Hydro–Solar Hybrid Plant Operation in a Hydropower Plant Cascade: Optimizing Local and Bulk System Benefits

Author:

Balan Mateus Henrique1,Camargo Luiz Armando Steinle1ORCID,Ramos Dorel Soares2ORCID,Castro Roberto1ORCID,Leonel Lais Domingues1,Pulcherio Eduardo Soares3,Melendez Joaquin3

Affiliation:

1. MRTS Consultoria, Av. Vital Brasil 305/1510, Butantã, São Paulo 05503-001, Brazil

2. Department of Electrical Engineering, University of São Paulo, Av. Prof. Luciano Gualberto 380, Butantã, São Paulo 05508-010, Brazil

3. AES Brazil, Av. das Nações Unidas 12495, Brookling Paulista, São Paulo 04578-000, Brazil

Abstract

A hydro–solar hybrid system is an important solution for expanding renewable generation capacity under the percepts of the energy transition. This type of association allows for the coordinated dispatch of solar and hydropower plants, resulting in operational benefits in terms of energy generation and reservoir management, that is, the better use of available water and energy resources. As in this case, the operation of the hydropower plant is associated with the cascade in which it operates, when it is hybridized (for example, by associating with a solar power plant), in addition to local changes, there are impacts on the operating conditions of the other hydropower plants in the same cascade. From such a perspective, this study presents an energy system management model for hybrid power plants composed of hydro and solar sources, aiming to optimize the joint operation and measure the operational consequences at the local level and in the cascade. The results from a case study of a hydro–solar power plant hybridization in the Tietê River (Brazil) revealed increased energy production and improvement in the operating conditions of the cascade’s reservoirs, while the grid capacity was found to be an important constraint that limits the capture of synergies resulting from the generation sources complementarity and thus on the benefits to the cascade.

Publisher

MDPI AG

Reference19 articles.

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5. Milligan, M., Frew, B., and Zhou, E. (2015). Advancing System Flexibility for High Penetration Renewable Integration, National Renewable Energy Laboratory.

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