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Open innovation, collaboration, personalization and lean customization are quickly becoming best practices and competitive advantages in the new automotive normal. Today’s vehicles are not just a collection of 5,000 loosely integrated parts. They are an interdependent system of systems connecting body, chassis, interior and powertrain systems through more than 150 controllers and 10 million lines of code and embedded software. Automotive vehicle systems engineering is in some cases very close to rocket science. Both NHTSA and NASA played a critical role in the electronics systems and electromagnetic interference analysis of the unintended acceleration of vehicles produced by Toyota. These studies reinforced confidence in the safety and reliability of the advanced technologies of Toyota vehicles. |
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Aftermarket companies and dealers can also help take the complexity out of assembly plants by collaborating with OEMs to develop product plans and vehicle architectures with cost-effective, simplified bills of material that can be profitably customized with factory and aftermarket-branded parts and accessories at dealers, customization centers and independent installers. If you are truly committed to competing and growing in the new automotive normal, designing for lean customization is a five-star product-development process. It’s a two-star process if you are simply involved.
SEMA’s innovative partnership with the Clemson University International Center for Automotive Research (CU-ICAR) is an excellent example of open innovation and generative thinking in action. SEMA and CU-ICAR have teamed up to offer SEMA members access to world-class resources, including a 580 horsepower engine dynamometer test cell, a dual-column full-vehicle coordinate measuring machine, a seven-post road simulator in an environmental chamber, an electromagnetic compatibility chamber and a 500-horsepower four-wheel chassis dynamometer in an anechoic chamber. |