涡轮增压、电气化与增压一体化系统(ITES)控制开发与车辆行驶循环分析

Satyum Joshi, E. Koehler, M. Dahodwala, M. Franke, J. Naber
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引用次数: 4

摘要

综合涡轮复合、电气化和增压(ITES)技术是一种旨在降低单个发动机燃油消耗的综合技术。ITES系统通过采用行星齿轮组,优化管理涡轮复合涡轮、二次压缩机、48V电动机/发电机和发动机之间的功率流。与这些单独技术的独立实现相比,统一的方法大大降低了费用和空间要求,同时提高了整体系统效率。作为先前开发工作的一部分,通过发动机驱动循环模拟验证了ITES系统的功能,主要利用48V电机发电单元进行动力分馏涡轮复合、动力分馏增压和发动机扭矩辅助。在最新的开发阶段,通过车辆驾驶循环仿真,在车辆级模型上评估了ITES系统的功能。首先,为ITES系统开发了一种监控策略,以促进使用ITES电机/发电机组的启停、再生制动和发动机扭矩辅助功能。接下来,为应用了ITES单元的小型化发动机开发的GT-Suite发动机模型,以及适当的控制策略,被集成到6/7级职业车辆1D模型中。然后对该模型进行了温室气体第二阶段ARB循环的模拟,并将燃油经济性与仅使用基线发动机配置的车辆模型进行了比较。最后,对电池容量进行优化,使车辆燃油经济性和电池寿命最大化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Controls Development and Vehicle Drive Cycle Analysis of Integrated Turbocompounding, Electrification and Supercharging System (ITES)
Integrated Turbocompounding, Electrification and Supercharging (ITES) is a novel approach for integrated implementation of technologies aimed at reduction of fuel consumption in a single unit. The ITES system optimally manages the power flow between the turbocompound turbine, secondary compressor, 48V electric motor/generator and engine by employing a planetary gear set. The unified approach delivers a substantial reduction in both expense and space claim while improving the overall system efficiency in comparison to the independent implementation of each of these individual technologies. As part of a previous development effort the ITES system functionality was validated through engine drive cycle simulation primarily utilizing the 48V motor generator unit for power split turbocompounding, power split supercharging and engine torque assist. In this latest development phase, the functionality of ITES system has been evaluated on a vehicle level model through a vehicle drive cycle simulation. First, a supervisory control strategy was developed for the ITES system to facilitate start-stop, regenerative braking and engine torque assist functionality using the ITES motor/generator unit. Next, a GT-Suite engine model developed for a downsized engine with the ITES unit applied, along with an appropriate control strategy, was integrated in to a class 6/7 vocational vehicle 1D model. The model was then simulated over the GHG Phase 2 ARB cycle and the fuel economy was compared to that of vehicle model with only the baseline engine configuration. Finally, the battery capacity was optimized to maximize vehicle fuel economy and battery life.
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