Contents:
System Description Key and Display Description Guide through the Instruction Manual Basic Operation Automatic Operation Remote Usage RPM Control Mode Basic Operation Automatic Operation Remote Usage Custom RPM Remote Usage Automatic Operation - Custom RPM PTO control Mode Basic Operation PTO Lowe Limit (Engagement) PTO Upper Limit (Overspeed) PTO Linked woth RPM Control PTO Linked with Custom RPM Control Programming the ACPM Module Description and Default Settings Main Programming Mode RPM Programming Mode Installation Remote Switches Wiring Harness Pin-Out Diagnostics and Troubleshooting Functional Summary Specifications Cusom Input Voltage to Output Speed Module Harness Connectors Engine Continue to download »
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The Development of the Audi 3.6-litre V8 Twin Turbo FSI Engine for Le Mans by Ulrich Baretzky, AUDI AG Within a period of just 15 months, the race engine department of Audi Sport designed and developed a homogeneous direct-injection engine based on the successful engine of 1999 and 2000. Furthermore, all targets such as mixture homogeneity, power output and adaptation to the car’s requirements were successfully achieved within six months The new engines went on to power the two Audi R8 race cars to an impressive victory in the Le Mans 24-hour race in June 2001. Le Mans 24-Hour Race The Le Mans 24-hour race has considerably changed its character in recent decades. The main reasons were the modifications to the rules and track profile as well as competition between the big manufacturers. The original 
ABSTRACT In an age when there is growing tension between customer expectations of high engine performance, low fuel consumption and compliance with the legal requirements on the emission of airborne pollution, the ability of a vehicle to meet the most stringent emission standards is becoming an increasingly important aspect of its market appeal. The 1.8 l, 5-valve turbo engine which Audi launched in 1994 represented an emissions concept which, thanks to its innovative close-coupled catalytic converter, provided an ideal basis for further development to an engine meeting the US ULEV emission standard, as the current engine does [1]. Its configuration as a ULEV concept necessitated the blanket optimisation of all components which influence the exhaust emissions. The pistons and injectors were improved in 
