The Experts below are selected from a list of 216 Experts worldwide ranked by ideXlab platform

Youn-kyoo Choung - One of the best experts on this subject based on the ideXlab platform.

  • Power output analysis of transparent thin-Film Module in building integrated photovoltaic system (BIPV)
    Energy and Buildings, 2008
    Co-Authors: JONG HWA SONG, YOUNG SUB AN, S. Y. Kim, Seong Hyun Lee, Sung Jin Lee, Soek Ge Kim, Jong Ho Yoon, Youn-kyoo Choung
    Abstract:

    The power output of PV Module was characterized depending on incidence angle and the azimuth using a transparent thin-Film solar cell in a mock-up model at various slopes to the south, as a building integrated photovoltaic system. Simulated data was also evaluated to determine the influence of the inclined angles and the azimuth on the power performance of the PV Module. The experimental and computed data fitted comparatively well through the relative error estimation after calibration. It was found that the PV Module with a slope of 30??, facing south, provided the best power performance according to an annual power output, producing about 2.5 times higher power output than that with the vertical Module. Furthermore, the PV Module facing south showed higher power output than that to the east. The varying power output of the PV Module with inclined angles can be explained by the impact of the incidence angle modifier of the glass on the PV Module. Specifically, the increased inclined slope of the PV Module resulted in the reduced solar energy transmission, which producing a significant reduction of power output for the PV Module with a slope over 70??. ?? 2008 Elsevier B.V. All rights reserved.

  • power output analysis of transparent thin Film Module in building integrated photovoltaic system bipv
    Energy and Buildings, 2008
    Co-Authors: JONG HWA SONG, YOUNG SUB AN, Jong Ho Yoon, Youn-kyoo Choung
    Abstract:

    The power output of PV Module was characterized depending on incidence angle and the azimuth using a transparent thin-Film solar cell in a mock-up model at various slopes to the south, as a building integrated photovoltaic system. Simulated data was also evaluated to determine the influence of the inclined angles and the azimuth on the power performance of the PV Module. The experimental and computed data fitted comparatively well through the relative error estimation after calibration. It was found that the PV Module with a slope of 30°, facing south, provided the best power performance according to an annual power output, producing about 2.5 times higher power output than that with the vertical Module. Furthermore, the PV Module facing south showed higher power output than that to the east. The varying power output of the PV Module with inclined angles can be explained by the impact of the incidence angle modifier of the glass on the PV Module. Specifically, the increased inclined slope of the PV Module resulted in the reduced solar energy transmission, which producing a significant reduction of power output for the PV Module with a slope over 70°.

JONG HWA SONG - One of the best experts on this subject based on the ideXlab platform.

  • Power output analysis of transparent thin-Film Module in building integrated photovoltaic system (BIPV)
    Energy and Buildings, 2008
    Co-Authors: JONG HWA SONG, YOUNG SUB AN, S. Y. Kim, Seong Hyun Lee, Sung Jin Lee, Soek Ge Kim, Jong Ho Yoon, Youn-kyoo Choung
    Abstract:

    The power output of PV Module was characterized depending on incidence angle and the azimuth using a transparent thin-Film solar cell in a mock-up model at various slopes to the south, as a building integrated photovoltaic system. Simulated data was also evaluated to determine the influence of the inclined angles and the azimuth on the power performance of the PV Module. The experimental and computed data fitted comparatively well through the relative error estimation after calibration. It was found that the PV Module with a slope of 30??, facing south, provided the best power performance according to an annual power output, producing about 2.5 times higher power output than that with the vertical Module. Furthermore, the PV Module facing south showed higher power output than that to the east. The varying power output of the PV Module with inclined angles can be explained by the impact of the incidence angle modifier of the glass on the PV Module. Specifically, the increased inclined slope of the PV Module resulted in the reduced solar energy transmission, which producing a significant reduction of power output for the PV Module with a slope over 70??. ?? 2008 Elsevier B.V. All rights reserved.

  • power output analysis of transparent thin Film Module in building integrated photovoltaic system bipv
    Energy and Buildings, 2008
    Co-Authors: JONG HWA SONG, YOUNG SUB AN, Jong Ho Yoon, Youn-kyoo Choung
    Abstract:

    The power output of PV Module was characterized depending on incidence angle and the azimuth using a transparent thin-Film solar cell in a mock-up model at various slopes to the south, as a building integrated photovoltaic system. Simulated data was also evaluated to determine the influence of the inclined angles and the azimuth on the power performance of the PV Module. The experimental and computed data fitted comparatively well through the relative error estimation after calibration. It was found that the PV Module with a slope of 30°, facing south, provided the best power performance according to an annual power output, producing about 2.5 times higher power output than that with the vertical Module. Furthermore, the PV Module facing south showed higher power output than that to the east. The varying power output of the PV Module with inclined angles can be explained by the impact of the incidence angle modifier of the glass on the PV Module. Specifically, the increased inclined slope of the PV Module resulted in the reduced solar energy transmission, which producing a significant reduction of power output for the PV Module with a slope over 70°.

YOUNG SUB AN - One of the best experts on this subject based on the ideXlab platform.

  • Power output analysis of transparent thin-Film Module in building integrated photovoltaic system (BIPV)
    Energy and Buildings, 2008
    Co-Authors: JONG HWA SONG, YOUNG SUB AN, S. Y. Kim, Seong Hyun Lee, Sung Jin Lee, Soek Ge Kim, Jong Ho Yoon, Youn-kyoo Choung
    Abstract:

    The power output of PV Module was characterized depending on incidence angle and the azimuth using a transparent thin-Film solar cell in a mock-up model at various slopes to the south, as a building integrated photovoltaic system. Simulated data was also evaluated to determine the influence of the inclined angles and the azimuth on the power performance of the PV Module. The experimental and computed data fitted comparatively well through the relative error estimation after calibration. It was found that the PV Module with a slope of 30??, facing south, provided the best power performance according to an annual power output, producing about 2.5 times higher power output than that with the vertical Module. Furthermore, the PV Module facing south showed higher power output than that to the east. The varying power output of the PV Module with inclined angles can be explained by the impact of the incidence angle modifier of the glass on the PV Module. Specifically, the increased inclined slope of the PV Module resulted in the reduced solar energy transmission, which producing a significant reduction of power output for the PV Module with a slope over 70??. ?? 2008 Elsevier B.V. All rights reserved.

  • power output analysis of transparent thin Film Module in building integrated photovoltaic system bipv
    Energy and Buildings, 2008
    Co-Authors: JONG HWA SONG, YOUNG SUB AN, Jong Ho Yoon, Youn-kyoo Choung
    Abstract:

    The power output of PV Module was characterized depending on incidence angle and the azimuth using a transparent thin-Film solar cell in a mock-up model at various slopes to the south, as a building integrated photovoltaic system. Simulated data was also evaluated to determine the influence of the inclined angles and the azimuth on the power performance of the PV Module. The experimental and computed data fitted comparatively well through the relative error estimation after calibration. It was found that the PV Module with a slope of 30°, facing south, provided the best power performance according to an annual power output, producing about 2.5 times higher power output than that with the vertical Module. Furthermore, the PV Module facing south showed higher power output than that to the east. The varying power output of the PV Module with inclined angles can be explained by the impact of the incidence angle modifier of the glass on the PV Module. Specifically, the increased inclined slope of the PV Module resulted in the reduced solar energy transmission, which producing a significant reduction of power output for the PV Module with a slope over 70°.

Jong Ho Yoon - One of the best experts on this subject based on the ideXlab platform.

  • Power output analysis of transparent thin-Film Module in building integrated photovoltaic system (BIPV)
    Energy and Buildings, 2008
    Co-Authors: JONG HWA SONG, YOUNG SUB AN, S. Y. Kim, Seong Hyun Lee, Sung Jin Lee, Soek Ge Kim, Jong Ho Yoon, Youn-kyoo Choung
    Abstract:

    The power output of PV Module was characterized depending on incidence angle and the azimuth using a transparent thin-Film solar cell in a mock-up model at various slopes to the south, as a building integrated photovoltaic system. Simulated data was also evaluated to determine the influence of the inclined angles and the azimuth on the power performance of the PV Module. The experimental and computed data fitted comparatively well through the relative error estimation after calibration. It was found that the PV Module with a slope of 30??, facing south, provided the best power performance according to an annual power output, producing about 2.5 times higher power output than that with the vertical Module. Furthermore, the PV Module facing south showed higher power output than that to the east. The varying power output of the PV Module with inclined angles can be explained by the impact of the incidence angle modifier of the glass on the PV Module. Specifically, the increased inclined slope of the PV Module resulted in the reduced solar energy transmission, which producing a significant reduction of power output for the PV Module with a slope over 70??. ?? 2008 Elsevier B.V. All rights reserved.

  • power output analysis of transparent thin Film Module in building integrated photovoltaic system bipv
    Energy and Buildings, 2008
    Co-Authors: JONG HWA SONG, YOUNG SUB AN, Jong Ho Yoon, Youn-kyoo Choung
    Abstract:

    The power output of PV Module was characterized depending on incidence angle and the azimuth using a transparent thin-Film solar cell in a mock-up model at various slopes to the south, as a building integrated photovoltaic system. Simulated data was also evaluated to determine the influence of the inclined angles and the azimuth on the power performance of the PV Module. The experimental and computed data fitted comparatively well through the relative error estimation after calibration. It was found that the PV Module with a slope of 30°, facing south, provided the best power performance according to an annual power output, producing about 2.5 times higher power output than that with the vertical Module. Furthermore, the PV Module facing south showed higher power output than that to the east. The varying power output of the PV Module with inclined angles can be explained by the impact of the incidence angle modifier of the glass on the PV Module. Specifically, the increased inclined slope of the PV Module resulted in the reduced solar energy transmission, which producing a significant reduction of power output for the PV Module with a slope over 70°.

Prashant Baredar - One of the best experts on this subject based on the ideXlab platform.

  • A comprehensive review on design of building integrated photovoltaic system
    Energy and Buildings, 2016
    Co-Authors: Akash Kumar Shukla, K Sudhakar, Prashant Baredar
    Abstract:

    This paper is a full review on the development of solar photovoltaic technology for building integration and design. It highlights the classification of Solar PV cell and BIPV product for building design purpose. BIPV poses an opportunity to play an essential part in a new era of distributed power generation. Building integrated photovoltaic systems is powerful and versatile tool for achieving the ever increasing demand for zero energy building of the coming years. While some critical policy challenges exist, the value of generating power directly where it is used, aesthetic designs and flexible thin Film Module form factors is just starting to be understood, which may help to mitigate the barriers posed for current BIPV applications.