Water cooling photovoltatic-optothermal integrated power generation system generating capacity calculation method and system

Abstract

The invention discloses a water cooling photovoltatic-optothermal integrated power generation system generating capacity calculation method and system. The method comprises the following steps: determining a photovoltaic generating panel unit area under the condition that a water cooling condition is not taken and a first panel surface temperature of a photovoltaic generating panel under unit output power; calculating a photovoltaic generating panel unit area in a first period when the water cooling condition is taken and a second panel surface temperature of the photovoltaic generating panel under the unit output power; calculating a generating efficiency increase value of the photovoltaic generating panel in the first period when the water cooling condition is taken; calculating a prediction period corresponding to the first period and corresponding output power of the photovoltaic generating panel; calculating a generating capacity of the photovoltaic generating panel in the prediction period; calculating a high-temperature high-pressure steam amount of an optothermal generating system in the first period, and according to the high-temperature high-pressure steam amount, calculating a generating capacity of the optothermal generating system; and calculating a generating capacity of a water cooling photovoltatic-optothermal integrated power generation system. According to the invention, the generating capacity of the water cooling photovoltatic-optothermal integrated power generation system can be accurately predicted.

Description

technical field [0001] The invention relates to the technical field of power systems, in particular to a method and system for calculating power generation of a water-cooled photovoltaic-photothermal integrated power generation system. Background technique [0002] The distributed photovoltaic power generation system for small users such as urban residents and large user groups such as commercial buildings, communities, and industrial areas is such a system with random and fuzzy uncertain events or parameters with complex relationships and interactions. Small new energy users such as urban residents with distributed photovoltaic power generation systems and large new energy user groups such as commercial buildings, communities, and industrial areas, under the influence of various uncertain random and fuzzy events or parameters, their daily power generation will change. more random and fuzzy. [0003] In the past, the daily power generation of distributed photovoltaic power ...

AI Technical Summary

Problems solved by technology

It can be seen that the existing technologies for calculating the daily power generation of distributed photovoltaic power generation systems for new energy users do not fully consider the uncertainty and randomness of the influencing factors, and the applicability, practicability and applicability of the calculation methods are also difficult to satisfy

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