Building Integrated Photovoltaic for Rooftop and Facade Application in Indonesia
Rima Kurnia Putri, Yulita Dyah Retno Widhi Astuti, Arum Kusuma Wardhany, Chairul Hudaya
Abstract
Rima Kurnia Putri, Yulita Dyah Retno Widhi Astuti, Arum Kusuma Wardhany, Chairul Hudaya
Abstract
Building sector is one of the biggest energy consumption along with residential, transportations and industrials. Building Integrated Photovoltaic (BIPV) can be an alternative to reduce energy consumption in the building and to secure the energy reserves. This study investigates the application of BIPV on the rooftop and facade of a high-rise building in Jakarta. Here, both technical and economic feasibility study are outlined. We employed the Sunny Web Design software and econometric spreadsheet program to calculate the energy generation and required specifications. BIPV rooftop produces greater energy yield compared to BIPV facade. This is because more radiation can be captured by BIPV rooftop on optimum azimuth and tilt angle. The BIPV reduce 5.97% of energy consumption. From the economic side, the total project cost and revenue of BIPV application is, respectively, 11.4 million USD and 1.2 million USD. This study can be broadened to develop BIPV in Indonesia.
OpenAlex reports 10 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
Building sector is one of the biggest energy consumption along with residential, transportations and industrials. Building Integrated Photovoltaic (BIPV) can be an alternative to reduce energy consumption in the building and to secure the energy reserves. This study investigates the application of BIPV on the rooftop and facade of a high-rise building in Jakarta. Here, both technical and economic feasibility study are outlined. We employed the Sunny Web Design software and econometric spreadsheet program to calculate the energy generation and required specifications. BIPV rooftop produces greater energy yield compared to BIPV facade. This is because more radiation can be captured by BIPV rooftop on optimum azimuth and tilt angle. The BIPV reduce 5.97% of energy consumption. From the economic side, the total project cost and revenue of BIPV application is, respectively, 11.4 million USD and 1.2 million USD. This study can be broadened to develop BIPV in Indonesia.
Key concepts: Building-integrated photovoltaics, Facade, Photovoltaic system, Architectural engineering, Energy consumption, Computer science, Environmental science, Engineering