首页> 外文期刊>Journal of Energy Resources Technology >Models and Analysis of the Pressure Field for a Hybrid Electric Vehicle With a Fuel Vapor-Containment System in a Refueling Process
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Models and Analysis of the Pressure Field for a Hybrid Electric Vehicle With a Fuel Vapor-Containment System in a Refueling Process

机译:加油过程中带有燃油蒸气控制系统的混合动力电动汽车压力场模型与分析

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摘要

In order to ensure and improve the performance of the fuel vapor-containment system (FVS) on a hybrid electric vehicle (HEV), the vapor pressure field of the evaporative (EVAP) system in the refueling process was analyzed. Numerical models were established to describe the pressure change in the EVAP system. Based on these numerical models, the influences of refueling speed, filler pipe diameter, vent pipe diameter, and fuel vapor-containment valve (FVV) port diameter on pressure change were discussed. The numerical models and the influences of aforementioned effects were validated by experiments. Simulation and experimental results indicated that the vapor pressure field in the EVAP system is more susceptible to the change of refueling speed and FVV port diameter. If the refueling speed increased and the FVV port diameter decreased, the vapor pressure in the EVAP system strongly fluctuated. Furthermore, results also show that the FVV port diameter should be as large as possible but less than 20 mm, while refueling speed should be 50 l/min. The filler pipe diameter can be chosen in the range of 23-28 mm.
机译:为了确保和改善混合动力电动汽车(HEV)上的燃油蒸气抑制系统(FVS)的性能,分析了加油过程中蒸发(EVAP)系统的蒸气压场。建立了描述EVAP系统中压力变化的数值模型。在这些数值模型的基础上,讨论了加油速度,加油管直径,排气管直径和燃油蒸气抑制阀(FVV)端口直径对压力变化的影响。通过实验验证了数值模型和上述影响的影响。仿真和实验结果表明,EVAP系统中的蒸气压场更容易受到加油速度和FVV口径变化的影响。如果加油速度增加而FVV端口直径减小,则EVAP系统中的蒸汽压力会剧烈波动。此外,结果还表明,FVV端口直径应尽可能大,但应小于20 mm,而加油速度应为50 l / min。加油管直径可以在23-28 mm的范围内选择。

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