研究目的
To investigate the best performing electrical architectures for BIPV systems and provide guidelines using a validated simulation framework.
研究成果
The DC topologies, especially the 380 V DC, outperform the AC topology in all five geographical locations studied. The system efficiency improves by 2–5%, the energy-self-sufficiency by 7–19% and the CO2 emissions due to building’s energy consumption from the grid are lowered by 28%. Higher improvements can be obtained by properly dimensioning components such as the grid and BESS bidirectional inverters.
研究不足
The study assumes the fa?ade of the building is free of shading, which may not be the case in all urban situations. Future work will include shading effects.
1:Experimental Design and Method Selection:
The study compares DC (48 V and 380 V) and AC (230 V/50 Hz) topologies integrated into a ten-story office building with fa?ade-integrated BIPV. Annual simulations are carried out for five locations with different climatic conditions.
2:Sample Selection and Data Sources:
A ten-story office building is considered in five locations with different climatic conditions. TMY data from Meteonorm are used to emulate the climatic conditions in each of locations.
3:List of Experimental Equipment and Materials:
BIPV modules, battery energy storage system (BESS), power electronic devices (DC/DC converters, DC/AC inverters and AC/DC rectifiers).
4:Experimental Procedures and Operational Workflow:
Year-long simulations are performed using the corresponding meteorological data for each of the five considered locations. The sizing of the components is optimally sized for each location.
5:Data Analysis Methods:
Comparisons are made in terms of system- and component-level efficiency, system losses, self-sufficiency, self-consumption and CO2 emission.
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