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Hybrid system with micro gas turbine and PV (photovoltaic) plant: Guidelines for sizing and management strategies

机译:带有微型燃气轮机和光伏(光伏)电站的混合系统:尺寸和管理策略指南

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This paper presents a hybrid system consisting of a 100 kWe micro gas turbine (MGT) that juxtaposes the energy production of a photovoltaic (PV) plant whose yearly yield is available by on field measurements. The aim of the work is to model and investigate the behavior and the performance of a hybrid MGT-PV system under the topical constraint of firming renewable power and hence of guaranteeing a reliable power production to the grid. We propose a solution for the sizing of the PV plant and two strategies for the management of the hybrid system in order to guarantee a reliable day-ahead hourly forecast of the electric power that can be actually produced by the plant under whatever ambient condition. The results ascertain the advantages of the upgraded system in terms of natural gas consumption (-16%) and and NOX (similar to-33%) with a higher local emission of CO. In particular, the proposed hybrid system: i) solves the problem due to the unpredictability of PV energy production; ii) grants a significant reduction of the primary fuel usage and specific energy cost; but iii) increases the level of local pollutants, since it internalizes the emissions previously generated in a centralized power plant to produce the amount of electricity of the hybrid system. (C) 2015 Elsevier Ltd. All rights reserved.
机译:本文提出了一种由100 kWe微型燃气轮机(MGT)组成的混合系统,该系统将光伏(PV)装置的能量产生并置,其年产量可通过现场测量获得。该工作的目的是在确定可再生能源并因此保证向电网可靠发电的主题约束下,对混合MGT-PV系统的行为和性能进行建模和研究。我们为光伏电站的规模提出了一个解决方案,并为混合系统的管理提出了两种策略,以确保在任何环境条件下都能可靠地逐日每小时预测电站实际可产生的电力。结果确定了升级后的系统在天然气消耗量(-16%)和NOX(约-33%)方面具有较高的局部CO排放的优势。特别是,拟议的混合动力系统:由于光伏能源生产的不可预测性而产生的问题; ii)大大减少了一次燃料的使用和特定的能源成本;但是iii)增加了本地污染物的水平,因为它可以将以前在集中式发电厂中产生的排放内部化,以产生混合动力系统的电量。 (C)2015 Elsevier Ltd.保留所有权利。

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