Sandia National Laboratories Albuquerque, New Mexico, USA;
Stanford University Stanford, California, USA;
University of California, Berkeley Berkeley, California, USA;
Stanford University Stanford, California, USA;
Stanford University Stanford, California, USA;
maximizing emission reductions and economic savingssimulator (MERESS) optimization tool; fuel cell system (FCS); greenhouse gas emissions (GHG); carbon dioxide (CO_2) emissions; networks; cogeneration; combined heat and power(CHP); cost; profitability; thermal distribution networks; low-voltage electricity distribution networks; optimization; heatrecovery; distributed energy systems; operating strategy; stand alone (SA); networked (NW); heat load following (HLF); electricity load following (ELF);
机译:优化固定式热电联产燃料电池系统的设计和部署,以实现最低的成本和排放-第一部分:模型设计
机译:优化固定式热电联产燃料电池系统的设计和部署,以实现最低成本和排放-第二部分:模型结果
机译:热电联产(CHP)燃料电池系统(FCS)的热管理子系统的建模结果
机译:Ⅱ的第二部分:部署模型的优点-设计,控制和安装热电联产(CHS)燃料电池系统(FCS)以减少成本和温室气体(GHG)排放
机译:明尼苏达州住宅供热和制冷系统的生命周期评估与传统的煤气炉和空调系统相比,对生命周期温室气体(GHG)排放和地源热泵(GSHP)系统的成本效益进行了综合分析。
机译:燃料电池微热电联产光电化学生成氢的应用:动态系统建模研究
机译:新颖的使用绿色燃料电池的组合热电系统,以减少建筑物部门的主要能量摄入和温室排放