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2023 IEEE PES Awards: Accolades to the 2023 recipients [Awards] 2023 IEEE PES大奖:颁发给2023年获奖者的荣誉[奖项]
3区 工程技术 Q2 Engineering Pub Date : 2023-11-01 DOI: 10.1109/mpe.2023.3308231
Shanon Nason
We are excited to share the 2023 IEEE Power & Energy Society (PES) award recipients! Each year, we are proud to highlight leading Society members and industry principals for their notable contributions to PES and the power and energy industry through the following distinct honors and awards.
我们很高兴与大家分享2023年IEEE电力与能源学会(PES)奖的获奖者!每年,我们都很自豪地通过以下不同的荣誉和奖项来表彰领先的协会成员和行业负责人对PES和电力和能源行业的杰出贡献。
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引用次数: 0
Grid Planning for Electrification Using Highly Granular Analytics: Insights Into the Transportation Distribution Infrastructure 使用高粒度分析的电气化电网规划:对交通配送基础设施的洞察
3区 工程技术 Q2 Engineering Pub Date : 2023-11-01 DOI: 10.1109/mpe.2023.3308237
Robert A. F. Currie, Teddy Ward, James L. Carney, Greg Mandelman, Margot C. Everett, Aram Shumavon, Nathan Phelps, Lindsay Griffin, Stephan Roundtree
Many countries are enhancing the planning and interconnection process to accelerate the interconnection of solar, wind, and other technologies to the distribution grid. The electrification of transportation, however, is going to have a much larger impact on utility planning and operations, essentially transforming utilities into providers of foundational mobility-related services. The speed of electric vehicle (EV) adoption is increasing and is an order of magnitude faster than the pace at which utilities build new distribution and transmission infrastructure. EV adoption scenarios must be sufficiently accurate, granular, and specific to identify critical grid investment needs. Identifying probable EV adoption and usage patterns and then modeling their impacts on the power grid is a complex process that will be fundamental to decarbonizing the grid.
许多国家正在加强规划和互联进程,以加速太阳能、风能和其他技术与配电网的互联。然而,交通电气化将对公用事业的规划和运营产生更大的影响,从根本上将公用事业转变为基础移动相关服务的提供者。电动汽车(EV)的普及速度正在加快,其速度比公用事业公司建设新的配电和输电基础设施的速度快一个数量级。电动汽车的采用场景必须足够准确、细致和具体,以确定关键的电网投资需求。确定可能的电动汽车采用和使用模式,然后对其对电网的影响进行建模,这是一个复杂的过程,将是电网脱碳的基础。
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引用次数: 0
Share your thoughts: Send comments to pem-eic@ieee.org [Letters to the Editor] 分享你的想法:发送评论到pem-eic@ieee.org[给编辑的信]
3区 工程技术 Q2 Engineering Pub Date : 2023-11-01 DOI: 10.1109/mpe.2023.3308241
Duncan Wilson
Readers are encouraged to share their views on issues affecting the electric power and energy profession. Send your letters to the editor-in-chief at pem-eic@ieee.org. Letters may be edited for publication.
我们鼓励读者就影响电力及能源业界的问题发表意见。把你的信寄给主编pem-eic@ieee.org。信件可以编辑出版。
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引用次数: 0
New Tool Evaluates the Financial Viability of Pumped Storage Hydropower 新工具评估抽水蓄能水电的财务可行性
3区 工程技术 Q2 Engineering Pub Date : 2023-11-01 DOI: 10.1109/mpe.2023.3308240
Patrick Balducci, Mark Weimar, Xu Ma, Di Wu, Jonghwan Kwon, Anna Schleifer, Vladimir Koritarov, Sang-il Yim, Bruce Hamilton
The rapidly evolving electricity system with increasing variable renewable energy (VRE) resources provides both opportunities and challenges for the power sector. With the significant ramps and intermittency associated with VRE resources, the requirements and need for additional flexible resources increase. Pumped storage hydropower (PSH) provides flexibility to the electricity grid to replace fossil fuel plants, which are responsible for 25% of U.S. emissions. PSH projects support various aspects of power system operations, including flexibility, ramping capability, energy, ancillary service, black start, and others. The significant potential of hydropower requires understanding the different value drivers to the electricity system specific to the location of a project and then optimizing the plant for the different system values. Thus, determining the value of PSH projects and their many services and contributions to the electricity system can be a challenge for potential developers, system owners, regulators, policy makers, and consultants.
随着可变可再生能源(VRE)资源的不断增加,电力系统的快速发展为电力部门提供了机遇和挑战。由于与VRE资源相关的显著斜坡和间歇性,对额外灵活资源的要求和需求增加。抽水蓄能水电(PSH)为电网提供了灵活性,以取代化石燃料发电厂,后者占美国排放量的25%。PSH项目支持电力系统运行的各个方面,包括灵活性、爬坡能力、能源、辅助服务、黑启动等。水电的巨大潜力需要了解特定于项目位置的电力系统的不同价值驱动因素,然后针对不同的系统价值优化工厂。因此,确定PSH项目的价值及其对电力系统的诸多服务和贡献对于潜在的开发商、系统所有者、监管机构、政策制定者和顾问来说可能是一个挑战。
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引用次数: 0
2023 Index IEEE Power and Energy Magazine Vol. 21 电力与能源学报,第21卷
3区 工程技术 Q2 Engineering Pub Date : 2023-11-01 DOI: 10.1109/mpe.2023.3326640
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引用次数: 0
Customer-Centric Electric Vehicle Orchestration in New Zealand: How Residential Smart Charging Can Deliver Affordability and Customer Satisfaction 新西兰以客户为中心的电动汽车编排:住宅智能充电如何提供可负担性和客户满意度
3区 工程技术 Q2 Engineering Pub Date : 2023-11-01 DOI: 10.1109/mpe.2023.3308250
Steve Heinen, Andre Botha, Duncan Head, Rafferty Parker, Pieter Richards
The conditions for flipping the vehicle fleet to electricity are ripe in New Zealand: the electricity supply is largely renewable, policies incentivize the shift to electric vehicles (EVs), and customer interest in EVs is high. During this transformation, the home is expected to become the new fuel station. Integrating EV charging seamlessly into the electricity network is critical to guarantee that the vision of electric transport is delivered in a cost-efficient, equitable, and reliable supply. To understand customer behavior and network requirements for at-home charging, Vector, New Zealand’s largest electricity distribution company, has been carrying out an EV smart charging trial with 200 EV owners over the last three years. The trial established data-driven EV charging requirements that have been implemented into network planning processes. Furthermore, the trial demonstrates how smart charging can integrate EVs within existing network capacity while also delivering customer satisfaction. The trial provides a blueprint for how electricity networks can harness data, monitoring, and smart control to transition to the new energy future.
在新西兰,将车队转向电力的条件已经成熟:电力供应主要是可再生的,政策鼓励转向电动汽车(ev),客户对电动汽车的兴趣很高。在这一转变过程中,家庭有望成为新的燃料站。将电动汽车充电无缝地整合到电力网络中,对于确保以具有成本效益、公平和可靠的供应方式实现电动交通的愿景至关重要。为了了解客户行为和网络对家庭充电的要求,新西兰最大的配电公司Vector在过去三年中对200名电动汽车车主进行了电动汽车智能充电试验。该试验建立了数据驱动的电动汽车充电要求,并将其纳入网络规划流程。此外,该试验还展示了智能充电如何将电动汽车整合到现有网络容量中,同时提高客户满意度。该试验为电网如何利用数据、监测和智能控制向新能源未来过渡提供了蓝图。
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引用次数: 0
Open Data to Accelerate the Electric Mobility Revolution: Deploying Journey Electric Vehicle Chargers in Rural Scotland 开放数据加速电动交通革命:在苏格兰农村部署旅程电动汽车充电器
3区 工程技术 Q2 Engineering Pub Date : 2023-11-01 DOI: 10.1109/mpe.2023.3308221
Lewis Hunter, Ryan Sims, Stuart Galloway
Governments across the world are exploring options to transition their population away from internal combustion vehicles toward alternative low- and zero-carbon technologies. For small “light-duty” personal and commercial vehicles, the transition toward battery-powered electric vehicles (EVs) appears to be the candidate solution. In Scotland since 2013, more than £50 million (∼US$63 million) has been invested in a nationwide EV charging network consisting of more than 2,400 charging points. Statistics for the year 2022 indicate that more than 2 million vehicle charging sessions took place on the public charging network in Scotland (not including third-party operators nor private charging points) and delivered approximately 43 GWh of energy to vehicles. As of January 2023, there were 69 public charging points per 100,000 people with 17.3 public rapid charging points per 100,000 people. A rapid charger is a device capable of charging an EV at ≥ 25 kW. Generally, rapid charging points are rated at 50-kW dc and above. Increasingly, the classification “rapid” is being replaced by the term journey charging.
世界各国政府都在探索各种方案,将民众从内燃机汽车转向可替代的低碳和零碳技术。对于小型“轻型”个人和商用车来说,向电池供电的电动汽车(ev)过渡似乎是备选的解决方案。自2013年以来,苏格兰已投资超过5000万英镑(约6300万美元)建设一个由2400多个充电站组成的全国性电动汽车充电网络。2022年的统计数据表明,苏格兰的公共充电网络(不包括第三方运营商和私人充电点)进行了超过200万次车辆充电,并向车辆提供了约43吉瓦时的能源。截至2023年1月,每10万人拥有69个公共充电桩,每10万人拥有17.3个公共快速充电桩。快速充电器是指能够以≥25kw的功率为电动汽车充电的设备。一般来说,快速充电点的额定直流功率为50kw及以上。“快速”一词正逐渐被“旅程收费”一词所取代。
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引用次数: 0
Learning From the Norwegian Electric Vehicle Success: An Overview 从挪威电动汽车的成功中学习:概述
3区 工程技术 Q2 Engineering Pub Date : 2023-11-01 DOI: 10.1109/mpe.2023.3308246
Magnus Korpås, Aurora F. Flataker, Hanne Sæle, Bendik Nybakk Torsæter, Karen Byskov Lindberg, Shanshan Jiang, Åse Lekang Sørensen, Audun Botterud
Norway is at the forefront of the transition from fossil fuels to an electrified transport sector. In the first half of 2022, more than four out of five new passenger cars sold were fully electric and the share of electric vehicles (EVs) in the total car fleet was almost one out of five. There are several reasons for this successful development. Norway’s electricity supply sector is almost entirely made up of renewable energy in the form of hydropower, with the recent addition of wind power. As a result, Norwegian politicians and regulators had to consider other sectors than electric power to reduce domestic carbon emissions. In the early stages, Norway introduced several measures to reduce carbon emissions in the transport sector, which contributed to about one-third of domestic carbon emissions. Incentives were introduced in the form of benefits, like free parking and ferry rides, access to prioritized bus and taxi lanes, and free public charging. However, the most important factor for the transition to EVs was the exceptionally high taxes for conventional cars fueled by gasoline or diesel, from which EVs are exempt. For many drivers in Norway, these taxes alone have made EVs more favorable than their fossil fuel counterparts.
挪威处于从化石燃料向电气化运输部门过渡的最前沿。在2022年上半年,超过五分之四的新乘用车是全电动的,电动汽车(ev)在汽车总数中的份额几乎是五分之一。这种成功的发展有几个原因。挪威的电力供应部门几乎完全由水力发电形式的可再生能源组成,最近还增加了风力发电。因此,挪威的政治家和监管机构不得不考虑电力以外的其他行业,以减少国内的碳排放。在早期阶段,挪威引入了几项措施来减少运输部门的碳排放,运输部门占国内碳排放量的三分之一左右。激励措施以福利的形式引入,如免费停车和乘坐轮渡,使用优先的公共汽车和出租车车道,以及免费的公共收费。然而,向电动汽车转型的最重要因素是汽油或柴油驱动的传统汽车的超高税收,而电动汽车则免税。对于挪威的许多司机来说,仅这些税收就使电动汽车比化石燃料汽车更优惠。
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引用次数: 0
Precise Time, All the Time: A Resilient Architecture for the Electric Power Industry and Beyond 精确的时间,所有的时间:电力工业及其他领域的弹性架构
IF 2.8 3区 工程技术 Q2 Engineering Pub Date : 2023-09-01 DOI: 10.1109/MPE.2023.3288593
P. Robertson, K. Fodero, C. Huntley, M. Elshafi, Dustin Williams
GPSs are among the most widely available global navigation satellite systems (GNSSs) in use today. This free technology provides high-accuracy positioning, navigation, and timing (PNT) services that enable many applications. Many critical infrastructure systems and assets depend on PNT services, which include electrical power grid, telecommunication infrastructure, financial, transportation, agriculture, and emergency response systems.
GPS是目前使用的最广泛的全球导航卫星系统(GNSS)之一。这项免费技术提供高精度定位、导航和定时(PNT)服务,使许多应用程序成为可能。许多关键基础设施系统和资产依赖PNT服务,包括电网、电信基础设施、金融、交通、农业和应急响应系统。
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引用次数: 0
Grid data transport: Planning for a data-driven grid [Guest Editorial] 网格数据传输:数据驱动网格的规划[客座编辑]
IF 2.8 3区 工程技术 Q2 Engineering Pub Date : 2023-09-01 DOI: 10.1109/mpe.2023.3288582
Jim Ogle
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引用次数: 0
期刊
IEEE Power & Energy Magazine
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