首页> 外文会议>International Institute of Refrigeration (Institut International du Froid;IIR conference on phase-change materials and slurries for refrigeration and air conditioning >SUPERMARKET DEMAND RESPONSE USING THE CO_2 BOOSTER CYCLE: MODEL DEVELOPMENT, VALIDATION, AND SIMULATIONS OF LOAD SHED EVENTS WITH CO_2 BOOSTER SYSTEMS
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SUPERMARKET DEMAND RESPONSE USING THE CO_2 BOOSTER CYCLE: MODEL DEVELOPMENT, VALIDATION, AND SIMULATIONS OF LOAD SHED EVENTS WITH CO_2 BOOSTER SYSTEMS

机译:使用CO_2加速器循环的超级市场需求响应:CO_2加速器系统的负荷分担事件模型开发,验证和模拟

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Transcritical CO_2 booster systems are becoming more popular in North America, as federal and state regulations push the phase-down of HFC refrigerants. At the same time, the use of refrigeration systems for demand response – functions to increase, decrease, or shift electric load in response to utility needs – is gaining interest as better and less expensive communication and controls become more common. In the Booster cycle, the medium temperature and low temperature stages of the booster cycle are inherently interlinked, so a temporary interruption of one stage may impact the other. This paper describes the use of a transient CO_2 booster cycle model to study the impact of load-shed events on overall cycle performance and behavior. The results show the relative “return” (kW total power reduction per kW of load shed) for demand response on each stage and the impact of sheds on each stage on overall behavior. In a system with a roughly 2:1 load ratio, the power reduction of 0.85-0.91 kW per kW of load shed was seen with LT capacity reductions, compared to 0.59-0.60 kW per kW of load shed with MT capacity reductions.
机译:随着联邦和州法规推动逐步淘汰HFC制冷剂,跨临界CO_2增压系统在北美变得越来越流行。同时,随着更好和更便宜的通讯和控制变得越来越普遍,使用制冷系统来满足需求(增加,减少或转移电力负荷以响应公用事业需求的功能)正在引起人们的兴趣。在增压循环中,增压循环的中温和低温阶段本质上是相互关联的,因此一个阶段的暂时中断可能会影响另一个阶段。本文介绍了使用瞬态CO_2增压循环模型来研究甩负荷事件对整体循环性能和行为的影响。结果显示了每个阶段的需求响应的相对“回报”(每千瓦负荷下降的kW总功率减少),以及各个阶段的下降对整体行为的影响。在负载比约为2:1的系统中,LT容量减少时,每kW负荷下降功率降低0.85-0.91 kW,而MT容量减少时,每kW负荷下降功率降低0.59-0.60 kW。

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