考虑排放权交易的电力批发市场最优CO2减排调度模型

S. Fu
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引用次数: 1

摘要

在电力市场自由化进程中,深层二氧化碳减排对化石燃料发电行业提出了挑战。为了激励发电机组采取减排行动,本文提出了一种考虑二氧化碳排放交易的电力批发市场调度模型。它将碳市场与电力市场结合起来,采用价格-数量不相关的拍卖方式来运行二氧化碳配额和电力能源交易。具体而言,该二氧化碳减排调度模型是一个动态过程,(1)电力和环境监管机构协调发布监管信息;(ii)通过碳市场拍卖分配初始二氧化碳配额;(iii)透过批发市场拍卖分配负荷需求;(iv)二氧化碳配额分市场交易。本文构建了两个随机数学规划,分别对碳市场和批发市场上的发电机组拍卖决策进行了研究,给出了每个市场上二氧化碳配额和电能的最优价格-数量竞价曲线。通过个体需求曲线(供给曲线)逐条相加,并与总供给量(负荷需求)匹配,达到市场均衡。在该调度模型下,根据发电机组运行优势由弱到强的顺序,发电机组上网电价上限向上排序,发电机组上网电价下限向下排序。同时它们的竞价电价上限受到各自容量约束或市场份额调节。这些特征表明,该模型能够促进经济调度,提高资源配置效率,并产生二氧化碳减排效果。数值模拟也验证了该CO2减排调度模型的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An Optimal CO2 Saving Dispatch Model for Wholesale Electricity Market Concerning Emissions Trade
Deep CO2 mitigation provides a challenge to fossil fuel-fired power industry in liberalized electricity market process. To motivate generator to carry out mitigation action, this article proposed a novel dispatch model for wholesale electricity market under consideration of CO2 emission trade. It couples carbon market with electricity market and utilizes a price-quantity uncorrelated auction way to operate both CO2 allowances and power energy trade. Specifically, this CO2 saving dispatch model works as a dynamic process of, (i) electricity and environment regulators coordinately issue regulatory information; (ii) initial CO2 allowances allocation through carbon market auction; (iii) load demands allocation through wholesale market auction; and (iv) CO2 allowances submarket transaction. This article builds two stochastic mathematical programmings to explore generator’s auction decision in both carbon market and wholesale market, which provides its optimal price-quantity bid curve for CO2 allowances and power energy in each market. Through piece-wise adding up individual demand curve (supply curve) and matching with total supplied allowances (load demanded), market equilibrium is reached. Under this dispatch model, price upper-bound of bid allowances of generators is upward ordered and price lower-bound of bid electricity is downward ordered, according to their operational advantage from weak to strong. Meanwhile their bid electricity upper-bound gets respective capacity constraint or market share regulation. These features imply that the proposed model can prompt economic dispatch, improve resources allocation efficiency and bring about CO2 mitigation effect. Numerical simulations also verified the validity of this CO2 saving dispatch model.
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