Study of the Efficiency of Hybrid Energy Systems with Renewable Generation: Dynamics of Energy Production in Summer and Winter Periods

O. Marchenko, S. Solomin, A. Kozlov
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引用次数: 4

Abstract

In this paper, the methods of mathematical modeling are used to investigate an autonomous hybrid energy system with renewable generation. The aim of the study is to determine energy system optimal structure and its economic efficiency. The energy system contains photovoltaic modules, solar collectors for the solar heating system, storage batteries, a diesel power plant, a pellet-fueled boiler house, a biomass gasification mini-CHP operating on wood chips. A biomass gasification mini-CHP is used to cover the solar energy sources generation deficit, as well as to effectively replace expensive diesel generators. The paper considers two variants of mini-CHPs, differing in the cost of the gasifier. The mathematical model REM-2 (Renewable Energy Model) applied for calculations does not require an analysis of the structure options and the preliminary specification of the algorithm for switching energy flows between energy sources, consumers, and the battery. Optimal operating conditions are determined on the basis of GAMS (General Algebraic Modeling System) algorithms, taking into account the random nature of solar energy and the variability of energy consumption. The optimal structure of the system (installed capacity of energy sources and battery capacity) is determined, dynamics of energy production in summer and winter periods is investigated. Mathematical modeling that accounts for seasonal factors has demonstrated the efficiency of the joint use of solar energy and wood biomass.
具有可再生能源发电的混合能源系统的效率研究:夏季和冬季能源生产的动态
本文采用数学建模的方法对具有可再生能源发电的自主混合能源系统进行了研究。研究的目的是确定能源系统的最优结构及其经济效率。能源系统包括光伏模块、用于太阳能加热系统的太阳能集热器、蓄电池、柴油发电厂、颗粒燃料锅炉房、以木屑为燃料的生物质气化小型热电联产。生物质气化小型热电联产用于弥补太阳能发电的不足,并有效地取代昂贵的柴油发电机。本文考虑了微型热电联产的两种变体,在气化炉的成本不同。用于计算的数学模型REM-2(可再生能源模型)不需要对结构选项进行分析,也不需要对在能源、消费者和电池之间转换能量流的算法进行初步规范。考虑到太阳能的随机性和能源消耗的可变性,基于GAMS(通用代数建模系统)算法确定了最优运行条件。确定了系统的最优结构(能源装机容量和电池容量),研究了夏季和冬季的能源生产动态。考虑季节因素的数学模型已经证明了太阳能和木材生物质联合使用的效率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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