150 bhp (1996–1998), and was mated to a standard 5-speed manual transmission or optional 4-speed automatic. Though initially used in the 1994 and 1995 Mustang GTS, GT and Cobra, Ford retired the 302 cid pushrod small-block V8 after nearly 30 years of use, replacing it with the newer Modular 4.6 L SOHC V8 in the 1996 Mustang GT. The 4.6 L V8 was initially rated at 215 bhp, 1996–1997, but was later increased to 225 bhp in 1998. For 1999, the Mustang was reskinned with Ford’s New Edge styling theme with sharper contours, larger wheel arches, and creases in its bodywork, but its basic proportions, interior design, and chassis remained the same as the previous model. The Mustang’s powertrains were carried over for 1999, but benefited from new improvements. The standard 3.8 L V6 had a new split-port induction system, and was rated at 190 bhp 1999–2000, while the Mustang GT’s 4.6 L V8 saw an increase in output to 260 bhp (1999–2004), due to a new head design and other enhancements. In 2001, the 3.8 L was increased to 193 bhp. In 2004, a 3.9 L variant of the Essex engine replaced the standard 3.8 L mid year with an increase of 3 ft/lb (4 Nm) of torque as well as NVH improvements. There were also three alternate models offered in this generation: the 2001 Bullitt, the 2003 and 2004 Mach 1, as well as the 320 bhp 1999 and 2001, and 390 bhp 2003 and 2004 Cobra.
There were a number of more recent Mustangs here, with a Roush-modified version of the previous generation car joined by the current GT and the more potent Mustang GT350.
This is a Civic Shuttle. The fourth generation Honda Civic was produced by Honda from 1987 until 1991 with the wagon (Shuttle) continuing in production in some markets until 1996. The suspension had a new double wishbone suspension in the front and an independent suspension in the rear, the wheelbase was increased to 98.4 inches (250 cm), and the body was redesigned with a lower hood line and more glass, giving less drag. The redesigned Civic was introduced in 1987 for the 1988 model year. The fourth generation Civic would be available in three variants; 3-door hatchback, 4-door sedan and 5-door wagon, known as the Shuttle in Europe, with various trim levels offered in each variant.
The i20N arrived during 2021, to a very positive reception and I am starting to see examples out and about on the road.
The Series 2 E Type introduced a number of design changes, largely due to U.S. National Highway Traffic and Safety Administration mandates. The most distinctive exterior feature is the absence of the glass headlight covers, which affected several other imported cars, such as the Citroën DS, as well. Unlike other cars, this step was applied worldwide for the E-Type. Other hallmarks of Series 2 cars are a wrap-around rear bumper, larger front indicators and tail lights re-positioned below the bumpers, and an enlarged grille and twin electric fans to aid cooling. Additional U.S.-inspired changes included a steering lock which moved the ignition switch to the steering column, replacing the dashboard mounted ignition and push button starter, the symmetrical array of metal toggle switches replaced with plastic rockers, and a collapsible steering column to absorb impact in the event of an accident. New seats allowed the fitment of head restraints, as required by U.S. law beginning in 1969. The engine is easily identified visually by the change from smooth polished cam covers to a more industrial “ribbed” appearance. It was de-tuned in the US with twin two-barrel Strombergs replacing three SUs. Combined with larger valve clearances horsepower was reduced from 265 to 246 and torque from 283 to 263. Air conditioning and power steering were available as factory options. Production totalled 13,490 of all types, with 4885 of the FHC, 5,326 of the 2+2 and 8,628 of the OTS model.
The E-Type Series 3 was introduced in 1971, with a new 5.3 L Jaguar V12 engine, uprated brakes and standard power steering. Optionally an automatic transmission, wire wheels and air conditioning were available. The V12 was equipped with four Zenith carburettors, and as introduced produced a claimed 272 bhp, more torque, and a 0–60 mph acceleration of less than seven seconds. The short wheelbase FHC body style was discontinued, with the Series 3 available only as a convertible and 2+2 coupé. The newly used longer wheelbase now offered significantly more room in all directions. The Series 3 is easily identifiable by the large cross-slatted front grille, flared wheel arches, wider tyres, four exhaust tips and a badge on the rear that proclaims it to be a V12. The first published road test of the series 3 was in Jaguar Driver, the club magazine of the Jaguar Drivers’ Club, the only owners club to be officially sanctioned by Sir William Lyons and Jaguar themselves. The road test of a car provided by Jaguar was published ahead of all the national and international magazines. Cars for the US market were fitted with large projecting rubber bumper over-riders (in 1973 these were on front, in 1974 both front and rear) to meet local 5 mph impact regulations, but those on European models were considerably smaller. US models also have side indicator repeats on the front wings. There were also a very limited number of six-cylinder Series 3 E-Types built. These were featured in the initial sales procedure but the lack of demand stopped their production. The V12 Open Two Seater and V12 2+2 were factory fitted with Dunlop E70VR − 15-inch tyres on 15 × 6K wire or solid wheels. The final production E-Type OTS Roadster was built in June 1974. Total production was 15,290.
Successor to the E Type was the XJ-S, launched in September 1975, and to a not universally approving public. This was a very different sort of sporting Jaguar, more boulevard cruiser than sports car, even though the car had plenty of appeal with its smooth V12 engine which gave it genuine 150 mph performance. Press reports were favourable, but a thirsty V12 and a car with inconsistent build quality and styling that not everyone warmed to meant that sales were slow, and they got slower as the decade passed, leading questions to be asked as to whether the car should continue. As well as sorting the saloon models, Jaguar’s Chairman, John Egan, put in place a program to improve the XJ-S as well, which also benefitted from the HE engine in early 1981. A Cabrio model and the option of the new 3.6 litre 6 cylinder engine from 1984 widened the sales appeal, and the volumes of cars being bought started to go up. A fully open Convertible, launched in 1988 was the model many had been waiting for, and by this time, although the design was over 10 years old, it was now brimming with appeal to many. 1991 saw an extensive facelift which changed the styling details as well as incorporating the latest mechanical changes from the Jaguar parts bin, making the XJS (the hyphen had been dropped from the name in 1990) a truly desirable car. Seen here were both pre- and post-facelift models as well as one of the rare TWR-converted XJR-S cars. These were made between 1988 and 1993 by the newly formed JaguarSport, a separate company owned in a ratio of 50:50 by Jaguar and TWR Group Limited specialising in developing high performance Jaguar sports cars. The car had a distinctive body kit, special alloy wheels, a unique suspension system utilising modified coil springs and Bilstein shocks, a luxurious interior with Connolly Autolux leather along with walnut wood trim, and handling improvements. The first 100 of these cars were named “Celebration Le Mans” to commemorate Jaguar’s 1988 win at the 24 Hours of Le Mans and were only sold in the UK. Between 1988 and 1989, a total of 326 XJR-S cars were produced with the 5.3 litres engine with a power output of 318 bhp. After September 1989, the displacement of the engine was increased to 5,993 cc and it was now equipped with Zytek fuel injection and engine management system. This was different from the standard 6.0-litre engine used in the late XJS models and was unique to this model. The power output was raised to 334 bhp at 5,250 rpm and 495 Nm (365 lb/ft) of torque at 3,650 rpm due to a higher compression ratio of 11.0:1, a new forgedsteel crankshaft, increased bore and forged alloy pistons. A modified air intake system and a low loss dual exhaust system was also standard on the model. The engine was mated to the 3-speed GM400 automatic transmission utilising a recalibrated valve body and had faster shift times. The car was equipped with Dunlop D40 M2 tyres for better grip. These modifications resulted in a top speed of 260 km/h (160 mph). A total of 787 coupés and 50 convertible XJR-S were built for the world market.
The “X300” model was the first XJ produced entirely under Ford ownership, and can be considered an evolution of the outgoing XJ40 generation. Like all previous XJ generations, it featured the Jaguar independent rear suspension arrangement. The design of the X300 placed emphasis on improved build quality, improved reliability, and a return to traditional Jaguar styling elements. At the car’s launch in October 1994 at the Paris Motor Show, Jaguar marketing material made use of the phrase “New Series XJ” to describe the X300 models. The X300 series represented the result of a £200 million facilities renewal program by Ford. which included the introduction of state-of-the-art automated body welding robots manufactured by Nissan. Aesthetically, the X300 received several updates in the design refresh led by Geoff Lawson in 1991. The mostly flat bonnet of the XJ40 was replaced with a fluted, curvaceous design that accentuated the four separate round headlamps. Rear wings were reshaped to accommodate the new wrap-around rear light clusters. Also, the separate black-rubber bumper bar of the XJ40 were replaced with a fully integrated body-coloured bumper. The interior of the X300 was similar to that found in the XJ40, with some revisions. The seats were updated to have a more rounded profile, wood trim was updated with bevelled edges, and the steering wheel was redesigned. Jaguar’s V12 engine and AJ6 inline-six (AJ16) engine were both available in various X300 models, although they received significant updates. Both engines were fitted with distributorless electronic engine management systems. The Jaguar X308 first appeared in 1997 and was produced until 2003. It was an evolution of the outgoing X300 platform, and the exterior styling is nearly identical between the two generations, though there are quite a few detailed differences if you know what to look for. The major change was the under the bonnet. Having discontinued production of both the AJ16 inline-six and V12 engines, Jaguar offered only its newly designed V8 engine (named the AJ-V8.) It was available in either 3.2 or 4.0 litre forms, although certain markets, such as the United States, only received cars powered by the 4.0 litre version. The 4.0 litre version was also supercharged in certain models. Equipment levels were notably more generous than had previously been the case.
After being privatised in 1984, Jaguar had been developing a smaller saloon to complement the XJ6 by the early 1990s, but these plans were axed following its takeover by Ford in 1989, only to resurface within a few years. The S-Type was produced at Jaguar’s Castle Bromwich facility in Birmingham, England. The car was styled by Geoff Lawson in 1995 and is based on the Jaguar DEW platform/Ford DEW platform, shared with the Lincoln LS and Ford Thunderbird. It was unveiled at the Birmingham International Motor Show on 20 October 1998, and went on sale in January 1999. It was aimed at buyers of cars including the BMW 5 Series. The first S-Types (“X200” 1999–2002) are distinguished by a U-shaped centre console and optional touchscreen navigation system in the 2003 and later models. The traditional leaping jaguar bonnet ornament was optional even though it is approved by the US and EU standards and breaks away in the case of an accident. Subsequent models (“X202”, “X204”, “X206”; the last digit denoting the model year) have the Jaguar logo incorporated within the radiator grille and a more traditional ‘looped’ styling for the centre console. In Australia, the “jag” bonnet ornament did not become available until 2004. The supercharged S-Type R (Jaguar STR for short) joined the lineup in 2002, and the hope was that it would compete with BMW’s M5 and the Mercedes E55 AMG. The R was powered by the newly revised hand-built 4.2-Litre V8 with an Eaton M112 supercharger, producing 400 bhp and could accelerate from 0 to 60 mph in 5.3 seconds (0 to 100 km/h (62 mph) in 5.6 s). The top speed was limited to 155 mph. It included 18-inch alloy wheels, wire-mesh grille, and monochromatic paint. The R also has a rear apron, side-skirts, and front apron with built-in fog-lamps, a rear spoiler, a brace located near the rear subframe, and R badging on the boot lid and both front wings. The Jaguar S-Type R is able to produce an extra 20 bhp with a modified pulley. Also added on the 2003 model was an electronic parking-brake paddle-switch that replaced the conventional manually operated lever for the rear brakes. For the 2003 model year, the Jaguar S-type was given a six-speed, automatic ZF 6HP26 transmission as well as a revised 3.0-litre V6 engine with 235 hp (US spec) versus 238 hp for the 1999 to 2002 models. The 2003 model featured a revised dash, centre console, and a grille with the Jaguar badge to give the vehicle a more Jaguar-like appearance, and a flip-open key was devised for the ignition. A minor facelift on the 2004 model year featured redesigned front and rear aprons, a slightly modified grille, remodelled rear light clusters, an aluminium bonnet, and a new 2.7-litre V6 diesel engine with 207 hp. The windscreen washer jets were incorporated into the windscreen wiper arms. There were no changes made to the cabin interior. 2006 to 2007 models featured no fog lights. The car was replaced by the XF in 2007.
The XF was developed at Jaguar’s Whitley design and development HQ in Whitley, Coventry and was built at Castle Bromwich Assembly facility in Birmingham. Initially, the XF was planned to use an all aluminium platform but due to time constraints put by Jaguar’s board on the development team, the X250 makes use of a heavily modified Ford DEW98 platform. The XF was launched at the 2007 Frankfurt Motor Show, following the public showing of the C-XF concept in January 2007 at the North American International Auto Show. Customer deliveries commenced in March 2008, with a range of V6 and V8 engines. Designed by Jaguar’s design director Ian Callum, the styling incorporates an oval mesh grille recalling the original XJ of 1968. The boot lid retained the S-Type’s chromed blade to its edge and included a “leaper” hood ornament. The XF was launched with a variety of trims called, depending on country, ‘SE’, ‘Luxury’, ‘Premium Luxury’ (or ‘Premium’), ‘Portfolio’ (or ‘Premium Portfolio’), ‘SV8’ (or ‘Supercharged’) and ‘R’. For the UK market, company car-friendly ‘Executive Edition’ and ‘SE Business’ models with a lower tuned versions of the 3.0 L and 2.2 L diesel engines respectively were available. The interior included air conditioning vents which are flush-fitting in the dash, rotating open once the engine is started, and a rotating gearshift dial, marketed as JaguarDrive Selector, which automatically elevates from the centre console. Another departure from the traditional Jaguar cabin ambiance is the use of pale-blue backlighting to the instruments, switchgear, and around major control panels. Some minor systems, such as the interior lighting, are controlled by touching the light covers. The glove compartment also opens to the touch. The XF has no cloth interior option, with all trim levels featuring leathers. Wood veneers are available along with aluminium, carbon fibre and piano black lacquer trims. The XFR was announced at Detroit’s North American International Auto Show in January 2009 as a new performance derivative of the XF range, and featured the new 5.0-litre supercharged AJ-V8 Gen III engine rated at 503 bhp, a revised front bumper and spoiler and 20-inch (508 mm) alloy wheels.
The second generation of the XK debuted in 2005 at the Frankfurt Motor Show in Germany, styled by Jaguar’s chief designer Ian Callum. The X150’s grille was designed to recall the 1961 E-Type. The XK is an evolution of the Advanced Lightweight Coupé (ALC) introduced at the 2005 North American International Auto Show. The XK features a bonded and riveted aluminium chassis shared with the XJ and body panels, both a first for a Jaguar grand tourer. Compared to the XK (X100), the XK (X150) is 61.0 mm (2.4 in) wider and is 162.6 mm (6.4 in) longer. It is also 91 kg (200 lb) lighter resulting in performance and fuel consumption improvements. Unlike the X100, the X150 has no wood trim on the interior offered as standard equipment. The interior featured steering column mounted shift paddles. A more powerful XKR version having a supercharged variant of the engine was introduced in 2007. The XK received a facelift in 2009, with minor alterations to front and rear lights and bumper designs, together with the introduction of a new 5.0-litre V8 for both the naturally aspirated XK and the supercharged XKR. The interior also received some changes, in particular the introduction of the XF style rotary gear selector mated to the new ZF automatic transmission. The XK received a second and more minor facelift in 2011 with new front bumper and light design, which was presented at the New York Auto Show. A higher performance variant of the XKR, the XKR-S, was introduced at the Geneva Motor Show in 2012. The XKR-S gained an additional 40 bhp over the XKR bringing the 0-60 mph acceleration time down to 4.4 seconds and the top speed up to 300 km/h (186 mph). A convertible version of the XKR-S was introduced in 2012. Production of the XK ended in July 2014 without a replacement model.
Completing the array of Jaguars at the event were a couple of examples of the F Type, Jaguar’s latest an still current sports car.
Another very potent US-designed car, this Grand Cherokee is the top of the range SRT which sports a powerful 6.4 litre Hemi-engined V8. The noises it made when starting up and moving off were wonderful.
With the demise of the Austin-Healey 3000, Donald Healey opened discussions with Jensen Motors, who had built the bodies for Healey’s Austin-Healey cars. The largest Austin Healey Car Dealer in the US, Kjell Qvale was also keen to find a replacement to the Austin-Healey 3000 then became a major shareholder of Jensen, making Donald Healey the chairman. The Jensen-Healey was designed in a joint venture by Donald Healey, his son Geoffrey, and Jensen Motors. Hugo Poole did the styling of the body, the front and back of which were later modified by William Towns to take advantage of the low profile engine and to allow cars for the U.S. market to be fitted with bumpers to meet increasing US regulations. The unitary body understructure was designed by Barry Bilbie, who had been responsible for the Austin-Healey 100, 100-6 and 3000 as well as the Sprite. It was designed to be cheap to repair, with bolt-on panels, to reduce insurance premiums. Launched in 1972 as a fast luxurious and competent convertible sports car, it was positioned in the market between the Triumph TR6 and the Jaguar E-Type. The 50/50 weight balance due to the all alloy Lotus engine led to universal praise as having excellent handling. It all looked very promising, but it was the engine which was the car’s undoing. Various engines had been tried out in the prototype stage including Vauxhall, Ford and BMW units. The Vauxhall 2.3 litre engine met United States emission requirements but did not meet the power target of 130 hp. A German Ford V6 was considered but industrial action crippled supply. BMW could not supply an engine in the volumes needed. Colin Chapman of Lotus offered, and Jensen accepted his company’s new 1973 cc Lotus 907 engine, a two-litre, dual overhead cam, 16 valve all-alloy powerplant. This multi-valve engine is the first to be mass-produced on an assembly line. This setup put out approximately 144 bhp, topping out at 119 mph and accelerating from zero to 60 mph in 8.1 seconds. The problem was that it was a brand new engine, and Lotus were effectively using Jensen-Healey to complete the development. There were numerous issues early on, which meant that warranty claims rocketed and then sales stalled, so whilst this soon became the best selling Jensen of all time, it also helped seal the fate of the company. In total 10,503 (10 prototypes, 3,347 Mk.1 and 7,146 Mk.2) were produced by Jensen Motors Ltd. A related fastback, the Jensen GT, was introduced in 1975. Values are surprisingly low these days, which is a shame, as the problems are long since ironed out, and the resulting car looks good and goes well.
The Aventador has been a huge success for Lamborghini. It was first seen at the 2011 Geneva Show, with the full name of Aventador LP700-4 Coupe, the numbers denoting the output of 700 bhp from the all-new V12 engine and the 4 meaning four wheel drive, something which has featured on every Aventador since. The launch price was £250,000 but even so within a month, Lamborghini had a year’s worth of orders, and within a year, 1000 had been built. In November 2012 a Roadster version arrived, which was very similar to the Coupe, but with a lift-out roof panel. A suite of mechanical changes came at this point, with a cylinder deactiviation technology helping to improve fuel consumption and cut emissions. To mark half a century of car production, in April 2013, the LP720-4 50th Anniversary was launched, with 100 units available. As well as the extra 20 bhp, these had a mildly redesigned nose and tail, special paintwork and unique interior trim. A Roadster version followed in December 2014, the LP 700-4 Pirelli Edition. This did not have the extra power, but did feature two tone paint, unique wheels and a transparent engine cover, with the engine bay finished in carbon fibre. Lamborghini turned up the wick in march 2015 with the LP750-4 SuperVeloce, or SV for short, which featured and extra 50 bhp and a 50 kg weight reduction largely thanks to the use of more carbon fibre. A Roadster version followed a few months later.
Entry level Lamborghini is the Huracan. Replacing Lamborghini’s sales leader and most produced car, the Gallardo, the Huracán made its auto show debut at the March 2014 Geneva Auto Show, and was released in the second quarter of 2014. The name of the Huracan LP 610-4 comes from the fact that this car has 610 metric horsepower and 4 wheel drive. Huracán (huracán being the Spanish word for hurricane) is inspired by a Spanish fighting bull. Continuing the tradition of using names from historical Spanish fighting bulls, Huracán was a bull known for its courage that fought in 1879. Also Huracan is the Mayan god of wind, storm and fire. Changes from the Gallardo included full LED illumination, a 12.3 inch full-colour TFT instrument panel, Fine Nappa leather and Alcantara interior upholstery, redesigned dashboard and central tunnel, Iniezione Diretta Stratificata (IDS, essentially an adapted version of parent Audi’s Fuel Stratified Injection) direct and indirect gasoline injections, engine Stop & Start technology, EU6 emissions regulation compliance, Lamborghini Doppia Frizione (LDF) 7-speed dual-clutch transmission with 3 modes (STRADA, SPORT and CORSA), 20 inch wheels, carbon-ceramic brake system, optional Lamborghini Dynamic Steering variable steering system and MagneRide electromagnetic damper control. In early 2015, the Huracán appeared on Top Gear. It got a neutral review from Richard Hammond who said that it was too tame to be a “proper Lamborghini.” However, it got around the Top Gear test track in 1:15.8 which is faster than any other Lamborghini to go around the track to date, including the Aventador. Now it has been available in the UK for some a couple of years, there are now quite a few on our roads, so it was no surprise to find the model here.
Brought along by the local dealer, who was an event sponsor was this LC500h, the elegant GT model that sits at the top of this Japanese brand’s range.
Produced as a direct competitor to the luxury sports sedans of the leading European luxury marques, the XE10 series Toyota Altezza and Lexus IS was designed with a greater performance emphasis than typically seen on prior Japanese luxury vehicles. The engineering work was led by Nobuaki Katayama from 1994 to 1998 under the 038T program code, who was responsible for the AE86 project. Design work by Tomoyasu Nishi was frozen in 1996 and filed under patent number 1030135 on 5 December 1996, at the Japan Patent Office. At its introduction to Japan, it was exclusive to Japanese dealerships called Toyota Netz Store, until Lexus was introduced to Japan in 2006. The Japan-sold AS200 Altezza sedan and AS300 Altezza Gita correspond to the Lexus IS 200 and IS 300 models respectively, as sold in markets outside of Japan. The Lexus IS’ primary markets were North America, Australia, and Europe. The Altezza Gita was a hatchback-station wagon version sold in Japan and was known in the US and Europe as the Lexus IS SportCross. The AS300 Altezza Gita was the only Altezza with the 2JZ-GE engine; in export markets this engine was available in the sedan models as well as the Lexus IS300 Sedan. Introduced in 1998 with the AS200 (Chassis code GXE10) and RS200 (chassis code SXE10) sedans, the compact vehicle was produced using a shortened, front-engine, rear-wheel-drive midsize platform, allowing Japanese buyers to take advantage of tax savings imposed by Japanese government regulations concerning vehicle engine displacement (but not exterior dimensions, as the car was 20 mm wider than the 1,700 mm standard), and adapted parts from the larger second-generation Aristo/GS. The 2.0-litre 1G-FE straight-six powered AS200 (GXE10, sedan) was equipped with a six-speed manual transmission as standard, while a four-speed automatic was optional. The 2.0-litre 3S-GE straight-four-powered RS200 (SXE10, sedan) was equipped a six-speed manual transmission, while a five-speed automatic was optional. The different size engine choices gave Japanese buyers a choice of which annual road tax obligation they wanted to pay, and the larger engine offered more standard equipment as compensation. The design received critical acclaim at its 1998 launch and was awarded Japan’s “Car of the Year” honor for 1998–1999. A few months later, Lexus began marketing the IS 200 equivalent models in Europe. The IS 200 in Europe was rated at 153 hp, with a top speed of 216 km/h (134 mph), and 0 to 100 km/h (0–62 mph) acceleration time of 9.3 seconds. The styling cues of the rear lamp clusters on the first-generation models were copied by a number of after-market accessory manufacturers for applications on other vehicles. This iconic style of one or more internal lamp units, covered with a clear (or tinted) perspex cover made popular by Lexus, became known in many circles as ‘Lexus-style’ or ‘Altezza lights’. The taillight style became so popular, that it influenced the development of clear-covered LED taillamps that only revealed their colour when illuminated. The XE10’s chief engineer was Nobuaki Katayama, while the chief test driver and test engineer was Hiromu Naruse. In July 2000, a hatchback/station wagon model, the AS300 (Chassis code JCE10), was introduced featuring a 3.0-litre 2JZ-GE straight-six engine. Equipped with rear- or all-wheel drive (JCE10, RWD Gita wagon; JCE15, 4WD Gita wagon), the AS300 was only available with an automatic gearbox; a five-speed automatic for the RWD Gita wagon and a four-speed automatic for the 4WD Gita wagon. The six-cylinder version (2JZ-GE) was only available in Japan on the Gita models. In the US, the IS 300 sedan debuted in July 2000 as 2001 model and the wagon debuted in 2001 as a 2002 model with the same 3.0-litre six-cylinder engine (the 2.0-litre six-cylinder was not available), while in Europe, the IS 300 joined the IS 200 in the model lineup. All IS 300 models in the US were initially only available with the five-speed automatic transmission; this was also the case in Europe. However, a five-speed manual was made available in the US in 2001 for the 2002 model year (not available on the SportCross wagon). Visually the exterior of the European IS 200 Sport and 300 were almost identical, the only differences being the boot insignia and the larger-engined model initially having clear front indicators (later generalized to IS 200 range). The first-generation IS’ interior featured unique elements not typically found in other Lexus models. These included a chrome metal ball shifter (USDM & European market, other markets received an optional leather-trimmed shifter), (optional) pop-up navigation screen, and chronograph-style instrument panel (with mini gauges for temperature, fuel economy, and volts). For the European and Australian markets, the IS 300 gained full leather seats rather than the leather/ecsaine of the 200, plus Auto-dimming rear view and side mirrors, and HID headlamps. In the US, the Environmental Protection Agency listed the IS 300 as a subcompact car; although it technically had enough overall volume to be called a compact, rear seat room exhibited subcompact dimensions. The US National Highway Traffic Safety Administration (NHTSA) crash test results in 2001 gave the IS 300 the maximum five stars in the Side Driver and Side Rear Passenger categories, and four stars in the Frontal Driver and Frontal Passenger categories. The Insurance Institute for Highway Safety (IIHS) rated the IS “Good” overall for frontal collisions and “Good” in all six measured front impact categories. For the first-generation IS in the North American market, sales hit a high of 22,486 units in 2001; subsequent sales years were less than forecast, and below the 10,000-unit mark in 2004. The IS 200 fared better relative to sales targets in Europe and Asia, while still well short of the sales volume achieved by the Mercedes-Benz C-Class and other, mostly German-made competitors. This trend was indicative of Lexus’ smaller global status; while Lexus’ range of cars was very successful in North America, the marque’s sales lagged behind its German rivals in Europe. In Europe, the lack of a manual gearbox option for the IS 300 may have limited sales in contrast to its rivals, the BMW 3 Series and the Mercedes C-Class. In 2000, TTE introduced a compressor kit for the IS 200 in the European market. An Eaton supercharger at 0.3-bar pressure increased the power output to 205 bhp without sacrificing fuel consumption (+3.3%). The kit was initially available as an aftermarket fitment, but could also be obtained as OEM Lexus accessory on newer cars through the official Lexus dealer network and was fully covered by the standard warranty. This variant was discontinued when the IS 300 was introduced in the European market. In 2003 for the 2004 model year, the IS line received a minor facelift (designed by Hiroyuki Tada). On the exterior, was a redesigned 11-spoke wheel design, redesigned fog lamps, and smoked surrounding trim for the headlamps and taillamps. On the interior, a 2-position memory function was added for the driver seat, a maintenance indicator lamp, automatic drive-away door locking system, a storage compartment on the dash (for models without the navigation system) and updated trim highlights. An official concept model, the MillenWorks-built Lexus IS 430 was unveiled at the SEMA Show in Las Vegas, Nevada, in 2003. The IS 430 prototype was an IS 300 fitted with a 4.3-litre V8 from the GS 430. Lexus dubbed the IS 430 a one-off with no plans for production. In Europe, Toyota Team Europe (TTE) installed a supercharged 4.3-litre V8 into an IS 300 bodyshell, the result was a 405 PS (399 bhp) ECE sedan.
Introduced in 1967, the Elan +2 had a longer wheelbase and two rear seats and so was intended for those Lotus customers who needed space to carry (small) people in the back, without sacrificing the same basic principles which made the Elan so appealing. A fast and agile sport coupe, a number of different engines were fitted over the years, with the later models having 130 bhp and a 5 speed gearbox at their disposal, which gave a top speed of 120 mph and 0–60 acceleration of 7.9 seconds and 0-100 mph 21.8 seconds. 5,200 Elans +2 were made, with production ceasing in 1975. Fewer than 1,200 of these cars remain on the roads today. Their relative rarity, beautiful lines, impressive performance and practicality are the main factors for the rising interest on these cars among collectors.
It is now over 20 years since Lotus launched the Elise, a model which showed a return to the core values of simplicity and light-weight which were cornerstones of Colin Chapman’s philosophy when he founded the marque in 1955. The first generation Elise was produced for just over 4 years, with a replacement model, the Series 2 arriving in October 2000. It came about as the Series 1 could not be produced beyond the 2000 model production year due to new European crash sustainability regulations. Lacking the funding to produce a replacement, Lotus needed a development partner to take a share of investment required for the new car. General Motors offered to fund the project, in return for a badged and GM-engined version of the car for their European brands, Opel and Vauxhall. The result was therefore two cars, which although looking quite different, shared much under the skin: a Series 2 Elise and the Vauxhall VX220 and Opel Speedster duo. The Series 2 Elise was a redesigned Series 1 using a slightly modified version of the Series 1 chassis to meet the new regulations, and the same K-series engine with a brand new Lotus-developed ECU. The design of the body paid homage to the earlier M250 concept, and was the first Lotus to be designed by computer. Both the Series 2 Elise and the Opel Speedster/Vauxhall VX220 were built on the same production line, in a new facility at Hethel. Both cars shared many parts, including the chassis, although they had different drive-trains and power-plants. The VX220 carried the Lotus internal model identification Lotus 116, with the code name Skipton for the launch 2.2 normally aspirated version and Tornado for the 2 litre Turbo which came out in 2004. Fitted with 17 inch over the Elise’s 16 inch front wheels, the Vauxhall/Opel version ceased production in late 2005 and was replaced by the Opel GT for February 2007, with no RHD version for the United Kingdom. The Elise lived on. and indeed is still in production now, some 15 years later, though there have been countless different versions produced in that time. Whilst the first of the Series 2 cars came with the Rover K-Series engine, and that included the 111S model which had the VVC engine technology producing 160 hp, a change came about in 2005 when Lotus started to use Toyota engines. This was initially due to Lotus’ plans to introduce the Elise to the US market, meaning that an engine was needed which would comply with US emissions regulations. The selected 1.8 litre (and later 1.6 litre) Toyota units did, and the K-series did not. that MG-Rover went out of business in 2005 and engine production ceased confirmed the need for the change. Since then, Lotus have offered us track focused Elise models like the 135R and Sport 190, with 135 bhp and 192 bhp respectively, as well as the 111R, the Sport Racer, the Elise S and Elise R. In 2008 an even more potent SC model, with 218 bhp thanks to a non-intercooled supercharger was added to the range. In February 2010, Lotus unveiled a facelifted version of the second generation Elise. The new headlights are now single units; triangular in shape they are somewhat larger than the earlier lights. The cheapest version in Europe now has a 1.6 litre engine to comply with Euro 5 emissions, with the same power output as the earlier 1.8 136bhp car. Lotus has been through some difficult times in recent years, but things are looking more optimistic again, with production numbers having risen significantly in the last couple of years, after a period when next to no cars were made. Seen here were both Series 1 and Series 2 models.
The first Exige was launched in 2000 and was effectively a closed coupe version of the Elise. It was fitted with a naturally aspirated 1.8 litre Rover K Series Inline-four engine in VHPD (Very High Performance Derivative) tune. It produces 177 bhp at 7,800 rpm in standard form. There was also a “track spec” version with 192 bhp available. The car has a five-speed manual gearbox, and a claimed top speed of 219 km/h (136 mph). 0–60 mph was achieved in 4.7 seconds and 0–100 km/h (62 mph) in 4.9 seconds. The first Exige used the round, less aggressive headlights of the first generation Elise, although the Elise was updated soon after the introduction of the Exige. The Series 1 was built until 2002, and 604 examples were made. It was not replaced until the Series 2 of 2004.
At the Frankfurt 2011 Show, the 2012 version of the Exige S was announced. It features a supercharged 3.5 litre V6 engine (from the Evora S) rated at 345 hp. In 2013, a roadster version was introduced with only minor changes to the design for the removable top. The engine and performance were virtually unchanged from the coupe. To accommodate the V6 engine, the new model is approximately 25 cm (9.8 inches) longer and 5 cm (2.0 in) wider (exterior bodywise) than the model with the inline-four engine, being 4,052 mm (159.5 inches) long, 1,802 mm (70.9 in) wide (not counting the mirrors) and 1,153 mm (45.4 in) tall. The drag coefficient is 0.433. Since that time there have been a bewildering array of different versions and you need to be a real marque expert to tell them all apart. The policy has worked, though, as sales have remained steady whilst Lotus try to amass the finances to develop any all new models. The Exige V6 Cup is a track oriented version of the Exige S while the Exige CupR is the track-only version of Exige V6 Cup. The Exige V6 Cup is offered for sale in the United States as a track only car. If purchased, US Lotus Dealers will only provide a bill of sale instead of a title. The vehicles were unveiled at the 2013 Autosport International motor show. Limited to 50 examples, the Lotus Exige 360 Cup was revealed on 14 August 2015. The car is powered by a 3.5-liter supercharged Toyota V6 delivering 355 hp. The Lotus Exige Sport 380 is a track focused and more powerful version of the Lotus Exige lineup. It was unveiled on 23 November 2016. Lotus’ CEO, Jean-Marc Gales describes it as, “The Exige Sport 380 is so good, that it is no longer the best in class, it’s now in a class of its own”, and it fulfills this statement by taking on some of the powerful and expensive super cars both on the track and the streets. The 3.5-litre, super-charged V6 engine is now uprated and produces 375 hp and 410 Nm (302 lb/ft) of torque with a 6500 rpm red line achieved by revised supercharger and ECU. It can accelerate from 0 to 60 mph in 3.5 seconds and has a top speed of 178 mph (286 km/h). The interior is also stripped out and features necessary driver aids. The Exige Sport 380 weighs 1,076 kg (2,372 lb), thanks to the extensive use of carbon fibre on the exterior as well as the interior, the application of polycarbonate windows instead of traditional glass windows and a newly designed rear transom panel which features two rear lights instead of four.The Lotus Exige Cup 380 is a more hardcore variant of the Exige Sport 380. Performance of the car remains the same as the Sport 380 but it features more aero components and a larger rear wing to produce more downforce at high speeds. The Exige Cup 380 generates 200 kg (441 lb) of downforce at its maximum speed of 175 mph (282 km/h); the top speed is reduced due to excess downforce and more drag. It features a more stripped out interior in order to save weight and other light weight carbon fiber components, Lotus states a lowest possible dry weight of only 1,057 kg (2,330 lb). On 9 November 2017, Lotus unveiled the most powerful version of the Exige to date called the Exige Cup 430, producing 430 PS (424 hp) and using the Evora GT430’s powertrain, modified to fit in the smaller Exige. The car body can produce 220 kg (485 lb) of downforce. The Cup 430 is 19 kg (42 lb) lighter than the Sport 380 due to the use of carbon fibre in body panels and interior and a titanium exhaust. The gearbox allows quicker gearshifts than the previous model. The Cup 430 is not offered with an automatic gearbox. The Lotus Exige Cup 430 is capable of covering the Hethel circuit in 1 minute 24.8 seconds – the fastest production car to lap the circuit – 1.2 seconds faster than the road going Lotus 3-Eleven.
Developed under the project name Project Eagle, this car was launched as the Evora on 22 July 2008 at the British International Motor Show. The Evora is based on the first all-new vehicle platform from Lotus Cars since the introduction of the Lotus Elise in 1995 (the Exige, introduced in 2000, and the 2006 Europa S are both derivatives of the Elise. Evora was planned to be the first vehicle of three to be built on the same platform and was the first product of a five-year plan started in 2006 to expand the Lotus line-up beyond its track-specialised offerings, with the aim of making Evora a somewhat of a more practical road car that would appeal to the mainstream. As such it is a larger car than recent Lotus models Elise and its derivatives (Exige, Europa S, etc.), with an unladen weight of 1,383 kg (3,049 lb). It is currently the only Lotus model with a 2+2 configuration, although it is also offered in a two-seater configuration, referred to as the “Plus Zero” option. It is also the only 2+2 mid engined coupé on sale. The interior is larger to allow taller persons of 6’5″ to fit. The cooled boot behind the engine is large enough to fit a set of golf clubs, although Lotus Design Head Russell Carr denies that this was intentional. Lotus intends Evora to compete with different market sectors including the Porsche Cayman. The name “Evora” keeps the Lotus tradition of beginning model names with an “E”. The name is derived from the words evolution, vogue, and aura. and it of course sounds similar to Évora, which is the name of a Portuguese city and UNESCO World Heritage Site. Sales started in summer 2009, with an annual target of 2000 cars per year, with prices between £45,000 and just over £50,000. and in America from the beginning of 2010. The Evora received several accolades at its launch from the British motoring press, including: Britain’s Best Driver’s Car 2009 from Autocar and Car of the Year 2009, from Evo. Sales, however, were far from target, as the car was seen as too costly. A more powerful Evora S was launched in 2010 with a supercharged equipped 3.5-litre V6. A facelifted and more powerful Evora 400 model was unveiled at the 2015 Geneva Motor Show.
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.
The MP4 12C was the first ever production car wholly designed and built by McLaren, and their first production road car produced since the McLaren F1, which ended production in 1998. McLaren started developing the car in 2007 and secretly purchased a Ferrari 360 to use as a test mule. The mule called MV1 was used to test the 3.8-litre twin-turbocharged V8 engine. The car also featured side vents for additional cooling which were later incorporated in the final production model. Later in the year, the company purchased an Ultima GTR to test the braking system and suspension components, that mule was called the MV2. The space frame and body of that car were modified in order to accommodate the new components. Later another prototype was purchased which was another Ferrari 360 dubbed the MV3 which was used to test the exhaust system. McLaren then built two prototypes themselves called CP1 and CP2 incorporating the Carbon Monocell monocoque which were used for testing the heat management system and performance. The MP4-12C features a carbon fibre composite chassis, and is powered by a longitudinally-mounted Rear mid-engine, rear-wheel-drive layout McLaren M838T 3.8 litre twin-turbocharged V8 engine, developing approximately 600 PS (592 bhp) at 7500 rpm and around 600 N⋅m (443 lbf⋅ft) of torque at 5600 rpm. The car makes use of Formula 1-sourced technologies such as “brake steer”, where the inside rear wheel is braked during fast cornering to reduce understeer. Power is transmitted to the wheels through a seven-speed dual-clutch transmission. The entire drivetrain is the first to be entirely designed and produced in house by McLaren. The chassis is based around a F1 style one-piece carbon fibre tub, called the Carbon MonoCell, weighing only 80 kg (176 lb). The MonoCell is made in a single pressing by using a set of patented processes, using Bi-Axial and Tri-Axial carbon fibre multi-axial fabrics produced by Formax UK Ltd. with the MonoCell manufactured by Carbo Tech in Salzburg, Austria. This has reduced the time required to produce a MonoCell from 3,000 hours for the F1 and 500 hours for the Mercedes-Benz SLR McLaren, to 4 hours for the MP4-12C. The McLaren MP4-12C utilizes a unique hydraulic configuration to suspend the vehicle as opposed to more traditional coil springs, dampers and anti-roll bars. What McLaren has called “ProActive Chassis Control,” the system consists of an array of high and low pressure valves interconnected from both left to right and front to back, and the typical anti-roll bars were omitted entirely. When high pressure meets high pressure under roll conditions, stiffness results; and subsequently when high pressure meets low under heave and warp, more give is allowed, ultimately providing a firmer, competent suspension setup in spirited driving, and a very plush, compliant and comfortable ride when moving at slower, constant speeds. The car has a conventional two side-by-side seating arrangement, unlike its predecessor the McLaren F1 which featured an irregular three seat formation (front centre, two behind either side). To make up for this however, the car’s central console is narrower than in other cars, seating the driver closer to the centre. Interior trim and materials can be specified in asymmetric configuration – known as “Driver Zone”. The final car was unveiled to the public on 9 September 2009 before the company’s launch in 2010. A convertible version of the car called the MP4-12C Spider, as added to the range in 2012. The name’s former prefix ‘MP4’ has been the chassis designation for all McLaren Formula 1 cars since 1981. ‘MP4′ stands for McLaren Project 4 as a result of the merger between Ron Dennis’ Project 4 organisation with McLaren. The ’12’ refers to McLaren’s internal Vehicle Performance Index through which it rates key performance criteria both for competitors and for its own cars. The criteria combine power, weight, emissions, and aerodynamic efficiency. The coalition of all these values delivers an overall performance index that has been used as a benchmark throughout the car’s development. The ‘C’ refers to Carbon, highlighting the application of carbon fibre technology to the future range of McLaren sports cars. At the end of 2012, the name of the MP4-12C was reduced to 12C – that name is usually used when referring to the coupe. The open-top version now being called the 12C Spider.
In June 2018, McLaren unveiled the top-of-the-line sports series variant online. The car, called the 600LT is based on the 570S and is the third McLaren production car to receive the longtail treatment. Inspired by the 675LT and the F1 GTR Longtail, the body of the car has been extended by 73.7 mm (2.9 in). The car also features enhanced aerodynamic elements such as an extended front splitter and rear diffuser, new side sills, and an aero-enhancing fixed rear wing for increased downforce. McLaren claims that 23% parts on the 600LT are new as compared to the 570S. The carbon fibre monocoque utilised in the 600LT is modified and this combined with the extensive use of carbon fibre in the roof along with the cantrails and front wings, results in a weight saving of 96 kg (212 lb) over the 570S, with the total weight amounting to 1,247 kg (2,749 lb). Another distinguishing feature of the 600LT is the lightweight titanium exhaust system which is mounted on top of the rear of the car which harks back to its original application in the Senna. The interior features sports bucket seats from the P1 and Alcantara trim but can be optioned with the much lighter bucket seats found in the Senna. The 3.8-litre twin-turbocharged V8 engine utilised in the 600LT is tuned to produce a maximum power output of 600 PS (592 bhp) (hence the 600 in the name) and 620 N⋅m (457 lb⋅ft) of torque, achieving a power-to-weight ratio of 479 PS per tonne. Performance figures and production numbers of the car remain unknown. Production of the 600LT started in October 2018. In January 2019, McLaren unveiled the convertible variant of the 600LT at the Detroit Auto Show. Due to the use of the same carbon monocoque as the other models in the 570S lineage the 600LT Spider required did not need any extra modifications to incorporate a folding hardtop roof. As a result, the Spider weighs 50 kg (110 lb) more than the coupé while maintaining the same performance statistics. The Spider has the same engine and aerodynamic components as the coupé and share the roof folding mechanism with the standard 570S Spider which can be operated at speeds upto 40 km/h (25 mph). The car can accelerate to 100 km/h (62 mph) in 2.9 seconds, to 200 km/h (124 mph) in 8.4 seconds (0.2 seconds more than the coupé) and can attain a top speed of 315 km/h (196 mph) with the roof retracted and 323 km/h (201 mph) with the roof closed. The car can achieve a dry weight of 1,297 kg (2,859 lb) when equipped with the MSO ClubSport package which includes the removal of air-conditioning and radio, titanium wheel nuts and the replacement of the standard seats with the carbon fibre seats from the Senna. The car has received rave reviews.
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.
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.
It is quite sobering to realise that the W201 is now almost a 40 year old design. 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 mid-size 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-leveling 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. The R129 SL-Class was based on the W124 platform; the W124 was later equipped with two of the roadster’s engines 3.2 24V straight-six and 5.0 V8. 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 traveled 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. With the exception of the 200, which was equipped with a Stromberg or Pierburg carburetor but was not available to the United States, manifold injection was standard in Otto models, and the engines incorporated features that maximized performance. The most notable such feature was the addition of an oxygen sensor in the exhaust system which, in conjunction with a semi-electronic fuel injection system, could make the engine run more efficiently. This improved fuel consumption while simultaneously meeting stricter emission regulations. Mercedes-Benz’s four-wheel drive system, the 4Matic was first introduced on the W124 in 1987. 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. In 1989, the 124 series received its first facelift. Most notable difference between the 1985 to 1988 models and the post 1989 models are the so-called “Sacco planks”. These are body trim parts mounted on the lower portions of the doors. In 1993, the second facelift was introduced to the 124. It changed the appearance of the 124 series once again: the front portion was changed, which made the 124 bear closer resemblance to the 140 series, and the rear bumper on saloon, cabriolet, and coupé models was extended further around the rear wings, whilst the estate models retained their original rear bumpers. Mercedes launched a cabriolet (convertible) version in Europe in 1991, the 300CE-24 cabriolet, and in the UK (RHD) and Japan (LHD). The 320CE, and North America, the 300CE, in 1992. These versions were redesignated as the E 320 in 1993, complemented by the less powerful, but less expensive E 220 in 1993, and the mainland-Europe-only E 200 in 1994. Mercedes brought the E 320 cabriolet (convertible) to the US and Japan from 1993 to 1995. There were 68 E 36 AMG cabriolets built from 1993 until 1996 (54 LHD and 14 RHD) to complement the also rare E 36 AMG coupé, saloon (RHD only), and estate. Approximately 171 estate cars were produced for the Japanese market. The pre-merger AMG coupés are based on the 124 series 2 update. The AMG 3.4 CE (300CE-24 based coupé) were all LHD, 25 were produced from 1988 until 1993. There were also 7 cabriolets built, and eleven saloons (and possibly estates). AMG Japan also carried out such conversions locally.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.
Not surprisingly, there were a number of recent AMG models here, mostly C63 cars from the current and previous generations.
Among them was a rather special car, a C63 AMG Black Series. Available only in Coupé bodystyle, the C 63 AMG Black Series includes a modified version of C 63 AMG M156 V8 engine now generating a maximum power output of 517 PS (510 bhp) at 6,800 rpm and 620 Nm (457 lb/ft) of torque at 5,000 rpm. Performance figures include a 0–100 km/h (62 mph) acceleration time of 4.2 seconds and a top speed of 300 km/h (186 mph). Other notable features include 255/35 ZR 19 and 285/30 ZR 19 tyres, black diffuser insert shared with the SLS AMG GT3, twin tailpipes finished in chrome, AMG sports suspension with AMG rear axle differential lock, three-stage ESP, two AMG sports bucket seats, black DINAMICA microfibre upholstery on the centre panels of the seats and doors, omission of the rear bench seat (single rear seats available as option), AMG performance steering wheel upholstered in either Nappa leather or the Dinamica microfibre, steering wheel rim having flattened top and bottom sections along with aluminium shift paddles on the steering column for manual gear changes, red seat belts and red contrasting top stitching on the steering wheel, on the seats, door centre panels, armrests, on the doors, the centre console and on the shift lever gaiter along with three autonomous round dials has a three-dimensional TFT colour display. The AMG Track Package includes 255/35 R 19 front and 285/30 R 19 rear sports tyres from Dunlop, active rear-axle transmission cooling with radiator in the rear apron. The AMG Aerodynamics package includes carbon fibre flics on front apron, carbon-fibre functionally tuned front splitter and a fixed carbon-fibre rear aerofoil with an adjustable blade. China and US models went on sale in March 2012. Sales of Japanese version began in October 2011 in limited quantities (50 units produced), with delivery began in the Spring of 2012. Mercedes initially planned to build only 650 units, but after the sales success 800 units were produced.
Also here was the top of the line sports car, the AMG GT.
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.
The Mini Coupé and Mini Roadster are two-seater sports cars that were engineered and manufactured by Mini between 2011 and 2015. The hardtop Coupé was unveiled in June 2011 and formally launched at the Frankfurt Motor Show in September 2011. Production was shown in the 2011 documentary Megafactories. It is the first two-seater Mini. It was joined by a convertible version called Mini Roadster in 2012, following its showing as a concept car in 2009. The Coupé is known by the internal code R58 and the Roadster by code R59. The Mini Roadster is the convertible version of the Coupé and was first shown at the Frankfurt Motor Show in September 2009 as a concept, and formally launched at the Detroit North American International Auto Show in January 2012. The range of models and engines mirrors the Mini Coupé with a range of 1.6 L petrol engines in various levels of power and a 2.0 L diesel engine offered in some markets. Depending on the market, the soft top is either manually or electrically operated. The electrically operated top required the driver to unlock it and then could be opened using a toggle switch above the rear view mirror. Once fully open the top would sit flat behind the driver, a significant change from the R57 Convertible, which stowed the convertible top within view above the “boot.” The convertible top included a rear window but did not include a window behind the driver’s door. The soft top was only available in black. In February 2015 Mini announced the end of production for both models.
The Mitsubishi Lancer Evolution VIII appeared in 2003 this time sporting 17″ grey Enkei wheels, Brembo brakes and Bilstein shocks to handle traction and a 5-speed manual gearbox with 280 PS. Originally a one off model, sales were so successful in the U.S. that by 2005 it was available in four trims: the standard GSR model in Japan, the RS, 5-speed gearbox, and standard wheels (lacking excess components, such as interior map lights, power windows/doors, and radio), the SSL (with a sunroof, trunk mounted subwoofer, and leather seats) All of which had chrome head and taillight housings, and the MR, which came with a revised front limited-slip differential, aluminium MR shift knob, handbrake with carbon fibre handle, 17 inch BBS wheels, aluminum roof, and a 6-speed manual gearbox. The new Evolution Mr also sported Black housing taillights and headlights. The Mitsubishi Lancer Evolution VIII MR used slick-response Bilstein shocks for improved handling. The aluminium roof panel and other reductions in body weight have lowered the centre of gravity to produce more natural roll characteristics. Detail improvements have also been made to Mitsubishi’s own electronic four-wheel drive, to the ACD 5 + Super AYC 6 traction control, and to the Sports ABS systems. The Lancer Evolution VIII displayed at the 2003 Tokyo Motor Show took the MR designation traditionally reserved for Mitsubishi Motors high-performance models (first used for the Galant GTO). Other parts on the MR include BBS alloy wheels, the aforementioned Bilstein shocks, and an aluminium roof. In the United Kingdom, many special Evolutions were introduced, including the 260, FQ300, FQ320, FQ340, and FQ400 variants. They came with 260, 305, 325, 345, and 405 hp. The FQ-400, sold through Ralliart UK, produced 411 PS at 6,400 rpm and maximum torque of 481 Nm (355 lb/ft) at 5,500 rpm, from its 1,997 cc 4G63 inline-four engine, the result of special modifications by United Kingdom tuning firms Rampage Tuning, Owen Developments, and Flow Race Engines. At 202.8 hp per litre, it has one of the highest specific outputs per litre of any road car engine. With a curb weight of 1,450 kg (3,197 lb), it achieves 0–60 mph in 3.5 seconds, 0–100 mph (161 km/h) in 9.1 seconds, 1⁄4 mile (402 m) in 12.1 seconds at 117 mph (188 km/h), and a top speed of 175 mph (282 km/h) while costing £48,000. BBC’s television series Top Gear demonstrated that the stock FQ-400 could keep up with a Lamborghini Murciélago around a test track. The Stig recorded a Top Gear Power Lap Time of 1 minute and 24.8 seconds (damp track), 1.1 seconds slower than the Murciélago’s time of 1 minute 23.7 seconds (dry track). In a similar test conducted by Evo magazine, the Evolution was able to lap the Bedford Autodrome faster than an Audi RS4 and a Porsche 911 Carrera 4S. The Lancer Evolution VIII was also the first Evolution to be sold in the United States of America, spurred by the success of the Subaru Impreza WRX which had been released there just the year prior. The Evolution VIII found its true competition in the Subaru Impreza WRX STI model the same year as the Evolution VIII’s US introduction. With its 2.0 litre, 271 hp engine, the 2003 Evolution VIII was capable of achieving a 0–100 km/h (62 mph) time of 5.1 seconds. However, the internal components for the American versions were largely stripped-down versions of the specifications for the Japanese Lancer Evolution VIII. No US-spec Evolution model prior to the Evo X has active yaw control, including the 2006 Evolution IX. The American 2003 and 2004 GSRs are without the helical limited-slip front differential and 6-speed manual transmission. The 2004 US spec RS models, however, do have a front helical limited-slip differential. All 2003, 2004 and 2005 RS and GSR models have the Japanese Evolution VII’s 5-speed transmission. The MR edition was introduced to the US in 2005, with ACD and the only model with a 6-speed transmission. The 2005 US spec RS and GSR have the ACD standard, and the front helical limited-slip differential is now standard on all models. The boost, timing, and tuning are also significantly lower than its Japanese counterpart, allowing it to adhere to the strict emissions regulations of the United States. Starting in 2005, the US model Evos were also fitted with a 5500 rpm limit on launching in 1st gear to protect the drivetrain. Most Evolution VIIIs have a carbon fibre rear spoiler with matching body-colour endplates. Furthermore, the US versions of the Lancer Evolution VIII 2003–2005 were given bulkier rear bumpers than their Japanese counterparts to accommodate US safety laws in the form of the metal rear crash bar. All Evos have lightweight aluminum front fenders and hoods. The basic RS Edition does not come with power windows, locks, or mirrors, an audio system, rear wing, sound deadening material, map lamps or an anti-lock braking system. All Evo VIII RS models sold in the US have an air conditioning system. The 2005 MR/RS editions came with an aluminium roof. Additionally, Evolution VIII MR Editions come equipped with a 6-speed transmission, Bilstein shocks, optional graphite grey color (unique to the Evolution VIII MR), optional BBS wheels and an optional vortex generator. The MR Edition also received engine updates and reliability changes, the engine updates include larger turbo diameter mouth, updated cam profiles, lighter balance shafts and changed from single wastegate solenoid to dual solenoid. Exterior changes included HID headlights, updated tail lights, and MR rear badging. Interior updates included black suede Recaro seats with higher side bolsters, carbon look dash trim, and MR badging on center console. Mechanical changes saw S-AWC rear diff changes, a larger oil cooler core, ion coated piston rings, reinforced cylinder head and 5 layer head gasket compared to the 3 layer. The car seen here is an Evo VIII MR FQ 340.
Although not many of the Datsun 240Z were sold in the UK, or indeed Europe, this car proved phenomenally popular in the US, and was really the beginning of the end for the British sports cars which American buyers had been buying in large quantities throughout the 1960s. Known internally as the Nissan S30, and sold in Japan as the Nissan Fairlady Z, the car we call the the Datsun 240Z, and the later 260Z and 280Z was the first generation of Z GT two-seat coupe, produced by Nissan from 1969 to 1978. It was designed by a team led by Yoshihiko Matsuo, the head of Nissan’s Sports Car Styling Studio. With strong performance from the 2.4 litre engine, and excellent ride and handling from the four-wheel independent suspension, the car was good to drive, In the United States, Datsun priced the 240Z within $200 of the MGB-GT, and dealers soon had long waiting lists for the “Z”. Its modern design, relatively low price, and growing dealer network compared to other imported sports cars of the time (Jaguar, BMW, Porsche, etc.), made it a major success for the Nissan Motor Corporation, which at the time sold cars in North America under the name Datsun. As a “halo” car, the 240Z broadened the image of Japanese car-makers beyond their econobox success. The car was updated to the 260Z in 1975, when a larger 2.6 litre engine was used. Both 240Z and 260Z cars were here.
Released on July 2002 in Japan at reorganized Nissan Japanese dealerships called Nissan Blue Stage, and August 20, 2002 in the US., the 350Z coupé was available in 5 trim packages: ‘350Z’ (Base), ‘Enthusiast’, ‘Performance’, ‘Touring’, and ‘Track’ editions. In Europe, only the ‘Track’ trim was available, although it was badged and marketed as ‘350Z’. The Base model did not include a VLSD or Traction Control and was only available with cloth seats. It did not include cruise control, nor power or heated seats. The Enthusiast model came with traction control, a VLSD, and cruise control. The Performance model came with bigger 18-inch wheels, front air dam, rear spoiler, optional Brembo brakes, and VDC instead of Traction Control. Touring was made more of the luxury model. It had power, leather, heated seats, VDC, a VLSD, xenon headlamps, optional Brembos, 18-inch wheels, and optional GPS. The Track model included Brembo brakes, front air dam, rear spoiler, traction control, cloth seats, 18-inch wheels, VLSD, and optional GPS. In 2004 Nissan introduced the 350Z Roadster with an electrically retractable soft-top roof. In the U.S. market the car was available in two trim packages (Enthusiast and Touring), while in Europe, the same versions as the coupé were offered. Nissan added the Grand Touring (GT) trim to the Roadster trim packages for 2005. In 2005 Nissan launched a 35th Anniversary edition, with a revised exterior and interior. Early 2005 model-year 35th anniversary edition models were equipped with the original VQ35DE with 287 hp and automatic transmission. In January 2005, Nissan introduced the 35th Anniversary 6-speed manual models and Track models (mid-year introduction), which included the updated VQ35DE 300 hp Rev-up engine and new updated CD009 manual transmission. As well as minor changes to suspension tuning and parts. For the 2006 model year, the 350Z received changes for its mid-cycle facelift. The VQ35DE 300 hp Rev-up engine that was introduced mid-year 2005 on the Track and 35th Anniversary Edition with 6-speed manual transmission models was offered for every trim level that had a manual transmission option. The VQ35DE with 287 hp continued to be offered with only the 5-speed automatic. Additions included bi-xenon projectors, a revised front fascia, new LED rear lights, changes to the interior trim and speed sensitive steering. Touring and Grand Touring models had radio-steering controls standard, MP3 CD compatibility, and Satellite Radio became an available option. For the 2007 model year, the 350Z was again moderately revised. The VQ35DE V6 was replaced with a new VQ35HR V6. It produced 306 hp at 6800 rpm with 268 ft·lb at 4800 rpm using the revised SAE certified power benchmark. The VQ35HR had a raised redline to 7500 rpm and more torque across the rpm range. The bonnet was redesigned with a bulge reminiscent of the original 240Z to accommodate the raised deck height of the new VQ35HR. In the US, trim levels were narrowed down to 350Z (base), Enthusiast, Touring, and Grand Touring, while in Europe the same trim levels remained. Bluetooth was added for the 2007 model year. The car was replaced by the 370Z for the 2009 model year. It has never found quite the same levels of enthusiasm that greeted – and have stayed with – the 350Z.
Completing the array of Z cars here was an example of the current one, the 370Z, a model which has been produced since 2009 with not much changed in all that time. Production does end soon and the car’s replacement the 400Z, will not be coming to Europe (sadly).
The GF-BNR34 (R34) Skyline GT-R, GT-R V·Spec and GT-R V·Spec N1 models were introduced in January 1999. The R34 GT-R was shorter (from front to rear), and the front overhang was reduced as compared to its predecessor. The valve covers were painted glossy red (colour code Cherry Red Effect Z24 or X1020), as opposed to black in previous models. A new feature on the R34 GT-R is a 5.8″ LCD multi-function display on the centre of the dashboard, which shows seven different live readings of engine and vehicle statistics such as turbocharger pressure (1.2 bar max), oil and water temperature, among others. The GT-R V·Spec model added two extra features to the display: intake and exhaust gas temperatures. Nismo Multi-function Displays (MFD) could be bought at an extra cost, they included a lap timer, G-Force meter and an increase in boost pressure measurement to 2 bar. The R34 GT-R was made shorter in response to customer concerns who thought the R33 was too bulky. Like the R33, the new R34 GT-R V·Spec (Victory Specification) models come equipped with the ATTESA E-TS Pro system and an Active LSD at the rear, while standard GT-R models come with the non-Pro system and a conventional mechanical differential. The V·Spec model also had firmer suspension and lower ground clearance, thanks to front and side splitters, as well as a rear carbon fibre air diffuser, designed to keep air flowing smoothly under the car. At the time of the R34’s introduction, like the R32 and R33, Nissan introduced an R34 V·Spec N1 model. The R34 V·Spec N1 was equipped similar to the R32 and R33 N1 models – a homologation special. It was sold without air conditioning, audio equipment, rear wiper, or boot lining, but ABS remained. The new R34 N1 was also given the new R34 N1 engine. Only 38 known R34 V·Spec N1 models were produced from the factory, 12 of which Nismo used for Super Taikyu racing. The rest were sold to various customers, mostly racing teams and tuning garages. The V·Spec version was also imported into the UK with a number of modifications carried out on these 80 cars. These included 3 additional oil coolers, revised ECU map, full Connolly leather interior, underbody diffusers, stiffer suspension, active rear limited slip differential, extra display feature on the in car display. In additional to the UK, 10 were sold to Hong Kong and Singapore, and 5 to New Zealand although with different changes for their respective markets. In October 2000, Nissan introduced the V·Spec II, replacing the V·Spec. The V·Spec II has increased stiffness in the suspension (even stiffer than the original V·Spec) and had larger rear brake rotors. It also comes equipped with a carbon fibre bonnet equipped with a NACA duct, which is lighter than the aluminium that all other GT-R bonnets are made from. Also different on the V·Spec II was an iridium center console and aluminium pedals. The seats were upholstered with black cloth rather than the gray cloth used on previous R34 GT-R models, and the amber turn lenses were replaced with white versions. With the exception of the carbon fibre bonnet, the standard trim level GT-R also received these updates. A total of 18 V·Spec II N1 were built. A total of 1855 V·Spec II were built for Japan, with an additional 2 being sold for the New Zealand market. The V·Spec N1 was replaced with the V·Spec II N1. The same changes applied to the V·Spec N1 were applied to the V·Spec II N1, with the exception of the V·Spec II carbon bonnet which was now unpainted. In May 2001, the M·Spec was introduced. It was based on the V-Spec II, but had special “Ripple control” dampers, revised suspension set up, stiffer rear sway bar and a leather interior with heated front seats. The ‘M’ on the M·Spec stood for Mizuno who is the chief engineer of Nissan. The only other change was the removal of the carbon fibre bonnet which was replaced with the standard aluminium bonnet. In February 2002, Nissan launched a final production model of the R34 GT-R called the Skyline GT-R V·Spec II Nür and the Skyline GT-R M·Spec Nür. The Nür was named after the famous German Nürburgring racetrack, where the Skyline was developed. In total 1,003 units R34 GT-R Nür(s) were produced, 718 were V·Spec II Nürs’ and 285 were M·Spec Nürs’. The Nür model featured an improved RB26DETT based on the N1 racing engine. The standard turbochargers were upgraded to larger versions with a slight increase in boost and the ceramic blades were replaced with steel versions. This has increased lag, but the turbo’s durability was improved while being able to handle a bigger boost increase. The V·Spec II Nür is based on the regular V·Spec II model, and the M·Spec Nür was based on the regular M·Spec model. Other than the addition of the Nür engine, the Nür models also included a different colour of stitching on the interior trim, as well as a speedometer reading up to 300 km/h (186 mph), gold valve covers instead of red and a gold VIN plate instead of silver. Due to Japanese car industry norms at the time, the car was advertised as having 276 bhp but it actually had over 330 bhp when it left the factory. In 1999, during Nissan’s testing session at the Nürburgring Nordscheleife. Unofficially the GT-R R34 ran a 7:52 minute lap around the track, driven by Nissan’s test driver Kazuo Shimizu. The car broke the GT-R R33’s record which was the fastest road-legal series production vehicle and second fastest road-legal production vehicle around the track at the time.
Also here were a couple of examples from the current range, the R35 generation GT-R.
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.
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.
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.
The 996 was replaced with the 997 in 2005. It retains the 996’s basic profile, with an even lower 0.28 drag coefficient, but draws on the 993 for detailing. In addition, the new headlights revert to the original bug-eye design from the teardrop scheme of the 996. Its interior is also similarly revised, with strong links to the earlier 911 interiors while at the same time looking fresh and modern. The 997 shares less than a third of its parts with the outgoing 996, but is still technically similar to it. Initially, two versions of the 997 were introduced— the rear-wheel-drive Carrera and Carrera S. While the base 997 Carrera had a power output of 321 hp from its 3.6 L Flat 6, a more powerful 3.8 L 350 hp Flat 6 powers the Carrera S. Besides a more powerful engine, the Carrera S also comes standard with 19 inch “Lobster Fork” style wheels, more powerful and larger brakes (with red calipers), lowered suspension with PASM (Porsche Active Suspension Management: dynamically adjustable dampers), Xenon headlamps, and a sports steering wheel. In late 2005, Porsche introduced the all-wheel-drive versions to the 997 lineup. Carrera 4 models (both Carrera 4 and Carrera 4S) were announced as 2006 models. Both Carrera 4 models are wider than their rear-wheel-drive counterparts by 1.76 inches (32 mm) to cover wider rear tyres. The 0–100 km/h (62 mph) acceleration time for the Carrera 4S with the 350 hp engine equipped with a manual transmission was reported at 4.8 seconds. The 0–100 km/h (62 mph) acceleration for the Carrera S with the 350 hp was noted to be as fast as 4.2 seconds in a Motor Trend comparison, and Road & Track has timed it at 3.8 seconds. The 997 lineup includes both 2- and 4-wheel-drive variants, named Carrera and Carrera 4 respectively. The Targas (4 and 4S), released in November 2006, are 4-wheel-drive versions that divide the difference between the coupés and the cabriolets with their dual, sliding glass tops. The 997 received a larger air intake in the front bumper, new headlights, new rear taillights, new clean-sheet design direct fuel injection engines, and the introduction of a dual-clutch gearbox called PDK for the 2009 model year. They were also equipped with Bluetooth support. The change to the 7th generation (991) took place in the middle of the 2012 model year. A 2012 Porsche 911 can either be a 997 or a 991, depending on the month of the production.
The 991 introduced in 2012 is an entirely new platform, only the third since the original 911. Porsche revealed basic information on the new Carrera and Carrera S models on 23 August 2011. The Carrera is powered by a 350 hp 3.4-litre engine. The Carrera S features a 3.8-litre engine rated at 400 hp. A Power Kit (option X51) is available for the Carrera S, increasing power output to 430 hp. The new 991’s overall length grows by 56 mm (2.2 in) and wheelbase grows by 99 mm (3.9 in) (now 96.5 in.) Overhangs are trimmed and the rear axle moves rearward at roughly 76 mm (3 in) towards the engine (made possible by new 3-shaft transmissions whose output flanges are moved closer to the engine). There is a wider front track (51 mm (2 in) wider for the Carrera S). The design team for the 991 was headed by Michael Mauer. At the front, the new 991 has wide-set headlights that are more three-dimensional. The front fender peaks are a bit more prominent, and wedgy directionals now appear to float above the intakes for the twin coolant radiators. The stretched rear 3/4 view has changed the most, with a slightly more voluminous form and thin taillights capped with the protruding lip of the bodywork. The biggest and main change in the interior is the center console, inspired by the Carrera GT and adopted by the Panamera. The 991 is the first 911 to use a predominantly aluminium construction. This means that even though the car is larger than the outgoing model, it is still up to 50 kilograms (110 lb) lighter. The reduced weight and increased power means that both the Carrera and Carrera S are appreciably faster than the outgoing models. The 0–60 mph acceleration time for the manual transmission cars are 4.6 seconds for the Carrera and 4.3 seconds for the Carrera S. When equipped with the PDK transmission, the two 991 models can accelerate from 0–97 km/h in 4.4 seconds and 4.1 seconds. With the optional sports chrono package, available for the cars with the PDK transmission, the 991 Carrera can accelerate from 0–97 km/h in as little as 4.2 seconds and the Carrera S can do the same in 3.9 seconds. Apart from the reworked PDK transmission, the new 991 is also equipped with an industry-first 7-speed manual transmission. On vehicles produced in late 2012 (2013 model year) Rev Matching is available on the 7-speed manual transmission when equipped with the Sport Chrono package. Rev-Matching is a new feature with the manual transmission that blips the throttle during downshifts (if in Sport Plus mode). Also, the 7th gear cannot be engaged unless the car is already in 5th or 6th gear. One of Porsche’s primary objectives with the new model was to improve fuel economy as well as increase performance. In order to meet these objectives, Porsche introduced a number of new technologies in the 911. One of the most controversial of these is the introduction of electromechanical power steering instead of the previous hydraulic steering. This steering helps reduce fuel consumption, but some enthusiasts feel that the precise steering feedback for which the 911 is famous is reduced with the new system. The cars also feature an engine stop/start system that turns the engine off at red lights, as well as a coasting system that allows the engine to idle while maintaining speed on downhill gradients on highways. This allows for up to a 16% reduction in fuel consumption and emissions over the outgoing models. The new cars also have a number of technologies aimed at improving handling. The cars include a torque vectoring system (standard on the Carrera S and optional on the Carrera) which brakes the inner wheel of the car when going into turns. This helps the car to turn in quicker and with more precision. The cars also feature hydraulic engine mounts (which help reduce the inertia of the engine when going into turns) as part of the optional sports chrono package. Active suspension management is standard on the Carrera S and optional on the Carrera. This helps improve ride quality on straights while stiffening the suspension during aggressive driving. The new 991 is also equipped with a new feature called Porsche Dynamic Chassis Control (PDCC). Porsche claims that this new feature alone has shaved 4 seconds off the standard car’s lap time around the Nürburgring. PDCC helps the car corner flat and is said to improve high-speed directional stability and outright lateral body control, but according to several reviews, the car is more prone to understeer when equipped with this new technology. In January 2013, Porsche introduced the all-wheel-drive variants of the Carrera models. The ‘4’ and ‘4S’ models are distinguishable by wider tyres, marginally wider rear body-work and a red-reflector strip that sits in between the tail-lights. In terms of technology, the 4 and 4S models are equipped with an all-new variable all-wheel-drive system that sends power to the front wheels only when needed, giving the driver a sense of being in a rear-wheel-drive 911. In May 2013, Porsche announced changes to the model year 2014 911 Turbo and Turbo S models, increasing their power to 513 hp on the ‘Turbo’, and 552 hp on the ‘Turbo S’, giving them a 0–97 km/h acceleration time of 3.2 and 2.9 seconds, respectively. A rear-wheel steering system has also been incorporated on the Turbo models that steers the rear wheels in the opposite direction at low speeds or the same direction at high speeds to improve handling. During low-speed manoeuvres, this has the virtual effect of shortening the wheelbase, while at high speeds, it is virtually extending the wheelbase for higher driving stability and agility. In January 2014, Porsche introduced the new model year 2015 Targa 4 and Targa 4S models. These new models come equipped with an all-new roof technology with the original Targa design, now with an all-electric cabriolet roof along with the B-pillar and the glass ‘dome’ at the rear. In September 2015, Porsche introduced the second generation of 991 Carrera models at the Frankfurt Motor Show. Both Carrera and Carrera S models break with previous tradition by featuring a 3.0-litre turbocharged 6-cylinder boxer engine, marking the first time that a forced induction engine has been fitted to the base models within the 911 range
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).
The RS version of the 991 GT3 was launched at the 2015 Geneva Motor Show, and featured in first drive articles in the press a few weeks later, with cars reaching the UK in the summer and another series of universally positive articles duly appearing. It had very big shoes to fill, as the 997 GT3 RS model was rated by everyone lucky enough to get behind the wheel, where the combination of extra power and reduced weight made it even better to drive than the standard non-RS version of the car. A slightly different approach was taken here, with the result weighing just 10kg less than the GT3. It is based on the extra wide body of the 991 Turbo. Compared to the 991 GT3, the front wings are now equipped with louvres above the wheels and the rear wings now include Turbo-like intakes, rather than an intake below the rear wing. The roof is made from magnesium a bonnet, whilst the front wings, rear deck and rear spoiler all in carbonfibre-reinforced plastic (CFRP), the rear apron is in a new polyurethane-carbonfibre polymer and polycarbonate glazing is used for the side and rear windows. The wider body allows the RS’s axle tracks to grow, to the point where the rear track is some 72mm wider than that of a standard 3.4-litre Carrera and the tyres are the widest yet to be fitted to a road-going 911. A long-throw crankshaft made of extra-pure tempered steel delivers the 4mm of added piston stroke necessary to take the GT3’s 3.8-litre flat six out to 3996cc . The engine also uses a new induction system, breathing through the lateral air intakes of the Turbo’s body rather than through the rear deck cover like every other 911. This gives more ram-air effect for the engine and makes more power available at high speeds. It results in an output of 500 bhp and 339 lb/ft of torque. A titanium exhaust also saves weight. The suspension has been updated and retuned, with more rigid ball-jointed mountings and helper springs fitted at the rear, while Porsche’s optional carbon-ceramic brakes get a new outer friction layer. Which is to say nothing of the RS’s biggest advancement over any other 911: downforce. The rear wing makes up to 220kg of it, while the front spoiler and body profile generates up to 110kg. In both respects, that’s double the downforce of the old 997 GT3 RS 4.0. The transmission is PDK only. The result is a 0-62 mph time of just 3.3 seconds, some 0.6 seconds quicker than the 997 GT3 RS 4.0 and 0-124 mph (0-200kmh) in 10.9 seconds. The 991 GT3 RS also comes with functions such as declutching by “paddle neutral” — comparable to pressing the clutch with a conventional manual gearbox –- and Pit Speed limiter button. As with the 991 GT3, there is rear-axle steering and Porsche Torque Vectoring Plus with fully variable rear axle differential lock. The Nürburgring Nordschleife time is 7 minutes and 20 seconds. The interior includes full bucket seats (based on the carbon seats of the 918 Spyder), carbon-fibre inserts, lightweight door handles and the Club Sport Package as standard (a bolted-on roll cage behind the front seats, preparation for a battery master switch, and a six-point safety harness for the driver and fire extinguisher with mounting bracket). Needless to say, the car was an instant sell out, even at a starting price of £131,296.
The latest model, the 992 was also here.
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.
From more recent times, there were a couple of examples of the Cayman including this GTS model.
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.
Final Porsche here was this Taycan Sport Turismo
The original Twingo was launched in April 1993, was sold in Europe’s LHD markets until August 2007, and received intermediate restylings in 1998, 2000 and 2004. Designed under the direction of Patrick Le Quément, Renault’s chief designer, the car derived a concept developed through the W60 project when Gaston Juchet was Renault’s chief designer. The project was aimed at replacing the Renault 4 with a minivan model. Le Quément chose a Jean-Pierre Ploué design to develop the production version. Le Quément stretched the original prototype and added an unconventional front end layout resembling a “smile”. The interior equipment was mounted on a central console to free space. Renault had participated in the 1981 to 1984 ‘Mono-Box’ ECO 2000 car project, along with PSA Peugeot Citroën and the French Government. The Twingo I’s electronic centrally mounted instrument panel had a speedometer, fuel gauge, clock, odometer, and trip recorder controlled via a stalk-located button. A strip of warning lights was located behind the steering wheel. The rear seat featured a sliding mechanism to enable either increased boot space or more rear-seat legroom. The boot parcel shelf was attached to the inside of the tailgate, and lifted with the tailgate – or could clip back against the rear window when not required. All engines were replaced with an 8 valve 1.15-litre 60 hp unit. A 16 valve 75 hp version was added in 2000. Manufactured at the Flins Renault Factory from the time of its launch until 28 June 2007, the Twingo I was also manufactured in Taiwan, Spain, Colombia and Uruguay from 1999 to 2002, remaining in production until 8 June 2012 in Colombia, by the Sofasa conglomerate, strictly for the South American market. In April 1993, the Twingo launched with only one trim level, and four exterior colours: coral red, Indian yellow, coriander green, and ultramarine blue. The car retailed at a price of 55,000FF (approximately €8,400). In June 1994, new exterior colours were introduced along with minor interior changes, as well as optional electric windows and mirrors, and locks with remote keyless entry. Four months later, the Twingo Easy model was launched, with an automated manual gearbox. In September 1995, the first of many special Twingo editions launched, while inbuilt airbags become optional. In July 1996, a new 1149 cc engine (from the Clio) was fitted to replace the previous engine from the Renault 5. Alongside the new engine came the Twingo Matic model, equipped with a 3-speed automatic gearbox. Also, various improvements were made including the addition of a third brake light. Two years later, the Twingo underwent its first major restyling revisions to the interior and dashboard. The front and rear lights were revised, and front orange indicator lights were merged into the headlamp housing. The front of the car is reinforced for added safety in a frontal impact. Two months later, the top of the range Twingo Initiale model launched. In September 2000, the Twingo underwent its second major restyling. Additions included larger 14″ wheels, revised door trims with larger door pockets, a black trunk opener lever (instead of shiny silver), and cup holders in front of the gearstick. December 2000, a new 1.2-litre 16v engine launched, with 75 bhp. In April 2001, a new automated manual gearbox launched, called Quickshift. Additional revisions followed in September 2002, including new interior trims and wheel covers. In Japan, Renault was formerly licensed by Yanase Co., Ltd., but in 1999, Renault purchased a stake in Japanese auto-maker Nissan after Nissan had faced financial troubles following the collapse of the Japanese asset price bubble in 1991 and subsequent Lost Decade. As a result of Renault’s purchase of interest, Yanase cancelled its licensing contract with Renault in the spring of 2000, and Nissan Motor Co., Ltd took over as the sole licensee, hence sales of the Twingo I in Japan were transferred from Yanase Store locations to Nissan Red Stage Store locations. September 2004 marked the third major Twingo revision. The Renault logo was fitted to the boot lid, side rubbing strips were added and a new range of exterior colours launched. On 28 June 2007, Twingo I production ended in France, being replaced by the Twingo II. On 30 June 2007 2,478,648 units from the Twingo I were produced. The Renault Twingo I production went on into Colombia until 8 June 2012. In total there were over 2.6 million units of the first-generation Twingo produced.
Viewed as a modern classic these days, there was an Avantime here. Designed and manufactured by Matra, between 2001 and 2003, this one-box design without B-pillars was styled by Patrick Le Quément and was supposed to combine the space of an estate with the style of a 2+2 coupé. It was conceived by Philippe Guédon, head of the automotive division at Matra, who “believed that the children of Espace owners remained loyal to the car even after they had grown up and left home. As a result, the renowned estate was gaining a generation of new drivers.” It used the Espace as a base, which imposed some constraints, such as the central instrument display, but the marketeers turned that into something they called a part of the innovative character of the whole vehicle. The one-box design eliminated B-pillars and featured an aluminium structure, aluminium panels for the greenhouse and a full sunroof of strengthened heat-reflecting glass. The interior featured four seats each with built-in seatbelts and Bridge of Weir leather. To facilitate access to the rear seats, two long doors featured a double parallel-opening hinge system (marketed as “double-kinematic”) that maximized access with minimal outswing of the doors. Front side windows lowered automatically when either of the front seats folded forward to further facilitate entry to the rear two seats. Windows featured power-deployable sunshades, and the H-points of the rear two seats were higher than the forward two seats, giving the Avantime “theatre seating.” The luggage compartment featured a retaining system using retractable straps, and all Avantimes featured a two-tone look created by the exposed aluminium of the greenhouse. The windows and panoramic sunroof could open automatically via a single, headliner mounted control, to give the Avantime an ‘open air’ mode. The Avantime was first shown in February 1999 in concept form at a press launch in the Louvre, and one month later to the public at the Geneva Auto Show — where it was referred to as a “Coupéspace” — and went into production two years later, after the subsequent engineering of the pillarless roof to meet safety standards. The Avantime’s sales were poor. The car’s fortunes were not helped by the introduction of the Renault Vel Satis (another large, upmarket Renault) around the same time. When Matra decided to pull out of the automotive production business in 2003 (partly as a result of the financial loss incurred by the poor sales of the Avantime), Renault chose to discontinue the Avantime rather than move its production elsewhere. 8,557 were built from 2001 to 2003.
Displayed with the Citroen Ami was the Renault version of the same sort of idea, the Twizy.
Rover announced a V8 model at the Geneva Motor Show in 2004. This was the second iteration of the modified rear-wheel-drive platform developed by MG Rover. The car also featured a revised grille. It was the first V8 engine Rover since the demise of the Rover SD1 in 1986. The car was extensively re-engineered for Ford’s 4.6 litre Modular V8 (which was also used in the Ford F-Series) and a rear drive configuration, including a stiffened tunnel in the body structure. The cars were built on the standard production line, removed to allow the necessary structural modifications and returned for final trim. Just under 900 were produced in both saloon and Tourer body styles, carrying either Rover 75 or MG ZT trim. Other features included non-standard heating and ventilation, revised brakes and suspension, quad exhaust pipes, special badging, and a larger grille following the 2004 facelift. Very few were sold
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.
The Sera debuted in 1988 as the Toyota AXV-II concept car in almost production-ready form, and is noted for its mostly glass roof canopy and its butterfly doors, which tilt up and forward when open. The name “Sera” is Italian for evening. The available range of eye-catching metallic body colours was unusual at the time. Released with a single engine configuration and body style, the Sera featured optional configurations for its transmission, brakes, cold climate and sound-system. Toyota marketed three trim versions, marketed as Phases, over its production and marketed the Sera exclusively in Japanese Toyota retail sales channels Toyota Corolla Store — as an alternative to the Toyota MR2, which was exclusive to Toyota Vista Store. The Sera came with the 1.5 L (1496 cc) inline 4 5E-FHE unleaded petrol engine, the largest capacity version of Toyota’s E series of engines included in the Paseo and the Starlet. It produced 104 bhp and 132 Nm (97 lb/ft) of torque. This was installed in a front-mount, front wheel drive transverse configuration with electronic fuel injection. All versions came with power assisted rack and pinion steering and either the Toyota A242L 4-speed automatic or the Toyota C155 5-speed manual transmission. The brakes were vented discs at the front and drums at the rear, unless fitted with the optional Anti-Lock Braking system which had vented discs all round. Mechanically the car is related to both the Paseo and the Starlet, sharing similar floorpans, suspension, steering and brakes. The unusually positioned hinges of the butterfly doors and their smallness left insufficient space for conventional full-sized opening windows. The Toyota Sera is a 3-door hatchback coupe of monocoque steel construction. The Sera’s butterfly doors are hinged at the top center of the windscreen, and bottom of the A pillar and open forward and up in a manner similar to the McLaren F1 and Saleen S7 – the McLaren F1 designer Gordon Murray cited the Sera as the inspiration of the F1’s door arrangement. The weight of each door is primarily supported by a thick gas strut and counterbalanced by a smaller secondary strut inside the door. Unlike conventional hinged side-opening doors, the butterfly doors can be opened fully in a fairly confined space, requiring only 43 cm (17 in) of lateral clearance. The Sera features windows that curve upward into the ‘roof’ section of the vehicle. The rear hatch is constructed of a single piece of glass without a supporting steel frame. This, in combination with a steeply sloping front windscreen and glass upper-door/roof panels (a total of six separate glass pieces overall), gives the Sera its distinctive canopy and provides expansive visibility, although the thick B-pillar create a significant blind spot, especially on the driver’s side. To deal with its high solar load, air-conditioning and twin removable interior roof panels are standard. Front bucket seats feature three point seatbelts and can tilt and slide forward to give access to the rear. The rear bench seat features a fixed central arm rest and either two or three point seabelts. In its normal interior configuration (with the back seats up and the parcel shelf in place) the rear cargo area does have a noticeably small opening (52 cm by 82 cm) and an elevated lip necessitating the lifting of luggage quite high before it can be placed inside. However the boot (trunk) is relatively deep and spacious. In addition the rear seats fold down and both the parcel shelf and the rear divider panel (usually in place behind the back seats) can be completely removed, in essence turning the entire rear half of the car into a cargo area. As such the Toyota Sera has a large amount of available storage space for its size. The space-saving spare tire and changing kit are contained in a small compartment below the boot floor. The Sera/EXY-10 was one of the first cars to feature projector headlights (though the 1988 AXV-II concept model featured conventional lights). As the Sera was built solely for the Japanese market all cars were right-hand drive as factory standard and the speedometer and odometer units were metric. This makes the car readily importable into countries with similar standards and requires only minimal changes for ones such as the United Kingdom (where vehicles are also right-hand drive but instruments are in Imperial units). However, major alterations may be necessary before the Sera is legal for general use in, or even importation into, other countries. In Australia, most Seras will have required three-point seatbelts and side impact beams to be fitted for compliance, as such it may be beneficial to import a later model Phase III to avoid this third-party work. Any vehicle over 15 years old can be legally imported to Canada, so even the newest Seras are now eligible. Similarly, any vehicle over 25 years old can be legally imported to the US, so the first five model years are eligible as of 2019. Although federally legal, the Sera cannot be legally registered in the state of California until the vehicle has been modified to meet CARB emission standards. Toyota produced the Sera in three distinct trim variants, with either manual or automatic transmission, standard or ABS brakes and regular stereo or Super-Live Sound System (“SLSS” – see below) forming the three major choices for buyers. There were also a large number of additional factory options available across the entire production run. A total of 15,941 were built between February 1990 and December 1995. 15,852 units were registered in Japan. Approx. 30 pre-production cars were used for development purposes.
The MR2 derived from a 1976 Toyota design project with the goal of a car which would be enjoyable to drive, yet still provide good fuel economy – not necessarily a sports car. Design work began in 1979 when Akio Yoshida from Toyota’s testing department started to evaluate alternatives for engine placement and drive method, finalising a mid-transverse engine placement. Toyota called the 1981 prototype SA-X. From its original design, the car evolved into a sports car, and further prototypes were tested both in Japan and in the US. Significant testing was performed on race circuits including Willow Springs, where former Formula One driver Dan Gurney tested the car. All three generations were in compliance with Japanese government regulations concerning exterior dimensions and engine displacement. The MR2 appeared around the same time as the Honda CR-X, the Nissan EXA, the VW Scirocco from Europe, and the Pontiac Fiero and Ford EXP from North America. Toyota debuted its SV-3 concept car in October 1983 at the Tokyo Motor Show, gathering press and audience publicity. The car was scheduled for a Japanese launch in the second quarter of 1984 under the name MR2. Toyota introduced the first-generation MR2 in 1984, designating it the model code “W10”. When fitted with the 1.5-litre 3A engine, it was known as the “AW10”. Likewise, the 1.6-litre 4A version is identified by the “AW11” code. The MR2’s suspension and handling were designed by Toyota with the help of Lotus engineer Roger Becker. Toyota’s cooperation with Lotus during the prototype phase can be seen in the AW11, and it owes much to Lotus’s sports cars of the 1960s and 1970s. Toyota’s active suspension technology, called TEMS, was not installed. With five structural bulkheads, the MR2 was quite heavy for a two-seater of its size. Toyota employed the naturally aspirated 4A-GE 1,587 cc inline-four engine, a DOHC four-valve-per-cylinder motor, borrowed from the E80 series Corolla. This engine was also equipped with Denso electronic port fuel injection and T-VIS variable intake geometry, giving the engine a maximum power output of 112 hp in the US, 128 hp in the UK, 116 or 124 PS (114 or 122 hp) in Europe (with or without catalytic converter), 118 hp in Australia and 130 PS (128 hp) in Japan. Japanese models were later detuned to 120 PS (118 hp). A five-speed manual transmission was standard, with a four-speed automatic available as an option. In 1986 (1988 for the US market), Toyota introduced a supercharged engine for the MR2. Based on the same block and head, the 4A-GZE was equipped with a small Roots-type supercharger and a Denso intercooler. T-VIS was eliminated and the compression ratio was lowered to 8:1. It produced 145 hp at 6,400 rpm and 186 N⋅m; 137 lb⋅ft (19 kg⋅m) of torque at 4,400 rpm and accelerated the car from 0 to 100 km/h (62 mph) in 6.5 to 7.0 seconds. The supercharger was belt-driven but actuated by an electromagnetic clutch, so that it would not be driven except when needed, increasing fuel economy. Curb weight increased to as much as 2,494 lb (1,131 kg) for supercharged models, due to the weight of the supercharger equipment and a new, stronger transmission. A fuel selector switch was also added in some markets, to allow the car to run on regular unleaded fuel if required to. In addition to the new engine, the MR2 SC was also equipped with stiffer springs, and received special “tear-drop” aluminium wheels. The engine cover had two raised vents (only one of which was functional) that visually distinguished it from the naturally aspirated models. It was also labelled “SUPER CHARGER” on the rear trunk and body mouldings behind both doors. This model was never offered outside of the Japanese and North American markets, although some cars were privately imported to other countries. Toyota made detailed changes to the car every year until replacing it with a second generation model in 1989.
This is a Chaser, a model not sold new in Europe. n October 1992, the X90 Chaser replaced the previous X81 Chaser. It had a larger body, better handling and more engine power. The body was curvier and the car was significantly longer. The Chaser line-up was largely carried over from the X81 Chaser except the GT Twin Turbo, which was abolished and replaced by the new Tourer V. The top-of-the-line Avante G model received a 220 PS natural aspirated 2JZ-GE, the next evolution of the JZ series of engines after the 1JZ. The Tourer V was equipped with the 1JZ-GTE engine as the most powerful offering. Manual transmissions were optional for all engine offerings, from the 1.8 litre 4S-FE and 2.4 turbodiesel 2L-TE up through the 2.0 1G-FE inline 6 and 1JZ-GE 2.5 inline 6. The Tourer S trim received the non-turbo 1JZ-GE. In September 1992, the Tourer models received equipment upgrades, although not to the level of the Avante G, and their prices were correspondingly higher. With the retirement of the Cressida model after the X81 generation, only the Mark II, Chaser, and Cresta were sold in the Japanese car market. Each of the members of the Cressida family supposedly had different characteristics – the Chaser was geared towards sporty driving, the Cresta towards luxury, and the Mark II was the baseline model. Apart from trim, the cars mostly differed in front and rear end design, with the Cresta also receiving different doors.
In September 1996, the X100 Chaser replaced the X90 Chaser. The product lineup consisted mostly of Avante and Tourer trim, with the Avante as the luxury model (with more interior accessories) and the Tourer as the sporty model (with large 16-inch wheels). Toyota’s VVTi, the company’s version of variable-valve timing, was added to the 1JZ engines; they were also upgraded to have more torque, since they had already reached the agreed voluntary limit set by Japanese Automobile Manufacturer’s Association regarding horsepower. The 1JZ-GTE was powered by a single turbo configuration instead of the twin turbo of its predecessors. New to the lineup was the Avante Four and the Avante Four G Package (basically the Avante 2.5 L with a full-time 4WD system). These cars were only available with a 4-speed electronic control type (ECT) automatic transmission. The Tourer V and the automatic-only Avante G 3.0 L (2JZ) models had the option of electronic control flex lockup attaching 4-speed automatic (intelligent) (ECT-iE) transmission, besides the ECT-E automatic in the lower-end models. In 1997, the lineup remained largely unchanged, although three basic models were added: the XL, Raffine and Tourer 2.0 L. The XL and Raffine models were powered by the 1.8 L 4S-FE engine while the Tourer 2.0 L was powered by the 1G-FE engine, rated at 140 PS (138 bhp) at 5,600 rpm. These models were only sold with the 4-speed electronic control type (ECT) automatic transmission. In 1998, the base Tourer model received the optional manual gearbox and a 4WD option was added to the base Avante models; the Avante Four S Package received a higher special-edition interior. Additionally, the Chaser received a facelift, with the most significant changes to the rear tail lights. Other changes included new fog lights with a slightly redesigned front bar to accommodate them, different interior fabric, a 3-spoke steering wheel instead of 4 spokes, orange gauge lighting instead of white and a grille with 2 horizontal bars instead of 3. The Chaser was discontinued in June 2001. It was replaced with a new model called the Verossa which shared the same model code. The Cresta suffered the same fate, but the Mark II continued for another generation (X110) before it was also discontinued. In 2004, the all-new X120 Mark X was introduced in Japan, incorporating many characteristics of the Chaser and the Cresta. In fact, the aim of the Mark X was to combine the characteristics of the 3 models into one single model.
The Yaris GR is a definite “car of the moment”, following its rave reception in the autumn of 2020. Long waits are in store for those ordering the car at present, but clearly those who got in early have now received their cars and I am seeing more and more of them where enthusiasts are gathered.
The TR6 was the first Triumph for some time not to have been styled by Michelotti. 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.
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 Cerbera, 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.
The T350 cars were made from 2002 to 2006. They were based on the TVR Tamora, and powered by TVR’s Speed Six engine in 3.6 litre form, producing 350 hp. The T350 was available in coupe and targa versions, the coupe version being known as the T350C, and the targa version the T350T. The T350 later formed the base of the TVR Sagaris. Function dominates form evident by the car’s aero-dynamic design which has been created for maximum downforce and minimal drag. The smooth frontal nose and the sharp rear cut tail allows the car to be aerodynamically efficient while reducing drag. The sloping rear line of the car ensures that the car generates minimum lift at high speeds. The car takes many components from the entry level Tamora such as the interior, multi-function display and analogue metres. The optional Sport package adds extra options in the multi-functional display such as lap-times, oil temperature and water temperature. The fastback design of the car gives the customer an advantage of increased boot space. The powerful Speed Six engine is a proven race winning unit and very responsive suiting the car’s aggressive character with a 0 – 100 km/h time of just 4.4 seconds.
This is rare example of the short-lived Royale Coupe. Vauxhall used the Royale name for the Opel Senator and Monza – which were also sold in the UK at the same time – suspecting that they would appeal to people who still wanted to think they were buying British. It fooled no-one and it was not long before the Vauxhall versions were deleted leaving just the Opels. The cars were identical apart from badging. The Monza was planned as a successor for the Commodore Coupé. Whilst the Commodore had been little more than a six cylinder Rekord, and indeed would continue to be so throughout the 80s, Opel planned a larger model to sit above it in the range, to replace the old Admrial and Diplomat saloons. The result was the large Senator saloon and Monza coupe, first seen in the autumn of 1977. The Monza would allow Opel to compete, so they thought with the Mercedes W126 coupé and the BMW 6 series. But what Opel hadn’t realised was that the old ways were too old. The car was big without being hugely luxurious. This did not mean that the Monza was not comfortable. There was plenty of space inside the car, and the enormous seats left you with a feeling of sitting in a much more upmarket brand than Opel. But the internals consisted of parts mainly borrowed from the Rekord, which meant cloth seats, and lots and lots of plastic on the dashboard and inner doors. Even the rev counter and the tachometer was taken directly from the Rekord E models, so that when you sat in one, the feeling was not that you drove a Monza, but more that you where driving a Rekord. If that wasn’t enough trouble for Opel, they also experienced gearbox problems. The engine range for the Monza A1 was the 3.0S, the 2.8S, the newly developed 3.0E and later the 2.5E (the 3.0 had 180 bhp and 248 Nm with fuel injection). The 3-speed Borg Warner automatic transmission from the Commodore range needed to be modified to cope with the new and improved power outputs. Opel’s own 4-speed manual gearboxes were not up to the job and, instead of putting in a more modern 5-speed manual gearbox, Opel turned to gearbox and transmission producer Getrag, and installed the Getrag 264 4-speed manual gearbox in the early Monzas. But when people bought a big, luxurious coupé they wanted modern products as well, and Opel obliged, as soon the Getrag 5-speed manual gearboxes, replaced the old 4-speed gearbox. The Monza, however, was good to drive. It handled quite well, thanks to the newly developed MacPherson strut system for the front of the car, as used on the Rekord E1 and E2, and the new independent rear suspension gave the car soft, yet firm and capable, driving characteristics and excellent stability for such a big car. When Opel realised that the public disliked the Rekord interior, they introduced the “C” package. The “C” cars where fitted with extra instruments (oil pressure, voltmeter etc.) and the interior was either red, dark blue, green, or brown. As all parts of the interior were coloured, it seemed more luxurious than it did previously. The A1 also came with a sports package or “S” package. The cars all where marked as “S” models on the front wings, and came with 15-inch Ronal alloy wheels, a 45% limited slip differential. In 1982, the Monza, Rekord and Senator all got a face-lift and was named the A2 (E2 for the Rekord). The A2 looked similar to the A1 overall but with some changes to the front end. The headlights increased in size, and the front looked more streamlined than that of the A1. Also the chrome parts like bumpers were changed to a matt black finish, or with plastic parts. The bumpers were now made of plastic and made the Monza take look less like the Manta, despite the huge size difference. The rear lights were the same and the orange front indicators was now with white glass, giving a much more modern look to the car. Overall the update was regarded as successful although retrospectively some of the purity of the lines of the early car were lost. At a time of rising fuel prices, the need for fuel efficiency was becoming paramount, and Opel decided to change the engine specifications of the Monza. This meant introducing both the straight 4 cylinder CIH 2.0E and the 2.2E engines from the Rekord E2. However, as the Monza weighed almost 1400 kg, and the 115 bhp of the two engines, the cars were underpowered and thus unpopular. The 2.5E was given a new Bosch injection system so between 136 and 140 bhp was available. The 2.8S was taken out of production. The 3.0E engine stayed the top of the range. The 3.0E was given an upgraded Bosch fuel injection and gained a small improvement in consumption. The last incarnation of the Monza was the GSE edition in 1983; basically the A2 car, but a high-specification model which had Recaro sports seats, digital LCD instruments, and an enhanced all-black interior. It also featured a large rear spoiler on the boot. Also GS/E models are equipped with a 40% limited slip differential, an addition that had to be ordered separately on earlier 3,0E cars when purchasing. By the time the Senator was updated to the new Senator B, in 1987 and the Monza cancelled, 43,812 Monzas had been built. There was no direct replacement.
Final car to feature, alphabetically, was this rather nice example of the classic Beetle.
No question, this was an excellent event in a great setting. The time spent on selecting cars from those who applied – and believe me, this adds massively to the organiser’s workload! – resulted in tremendous variety and avoided an excess of any individual model, and we all know which cars – nice though they are – these would have been. It is a shame that this particular venue will become off limits, as it really is a great place to host a meet like this, but there are plenty of other options in the area and I know that these will contribute to some great Queen Square events in the rest of 2022. I look forward to attending as many of them as the diary permits.