Solar concentrators manufacture and automation

Author:

Kussul Ernst1,Baydyk Tetyana1,Estrada Alberto Escalante2,González Maria Teresa Rodríguez2,Wunsch II Donald3

Affiliation:

1. Instituto de Ciencias Aplicadas y Tecnología, Universidad Nacional Autónoma de México, Circuito Exterior S/N, Ciudad Universitaria , CP 04510 , Ciudad de México , México

2. Colegio de Postgraduados – Campus Montecillo, Institución de Enseñanza e Investigación en Ciencias Agrícolas, Carretera-Texcoco , km 36 , Texcoco , Estado de México

3. Electrical and Computer Engineering, Missouri University of Science & Technology , 131 Emerson Electric Co. Hall Rolla, MO 65409-0040 , Hall Rolla , United States

Abstract

Abstract Solar energy is one of the most promising types of renewable energy. Flat facet solar concentrators were proposed to decrease the cost of materials needed for production. They used small flat mirrors for approximation of parabolic dish surface. The first prototype of flat facet solar concentrators was made in Australia in 1982. Later various prototypes of flat facet solar concentrators were proposed. It was shown that the cost of materials for these prototypes is much lower than the material cost of conventional parabolic dish solar concentrators. To obtain the overall low cost of flat facet concentrators it is necessary to develop fully automated technology of manufacturing and assembling processes. Unfortunately, the design of known flat facet concentrators is too complex for automation process. At present we develop the automatic manufacturing and assembling system for flat facet solar concentrators. For this purpose, we propose the design of flat facet solar concentrator that is convenient for automatization. We describe this design in the paper. At present, almost all solar-energy plants in the world occupy specific areas that are not used for agricultural production. This leads to a competition between the solar-energy plants and agriculture production systems. To avoid this competition, it is possible to co-locate solar-energy devices in agricultural fields. The energy obtained via such co-location can be used for agricultural needs (e.g., water extraction for irrigation) and other purposes (e.g., sent to an electrical grid). In this study, we also describe the results of an investigation on co-location methods for the minimal loss of agricultural harvest too.

Publisher

Walter de Gruyter GmbH

Subject

General Physics and Astronomy

Reference30 articles.

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2. Macknick J., Overview of opportunities for co-location of agriculture and solar PV, Clean Energy Econ. Conf., Utica, USA, June 16 2016, 21.

3. Strom D., Noble M., Davis R., Macknick J., Co-location of agriculture and solar PV, 2013, https://www.eanvt.org/wp-content/uploads/2013/01/NREL-Solar_Pollinators.compressed.pdf

4. Transparent solar PV installation among the trees, Trina Solar, 2019, http://www.trinasolar.com/us/resources/downloads

5. Shemkus S., Agrivoltaics: solar panels on farms could be a win-win, 2019, https://civileats.com/2019/01/22/agrivoltaics-solar-panels-on-farms-could-be-a-win-win/

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