可入网电动汽车(plug-in electric vehicle,PEV)近年来发展迅猛,考虑PEV与清洁能源大量并网后的差异性需求,构建兼顾输电网、配电网与用户利益的双层规划模型。上层输电网规划以系统运行成本最小、车主消费最少、弃风弃光惩罚最少、碳...可入网电动汽车(plug-in electric vehicle,PEV)近年来发展迅猛,考虑PEV与清洁能源大量并网后的差异性需求,构建兼顾输电网、配电网与用户利益的双层规划模型。上层输电网规划以系统运行成本最小、车主消费最少、弃风弃光惩罚最少、碳排放总量最小为目标,协同调度火电机组、新能源与PEV出力,实现PEV的时域调度;下层配电网模型以网损最小为目标,通过最优潮流计算实现PEV的空间调度。算例结果表明,对PEV进行有效调度并配合合理的电网规划方案,可降低电网运行成本,提高其对可再生能源的消纳能力。展开更多
插电式电动汽车(plug-in electric vehicles,PEV)近年来发展迅速,考虑PEV并网后的差异性需求,提出一种计及PEV需求差异的智能电网调度策略:根据需求差异将PEV分为无序充电PEV、可调度充电PEV和可调度充放电PEV,之后提出考虑高低功率调...插电式电动汽车(plug-in electric vehicles,PEV)近年来发展迅速,考虑PEV并网后的差异性需求,提出一种计及PEV需求差异的智能电网调度策略:根据需求差异将PEV分为无序充电PEV、可调度充电PEV和可调度充放电PEV,之后提出考虑高低功率调控差异性将可调度PEV分为高功率可调度PEV和低功率可调度PEV。最后,构建以智能电网运行成本最小和电动汽车支付费用最小的多目标优化调度模型。算例结果表明在考虑PEV差异性需求的情况下通过合理调度PEV可以有效提高可再生能源消纳能力、降低智能电网运行成本和PEV车主支付费用。展开更多
Based on the lithium-ion battery pure electric vehicle （PEV） application, two capacity types of batteries are applied in thermal characteristic experiments. With the experimental comparison method, battery thermal c...Based on the lithium-ion battery pure electric vehicle （PEV） application, two capacity types of batteries are applied in thermal characteristic experiments. With the experimental comparison method, battery thermal characteristics and heat generation mechanism are studied. Experiments of batteries in cases of different dimensions, batteries with different air cooling velocity and two capacity types of batteries in free convection environment are put forward. Battery heat generation performance, heat dissipation performance and comparison of different capacity types＇ batteries are researched and summarized. Conclusions of battery heat generation and dissipation in PEV applications, important battery thermal management factors and suggestions are put forward.展开更多
文摘可入网电动汽车(plug-in electric vehicle,PEV)近年来发展迅猛,考虑PEV与清洁能源大量并网后的差异性需求,构建兼顾输电网、配电网与用户利益的双层规划模型。上层输电网规划以系统运行成本最小、车主消费最少、弃风弃光惩罚最少、碳排放总量最小为目标,协同调度火电机组、新能源与PEV出力,实现PEV的时域调度;下层配电网模型以网损最小为目标,通过最优潮流计算实现PEV的空间调度。算例结果表明,对PEV进行有效调度并配合合理的电网规划方案,可降低电网运行成本,提高其对可再生能源的消纳能力。
文摘插电式电动汽车(plug-in electric vehicles,PEV)近年来发展迅速,考虑PEV并网后的差异性需求,提出一种计及PEV需求差异的智能电网调度策略:根据需求差异将PEV分为无序充电PEV、可调度充电PEV和可调度充放电PEV,之后提出考虑高低功率调控差异性将可调度PEV分为高功率可调度PEV和低功率可调度PEV。最后,构建以智能电网运行成本最小和电动汽车支付费用最小的多目标优化调度模型。算例结果表明在考虑PEV差异性需求的情况下通过合理调度PEV可以有效提高可再生能源消纳能力、降低智能电网运行成本和PEV车主支付费用。
文摘Based on the lithium-ion battery pure electric vehicle （PEV） application, two capacity types of batteries are applied in thermal characteristic experiments. With the experimental comparison method, battery thermal characteristics and heat generation mechanism are studied. Experiments of batteries in cases of different dimensions, batteries with different air cooling velocity and two capacity types of batteries in free convection environment are put forward. Battery heat generation performance, heat dissipation performance and comparison of different capacity types＇ batteries are researched and summarized. Conclusions of battery heat generation and dissipation in PEV applications, important battery thermal management factors and suggestions are put forward.
