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| The worlds first mass-production car to offer an all-aluminum,
monocoque body. |
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The team spent an entire month at the Suzuka
Circuit in the early stages of D-development, where they conducted numerous evaluations
using their test car. Then in February 1989, the team had an opportunity to ask
famed F-1 driver, the late Ayrton Sennawho had come to Japan in order to
test a McLaren F-1 machineto drive their car.
Im not sure I can really give you appropriate advice on a mass-production
car, but I feel its a little fragile, said Senna, referring to the
cars apparent lack of rigidity. And even though the car was designed for
a level of rigidity equaling that of a Porsche or Ferrari, Senna was able to sense
slight differences that would have been well beyond range of the typical driver.
But based on that comment, the team raised its objectives for rigidity in April,
turning again to the test car in order to ensure their target was met.
The chosen test site was to be West Germanys famed Nurburgring high-speed
race course. It was a memorable location for Honda, the site of the companys
F-1 debut. The circuit had an overall length of 20.8 km, over 200 blind corners,
and a 300-meter change in elevation. It was an extremely difficult circuit for
cars and drivers alike, for whom extreme skills were needed to maneuver through
steep ascending and descending sections of track lined with dense plantings of
trees. So, it was believed that the course would reveal problems they couldnt
see in Japan. To them there was no better environment in which to test what they
hoped would become the worlds finest sportscar.
Thanks to the assistance of Honda R&D Europe (HRE), the team was able to secure
an office and garage in Müllenbach, a town located just two kilometers from the
circuit. With their new workshop set up, it was to be the first time a Japanese
automaker would conduct long-term testing at an overseas location.
The course offered an immediate venue for the series of tests the team had devised
in order to increase their cars rigidity. They knew that on an extremely
difficult course such as Nurburgring even a slight delay in the vehicles
response to input would obliterate the marriage of interaction between car and
driver, and thus rob the latter of the ability to accelerate appropriately. And
what they learned was that the bodys poor rigidity had everything to do
with the failure of that relationship.
It was an iron-clad rule for any overseas test that in the event of an issue that
couldnt be fully conveyed to the staff in Japan, the team on-site must tackle
the issue independently. So, in West Germany the design engineers in charge of
the vehicles various components took turns sitting in the front passenger
seat, evaluating the cars performance along with the test driver. If any
problem was found, a solution would be devised on the spot. It was a distinct
departure from the norm, but the team knew it was the only way to build the worlds
best car.
The test data taken on site was immediately sent back to the R&D Center in
Japan, where the numbers were fed into a computer for analysis. It was in this
stage that the optimal shape was determined in order to maximize rigidity and
minimize weight.
Accordingly, the cars rigidity was increased by 50 percent as compared to
the figure in place immediately before the West German tests. And so, after eight
long months of effort, they had at last achieved the levels of dynamic performance
and comfort demanded for a world-class sportscar. The team had arrived at the
consummate integration between man and machine.
The 81st Chicago Auto Show held in February 1989 saw throngs of media and consumers
surrounding a bright-red sportscar--Hondas new NS-X (Note: the NS-X was
actually introduced as an Acura brand car, the upscale sales channel
in the U.S.). The development code name, NS-X represented new, sportscar
and unknown world, X being the mathematical symbol for an unknown
value. It was the prototype for a new offering that Honda believed would captivate
driving enthusiasts around the world. |