The authors discuss in this paper the potential of two power plant concepts for distributed generation, based on the integration of a cogenerating micro gas turbine with a solar panel array. The first one relies on the adoption of a parabolic trough network with an intermediate thermal carrier, while the second one considers the direct heating of the working air in a solar tower system. The first solution also includes a bottoming organic Rankine cycle (ORC) plant, so that it is mainly addressed to the power output increase. The second one involves a relevant temperature increase of the air entering the combustor, so allowing a direct fuel energy saving, whose amount is strongly variable with both the solar irradiance and the eventual part-load operation. In addition, the latter solar-assisted scheme involves noticeable variations in the conditions for the combustion development. This suggested the authors to proceed with a detailed CFD analysis of the combustion, after a preliminary thermal cycle study for highlighting the main benefits from the solar integration of the power plant.

Thermal cycle and combustion analysis of a solar-assisted micro gas turbine / Abagnale, Carmelina; Cameretti, MARIA CRISTINA; DE ROBBIO, Roberta; Tuccillo, Raffaele. - In: ENERGIES. - ISSN 1996-1073. - 10:6(2017). [10.3390/en10060773]

Thermal cycle and combustion analysis of a solar-assisted micro gas turbine

ABAGNALE, CARMELINA;CAMERETTI, MARIA CRISTINA;DE ROBBIO, ROBERTA;TUCCILLO, RAFFAELE
2017

Abstract

The authors discuss in this paper the potential of two power plant concepts for distributed generation, based on the integration of a cogenerating micro gas turbine with a solar panel array. The first one relies on the adoption of a parabolic trough network with an intermediate thermal carrier, while the second one considers the direct heating of the working air in a solar tower system. The first solution also includes a bottoming organic Rankine cycle (ORC) plant, so that it is mainly addressed to the power output increase. The second one involves a relevant temperature increase of the air entering the combustor, so allowing a direct fuel energy saving, whose amount is strongly variable with both the solar irradiance and the eventual part-load operation. In addition, the latter solar-assisted scheme involves noticeable variations in the conditions for the combustion development. This suggested the authors to proceed with a detailed CFD analysis of the combustion, after a preliminary thermal cycle study for highlighting the main benefits from the solar integration of the power plant.
2017
Thermal cycle and combustion analysis of a solar-assisted micro gas turbine / Abagnale, Carmelina; Cameretti, MARIA CRISTINA; DE ROBBIO, Roberta; Tuccillo, Raffaele. - In: ENERGIES. - ISSN 1996-1073. - 10:6(2017). [10.3390/en10060773]
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11588/691832
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