Modelling and Testing of a Turbo-generator System for Exhaust Gas Energy Recovery

M Michon,S D Calverley,R E Clark, D Howe, J D A Chambers, P A Sykes, P G Dickinson,M A Mcclelland, G Johnstone,Roger D Quinn, Gregory J E Morris

Arlington, TX(2007)

Cited 20|Views9
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Abstract
In order to meet increasingly arduous CO2 emission targets, various 'more-electric' technologies are emerging. However, their adoption will result in a significant increase in the peak electrical load. An attractive solution to meeting the electrical power requirement is to generate electrical energy from the exhaust gas by means of a turbo-generator system, consisting of a turbine-driven, high-speed switched reluctance generator and an energy storage/power buffer. An energy management strategy is implemented to control the highly transient power flows to the various loads and the energy storage device, which may be either a battery or a super-capacitor bank, or a combination of both. Such a system represents a significant improvement over current vehicle electrical architectures in terms of electrical power availability. This paper describes the development and testing of a prototype exhaust gas energy recovery system, operating at a nominal voltage of 14.6 V.
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Key words
air pollution control,capacitor storage,energy management systems,exhaust systems,load flow control,machine control,supercapacitors,transients,turbogenerators,battery-supercapacitor bank,electrical energy generation,energy management strategy,energy storage device,exhaust gas energy recovery,transient power flow control,turbo-generator system,vehicle electrical architecture,voltage 14.6 v,switched reluctance,power flow,energy storage,energy management,energy recovery,electric power
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