芝加哥的IIT插件转换项目

P. Sveum, R. Kizilel, M. Khader, S. Al-Hallaj
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引用次数: 10

摘要

为了应对全球变暖问题和不断上涨的油价,世界各地都认识到大幅提高交通工具效率的必要性。混合动力电动汽车(HEV)是第一个提出的降低能源消耗的解决方案,但还需要进行更多的改进。混合动力汽车的优点包括更小的内燃机(ICE),低速时电动机的固有效率,以及制动能量的再利用,这使得燃油效率提高了-25%,这是一个良好的开端,但距离解决能源危机还有很长的路要走。汽车动力系统的长期目标是零排放和零使用碳氢化合物燃料。混合动力技术成功演示的意义在于开发合适的电动机、优化和控制系统、再生制动系统,以及识别现有电池技术的局限性。这些好处可以通过增加车辆的能量存储容量来扩展,电池的容量要大一个数量级,并且额外的能量来自电网,理想情况下是来自非碳源。理论研究表明,有了这样的系统,大多数美国通勤者可以避免每天使用汽油。从芝加哥市获得的福特Escape混合动力车被用作这一概念的测试平台。最初的目标是使用锂离子电池技术将每加仑25英里的预期里程提高一倍。在确定了车辆的电力需求后,他们提出、设计并安装了一种电池,使用控制器来调节电池组输出到福特现有的电机驱动系统。初步结果显示,概念车的全电动续航里程和燃油里程得到了改善。由IIT许可方All Cell Technologies LLC开发的专利热管理技术允许在这种要求苛刻的应用中使用最新的大功率锂离子电池。需要更多的研究来进一步提高性能,简化用户交互,量化效益,即油耗和减少排放。许多创新者在电机、控制系统、电池和热管理方面取得了长足的进步,使零排放和零化石燃料使用的梦想成为下一代汽车的合理目标。
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IIT Plug-in Conversion Project with the City of Chicago
The necessity to significantly enhance efficiency of transportation vehicles in response to global warming issues and to ever-increasing oil prices is recognized around the world. Hybrid electric vehicles (HEV's) were the first proposed solution to reduce energy consumption, however much additional improvement is necessary. Benefits of HEV's include a smaller internal combustion engine (ICE), the inherent efficiency of the electric motor at low speeds, and the reuse of the braking energy which have generated fuel efficiency improvements of -25%, a good start but a long way from solving the energy crisis. The long-term goal for automotive power systems is zero emissions and zero use of hydrocarbon-based fuels. The significance of successful demonstration of hybrid technology is the development of appropriate electric motors, optimization and control systems, regenerative braking systems, and identification of the limits of existing battery technology. These benefits can be extended by increasing the vehicle's energy storage capacity with batteries an order of magnitude larger and with the additional energy coming from the electric grid, ideally generated from non-carbon sources. Theoretical studies have suggested that a majority of American commuters could avoid the daily use of gasoline with such a system. A Ford Escape Hybrid was obtained from the City of Chicago to be used as a test platform for this concept. Initial goal was to double the expected 25 miles per gallon using lithium ion battery technology. After characterizing the vehicle's electric power needs, a battery was proposed, designed, and installed using a controller to regulate the pack output into Ford's existing motor drive system. Initial results show proof-of-concept via improved all-electric range and gas mileage. The patented thermal management technology developed by IIT Licensee All Cell Technologies LLC allowed the use of latest high-power lithium ion cells in this demanding application. More study is needed to further improve the performance, simplify user interaction, and quantify benefits, i.e. gas mileage and reduced emissions. Sufficient progress in motors, control systems, batteries, and thermal management has been achieved by a number of innovators to make the dream of zero emissions and zero fossil fuel usage a reasonable target for the next generation of automobiles.
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