Thermal design for heat transfer enhancement in battery chargers

电池充电器传热增强的热设计

• 批准号: 478717-2015
• 负责人: Bahrami, Majid
• 金额: $ 1.82万
• 依托单位: Simon Fraser University
• 依托单位国家: 加拿大
• 项目类别: Engage Grants Program
• 财政年份: 2015
• 资助国家: 加拿大
• 起止时间: 2015-01-01 至 2016-12-31
• 项目状态: 已结题
• 来源: https://www.nserc-crsng.gc.ca/ase-oro/Details-Detailles_eng.asp?id=579741
• 关键词: Thermal; design; heat; transfer; enhancement

The focus of the power electronic industry is shifting toward developing more efficient power devices. This combined with the ever-increasing desire in the industry to develop more compact systems increases the power density, thermal load frequency and the overall nature of the heat generated in these devices. Consequently, one key factor limiting, reliability and higher performance of such power devices is effective heat removal to maintain the device below its maximum allowable temperature, while reducing (or eliminating) the parasitic power required for the cooling solution. Such challenges give rise to an array of interesting and fascinating problems in devising new efficient cooling strategies to meet the demands from the industry. The proposed Engage project aims at a systematic approach to developing next-generation cooling solutions for Delta-Q battery featuring heat-pipes, phase change materials and naturally cooled heatsinks that can significantly improve system capacity, reliability, reduce the noise, eliminate parasitic power and operation cost for Delta-Q battery chargers. The proposed research project will establish a collaborative relationship between Dr. Bahrami at SFU and Delta-Q, Burnaby, BC. Delta-Q provides power management and power conversion solutions for electric drive vehicles and industrial equipment. In particular, Delta-Q specializes in the development and production of battery chargers, and has shipped over one million chargers for electric vehicle applications such as golf cars, forklifts, and aerial work platforms worldwide. Delta-Q's support includes providing engineering insight and battery charger samples that will be an invaluable asset toward achieving the objectives of this project. This study will benefit Delta-Q by providing detailed analysis and also initiating the development of new thermal solutions for their products. The proposed research is anticipated to result in significant economic gains for BC and Canada since the targeted technology is applicable to an emerging and strategic market. The innovations in this area will help reduce Canada's carbon footprint and transform the energy sector.

电力电子行业的重点正在转向开发更高效的功率器件。这 结合工业上对开发更紧凑系统的不断增长的需求 密度、热负荷频率和这些器件中产生的热量的总体性质。因此，一 限制这种功率器件的可靠性和更高性能的关键因素是有效的散热， 保持器件低于其最大允许温度，同时减少（或消除）寄生 冷却解决方案所需的功率。这些挑战引发了一系列有趣而迷人的 设计新的高效冷却策略以满足行业需求的问题。 拟议的Engage项目旨在采用系统的方法开发下一代冷却解决方案， Delta-Q电池采用热管、相变材料和自然冷却散热器， 显著提高系统容量、可靠性、降低噪声、消除寄生功率和运行成本 Delta-Q电池充电器 拟议的研究项目将在SFU的Bahrami博士和 Delta-Q，Burnaby，BC. Delta-Q为电力驱动提供电源管理和电源转换解决方案 车辆和工业设备。特别是，Delta-Q专门从事开发和生产 电池充电器，并已为高尔夫汽车等电动汽车应用发货超过100万个充电器， 叉车和高空作业平台。Delta-Q的支持包括提供工程见解， 电池充电器样本将成为实现本项目目标的宝贵资产。这 这项研究将通过提供详细的分析和启动新的热动力开发， 为他们的产品提供解决方案。预计拟议的研究将为不列颠哥伦比亚省带来重大的经济收益 和加拿大，因为目标技术适用于新兴的战略市场。的创新 这一领域将有助于减少加拿大的碳足迹，并改变能源部门。