2003 Jaguar X-type Base Sedan 4-door 2.5l on 2040-cars

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Jaguar may join the FWD, small-car parade

Was it right for Chevrolet to detune the 1975 Corvette's base engine to 165 horsepower? Was Aston Martin wrong to make the Toyota iQ-based Cygnet? Is BMW crazy to be testing the new 1 Series with three-cylinder engines and front-wheel drive? It seems now, just as in the 1970s and 1980s, that emissions regulations and social considerations are driving some automakers to adopt unbefitting practices to maintain acceptance in the eyes of governments and consumers. Jaguar has jumped on the bandwagon, and is considering development of small, frugal, front-wheel-drive cars to help lower Jaguar Land Rover's average vehicle CO2 levels in light of tightening European emissions regulations, Autocar reports.
By 2020, the European Union expects the model range of every manufacturer to average 95 grams per kilometer, which is a new law passed by the European Parliament in April. Manufacturers who make more than 300,000 vehicles per year must meet these targets, and JLR is expected to be producing up to 700,000 vehicles per year by then. CO2 regulations after 2020 will only get stricter, as EU politicians already are talking about lowering CO2 levels to between 68 g/km and 78 g/km. (To put that in perspective, Autocar posits that driving a fully charged electric vehicle in Europe produces about 75 g/km when factoring in the power-generation infrastructure.)
Jaguar has some choices here, but so far they all have drawbacks. It could develop a new, compact chassis architecture for a line of compact vehicles, but the investment required for such a project could be prohibitively expensive. Jaguar has been looking into using the Land Rover Evoque platform for a small SUV, Autocar reports, but Land Rover brand manager John Edwards raises issue with such a plan, saying it may not be financially feasible.

Watch 2 clay modelers build Jaguar E-Types out of plasticine

Ah, quarantine time. When put to good use, it can be a time of ingenuity and creativity — precious time given back to us, in a sense. So here are two chaps, Joe and Lucas, who work at JaguarÂ’s Design Studio, stuck at home, ready to make a couple classic E-Type models out of some plasticine. This content is hosted by a third party. To view it, please update your privacy preferences. Manage Settings. ItÂ’s not exactly an instructional video, since itÂ’s mostly sped-up time lapse footage with no instructional explainers. But itÂ’s meant to show us that anyone can do it. The tools they use to shape the plasticine are common household items: a rolling pin or similar cylindrical items — they use a can of hair spray — to roll out the material, a plastic spoon, potato peeler, a knife, cardboard, tinfoil and a glass of water to apply to the plasticine and make a smooth finish. As for plasticine itself, itÂ’s a modeling clay thatÂ’s similar to Play-doh except that it is oil-based, where the latter is made of flour and water. (If youÂ’re interested, hereÂ’s a video that shows you how to convert Play-doh into plasticine.) So weÂ’re shown how the designers shape the signature fender bulges, greenhouse, head- and taillights and wheels. But it frankly all goes by in a blur, and we suspect that most of us amateurs would be left with something that looks more like an undefined blog. Still, itÂ’s fun to watch. Built between 1961 and 1975, the E-Type two-seat roadster is considered one of the major icons of automotive design and part of the AUTObodies collection at the Museum of Modern Art in New York. Design/Style Jaguar Coupe Classics

Driving Jaguar's Continuation Lightweight E-Type

Something has happened to sports cars over the past 15-20 years. While reaching ever-higher levels of quantitative dominance the driving experience continues to become more sterile. Stability control, torque vectoring, variable electronic steering racks, lightning-quick dual-clutch automatic transmissions – all these make it easier to harness more power and drive faster than ever before. And yet too often it feels like something is missing. There is a growing divide between the capabilities of the modern performance car and the driver's sense of connection to the experience. In an era like the one we're in now, the Jaguar Lightweight E-Type hits you like a slap in the face. The story of the Lightweight E-Type goes back to 1963, when Jaguar set aside eighteen chassis numbers for a run of "Special GT E-Type" cars. These were factory-built racers with aluminum bodies, powered by the aluminum-block, 3.8-liter inline-six found in Jaguar's C- and D-Type LeMans racecars of the 1950s. Of the eighteen cars slated for production, only twelve were built and delivered to customers in 1964. For the next fifty years, those last six chassis numbers lay dormant, until their rediscovery a couple of years ago in a book in Jaguar's archives. In an era like the one we're in now, the Jaguar Lightweight E-Type hits you like a slap in the face. Jaguar Heritage, a section of Jaguar Land Rover's new Special Vehicle Operations (SVO) division, took on the task of researching the original Lightweight E-Types and developing the methods to create new ones. Every aspect of the continuation Lightweight E-Type, from the development of the tools and molds used to build the cars, to the hand-craftsmanship, reflects doing things the hard way. They may not build them like they used to, but with these six special E-Types, Jaguar comes awfuly close, if not better. Working alongside the design team, Jaguar Heritage made a CAD scan of one side of an original Lightweight E-Type body. That scan was flipped to create a full car's worth of measurements. That ensured greater symmetry and better fit than on the original Lightweight E-Types (which could see five to ten millimeter variance, left-to-right). The scan was also used to perfect the frame, while Jaguar looked through notes in its crash repair books to reverse-engineer the Lightweight E-Type's suspension. The team repurposed a lot of existing tooling for the continuation cars, and developed the rest from analysis of the CAD scan.