动力传动系统
汽车工程
涡轮增压器
汽车工业
背景(考古学)
制动比油耗
内燃机
燃烧
热电联产
汽油机
工程类
燃料效率
功率(物理)
扭矩
发电
机械工程
涡轮机
古生物学
化学
有机化学
航空航天工程
物理
热力学
生物
量子力学
作者
Ilya Kolmanovsky,Michiel Van Nieuwstadt,Jing Sun
标识
DOI:10.1109/cca.1999.807774
摘要
Stringent emission regulations combined with customer demands for improved fuel economy and performance have forced the automotive industry to consider more advanced powertrain configurations than standard port-fuel injected gasoline engines. Modern state-of-the-art powertrain systems may combine several power sources (internal combustion engines, electric motors, fuel cells, etc.) and various exhaust aftertreatment devices (catalytic converters, lean NOx traps, particulate filters, etc.) in addition to conventional engine subsystems such as turbochargers and exhaust gas recirculation. The determination of the way in which these systems need to be operated to meet driver's torque demand, performance and fuel economy expectations while satisfying federal emission regulations is a complex and a multiobjective optimal control problem. This paper reviews some of the approaches to this problem in the context of two case studies.
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