专题讲座
本届会议将开设17场中英文专题讲座，就本领域的热点问题，新理论、新技术、新成果及新工艺进行系统讲解，每场专题讲座3.5小时纽伦堡直播入口。（更多专题讲座信息将在会议官网及时更新）
11月7日 周五
8:30-12:00
讲座摘要：
随着我国新型电力系统加速构建，新能源高占比电网的安全稳定问题日益凸显，构网型变流器正逐步成为支撑系统稳定运行的重要装备。本讲座聚焦于构网型变流器功能要求、稳定控制与继电保护适应性。具体分为以下几个部分：
1．讲述构网型变流器概念与原理，基于电力系统视角梳理现行标准中对变流器构网能力的相关要求。
2．讲述构网型变流器大扰动穿越这一重要工况下的多重控制目标及其带来的设计约束，在此基础上介绍团队提出的构网型变流器大扰动穿越协同优化控制算法。
3．讲述构网型变流器接入对现有交流继电保护可靠性的影响，在此基础上介绍团队提出的适配现有交流继电保护的构网控制算法。
讲座人介绍：
王雄飞，清华大学兴华讲席教授（长聘），IEEE Fellow，国家高层次人才。主要从事电力电子与电力系统交叉领域的研究，主持欧盟、丹麦和瑞典政府科学基金项目、企业科技攻关与咨询项目40余项，主要合作企业包括德国、荷兰、比利时和丹麦的输电网公司、ABB、Vestas、英飞凌、日立能源、沃旭能源（Ørsted）、壳牌、华为和南瑞继保等，多项成果和专利用于新能源发电、构网型储能系统、柔性交直流输电装备，开发并商业化电力电子装备阻抗测量与稳定性分析软件，该软件已被全球多家电网公司和高校购买使用。目前担任行业顶级期刊IEEE Transactions on Power Electronics 主编、中国电机工程学会 CSEE Journal of Power and Energy Systems编委，IEEE电力电子学会电力电子化电力系统专委会主席、IEEE 现代能源电网高功率电子国际技术路线图主席，中国科协海智计划特聘专家，德国、瑞士、挪威、英国、智利、爱尔兰等国家科学基金项目评审专家。先后获得IEEE期刊与会议论文奖11 项，2016年入选丹麦奥尔堡大学战略人才管理计划， 2018年IEEE电力电子学会 Richard M. Bass杰出青年电力电子工程师奖，2019年IEEE电力电子协会可再生能源系统技术成就奖，2022年日本Isao Takahashi电力电子奖，2019-2021年入选科瑞唯安全球高被引学者。
吴恒，东南大学青年首席教授，国家高层次青年人才，以第一/通讯作者发表IEEE期刊论文二十余篇，发表论文总引用量5100余次，5篇一作代表性论文总被引1800余次，其中一篇获IEEE Trans. on Power Electronics Prize Paper Award；获教育部自然科学奖一等奖；从2019年起每年均入选斯坦福大学全球前2%顶尖科学家榜单；担任“HVDC与FACTS的频域建模与动态分析”IEEE工作组主席；加拿大、瑞典、以色列国家科学基金评审专家；IEEE Transactions on Power Electronics副编辑(Associate Editor)；负责开发了电力电子变换器阻抗测量与稳定性分析软件，并被全球多家电网公司和高校付费购买使用。吴博士近期的研究聚焦于构网型变流器的建模与稳定性分析，担任两个聚焦构网型变流器的Cigre工作组JWG B4/C4.93、WG B4.101专家组子工作组负责人（subgroup leader）；参与了英国电网构网型变流器标准实施细则制订。主持或参与了多项与南瑞继保、阳光电源、丹麦电网(Energinet)、比利时电网(Elia group)、荷兰皇家壳牌集团、挪威船级社等多家公司合作的关于构网型变流器系统建模、稳定性分析与控制算法设计的相关研究项目。
蔡旭上海交通大学特聘教授，上海交通大学
张宇博士后，上海交通大学
吴西奇博士后，上海交通大学
地点：18号馆2层CC204A
讲座摘要：
新能源缺少暂态支撑能力，其快速发展给电网安全稳定带来重大隐患，已成为制约新能源发展的“卡脖子”问题，亟需具备暂态支撑能力的主体新能源电源诞生。主力电源型新能源场站以风/光新能源场站整体为对象，包含构网型发电单元、10%的直挂35kV构网型短时储能、场站监测与稳定控制系统，其暂态特性(含一次调频)总体达到或超越同步发电机电气特性。主要包含风电机组/光伏自同步电压源构建技术、千台级电压源集群稳定控制技术、35kV高压直挂储能及其构网控制技术。
讲座人介绍：
蔡旭，上海交通大学特聘教授，能源研究院副院长，国家能源海上风电技术装备研发中心主任，国家自然科学基金重点项目负责人，国家重点研发计划项目负责人。中国电工技术学会和中国动力工程学会新能源发电（装备）专委会主任，上海电源学会理事长，IEEE PELS分技术委员会主席，国务院特殊津贴专家。研发了中国首台套商用海上风电变流器，发明了高压直挂储能系统，提出并首次示范了主力电源型风电场/光伏电站技术。发表论文500余篇，出版专著5部，获发明专利160余项，获省部级科技一等奖6项，入选全球前2%顶尖科学家名单。
张宇，上海交通大学电气工程学院博士后。研究方向为新能源并网系统的暂态同步特性分析、构网型控制的暂态特性分析及优化。以第一作者发表SCI/EI论文12篇，累计发表论文20余篇。2022和2023连续两年均获评《中国电机工程学报》“高影响力论文”、“可再生能源并网技术栏目最受关注论文TOP20”两项奖励。获受理发明专利14项，已获授权专利两项，作为技术骨干参与国家自然基金重点项目、国家重点研发计划项目，国网冀北电科院、南网电科院、宁德时代等横向项目十余项。
吴西奇，上海交通大学电气工程学院博士后，入选国家资助博士后研究人员计划。研究方向为大容量电化学储能技术、新能源发电功率变换技术、构网技术和高效率高功率密度电能转换技术等。累计发表SCI/EI论文20余篇，授权发明专利15项（其中 2 项专利得到科技成果转化，成果转化收益达60万元），作为技术骨干参研多个高压直挂储能工程的装备研制和场站调试工作，将多项理论创新成果实现了工程落地。曾获国家奖学金、上海交通大学十大科技进展、第二届能源电子产业创新大赛新型储能产品赛道一等奖等荣誉。
李武华教授，浙江大学
沈捷董事长，臻驱科技
姚文熙副教授，浙江大学
宋志豪博士后，臻驱科技
地点：18号馆1层CC105C
讲座摘要：
电机是实现高效机电能量转换的核心装备，耗电量巨大，电力驱动系统高效运行是应对能源危机和气候变化的重要手段。为满足系统增容、提效、降本的需求，同时避免功率器件过热失效，低载波比运行是大功率或高转速电力驱动系统的典型工况，但这会引入显著的调控延时，导致系统精确建模难、控制设计难、抗扰性能差、观测精度低，严重影响系统稳定高效运行。
本报告首先针对永磁同步电机建立复矢量模型，并用双边频域建模方法量化分析低载波比工况下电流控制系统的稳定裕度、动态特性以及抗扰性能。在此基础上，结合内模原理，设计复矢量PI控制器，稳定性好，鲁棒性强；并结合复数有源阻尼技术，提升抗扰性能。此外，还分析了调控延时对反电动势观测精度的影响，并基于离散域电机模型，设计高精度的无速度传感器方案，最终实现载波比低至1的运行。最后，本报告介绍了低载波比控制技术在新能源车电机控制系统中的应用和进展。
本报告由浙江大学的教师团队和臻驱科技的研发团队主讲，主要内容来自于校企合作项目，相关成果部分导入量产车型。
讲座人介绍：
李武华，浙江大学电气工程学院教授。主要研究方向为大功率电力电子技术及其应用，包括大容量功率器件的特性建模、高性能变流器的拓扑理论、复杂电力电子系统的运行控制等。负责建立(完成)国际合作研究项目10余项。主持(在研和完成)国家、省部级、企(事)业合作研发项目30余项，包括国家基金委“杰青”、科技部“973青年科学家专题”等。至今已发表SCI/EI论文200余篇，已获授权发明专利50余件。获国家自然科学二等奖1项、省部级科技成果一等奖3项，中国电源学会科技进步特等奖1项。2019年获教育部“青年科学奖”，2018年获第十五届“中国青年科技奖”。
沈捷，博士毕业于德国亚琛工业大学，获“特优”最高荣誉Summa Cum Laude。2008年入职GE中央研究院德国，后派遣至中国区域，担任技术运营总监，是多个重大核心关键项目的技术负责人，领导开发多款产品及全球首台套的技术预研项目，累计项目经费4亿元以上。现为臻驱科技（上海）有限公司的创始人，并兼任临港电力电子研究院院长，拥有丰富的电力电子产业化经验，主要研究方向涉及新能源车用电控、电机、功率半导体模块的开发和产业化应用。他拥有80余项国内外发明专利的授权及申请，发表40篇SCI/EI论文，4次获得IEEE最佳论文。同时，他也是上海市领军人才、临港英才、浦东新区明珠领军人才以及中国电源学会理事。
姚文熙，浙江大学电气工程学院副教授，主要从事电机驱动和功率变换技术的研究，主持国家自然科学基金项目2项，作为课题负责人参与国家重点研发项目1项，主持其他省部级项目2项，作为核心人员参与国家级、省部级项目等多项，获浙江省科学技术一等奖等奖项，是IEEE trans. PE、中国电机工程学报等国内外顶级期刊的审稿专家。与工业界长期保持合作，承担了数十项国内外企业的合作项目，至今发表学术论文200余篇，其中SCI收录40余篇，授权发明专利20余项，其中国际专利5项。
宋志豪，博士毕业于浙江大学，主要研究方向涉及电机控制、低载波比控制和调制等，发表学术论文20余篇，拥有5项发明专利及申请，其中2项国际专利。现为臻驱科技与上海交通大学联合培养博士后，主攻新能源车用电机控制算法开发，负责平台化软件设计，部分已成功导入量产车型。同时，他也负责电动飞机电机控制器的产品开发设计工作。
吴红飞教授，南京航空航天大学
管乐诗教授，哈尔滨工业大学
王浩宇教授，上海科技大学
地点：18号馆1层CC105B
讲座摘要：
本报告系统阐述了新一代数据中心XPU电源系统的三大核心技术，通过理论分析、仿真验证与实验测试三维度研究，为高密度供电系统设计提供了完整的解决方案框架。
第一部分：高频变压器异构集成技术
第二部分：谐振开关电容电路优化
第三部分：TLVR转换器创新设计
结论
本研究提出的高频变压器异构集成、谐振开关电容优化及TLVR创新设计，突破了传统供电系统的效率与动态性能瓶颈。三大技术路线通过理论-仿真-实验的闭环验证，为下一代XPU供电系统提供了兼顾高密度、高效率与快速响应的工程实现路径，对数据中心能效提升具有重要参考价值。
讲座人介绍：
吴红飞，南京航空航天大学电气工程系教授、博士生导师。主要研究兴趣包括航空航天供电系统、电力电子系统集成、高能效电力变换技术、新能源发电及高效利用技术等。主持国家自然科学基金、江苏省杰出青年基金、教育部霍英东青年基金等9项国家和省部级基础研究项目，以及企业合作研发课题20余项。国家优秀青年基金、江苏省杰出青年基金、教育部霍英东青年教师基金获得者，入选江苏省青蓝工程中青年学术带头人、江苏省“六大人才高峰”高层次人才、江苏省“青蓝工程”优秀青年骨干教师、江苏省科协“青年人才托举工程”、南京航空航天大学首批“长空学者”等。
管乐诗，哈尔滨工业大学电气工程及自动化学院教授，博士生导师，国家级青年人才。主要研究方向包括高频、超高频功率变换技术，无线电能传输技术、高升压/降压功率变换技术等。主持及参与国家自然科学基金面上/青年项目、黑龙江省自然科学基金项目、台达电力电子科研基金重点/青年项目等20余项。围绕相关研究内容已主编 Springer 专著 1 部，发表 SCI/EI 论文 97 篇，包括 SCI 检索论文43 篇TPEL、 TIE 等顶级期刊论文 33 篇），授权及受理国家发明专利 20 项，入选中国科协青年人才托举工程，获中国电源学会科技进步一等奖（序2）、中国电源学会科技进步二等奖（序2）、中国自动化学会自然科学二等奖（序3）。
王浩宇，上海科技大学信息学院党总支书记、长聘正教授、博导。研究兴趣包括：电力电子，电动汽车，光伏储能，AI算力电源，电源芯片等。他主持国家基金委、上海市科委等资助的基础研究及企业研发课题10余项，教研经费1400余万。王博士发表论文150余篇(中科院1区48篇)，被引3900余次，申请专利20余项，受邀报告40余次。他获省部一等奖等教学科研奖项10余项，入选IET Fellow、上海市启明星计划、扬帆计划、明珠计划、斯坦福前2%顶尖科学家、电气工程高影响学者。王博士现任IEEE TIE副主编、IEEE TTE副主编，CPSS TPEA副主编，IEEE TPEL客座副主编，IEEE APEC的领域主席。曾任IEEE JESTPE客座主编，IEEE OJPE客座副主编，在APEC、电源学会学术年会等国内外学术会议组委会任职30余次。
陈为教授，福州大学
陈庆彬教授，福州大学
地点：18号馆1层CC105A
讲座摘要：
为了实现国家的“双碳”目标以及提高功率变换器的市场竞争力，高效率、高功率密度、高可靠性、低成本和低高度（“三高两低”）已经成为了功率变换器最关键的技术指标。功率变换器工作于高频开关模式，除了功率半导体器件、控制电路芯片外，磁性元件（如变压器、功率电感器和滤波电感器等）是必不可少的关键器件，其体积约占功率变换器总体积的30%~50%，损耗占总损耗的30%左右，而且重量密度大。为了有效降低磁性元件的体积与重量，提高开关工作频率成为必要的手段。近年来，功率半导体器件发展迅猛，宽禁带器件应运而生，促使开关频率得以提高。然而，开关频率提高的同时，磁性元件的磁芯与绕组高频涡流损耗急剧增大，而且在高频环境下，磁性元件分布参数的电磁作用愈发显著，由此引发的电磁干扰问题也日益突出。综上所述，磁性元件已成为制约功率变换器在效率、温升、电磁兼容、功率密度、外形以及成本等诸多方面发展的关键因素。同时磁性元件本身又是集高频磁场、电场、涡流场和热场于一体的综合体，理论机理复杂，由此电力电子高频电磁技术已经成为目前功率变换技术进一步发展的主要瓶颈。该讲座将从电磁场的视角分析高频磁性元件对损耗和电磁兼容的深层影响机理及优化设计方法，旨在为从事电力电子专业研究的师生和工程师提供一个新视角及一定的技术参考。
讲座人介绍：
陈为，福州大学电气工程与自动化学院教授、博士生导师。兼任中国电源学会常务理事、中国电源学会磁技术专业委员会主任委员、全国磁性元件和铁氧体标准化技术委员会委员, IEC/TC51中国对口专家组WG9（磁性元件工作组）召集人。1990年在福州大学获得博士学位，1996-1998年在美国佛吉尼亚理工大学电力电子系统工程中心(CPES)从事高级访问学者研究两年。长期从事电力电子磁元件的理论研究与技术开发工作，有扎实的教学经验和深入的企业产品技术开发实践经验。主持包括国家自然科学基金、福建省自然科学基金等十多项科研项目以及二十多项国内外著名企业的技术合作项目。在国内外著名学术刊物和国际会议发表论文90多篇，获美国和中国授权发明专利30多项。主要研究方向为电力电子功率变换技术，电磁元件技术，电磁兼容分析与诊断，电器技术，电气检测以及工程电磁场分析与应用等。
陈庆彬，现任福州大学电气工程与自动化学院教授、博士生导师，兼任中国磁性元件与铁氧体材料标准化技术委员会委员和中国电源学会磁技术专委会副主任委员兼副秘书长。2007年及2012年于福州大学获学士学位及博士学位。2017-2018年在美国佛罗里达大学从事访问学者研究。长期从事电力电子磁元件的理论研究与技术开发工作，有坚实的理论基础和丰富的实践经验。已主持军委装备发展部预研项目、国家青年科学基金项目、教育部高等学校博士点科研基金项目和福建省自然科学基金面上项目等7项，主持台达电力电子科教发展计划特邀重点项目及华为公司项目等产学研项目23项；发表SCI/EI论文31篇，授权国家发明专利29项。主要研究方向为：电力电子高频磁技术、电磁兼容诊断与抑制及电力电子无线电能传输技术。
Professor emeritus Atsuo Kawamura, Yokohama National University, former president of IEEJ/ IAS，IEEE Life Fellow
Venue：Hall 18, 1F, CC101C / 18号馆1层CC101C
讲座摘要 / Abstract：
The advent of wide bandgap semiconductor devices has made it possible to achieve high conversion efficiency in power conversion. DC-AC power conversion (inverters) has AC output and varying input-output voltage ratios, making it difficult to achieve ultra-high efficiency. The speaker's research group is aiming to create a HEECS inverter with 99.9% efficiency. As efficiency increases, it becomes important to ensure measurement accuracy. The speaker proposed a loss measurement method using only electrical measuring instruments called the VTASLM method, which achieved a measurement accuracy of 0.004% and measured a conversion efficiency of 99.84%. Its characteristic lies in combining active and regenerative operations to improve loss measurement accuracy. This measurement method will be explained in detail.
First, the theoretical analysis of efficiency measurement, the theory of VTASLM, measurement errors in power and regeneration operations, the theory of deriving average losses and their errors in VTASLA, practical error correction, and measurement procedures will be explained.
Next, using the HEECS inverter as an example, the actual measurement of correction terms and the calculation of measurement accuracy will be explained based on actual measurement data.
Finally, as a discussion, we will consider methods to further improve measurement accuracy, as well as average efficiency and operating points.
This loss measurement method is versatile and can be used to measure losses with high accuracy in any electrical equipment using existing power measurement devices.
（reference: A. Kawamura, https://doi.org/10.1541/ieejjia.21008251)
讲座人介绍 / Biography：
Atsuo Kawamura (IEEE Life Fellow) received the Ph.D. degree in electrical engineering from the University of Tokyo in 1981. After the five-year-stay at the University of Missouri-Columbia as a faculty member, he joined the department of electrical and computer engineering at Yokohama National University in 1986. After he retired there as a professor emeritus in 2019, he was a professor of power electronics endowed chair till 2023. Now he is adjunct investigator at YNU.His interests are in the fields of power electronics, digital control, electric vehicles, train traction control and robotics.He received several Transactions Paper Awards from IEEE and IEE of Japan, including 2008 EPE-PEMC Award and 2025 IEEE William E. Newell Power Electronics Award.
Univ. Prof. Dr. Petar. J.Grbović, Innsbruck Power Electronics Laboratory (i-PEL), Institute of Mechatronics, University of Innsbruck, Austria
Venue：Hall 18, 1F, CC101B / 18号馆1层CC101B
讲座摘要 / Abstract：
Power electronics and power conversion in general is today part of every segment of our life. Any piece of electric equipment we have today is somehow based on power electronics and converters; home appliance, industrial equipment, renewable energy, automotive, avionic, etc., etc. Conversion efficiency, specific power, power density and converter cost are today the most critical requirements for new converters. One way to increase the efficiency and reduce cost/size/weight is to deploy „New“ topologies such as Current Source Power Converters (CSPC) and Matrix Power Converters (MPC).
Historically, very first power converters were Voltage Source Converters (VSC) based on the vacuum tubes as power switches. The first work on Vacuum Tube based VSC was reported in early 1930s. Then, with the invention of Bipolar Junction Transistor (BJT) and then Silicon Controlled Rectifiers (SCRs), the Current Source Converter topology become dominant. Until late 1980s, the CSC dominated in most of industrial applications, such as Variable Speed Drives and high-power grid connected converters. With the invention of the Metal Oxide Silicon Field Effect Transistors (MOSFETs) in late 1970s and the Insulated Gate Bipolar Transistors (IGBTs) in late 1980, the Voltage Source Converters become again dominant, especially in low-medium voltage and low-medium power applications. Today, majority of power conversion applications are based on PWM VSC with MOSFETs, IGBTs or IGCTs, depending on the voltage and power rating.
In recent years we have seen strong intertest in PWM Current Source Converters (CSCs) and Matrix Power Converters. It can be proven that in some applications the CSCs and the MPCs could be superior over the VSCs. However, so far, there is not significant penetration of the CSCs and the MPCs into real applications such as industry, renewables, automotive and ICT. The main issue is the fact that until today there is not available switch with Bi-Directional voltage blocking capability.
Cutting Edge technology power semiconductor switches with Bi-Directional voltage blocking capability, in particular Monolithic Bi-Directional GaN switch will be addressed and discussed in this tutorial! Several case studies and design examples are given in concluding part of the tutorial.
This tutorial is aimed at power electronics engineers, professionals and graduate students who want to improve their knowledge and understanding of advanced Bi-Directional Power Semiconductors and their application to topologies such as Current Source and Matrix Converters.
讲座人介绍 / Biography：
Univ.-Prof. Dr. Petar J. Grbović received the Dipl. Ing. (B. Sc.) and the Magister degrees from the School of Electrical Engineering, University of Belgrade, Serbia, in 1999 and 2005, and the Doctor (Ph.D) degree from the Laboratoire ’Électrotechnique et d’Électronique de Puissance de Lille, l’Ecole Centrale de Lille, France in 2010.
From March 1999 to February 2003, he was an R/D Engineer with RDA Co, Belgrade. From November 2000 to June 2001, he was a Consulting Engineer with CESET Italy (a division of Emerson Appliance Motors Europe). From March 2003 to April 2005, he was with the R&D Department, PDL Electronics, Ltd., Napier, New Zealand. Since April 2005 until July 2010, he was working with Schneider Toshiba Inverter Europe, Pacy-Sur-Eure, France, as Power Electronics Group Expert. Since September 2010 until August 2011, he was with General Electric Global Research, Munich, Germany. Since September 2011 until September 2018, he was with HUAWEI Technologies, Europe Energy Competence Centre in Munich/Nuremberg, Germany, where he worked as a Senior Expert in the area of power electronics and power conversion. In March 2016 he was appointed to position of the scientific committee of Centre of Power Electronics and Drives, C-PED Lab., Roma TRE University, Italy. In June 2018 he was appointed to position of Full Professor at Innsbruck Power Electronics Laboratory (the i-PEL), the University of Innsbruck, Austria.
The focus of his research is on application of advanced energy storage devices, active gate driving for high power IGBTs and SiC MOSFETs, power converter topologies, advanced power semiconductor devices and control of power converters and semiconductor switches.
Prof. Grbović published 30 IEEE journal papers, 63 IEEE conference papers, 32 IEEE tutorials and a book “Ultra-capacitors in power Conversion Systems: Analysis, Modelling and Design in Theory and Practice”. He has 17 US & EP patents granted and 9 international patent applications pending.
曾正教授，重庆大学
孙鹏助理研究员，重庆大学
地点：18号馆1层CC101A
讲座摘要：
相对于传统硅基功率器件，碳化硅功率器件具有更高的工作频率、变换效率、额定电压，在电动汽车、新能源发电、输变电装备等领域，具有广泛的应用前景。然而，碳化硅功率器件具有更快的开关速度、更高的热流密度、更大的应力应变，现有硅基功率器件的封装技术，难以发挥碳化硅功率器件的效能，亟待封装结构与封装工艺的技术创新。
围绕碳化硅功率器件的新型封装技术，本专题讲座将详细阐述其应用需求、技术现状、关键挑战，以及基于电-热-力多场优化的封装结构-效能协同提升方法。在电磁场优化方面，针对碳化硅功率器件开关速度快、共模干扰大等问题，详细阐述低寄生参数、高绝缘强度的新型封装结构。在温度场优化方面，针对碳化硅功率器件热流密度高、过载能力弱等问题，详细介绍强化换热、近结冷却的新型封装结构。在应力场优化方面，针对碳化硅功率器件应力密度高、应变尺寸大等问题，详细阐述低应变、高可靠的新型封装结构。
综上，本讲座将围绕碳化硅功率器件封装技术的发展趋势和应用难题，针对工业应用和学术研究的关键问题，从封装结构-效能协同提升的角度，基于电-热-力多物理场优化设计方法，系统阐述低寄生参数、高热流密度、低应力应变的新型封装结构，为工业应用和学术研究提供有益的参考。
讲座人介绍：
曾正，重庆大学，教授/博导，长期从事碳化硅功率器件的封装测试研究，2014年于浙江大学获得博士学位，随即加入重庆大学，历任讲师(2014)、副教授(2017)、教授(2022)，2018-2019年在新加坡南洋理工大学从事博士后研究，入选国家级青年人才、重庆市杰青、重庆市青拔，入选中国高被引学者(爱思唯尔)、电力优秀青年科技人才(中国电机工程学会)、第三代半导体卓越创新青年(第三代半导体产业联盟)。
孙鹏，重庆大学，助理研究员，长期从事碳化硅功率器件的封装测试研究，2025年于重庆大学获得博士学位，2024-2025年在英国伦敦国王学院开展联合培养研究，入选首届“中国科协青年人才托举工程博士生专项”。
11月7日 周五
13:30-17:00
A. Prof. Chaoqiang Jiang, City University of Hong Kong
Prof. Teng Long, University of Cambridge
Postdoc Tianlu Ma, The Hong Kong Polytechnic University
Ph.D. Candidate Yibo Wang, City University of Hong Kong
Venue：Hall 18, 2F, CC204B / 18号馆2层CC204B
讲座摘要 / Abstract：
Wireless Power Transfer (WPT) is becoming a key enabling technology in modern power electronics, with increasing applications in electric vehicles, biomedical implants, and industrial automation. This tutorial presents the next-generation WPT systems, integrating recent advances in magnetic coupler design, nanocrystalline materials, and system-level modeling and control for both static and dynamic scenarios.
The tutorial begins with key design principles and experimental insights into magnetic couplers, emphasizing how nanocrystalline materials enhance thermal stability and power density. Compared to conventional MnZn ferrites, Fe-based nanocrystalline alloys exhibit lower core losses, higher saturation flux density, and superior thermal equilibrium characteristics. Thermal runaway models and simplified lumped-parameter approaches will be introduced to help predict and mitigate thermal instability in high-power applications.
The second part focuses on system modeling and dynamic optimization. Unified full-load discrete-time modeling and generalized state space averaging modeling will be presented for both static and dynamic WPT systems. The tutorial will also give compensation topology selection, impedance matching, and real-time excitation optimization in multi-coil segmented dynamic WPT systems. Particular attention will be given to dynamic coil-to-coil mutual inductance variation, phase angle control, and adjacent-coil current coordination to maintain high transmission efficiency.
This tutorial provides practical knowledge across materials, topology, modeling, and control. It is suitable for researchers, engineers, and graduate students who wish to gain a complete understanding of how to build high-performance, thermally stable, and dynamically optimized WPT systems for the future.
讲座人介绍 / Biography：
Chaoqiang Jiang (Senior Member, IEEE) received the B.Eng. and M.Eng. degrees (First Class Honours) in Electrical Engineering and Automation from Wuhan University, Wuhan, China, in 2012 and 2015, respectively, and the Ph.D. degree in Electrical and Electronic Engineering from The University of Hong Kong, Hong Kong SAR, China, in 2019. He is currently an Associate Professor with the Department of Electrical Engineering, faculty member in the State Key Laboratory of Terahertz and Millimeter Waves, City University of Hong Kong, Hong Kong SAR, China. From 2019 to 2021, he was a Postdoctoral Research Associate at the University of Cambridge, U.K. Also, he is affiliated with Clare Hall, University of Cambridge since 2021. In 2019, he was a Visiting Researcher at the Nanyang Technological University, Singapore. His research interests include power electronics, wireless power transfer techniques, electric machines and drives, and electric vehicle (EV) technologies.Dr. Jiang has been rewarded with the Winner, CAPE Acorn Blue Sky Research Award at the University of Cambridge, and First Prize in the Interdisciplinary Research Competition at the University of Hong Kong. He is currently an Associate Editor of IET Renewable Power Generation, Guest Editor of Energies, and Guest Editor of IEEE Open Journal of Vehicular Technology.
Teng Long (Member, IEEE) received the B.Eng. degree from the Huazhong University of Science and Technology, China, the first class B.Eng. (Hons.) degree from the University of Birmingham, UK in 2009, and the Ph.D. degree from the University of Cambridge, UK in 2013. Until 2016, he was a Power Electronics Engineer with the General Electric (GE) Power Conversion business in Rugby, UK. He is currently a Professor at the University of Cambridge, UK. His research interests include power electronics, electrical machines, and machine drives. Dr Long is a Chartered Engineer (CEng) registered with the Engineering Council in the UK.
Tianlu Ma received the B.Eng. degree in College of Instrumentation and Electrical Engineering from Jilin University, China, in 2018, the M.Sc. degree in School of Electrical Engineering from Xi’an Jiaotong University, China, in 2021, and the Ph.D. degree from City University of Hong Kong in 2024. He is currently a Postdoctoral Fellow at The Hong Kong Polytechnic University. During his doctoral studies, he visited the University of Cambridge from 2024 to 2025. His research focuses on wireless power transfer (WPT), including system modeling, control strategies, coupler design, and magnetic material optimization.Dr. Ma has received numerous awards and honors, including a Gold Medal at the 49th International Exhibition of Inventions of Geneva, the First Prize & Best Presentation Award at the IEEE PELS Student Symposium on Power Electronics in Asia (SSPEL-Asia), and the Outstanding Academic Performance Award from City University of Hong Kong.
Yibo Wang received the B.Eng. degree in automation from Nankai University, Tianjin, China, in 2016, and the M.Sc. degree in electrical power engineering from RWTH Aachen University, Aachen, Germany, in 2019. He is currently working toward the Ph.D. degree with the Department of Electrical and Electronics Engineering at the City University of Hong Kong, Hong Kong. He was a Hardware Development Engineer with Delta Energy Systems (Germany) GmbH from 2019 to 2022. His research interests include wireless power transfer, electric vehicles, and power electronics.
Prof.Zhe Zhang，Hebei University of Technology
Venue：Hall 18, 2F, CC204A / 18号馆2层CC204A
讲座摘要 / Abstract：
As power conversion architectures evolve toward greater modularity, distribution, and efficiency, there is a growing demand for innovative design methodologies that can minimize energy loss, reduce system complexity, and improve scalability. In this context, Partial Power Processing (PPP) has emerged as a promising solution. Unlike traditional converters that handle the entire system power, PPP architectures allow power converters to process only a portion of the total power, significantly improving overall efficiency and reducing component stress and cost.
Simultaneously, wide bandgap (WBG) semiconductors, such as silicon carbide (SiC) and gallium nitride (GaN), are not only redefining power device performance but are uniquely matched to the requirements of PPP architectures. Their faster switching reduces the volume of partial-power processing stages by enabling higher operating frequencies, while exceptionally low conduction and switching losses directly translate into greater sub-module efficiency. Moreover, the superior thermal conductivity of WBG materials allows PPP converters to sustain higher power densities with simplified cooling schemes. These characteristics, high-frequency operation, minimized energy loss, and robust thermal behavior, make WBG devices the ideal enabler for compact, high-efficiency PPP systems.
This tutorial will begin with a theoretical overview of PPP, followed by an in-depth discussion of WBG device characteristics relevant to partial power applications. Various PPP topologies will be analyzed, along with practical design considerations including topology selection, control strategies, and magnetic component optimization. Case studies and experimental data will be used to illustrate the benefits and challenges of real-world implementations. The session will conclude with insights into emerging research trends, standardization issues, and commercialization opportunities for WBG-enabled PPP systems.
讲座人介绍 / Biography：
Zhe Zhang (Senior Member, IEEE) received the B.Sc. and M.Sc. degrees in power electronics from Yanshan University, Qinhuangdao, China, in 2002 and 2005, respectively, and the Ph.D. degree in power electronics from the Technical University of Denmark, Kgs. Lyngby, Denmark, in 2010.,From 2014 to 2021, he was an Associate Professor with the Department of Electrical Engineering, Technical University of Denmark (DTU), where he has been the Head of Studies in charge of Electrical Engineering M.Sc. Programme since January 2018.He has authored or co-authored more than 200 transactions and international conference papers and filed more than 10 patent applications.,Dr. Zhang was the recipient of the awards and honors, including Best Paper Awards in IEEE conferences of ECCE, IFEEC, and IGBSG, Best Teacher of the Semester, Chinese Government Award for Outstanding Students Abroad, etc.,He is currently an Associate Editor for IEEE Transactions on Industrial Electronics, IEEE Journal of Emerging and Selected Topics in Power Electronics, and IEEE Access, and a Guest Editor for IEEE Journal of Emerging and Selected Topics in Industrial Electronics.
Prof. Dong Jiang,Huazhong University of Science and Technology
Dr. An Li, Huazhong University of Science and Technology
Prof. Zicheng Liu, Huazhong University of Science and Technology
Venue：Hall 18, 2F, CC205(A+B) / 18号馆2层CC205(A+B)
讲座摘要 / Abstract：
This tutorial is based on the new book by the three presenters under contract with Wiley-IEEE Press: “Power Electronics Converters for Open-Winding Motor Drives”, which is planned to be published in 2026.
This tutorial gives an introduction on the recent technologies in the power electronics converters for open-winding motor drive.
Compared with traditional three-phase AC motors with Y-connected windings, the open-winding structure has many potential advantages such as wide speed operation range, fast dynamic response, more control freedoms, and strong fault-tolerant capability. Therefore, the topology and control of power electronic converter for open-winding motor drive has important theoretical research value and engineering practice significance.
Three major types of open-winding motor are used as examples to study: reluctance motor, multiphase open-winding AC machine and active magnetic bearings (AMB). They share the similarity of open-winding structure, but are for different performance and targets. Systematic study of these kinds of open-winding motor drive has been done in recent years.
In this tutorial, the optimization progress of the open-winding reluctance motor drive is introduced step by step. Further, several novel technologies of multiphase open-winding AC motor drive are introduced. A novel kind of multiphase open-winding motor drive: series-winding motor drive (SWMD) is introduced, which is able to be applied in normal AC motor and increase the voltage utilization range significantly. Moreover, a Re-configurable open-winding multiphase drive is introduced, which is able to reconfigured the circuit for the faulty phase and maximize the torque output capability of the post-fault drive system.
Open-winding power electronics controller is one of the most important part in the active magnetic bearing system.This presentation introduces progress in the power electronics controller for AMB system. One progress is the topologies for multi-axis AMB, to reduce the power electronics devices and power losses by device sharing principle. The other progress is the fault-tolerant AMB drive, to re-construct the levitation force after failure of power electronics device and improve the reliability.
This tutorial gives a road map for research and application of power electronics converters in the area of open-winding motor drive.
讲座人介绍 / Biography：
Dong Jiang (Senior Member, IEEE, Fellow, IET) received the B.S. and M.S. degrees in electrical engineering from Tsinghua University, Beijing, China, in 2005 and 2007, respectively. He received the Ph.D. degree in power electronics and motor drives in 2011 in the University of Tennessee, Knoxville, TN, USA. He was with the United Technologies Research Center (UTRC), East Hartford, CT, USA, as a Senior Research Scientist/Engineer, from January 2012 to July 2015. He has been with the Huazhong University of Science and Technology (HUST), Wuhan, China, as a Professor, since July 2015. His main research interests include power electronics and motor drives, with more than 200 published IEEE journal and conference papers and more than 80 granted patents in this area. Dr. Jiang was the recipient of several best paper awards in IEEE conferences. He is an Associate Editor for the IEEE Transactions on Industry Applications and the chair of IEEE Power Electronics Society Wuhan Chapter.
An Li (Member, IEEE) was born in Wuhan, China, in 1996. He received the B.Eng. and Ph.D. degrees in electrical engineering from the School of Electrical and Electronic Engineering, Huazhong University of Science and Technology, Wuhan, China, in 2017 and 2022, respectively.,He is currently a Postdoctoral Fellow with the School of Mechanical Science and Engineering, Huazhong University of Science and Technology. His research interests include mobile robot, motor drive, power electronic converter, fault tolerance, permanent magnet motor, reluctance motor and multiphase motor.
Zicheng Liu (Senior Member, IEEE) was born in Shandong, China, in 1989. He received the B.S. degree in Hydropower Engineering from Huazhong University of Science and Technology (HUST), Wuhan, China, in 2011, and the Ph.D. degree in Electrical Engineering from Tsinghua University, Beijing, China, in 2016. During Otc. 2014 to Mar. 2015, he was a Visiting Student at Purdue University, West Lafayette, IN, USA. During Jun. 2016 to Sep. 2018, he was a postdoc researcher at Beijing Jiaotong University, Beijing, China. He is currently a professor at HUST. His research interests include multiphase motor control systems and transportation electrification.
顾云杰副教授，帝国理工学院
地点：18号馆1层CC105C
讲座摘要：
宽禁带半导体器件的快速发展和可再生能源在电力系统中的大规模部署使电力电子系统的硬件在环仿真技术面临新的挑战。现有硬件在环仿真方案难以适应大规模新能源场站和超高频电力电子变流器对仿真规模和仿真精细度的需求。本专题讲座在总结电力电子系统数值仿真技术历史源流的基础上，梳理其背后的计算数学原理，并介绍一系列新颖高效的求解算法和技术方案，通过辛几何积分、半浮点运算和全裸核软件三大基础技术创新，极大地提升了硬件在环仿真的规模和精细度，将单FPGA仿真规模提升至场站级，仿真步长推进至20ns，单CPU仿真步长推进至2us。最后，本专题讲座通过四个典型应用场景，即超高速电机控制、多电平变流器（MMC和固态变压器）、储能PCS并网系统以及高频LLC变流系统，详细阐述新方案的技术优势。
讲座人介绍：
顾云杰博士，伦敦帝国理工学院副教授，现任未来电力网络硕士课程主任，智慧能源实验室负责人。他的研究专注于电力电子化电力系统的稳定性理论以及相应的分析与仿真工具。他曾获得英国科研创新署（UKRI）创新学者基金，目前主持多项由英国科研创新署、英国皇家学会及工业界资助的科研与创新项目，在研科研经费近200万英镑。他是IEEE高级会员、国际大电网委员会（CIGRE）并网型储能系统联合工作组章节负责人，也是英国国家能源系统运营商（NESO）发布的构网型变流器最佳实践指南的主要贡献者之一。自2020年以来，他连续被斯坦福大学列为全球前2%高被引科学家。曾获中国教育部高等学校科学研究优秀成果一等奖。
谢少军教授，南京航空航天大学
许津铭副教授，南京航空航天大学
钱强副教授，河海大学
程成博士后，山东大学
地点：18号馆1层CC105B
讲座摘要：
建设新型电力系统的背景下，大量新能源分散地接入电网，新能源并网系统的可靠运行至关重要。然而，实际并网公共耦合点处存在电网阻抗宽范围变化、电压波动及故障等非理想状况，导致新能源并网系统发生严重的谐波振荡及失稳问题。要保证新能源发电并网稳定可靠，关键在于深入探究谐波及失稳现象的成因并提出有效控制方案。
该专题讲座系统阐述了跟网控制型新能源并网系统的建模、失稳机制及鲁棒控制技术。首先，介绍了典型的并网逆变器电流控制建模方法，深入探讨了电流控制小干扰失稳机制并系统阐述电流控制优化方法；其次，重点分析了高电网阻抗下锁相环导致的非线性耦合机制，提出了多频阻抗/导纳矩阵建模及其等价降阶思路，实现了并网系统小干扰稳定性的准确分析；随后，面向大干扰下并网系统暂态分析难题，分别从时域稳定性分析以及频域稳定性分析角度，介绍了并网系统非线性建模与分析方法，探究了锁相环主导的并网逆变器及其系统的失稳机制，实现非理想工况下并网系统稳定运行。
章节安排如下：1、弱电网下并网逆变器电流控制稳定性分析与鲁棒性优化，2、锁相环频率耦合及其对并网系统小干扰稳定性的影响分析，3、大干扰下跟网型并网系统非线性建模及暂态同步稳定优化，4、不确定扰动下并网逆变器绝对稳定性分析与控制技术。
讲座人介绍：
谢少军，南京航空航天大学自动化学院电气工程系教授、博士生导师，中国电源学会常务理事、信息系统供电技术专业委员会主任委员，中国电工技术学会电力电子专业委员会常务委员，曾获江苏省先进科技工作者、江苏“333”工程首批学术技术带头人等称号。获得省部级科技进步奖10余项，发表SCI或EI收录期刊论文逾百篇，授权发明专利30多项。
许津铭，江苏省“青蓝工程”优秀青年骨干教师，南京航空航天大学副教授、博士生导师，IEEE Senior Member，中国电源学会青年工作委员会委员，承担新能源并网发电领域的多项国家自然科学基金（面上及青年项目）、江苏省自然科学基金项目，发表SCI或EI收录学术论文逾百篇，2024年入选全球前2%顶尖科学家“终身科学影响力”榜单，以第一完成人获江苏省科学技术奖、江苏省优秀博士学位论文奖、IET电力电子最佳论文奖、IEEE电力电子汇刊杰出审稿人奖等。
钱强，河海大学能源与电气学院电力工程系副教授、硕士生导师，主持国家自然科学基金青年基金1项、江苏省自然科学基金青年基金1项、国家/江苏省博士后科学基金面上项目各1项、江苏省输配电装备技术重点实验室自主科研课题1项，参与多项校企合作横向课题。第一作者发表SCI/EI论文十余篇，担任IEEE系列SCI期刊的审稿人，获江苏省科学技术奖、国际会议优秀论文奖。
程成，山东大学控制科学与工程学院博士后（合作导师为陈阿莲教授），主要从事新能源并网系统的稳定性分析及控制技术研究，以第一作者发表IEEE TIE、TEPL等SCI一区top期刊10篇。主持国家自然科学基金青年项目、中国博士后科学基金面上项目、山东省自然科学基金青年项目，参与国家重点研发计划、河南省重大科技专项以及多项国家自然科学基金项目，获校优秀博士学位论文、《电力系统自动化》期刊“优秀审稿专家”。
王平助理教授，香港科技大学
陈烨楠研究员，浙江大学
地点：18号馆1层CC105A
讲座摘要：
数据中心作为现代信息技术的基础，正因人工智能的爆发式发展，成为全球用电增长最快的应用之一。为满足不断攀升的算力需求，芯片功耗和GPU部署密度持续上升，给电源系统在效率、功率密度和瞬态响应性能方面带来了前所未有的挑战。下一代计算芯片的单芯片供电电流可能突破3000A，瞬态电流变化率甚至超过10000A/μs，传统的电源架构、拓扑、器件与控制技术将面临严峻考验。
本讲座将从数据中心电源的需求挑战出发，围绕系统架构、拓扑设计、关键器件与封装等方面展开探讨。首先介绍GPU芯片的电气特性及发展趋势，对基于48V母线的多种供电架构、主流实现路径、以及适配的控制技术进行综述，并对下一代供电架构进行展望。随后重点解析两级架构中的高功率密度开关电容拓扑，讲解实现超高峰值电流的设计方法论，并进一步介绍具备更高集成度的单级混合开关电容拓扑，工作原理与设计思路。接着针对关键元器件，将深入探讨耦合电感提升动态响应的原理、与TLVR的关键特性、设计方法与相关技术延伸，以及GaN器件与先进封装在MHz大电流功率变换中的应用潜力。讲座将结合前沿研究成果与产业实践，系统地分析AI芯片电源技术的演进路径与未来趋势。
讲座人介绍：
王平，博士，香港科技大学终身教轨助理教授，博士生导师。王平博士于2017年本科毕业于上海交通大学电气工程系，2023年在普林斯顿大学电气与计算机工程学院获得博士学位。主要研究兴趣包括算力芯片电源设计、高频高功率密度电力电子变换器、磁集成的建模与设计，以及其在数据中心、电动汽车等新兴能源系统中的应用。曾获2024年IEEE PELS PhD Thesis Talk (P3 Talk) Award，2020年和2021年两次获得IEEE TPEL优秀论文奖，2019年和2021年两次获得IEEE ECCE最佳学生项目竞赛一等奖，2022年IEEE APEC杰出报告奖，以及2019年普林斯顿大学创新论坛一等奖。
陈烨楠，博士，入选国家高层次青年人才计划，浙江大学电气工程学院百人计划研究员，博士生导师。于浙江大学获得学士学位、竺可桢学院工科荣誉学位、博士学位， 2018年至2021年任普林斯顿大学电气与计算机工程系博士后研究员。主要研究方向为数据中心供电系统、算力芯片电源、高频软开关变换技术。
张祯滨教授，山东大学
尹亚飞博士，山东大学
陈广泽博士，山东大学
唐雨晨高级工程师，国网福建省电力有限公司经济技术研究院
地点：18号馆1层CC101C
讲座摘要：
大功率电能变换集群是推动我国能源转型，实现新能源大规模接入的核心技术与未来趋势。然而，随着电能变换系统向大容量、高复杂度的集群配置演进，传统调制与控制策略在效率、可扩展性和适应性上的局限日益凸显，难以满足有限控制自由度下，增长的调控品质需求。本专题讲座聚焦新能源场站大功率电能变换系统集群化演进过程中的关键科学与工程问题，介绍了适配于现代大功率电能变换集群及并联系统的精益化预测性调控理论与技术框架，具体包括面向大功率电能变换集群的广义最优调制理论以及并联协同预测控制技术等，为集群化演进趋势下的大功率电能变换系统高品质运行，提供可选择的技术参考。
讲座人介绍：
张祯滨，教授/博导，山东大学可再生能源与智能电网研究所所长、电力电子化能源系统实验室主任、首批国际合作联络教授、英国剑桥大学高级访问学者/客座教授。获慕尼黑工大博士学位(summa cum laude)。曾任慕尼黑工大博后研究员、课题组组长、客座教授，并获德国电气工程学会杰出学术贡献奖 (VDE-Award)、“奥古斯特-威廉-舍尔客座教授奖”。入选中组部“千人计划”（青年）、山东省杰青、山东省泰山学者特聘教授、“山大杰青”等。主持包括国家重点研发计划（青年科学家项目）、山东省重大科技创新工程等国家及省部级项目10余项、企业委托科技项目20余项。获中国电工技术学会科学技术进步一等奖、中国电源学会科技进步一等奖、中国电工技术学会青年科技奖、中国电源学会青年科技创新奖、日内瓦国际发明展金奖、安徽省科学技术进步二等奖、山东省科学技术进步二等奖、山东省教学比赛二等奖等奖励。历任IEEE Trans. Power Electron.和IEEE Trans. Ind. Electron. Associate Editor；被遴选为IET Fellow；受邀在国际会议及研讨会上做大会报告 (Plenary及Keynote Speak)、专题讲座 (Tutorial) 30余次。入选斯坦福全球前2%科学家年度及终身科学影响力榜单。聚焦大功率电能变换系统设计、控制及运维。
尹亚飞，2019年本科毕业于山东大学电气工程学院，获得电气工程及其自动化学士学位，现于山东大学可再生能源与智能电网研究所攻读博士学位，研究方向聚焦大功率电能变换装备与集群预测控制。
陈广泽，2024年本科毕业于山东大学电气工程学院，获得电气工程及其自动化学士学位，现于山东大学可再生能源与智能电网研究所攻读博士学位，研究方向聚焦大功率中压电能变换预编程调制与预测控制。
唐雨晨，国网福建省电力有限公司高级专家，获香港大学博士学位。长期从事输电网发展规划、新能源接网与消纳及相关科研工作，主持国网福建电力科技项目多项，获中国电力科技进步奖二等奖等省部级科技奖励4项，授权发明专利20余项，发表论文20余篇。
丰昊副教授，重庆大学
沈湛副研究员，东南大学
赵泓博助理教授，奥尔堡大学
地点：18号馆1层CC101B
讲座摘要：
随着储能容量迅速扩张，以及电源、负荷加速直流化，直流变压器和交直流互联装置将成为未来中压配网、配网-主网互联的关键装备。以变压器为代表的中频磁件作为其中的核心部件，需应对高开关频率、高电压摆率、高集中场强的交织作用，在绝缘强度、寄生参数、可靠性、损耗和功率密度等性能维度存在紧密耦合，分析和设计层面的挑战尤为突出。另一方面，中压电力电子装备常采用级联型架构，其拓扑和运控特征显著区别于低压装置，磁件所处工况环境迥异，其电参数建模、材料特性表征、多场分析和设计方面亟需新的思路和方法。
本次专题报告将以中频磁件的多维度复杂需求导入，结合中压电力电子装备的工况特点，从参数建模、材料选型、绝缘设计和电路模态的兼容性等方面进行讨论。本报告还将着重讨论引入新兴的高压碳化硅器件对磁件乃至整体系统设计的影响。报告时长为3.5个小时。
讲座人介绍：
Hao Feng received the B.S. degree and Ph.D. degrees from Huazhong University of Science and Technology, Wuhan, China, in 2013 and 2018. From 2018 to 2020, he has been with the FREEDM Systems Center, NC State University, Raleigh NC, as postdoctoral researcher. He is now with Chongqing University, China, as Associate Professor. His research interests include medium voltage power conversion, SiC devices and applications, and passive component integration. Dr. Feng received multiple best paper awards from the IEEE journals and conferences. He is also responsible for regular tutorial to industry, for which contribution he receives Young Scholar Fellowship from Xiaomi and Cooperation Award from Infineon, etc.
Zhan Shen received the B.E. degree from Nanjing University of Aeronautics and Astronautics and M.E. degree from Southeast University, both in Nanjing, China. He received the Ph.D. degree from Aalborg University, Aalborg, Denmark. Currently he is an Associate Professor at Southeast University in Nanjing, China. He was a Visiting Scholar at the RWTH Aachen University, Aachen, Germany, and at the Massachusetts Institute of Technology (MIT), Cambridge, MA, USA. He was with the ABB Corporate Research Center, Beijing, China in 2016. His research interests include power electronic system integration, magnetic components, and artificial intelligence.Dr. Shen was the recipient of multiple Best Paper and Best Presenter Awards of the IEEE PELS sponsored conferences, and the Outstanding Reviewer Award of the IEEE TRANSACTIONS ON POWER ELECTRONICS.
Hongbo Zhao received the Ph.D. degree in energy engineering from AAU Energy, Aalborg University, Aalborg, Denmark, in 2021.He is currently an Assistant Professor with AAU Energy, Aalborg University. He was a Visiting Researcher with the University of Texas at Austin, Austin, TX, USA, a Visiting Scholar with the University of Galway, Galway, Ireland, and a Visiting Professor with G2Elab, Grenoble, France. His research interests include analysis and packaging of modern magnetic components, as well as the applications of wide bandgap semiconductor devices.Dr. Zhao is an Associate Editor for IEEE OPEN JOURNAL OF POWER ELECTRONICS. He was the recipient of the Villum Fellowship, in 2022. He was also the recipient of the“Best Magnetic Design”by Frenetic, in 2022. He was selected as a future entrepreneur by the Spin-outs Denmark program in 2023. His idea on next-generation sustainable magnetic components was awarded as“The Bright Idea Award”from Otto Mønsteds Fond in 2023.
T17：Control and Structure of Multi level Converter and Its Application in Flexible Traction Power Supply System
Prof. Xiaoqiong He, Southwest Jiaotong University, China
Vice professor Lan Ma, Southwest Jiaotong University, China
A. Prof. Pengcheng Han, Southwest Jiaotong University/Luoyang Institute of Science and Technology, China
Venue：Hall 18, 1F, CC101A / 18号馆1层CC101A
讲座摘要 / Abstract：
The traction power supply system is one of the four core systems of electrified railway. At present, the vast majority of electrified railways in the world adopt a single AC power frequency system, and the traction power supply system adopts a phase separated and segmented power supply method, which means that there is neutral section (no power zone) within and between traction substations, resulting in problems such as the inability to exchange energy along the entire railway line, high safety hazards, difficulty in cross regional power supply, difficulty in utilizing regenerative braking energy of a large number of trains, and difficulty in connecting new energy sources. In order to solve a series of problems caused by electrical phase separation in the traditional traction power supply system, the Flexible Traction Power Supply System (FTPSS) based on Multi-Level Converter (MLC) has attracted widespread industry attention. FTPSS can be regarded as a new micro-grid traction power system composed of grid-forming and grid-following converters. Distributed energy resources in this system have special characteristics in terms of capacity, distribution, and locomotive load. This tutorial will provide an overview of the FTPSS proposed by our research team, the integrated coordinated control strategy of FTPSS, and the topology, control method and reliability of the MLC in the traction power supply system.
讲座人介绍 / Biography：
Xiaoqiong He (IEEE Senior Member), Dr., Professor, Vice Dean of the School of Electrical Engineering at Southwest Jiaotong University (SWJTU), Deputy Director of the National Rail Transit Electrification and Automation Engineering Technology Research Center (NEEC), Chengdu, China, received the B.S., M.S., and D.Eng. degrees from SWJTU and was a visiting scholar at NTU in Singapore for one year. Dr. He’s current research interests include multi-port energy routing systems, high-speed train power electronic transformer, intelligent flexible traction power supply systems for rail transit, energy conversion control and application. She has published more than 100 SCI papers, is the holder of +70 Chinese invention patents and a US patent, has received 3 First Prize Awards in Science and Technology from the China Railway Society (ranked 1st , 8th and 14th), and 1 First Prize Award in Technology Invention of Sichuan Province in China (ranked 5th). She has further been General Chair of ECCE Asia 2024 (1300 participants), General Chair of the 17th (online) ＆ 18th (offline) IEEE Conference on Industrial Electronics and Applications, Former General Secretary of WIP of the IEEE Power and Energy Society in China. Finally she has hosted 4 projects of the NSFC in China, and more than 10 major innovation projects of the MEC and National Energy Group of China, etc. These projects had a budget of over 130 million yuan.
Lan Ma received her B.S. degree in Automation in 2011 and the Ph.D. degree in Control Science and Engineering in 2018, both from the University of Electronic Science and Technology of China(UESTC), Chengdu, China.From 2015 to 2017, she was a Visiting Scholar at the FREEDM Systems Center(Future Renewable Electric Energy Delivery and Management Systems Center), Department of Electrical and Computer Engineering, North Carolina State University, Raleigh, NC, USA. She is currently a associate Professor at the School of Electrical Engineering, Southwest Jiaotong University, Chengdu. Her research focuses on energy storage and solar system control, power electronics converters, and virtual synchronous machine.
Pengcheng Han was born in Henan, China, in 1992. He received his B.S. and Ph.D. degree in electrical engineering from Southwest Jiaotong University (SWJTU), Chengdu, China. He is currently pursuing postdoctoral research at SWJTU while holding a concurrent position at Luoyang Institute of Technology. His research fouces on multilevel converters, electrified railways, control applications to power electronic converters, and SiC devices and control. His paper titled “Fault Diagnosis and System Reconfiguration Strategy of Single-phase Cascaded Inverter” received the Best Paper Award from the IEEE ITEC Asia-Pacific, graned by IEEE Industry Application Society.
会议方面
本届会议录用中英文论文1200余篇。大会特邀13位电源、电力电子及相关领域国内外顶尖院士、专家在大会报告、前沿论坛环节做特邀报告；大会设置17场专题讲座，110余个主题分会场640余场技术和工业报告；同期继续举办中国电源学会科学技术奖颁奖、高校电力电子应用设计大赛决赛等重要活动，形成会、展、赛、奖四位一体的综合性行业交流盛会。预计将有超过2500名行业内人士参会。
大会特邀报告
特邀13位电源、电力电子及相关领域国内外顶尖院士、专家进行报告。其中：大会报告环节设置9场、前沿论坛设置4场。
更多报告信息，敬请关注会议官网meeting.cpss.org.cn
李泽元 教授 (Prof. Fred C. Lee)
美国弗吉尼亚理工大学
中国工程院外籍院士、美国工程院院士、IEEE Fellow
报告题目
Design Challenges of SiC Based High-Power, High-Frequency CLLC Resonant Converter with Wide Gain Range.
报告摘要
Generation 3 power semiconductor devices, such as SiC, offers significant reduction of switching losses in comparison with its counterpart IGBT for high power applications. In general, a factor of 2-3 increase in switching frequency is expected. In many DC/DC convertor applications where the gain range is relatively narrow, resonant convertors are already deemed a preferred choice. With ZVS turn-on and ZCS turn-off, resonant converters have been demonstrated with one order of magnitude increasing in switching frequency and with improved efficiency.
However, in many emerging high-power applications such as EV charging, renewable energy, and energy storage are featured with wide gain range, PWM converter with some form of soft switching are still in the mainstay. The subject of this presentation is about the propose means to overcome the challenges related to the wide gain range and means to operate beyond 100KHz , with much improved efficiency. The control strategies are proposed as follows, “flexible link voltage” to extend the operating range while high efficiency is critical; “shorting” mode to boosting the tank energy to realize high voltage gain; and “PWM” mode to enable much reduced frequency range while operating at light load. The proposed strategies together have changed the fundamental properties while removed the limitations of the CLLC converter, such that it is best suited for high power applications while wide gain range are required.
报告人简介
Dr. Lee is a University Distinguished Professor Emeritus at Virginia Tech. He is a member of the U.S. National Academy of Engineering, U.S. National Academy of Inventors, and a foreign member of the Chinese Academy of Engineering, China. Dr. Lee founded the Center for power electronics and led a program that encompasses research, technology development, educational outreach, industry collaboration, and technology transfer. To date, more than 230 companies worldwide have benefited from this industry partnership program.
Dr. Lee has supervised to completion 91 Ph.D. and 93 M.S. students. He holds over 100 US patents, and has published over 330 journal articles and more than 760 refereed technical papers. His research interests include high-frequency power conversion, magnetics and EMI, distributed power systems, renewable energy, power quality, high-density electronics packaging and integration, and modeling and control.
Dr. Lee is a recipient of the 2015 IEEE Medal in Power Engineering “for contributions to power electronics, especially high-frequency power conversion."
Dr. Don Tan
IEEE 副主席
美国工程院院士、IEEE Fellow
报告题目
Towards 100% EVs: Ultra-fast charging and ubiquitous infrastructure
报告摘要
As the EV technology for the driving train entered the phase of maturity with many superior performances, significant progress in battery technologies ushed in the era of electrical vehicle proliferation. Battery-powered electric vehicles (BEV) are now in price parity with internal combustion engine (ICE) cars, even being more competitive. Many countries/regions now have aggressive mandates towards zero-emission to combat global climate change. A major remaining obstacle is the availability of ultra-fast charging required for long-haul driving and ubiquitous charging structure for everyday driving. We will discuss the challenges facing ultra-fast charging and available solutions coming on the horizon. We will provide a new thinking in achieving ubiquitous charging infrastructure by leveraging existing and readily-available technologies. For autonomous vehicles, wireless power charging provides a path forward. The newly-founded IEEE Transportation Electrification Council (TEC) is providing much-needed leadership in the technical space to help pushing for ubiquitous charging infrastructure on a global scale.
报告人简介
Dr. Tan earned his PhD from Caltech. He is a member of the National Academy of Engineering and a fellow of the IEEE. He has served as Distinguished Engineer, Fellow, Chief Engineer-Power Conversion, Program Manager, Department Manager, and Center Director in a US Fortune 500 corporation. Unusually prolific as a visionary technical leader in ultra-efficient power conversion and electronic energy systems, Dr. Tan has pioneered breakthrough innovations with numerous high-impact industry firsts and record performances that received commendations from the highest level of US Government. He has developed hundreds of designs and thousands of hardware units deployed for space applications without a single on-orbit failure. His suite of world-class electronics performed flawlessly on the James Webb Space Telescope (JWST), located one million miles away, achieving world-record-breaking performances and advancing the understanding of deep space for humanity.
Dr. Tan is the IEEE Technical Activities Vice President-Elect 2025, founding President of IEEE Transportation Electrification Council, Chair of IEEE Fellow Advisory and Oversight Subcommittee, and Vice Chair of IEEE Industry Engagement Committee. Among numerous others, Don has served as Division II Director, IEEE Board of Directors; Fellow Committee Chair, IEEE PELS/PES eGrid Steering Committee Chair, PELS Long Range Planning Committee Chair, Nomination Committee Chair, PELS President, Editor-in-Chief (Founding) for IEEE Journal of Emerging and Selected Topics in Power Electronics, APEC (the fourth largest event in IEEE) General Chair, PELS Vice President-Operations, Guest Editor-in-Chief for IEEE Transactions on Power Electronics and IEEE Transactions on Industry Applications, Fellow Committee, PELS Vice President-Meetings, IEEE Chair for IEEE/Google Little Box Challenge (awarded $1M cash prize), and IEEE/DoD Working Group Chair, developed IEEE/ANSI standards 1515/1573. Don has delivered about 130+ keynotes/invited global presentations. He has received more than $30M+ external customer funding for research and technology development. He also serves on many prestigious national and international award, review and selection committees.
刘胜 教授
武汉大学
中国科学院院士
报告题目
宽禁带半导体材料和器件仿真与数字孪生
报告摘要
宽禁带半导体是支撑下一代高效能源转换、智能电网和先进雷达系统的战略核心材料，其研发水平直接关系到国家产业竞争力和安全自主可控。本报告旨在系统探讨如何通过融合物理模型、人工智能与高性能计算的多物理场、跨尺度建模仿真技术，构建一个贯穿“材料-器件-电路-系统”全链条的数字孪生体。本报告的内容覆盖了课题组近期在宽禁带半导体碳化硅晶体和氧化镓晶体的生长工艺仿真与验证、半导体薄膜装备开发中的仿真应用、自主知识产权的功率半导体器件开发实践、国产自主软件研发等具体进展。其核心目标是实现对半导体器件从制备、服役到失效的全生命周期的精准洞见与可靠性调控，从根本上变革传统的“试错”式研发模式，显著缩短研发周期，提升产品性能与良率，为我国在这一关键领域实现从理论创新到产业应用的跨越式发展提供核心驱动力。
报告人简介
刘胜，武汉大学教授，武汉大学集成电路学院院长、工业科学研究院执行院长。斯坦福大学博士，ASME Fellow和IEEE Fellow，微纳制造领域专家，国内芯片封装技术的引领者，刘胜教授在微纳制造科学与工程技术方面（涉及集成电路、发光二极管LED、微传感器及电力电子IGBT 等芯片封装）取得了系统的创新成果。以第一完成人获2020年国家科学技术进步一等奖、2016年国家技术发明二等奖、2015年教育部技术发明一等奖、2018年电子学会技术发明一等奖、2009年IEEE国际电子封装学会杰出技术成就奖（全球每年1人，国内首人）、2009年中国电子学会特别成就奖、1997年国际微电子及封装学会（IMAPS）技术贡献奖、1995年美国总统教授奖（当年30人），1999年入选首批国家杰青（海外）项目（当年仅7人）。发表SCI 论文550余篇，出版专著6部（英文4部），授权发明专利230余件。
Dr. Dushan Boroyevich
Virginia Polytechnic Institute and State University
Fellow of the National Academy of Engineering, USA
Former President of the IEEE Power Electronics Society
IEEE Fellow
报告题目待定
报告人简介
Dushan Boroyevich received the Dipl.Ing. degree from the University of Belgrade, Belgrade, Serbia (formerly Yugoslavia), in 1976, the M.S. degree from the University of Novi Sad, Novi Sad, Serbia, in 1982, and the Ph.D. degree from Virginia Polytechnic Institute and State University (Virginia Tech), Blacksburg, VA, USA, in 1986.
From 1986 to 1990, he was an Assistant Professor with and the Director of the Power and Industrial Electronics Research Program, Institute for Power and Electronic Engineering, University of Novi Sad, where he later became the Acting Head of the institute. He then joined the Bradley Department of Electrical and Computer Engineering, Virginia Tech, as an Associate Professor. He is currently the American Electric Power Professor with the same department, where he is also the Director Emeritus of the Center for Power Electronics Systems. His research interests include multiphase power conversion, electronic power distribution systems, power electronics systems modeling and control, and the integrated design of power converters.
Dr. Boroyevich was the President of the IEEE Power Electronics Society from 2011 to 2012. He is a member of the U.S. National Academy of Engineering. He was a recipient of the IEEE William E. Newell Power Electronics Technical Field Award and IEEE Power Electronics Society's Harry A. Owen Distinguished Service Award.
Prof. Frede Blaabjerg
Aalborg University
Academician of the Danish Academy of Sciences
Former President of IEEE Power Electronics Society
IEEE Fellow
报告题目
Design for reliability in Power Electronic Systems
报告摘要
In recent years, the automotive and aerospace industries have brought stringent reliability constraints on power electronic converters because of safety requirements. Today customers of power electronic products expect up to 20 years of lifetime and they also want to have a “failure free period” - all with focus on the financials. The renewable energy sectors are following the same trend, and more and more efforts are being devoted to improving power electronic converters to account for reliability with cost-effective and sustainable solutions. This presentation will introduce the recent progress in the reliability aspects of power electronic converters for power electronic applications with special focus on renewables. It will cover contents like: the motivations for highly reliable electric energy conversion in renewable energy systems; the reliability requirements of typical renewable energy systems and its implication on the power electronic converters; failure mechanisms and lifetime models of key power electronic components (e.g., power semiconductor switches, capacitors, and fans); long-term mission profiles; reliability analysis methods and improvement strategies of power electronic converters for renewable energy systems. A few case studies on will also be given.
报告人简介
Frede Blaabjerg was with ABB-Scandia, Randers, Denmark, from 1987 to 1988. From 1988 to 1992, he got the PhD degree in Electrical Engineering at Aalborg University in 1995. He became an Assistant Professor in 1992, an Associate Professor in 1996, and a Full Professor of power electronics and drives in 1998 at AAU Energy. From 2017 he became a Villum Investigator. He is honoris causa at University Politehnica Timisoara (UPT), Romania in 2017 and Tallinn Technical University (TTU), Estonia in 2018.
His current research interests include power electronics and its applications such as in wind turbines, PV systems, reliability, harmonics and adjustable speed drives. He has published more than 600 journal papers in the fields of power electronics and its applications. He is the co-author of four monographs and editor of ten books in power electronics and its applications.
He has received 38 IEEE Prize Paper Awards, the IEEE PELS Distinguished Service Award in 2009, the EPE-PEMC Council Award in 2010, the IEEE William E. Newell Power Electronics Award 2014, the Villum Kann Rasmussen Research Award 2014, the Global Energy Prize in 2019 and the 2020 IEEE Edison Medal. He was the Editor-in-Chief of the IEEE TRANSACTIONS ON POWER ELECTRONICS from 2006 to 2012. He has been Distinguished Lecturer for the IEEE Power Electronics Society from 2005 to 2007 and for the IEEE Industry Applications Society from 2010 to 2011 as well as 2017 to 2018. In 2019-2020 he served as a President of IEEE Power Electronics Society. He has been Vice-President of the Danish Academy of Technical Sciences.
He is nominated in 2014-2021 by Thomson Reuters to be between the most 250 cited researchers in Engineering in the world.
Prof. Liuchen Chang
University of New Brunswick
Former President of IEEE Power Electronics Society
Fellow of the Canadian Academy of Engineering
报告题目
Power Electronics for Distributed Energy Resources: Past, Present and Future
报告摘要
Distributed energy resources (DERs) have become an integral part of power systems, thanks to the increasing penetration of renewable energy and energy storage units. The technologies for DERs have advanced significantly over the past two decades. Power electronic technologies are essential for the integration, protection, performance, and interoperability of DERs. This presentation focuses on the past and recent developments in power electronic technologies for DERs, especially on the topics of power conversion, integration and control, MV and HV technologies, and testing and validation of DER systems. An overview of the evolution in interconnection standards over the past 25 years reveals the progression in technical requirements. Dr. Chang will also report the preliminary findings based on the survey of the professional community for DER power electronic technologies, projecting the long-term technological developments and applications of power electronics for DERs.
报告人简介
Liuchen Chang received B.S. from Beijing Jiaotong University in 1982, M.Sc. from China Academy of Railway Sciences in 1984, and Ph.D. from Queen’s University in 1991. He joined the faculty of University of New Brunswick in 1992, and is now Professor Emeritus at UNB. He was the NSERC Chair in Environmental Design Engineering during 2001-2007, and the Principal Investigator of the Canadian Wind Energy Strategic Network during 2008-2014. He is a long-time volunteer for IEEE for over 30 years and was the President of the IEEE Power Electronics Society (2021-2022).
Dr. Chang was a recipient of Canadian Wind Energy Association’s Templin Award, New Brunswick’s Innovation Award for Excellence in Applied Research, and PELS Sustainable Energy Systems Technical Achievement Award. He is a fellow of the Canadian Academy of Engineering. He has published more than 400 refereed papers in journals and conference proceedings. Dr. Chang has focused on research, development, demonstration and deployment of distributed energy systems.
Prof. Josep M. Guerrero
The Microgrid and Renewable Energy Center at the Huanjiang Laboratory
IEEE Fellow
报告题目
Bio-Inspired Microgrids: Bridging Neuroscience and Renewable Energy Systems
报告人简介
Prof. Josep Maria Guerrero Zapata is currently a professor at Aalborg University in Denmark and the director of the Microgrid and Renewable Energy Center at the Huanjiang Laboratory. He has been actively involved in the field of microgrids and renewable energy systems for a long time, possessing significant academic influence and appeal globally. He serves as the editor-in-chief of "Power and Energy Systems" and as an associate editor for four IEEE academic journals, including "IEEE Transactions on Power Electronics," as well as a member of the editorial boards of 14 other journals. He has authored nine monographs and published approximately 1,200 high-level academic papers, with an H-index of 166 and a total citation count exceeding 130,000 (from Google Scholar data). He has been recognized as a Highly Cited Researcher by Clarivate Analytics for ten consecutive years and ranks first globally in terms of citations in the field of microgrids. In 2021, he was elected as an academician of the Danish Technical Academy (equivalent to the National Academy of Engineering), and in 2015, he was elected as a Fellow of the Institute of Electrical and Electronics Engineers (IEEE). He has received numerous prestigious awards from international academic institutions, such as the Villum Investigator, the IEEE Bimal Bose Award, the IEEE PES Douglas M. Staszesky Distribution Automation Award, and the IEEE Modeling and Control Technical Achievement Award.
Prof. Dong-Choon Lee
Yeungnam University Gyeongsan
Former President of The Korean Institute of Power Electronics
IEEE Fellow
报告题目
Recent Advances in Multilevel Converters; Topology, Control, and Applications
报告人简介
Dong-Choon Lee received his B.S., M.S., and Ph.D. degrees in Electrical Engineering from Seoul National University, Seoul, Korea, in 1985, 1987, and 1993, respectively. He has been a faculty member in the Department of Electrical Engineering, Yeungnam University, Gyeongsan, Korea, since 1994. He served as the Editor-in-Chief of the Journal of Power Electronics of the Korean Institute of Power Electronics (KIPE), from 2015 to 2017. In 2019, he served as the President of KIPE. Also, he served as General Chair, for ICPE 2023-ECCE Asia. Presently, he is an IEEE fellow and he is serving as an Associate Editor of IEEE Transactions on Power Electronics and the Taegu PELS Chapter Chair. His current research interests include power converter design and control, renewable energy and its grid connection, AC machine drives, and DC power system.
Prof. Keiji Wada
Tokyo Metropolitan University
Vice Chair of the International Committee of the Industry Applications Division of IEEE IEEJ
Vice President of the IEEJ Semiconductor Power Conversion Technology Committee
报告题目
The Next Generation of Power Electronics: A Co-Designed Future for Circuits and Passive Components
报告人简介
Keiji Wada received his Ph.D. degree in electrical engineering from Okayama University, Japan, in 2000.
From 2000 to 2006, he served as an Assistant Professor at Tokyo Metropolitan University and the Tokyo Institute of Technology. He was an Associate Professor at Tokyo Metropolitan University from 2006 to 2020 and has been a Professor at the same university since 2021. He is also serving as the Program Chair for the 2026 IEEE Energy Conversion Congress and Exposition (ECCE) Asia.
His current research interests include medium-voltage inverters, electromagnetic interference (EMI) filters, and active power filters. Within Japan's MEXT "Innovative Power Electronics Technologies" (INNOPEL) program, he leads a research theme on high-performance Solid State Transformers (SST) and is a key figure in developing a national technology roadmap for passive components in power electronics.
Dr. Wada is a senior member of the IEEE and the IEEJ.
Prof. Lin Ruan
The Institute of Electrical Engineering, Chinese Academy of Sciences
报告题目
Research Progress on the Application of Phase Change-Cooling Technology in Flexible DC Converter Valves
报告摘要
With the continuous increase in capacity of Flexible DC Converter Valves, power devices face severe heating challenges. High temperatures and cyclic thermal stress fluctuations have become the core factors affecting device reliability. Currently, all in-service converter valves adopt water cooling technology, which, while featuring high technology maturity and excellent cooling performance, inherently suffers from drawbacks such as water conductivity, corrosivity, and system high maintenance complexity. To overcome this technical bottleneck, A pump-free self-circulating phase-change cooling valve segment prototype based on CRRC's 4.5kV/2000A press-pack power devices is demonstrated. By taking advantage of the highly efficient heat transfer characteristics of gas-liquid phase-change processes, the cooling efficiency and operational safety of converter valves is significantly enhanced.
Test results show that the prototype maintains a maximum radiator surface temperature below 65°C at its rated operating condition. Under harsh operating conditions with an inlet water temperature of 40°C and load fluctuations ranging from 0.2P.U. to 1.0P.U., its temperature fluctuation amplitude is reduced by up to 44% compared to traditional water-cooling solutions, effectively suppressing temperature fluctuations in power switching devices. Additionally, the phase-change cooling technology can reduce energy consumption of cooling system by more than 20% compared to water-cooling systems of equivalent scale. This technological breakthrough not only addresses the conductivity and corrosion risks of cooling water but also provides a new solution for the high efficiency, compact and safety design of high-voltage, high-capacity converter valves.
报告人简介
Prof. Ruan is a researcher at the Institute of Electrical Engineering, Chinese Academy of Sciences (CAS), a doctoral supervisor, and a professor at the University of Chinese Academy of Sciences. In 2012 and 2018, she served as a senior visiting scholar at the University of Cambridge and Queen Mary University of London, respectively. In 2018, she initiated the establishment of the specialized Committee of the Cooling technology for Clean Energy Equipment under the China Society for Hydropower Engineering (CSHE)and was appointed as its secretary-general.
She has long been engaged in fundamental and applied research on phase-change cooling technology for electrical equipment，power electronic equipment an IT devices, as well as equipment development. She has authored or co-authored over 50 research papers as the first or corresponding author and holds more than 60 invention patents. She was a recipient of the CAS K.C. Wong Education Foundation "Outstanding Female Scientist" Award in 2011 and China-UK Leaders in Innovation Fellowships, jointly awarded by the Chinese Academy of Engineering and the UK Royal Academy of Engineering in 2016 and some other Provincial- and ministerial-level awards.
侯召政 技术与平台规划部部长
华为数字能源
报告题目
AI数据中心供电架构的演进趋势
报告摘要
人工智能市场正迎来空前繁荣，预计2026年中国AI算力市场规模将突破337亿美元。面对未来演进需求、数据安全以及兆瓦级数据中心的高能耗挑战，安全可靠的供电架构尤为关键。本次演讲将从柔性扩展、安全可靠、高效节能三大维度展开，深度剖析从10KV高压输入到AI芯片供电链路的多种演进方向。
报告人简介
侯召政，华为数字能源技术与平台规划部部长，负责华为数字能源产品和解决方案三代技术与平台的规划开发，4T（watt、heat、battery、bit）创新根技术的构建，主导建设了数字能源历代ICT/新能源/工业控制芯片、功率封装、功率器件、PSIP技术研发及xx亿级产业化发货，拥有国内外授权专利60+件。现任IEEE高级会员、中国电源学会储能与能量转换专委会副主任委员、中国电工技术学会电力电子专委会委员、中国电源学会元器件专委会委员、电子封装技术国际会议（ICEPT）功率电子与能源电子专题主席、中国电力发展促进会电力电子专委会数字能源代表。
肖强 副总经理
株洲中车时代半导体股份有限公司
报告题目
双碳目标下功率半导体技术演进与应用机遇
报告摘要
在“双碳”目标推动下，功率半导体在交通与能源电气化和低碳化进程中发挥着愈加重要的作用。硅基器件在高压与成熟应用中持续优化，SiC等宽禁带材料正快速渗透至新能源汽车、充电设施、可再生能源、储能及轨道交通等领域。本报告将回顾功率半导体的技术演进，探讨在绿色交通与能源转型中的应用机遇，并展望行业未来发展方向。
报告人简介
肖强，中国中车资深技术专家，现任株洲中车时代半导体股份有限公司副总经理，研发中心主任。长期从事功率半导体技术相关工作，带领团队攻克 IGBT 沟槽栅设计与工艺量产等关键技术；研制出750V-1700V系列沟槽栅 IGBT 芯片及其配套 FRD ，并实现量产，性能表现达到国际主流水平；参与国家重点研发项目6项，省部级以上奖励4项，获湖南省三尖创新人才称号，发表高水准论文10余篇，申请发明专利34项。
Dr. Masayoshi Tarutani
Mitsubishi Electric Corporation
报告题目
Innovative Technologies of Power Semiconductor Chips and Modules
报告摘要
Mitsubishi Electric Corporation develops and manufactures a variety of power semiconductor devices, contributing to the realization of a decarbonized society. Its applications extend beyond automotive and industrial applications, from consumer electronics to renewable energy, railways and power transmission & distribution.
This lecture first introduces the structure and advanced electrical characteristics of Mitsubishi Electric's 8th generation IGBT chips and 3rd generation RC-IGBT chips. The latest technology enables further improvement of switching losses and heat dissipation performance.
Next, this lecture will discuss the structure and electrical characteristics of the latest generation of planar and trench SiC-MOSFETs, with a particular focus on their switching stability and robustness. In addition, we will touch on new process technologies to overcome the degradation of body diodes. Some examples of bare die products for automotive applications will also be introduced.
Finally, the latest innovative power modules developed for various application fields and the advanced technologies adopted will be introduced in detail.
报告人简介
Dr. Masayoshi Tarutani received the Ph.D. from the Faculty of Engineering, Osaka University in 1995. He joined Advanced Technology Research and Development Center of Mitsubishi Electric Corporation in 1996, and experienced the development of various semiconductor devices and materials, including DRAM, CNT and SiC etc. In 2011, he started to conduct research and development of power devices at Mitsubishi Electric Power Device Works, where he was successively responsible for launching the SiC wafer production line and the 6th and 7th generation Si-IGBTs.
After serving as the department manager of the Wafer Process Technology Department and the Device Development Department, he is currently the chief expert of Mitsubishi Electric Power Device Works, supporting the development of power device technology.
最新信息将在会议官网及时更新。
技术报告分会场、墙报交流
会议将设置110个主题技术报告分会场及墙报交流时段，直观展示1200余篇最新论文和研究成果，使参会者就电源各领域技术进行充分交流。
技术报告分会场、墙报交流主题
新颖开关电源：直流变换、功率因数校正；
变频电源及电力传动系统；
功率半导体器件及其应用；
磁技术及其在电源中的应用；
新能源变换与控制；
电能质量治理与优化；
照明电源与消费电子；
特种电源装备与系统；
电磁兼容与可靠性；
无线电能传输；
信息系统供电技术：UPS、直流供电、电池管理；
电动汽车充电与驱动；
交通电气化；
电力电子化电力系统及装备；
先进电池与储能系统；
燃料电池与氢能及其装置与系统；
电能与其它能量转换元件、装置与系统；
电力电子系统电工材料技术；
电力电子与直流输配电系统；
电力电子与人工智能；
电力电子与综合能源系统
工业报告分会场
会议将设置10个主题工业报告分会场共计40场报告，以电力电子热点及重点共性技术问题为主，更加着重于工程应用和产品开发技术。
工业报告分会场主题
新型功率半导体器件及其应用；
高效高功率密度开关电源及应用；
新型电机及其驱动控制技术；
GPU电源及AI数据中心供电架构；
电动汽车充电及系统解决方案；
新能源变换器及储能系统和应用；
高频磁性元件及其应用
展览方面
展览会
本届展览会规划使用深圳国际会展中心20号馆，使用面积10000平方米，超过140家企业、科研机构和高校集中展示电源及相关领域新产品、新应用、新成果，反映电源产业技术创新水平，促进产学研用交流与合作，展览规模将超过400余个展位。邀请国内外来自：新能源汽车、光储充、电子驱动，太阳能光伏，风能，电力电网，通讯及大数据，轨道交通，测量，电机工程，机械制造，消费电子及其他电力电子上下游相关行业人员到场参观，预计将有4000人次到场。
CPEEC & CPSSC 2025合作伙伴名单
钻石合作伙伴
白金合作伙伴
参展商及专项服务商：
按企业名称首字母排序
安徽大学电气工程与自动化学院
艾普斯电源（苏州）有限公司
安徽瑞德磁电科技有限公司
安徽希磁科技股份有限公司
北京柏艾斯科技有限公司
北京大华无线电仪器有限责任公司
北京市天润中电高压电子有限公司
北京芯合半导体有限公司
沧州建桥电源有限公司
成都赛力康电气有限公司
创意电子有限公司
氮矽科技
东莞铭普光磁股份有限公司
东莞市必德电子科技有限公司
东南大学
恩智技术股份有限公司
福禄克测试仪器（上海）有限公司
固纬电子（苏州）有限公司
广东大比特网络科技有限公司
广东高云半导体科技股份有限公司
广东明路电力电子有限公司
广东南方宏明电子科技股份有限公司
广东致能半导体有限公司
广州德肯电子股份有限公司
广州金升阳科技有限公司
广州市爱浦电子科技有限公司
贵州云睿电子科技有限公司
杭州铂科电子有限公司
杭州飞仕得科技股份有限公司
杭州精日科技有限公司
杭州瞬迦科技有限公司
杭州远方仪器有限公司
杭州芯创德半导体有限公司
合肥蓝点数字电源有限公司
河南求同电气科技有限公司
横店集团东磁股份有限公司
横河测量技术（上海）有限公司
华仿科技（北京）有限公司
华源智信半导体（深圳）有限公司
黄山申格电子科技股份有限公司
惠州市磁极新能源科技有限公司
济南鲁晶半导体有限公司
江苏宏微科技股份有限公司
江西艾特磁材有限公司
晶通半导体（深圳）有限公司
力高仪器有限公司
龙腾半导体股份有限公司
罗德与施瓦茨（中国）科技有限公司
马舍科技（上海）有限公司
迈为电子技术（上海）有限公司
"绵阳迈科磁元电子有限公司
MAIKE MAGNETICS"
敏业信息科技（上海）有限公司
南京泓帆动力技术有限公司
南京兰泰机电集成有限公司
南京芯干线科技有限公司
南京研旭电气科技有限公司
帕瓦科技（东莞）有限公司
PCIM ASIA SHENZHEN
清华大学电机系先进电能变换及电气化交通研究团队
清远市晶瑞合金材料有限公司
清正源华（北京）科技有限公司
厦门赛尔特电子股份有限公司
山东东泰方思电子有限公司
上海安世博能源科技有限公司
上海昌测电子系统有限公司
上海德携电子科技有限公司
上海汉象智能科技有限公司
上海科梁信息科技股份有限公司
上海唯力科技有限公司
上海鹰峰电子科技股份有限公司
上海永铭电子股份有限公司
上海远宽能源科技有限公司
上海瞻芯电子科技股份有限公司
深圳东昇射频技术有限公司
深圳力钛科技术有限公司
深圳麦科信科技有限公司
深圳尚阳通科技股份有限公司
深圳市昂盛达电子股份有限公司
深圳市必事达电子有限公司
深圳市必易微电子股份有限公司
深圳市铂科新材料股份有限公司
深圳市鼎阳科技股份有限公司
深圳市皓文电子股份有限公司
深圳市恒运昌真空技术股份有限公司
深圳市华科智源科技有限公司
深圳市巨搏悦科技有限公司
深圳市康奈特电子有限公司
深圳市科达嘉电子有限公司
深圳市联宇科技有限公司
深圳市麦创电子科技有限公司
深圳市麦思浦半导体有限公司
深圳市美德龙五金塑胶制品有限公司
深圳市斯康达电子有限公司
深圳市瓦特源检测研究有限公司
深圳英飞源技术有限公司
深圳市知用电子有限公司
深圳市智胜新电子技术有限公司
苏州博众仪器科技有限公司
苏州镓创晶合科技有限公司
苏州万瑞达电气有限公司
唐山尚新融大电子产品有限公司
特励达力科
天津工业大学——浙江星柯光电科技有限公司
天永诚高分子材料（江苏）股份有限公司
瓦克华磁性材料（沈阳）有限公司上海分公司
武汉羿变电气有限公司
无锡宸瑞新能源科技有限公司
无锡芯朋微电子股份有限公司
武汉森木磊石科技有限公司
武汉智瑞捷电气技术有限公司
芯联集成电路制造股份有限公司
一诺仪器（中国）有限公司
英富美（深圳）科技有限公司
浙江大学杭州国际科创中心电源管理技术创新联盟
浙江东睦科达磁电有限公司
浙江巨磁智能技术有限公司
郑州大学
中电国基南方集团有限公司
珠海泰为电子有限公司
展商论坛、卫星会场
展览会同期，同时安排3个活动报告区举办4场展商论坛共计11个报告，以及2场卫星会场，内容涵盖：功率半导体、被动元件、半导体材料与封装技术、测试测量仪器与设备、半导体制造设备、电力电子系统以及电力电子生态链上下游等多个领域。为来自电源、电力电子及相关应用界的专业观众们搭建交流合作平台，使展商与专业观众得到多维度、深层次的“面对面对话”。
新能源汽车电子器件论坛
首次设立新能源汽车电子专区，配合专区举办1场“新能源汽车电子器件论坛”，聚焦行业技术应用热点，来自高校知名教授和知名企业专家共同发布趋势报告，聚技术创新之力，谋产业发展之机。
同期活动
CPSS&PELS Joint Young Professional Forum / 联合青年人才论坛
CPSS&PELS Joint Female Scientists Forum / 联合女科学家论坛
教育教学论坛暨电力电子技术课程群虚拟教研室研讨活动
电源科研成果交流会
新能源汽车电子器件论坛
电源创新成果交流会
中国电源学会团体标准宣贯交流会暨团体标准专委会工作会议
第二届中国电源学会会员沙龙
名誉主席
李泽元 徐德鸿
大会主席
刘进军
指导委员会主席
罗 安邓建军
指导委员会委员
章进法 阮新波 马 皓袁小明 周桃园 杜 雄
技术程序委员会主席
李武华涂春鸣 王高林 陈阿莲
工业报告委员会主席
章进法张军明 孙耀杰
专题讲座委员会主席
阮新波张品佳 王懿杰
组织委员会主席
马皓
前沿论坛委员会主席
袁小明
专题活动委员会主席
杜 雄
展览委员会主席
何建军
秘书长
张 磊
专业观众团组报名咨询
咨询热线：18622930687（微信同号）
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