非均匀温度条件下基于差分功率处理架构的热电发电系统评估

J. S. Artal-Sevil, C. Bernal-Ruíz, J. Beyza, V. M. Bravo
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引用次数: 4

摘要

提出了一种适用于串联热电发电机(TEG)的差分功率处理(DPP)架构。目前,热电技术被认为是一种很有前途的发电技术,可以用来回收废热。因此,本文研究了在非均匀温度条件下,多个TEG装置中的热电发电系统。主要目标是使每个热电子模块更快地达到其最大功率点。其目的是改进每个子模块的最大功率点跟踪(MPPT),从而有可能提高基于全局最大功率点跟踪的传统方法的效率。在每个TEG子模块中都实现了差分功率转换器,以提供有效的解决方案并减轻所获得功率不匹配的影响。DPP架构由一个小型微转换器组成,在子模块级别,应用于热电电池。控制算法是面向极化每个TEG器件在其最优点,这允许我们在不同的TEG子模块之间的主动平衡,而不管工作温度。采用Matlab-Simulink软件开发TEG模块阵列。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Evaluation of a Thermoelectric Generation system based on Differential-Power Processing architecture under non-uniform temperature conditions
This paper presents a Differential Power Processing (DPP) architecture applied to series-connected thermoelectric generators (TEG). Currently, thermoelectric technology is being considered as a promising power generation technology that can be used to recover waste heat energy. Thus, a thermoelectric generation system is studied under non-uniform temperature conditions in multiple TEG devices. The main objective is to allow each thermoelectric sub-module to reach its maximum power point more quickly. The purpose has been to improve the maximum power point tracking (MPPT) in each sub-module, thus it is possible to increase the efficiency with respect to the traditional method based on a global MPPT. Differential Power converters have been implemented in each TEG sub-module to provide an effective solution and mitigate the impact of the mismatch in the power obtained. The DPP architecture consists of a small micro-converter, at the submodular level, applied to the thermoelectric cell. The control algorithm is oriented to polarize each TEG device at its optimal point, which allows us an active balancing among the different TEG sub-modules regardless of the operating temperature. Matlab-Simulink has been the software used to develop the TEG module-array.
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