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Journal Articles
Ishtiaq Ahmed, Hossain Azmain Farhin, Md Azazul Haque, Md. Abdul Karim Miah, Saziea Afrin Heme, Md. Hamidur Rahman, Sutthinan Srirattayawong
Journal:
Journal of Solar Energy Engineering
Publisher: ASME
Article Type: Research Papers
J. Sol. Energy Eng. August 2025, 147(4): 041003.
Paper No: SOL-22-1325
Published Online: February 17, 2025
Journal Articles
Accepted Manuscript
Journal:
Journal of Solar Energy Engineering
Publisher: ASME
Article Type: Research Papers
J. Sol. Energy Eng.
Paper No: SOL-24-1155
Published Online: February 17, 2025
Journal Articles
Accepted Manuscript
Journal:
Journal of Solar Energy Engineering
Publisher: ASME
Article Type: Research Papers
J. Sol. Energy Eng.
Paper No: SOL-24-1172
Published Online: February 17, 2025
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 1 Components of a PV unit More about this image found in Components of a PV unit
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 2 ( a ) Structure and dimensions of a Solid L fin, and ( b ) layout of fin placement More about this image found in ( a ) Structure and dimensions of a Solid L fin, and ( b ) layout of fin pl...
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 3 Structure and dimensions of a Perforated L fin More about this image found in Structure and dimensions of a Perforated L fin
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 4 Structure and dimensions of a Solid T fin More about this image found in Structure and dimensions of a Solid T fin
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 5 Structure and dimensions of a Perforated T fin More about this image found in Structure and dimensions of a Perforated T fin
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 6 ( a ) Structure and dimensions of a wire mesh, and ( b ) layout of mesh placement More about this image found in ( a ) Structure and dimensions of a wire mesh, and ( b ) layout of mesh pla...
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 7 Heat transfer modeling for the PV module More about this image found in Heat transfer modeling for the PV module
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 8 Mesh at fine element size for ( a ) Solid L fins, ( b ) Perforated L fins, ( c ) Solid T fins, ( d ) Perforated T fins, and ( e ) wire mesh More about this image found in Mesh at fine element size for ( a ) Solid L fins, ( b ) Perforated L fins, ...
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 9 Grid independence tests at convection coefficient 13.3 W/m 2 K and emissivity 0.91 at different ambient temperatures (28.6, 30.0, and 31.5 °C) for ( a ) Solid L fins, ( b ) Perforated L fins, ( c ) Solid T fins, ( d ) Perforated T fins, and ( e ) wire mesh More about this image found in Grid independence tests at convection coefficient 13.3 W/m 2 K and emissivi...
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 10 Graphical comparison of experimental [ 18 ] and simulated PV temperatures at convection coefficient of 13.3 W/m 2 K and emissivity 0.91 More about this image found in Graphical comparison of experimental [ 18 ] and simulated PV temperatures a...
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 11 Average PV module temperature versus ambient temperature at emissivity 0.91 and different convection coefficients (8, 12, and 16 W/m 2 K) for ( a ) Solid L fins, ( b ) Perforated L fins, ( c ) Solid T fins, ( d ) Perforated T fins, and ( e ) wire mesh More about this image found in Average PV module temperature versus ambient temperature at emissivity 0.91...
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 12 Average PV module temperature vs solar radiation for Solid T fins at ( a ) fixed ambient temperature of 25 °C and different convection coefficients (8, 12, and 16 W/m 2 K) and ( b ) fixed convection coefficient of 12 W/m 2 K and different ambient temperatures (30, 35, and 40 °C) More about this image found in Average PV module temperature vs solar radiation for Solid T fins at ( a ) ...
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 13 Temperature contour for PV module only for Solid L fins at ambient temperature of 30 °C, heat flux of 800 W/m 2 , and convection coefficient of 12 W/m 2 K More about this image found in Temperature contour for PV module only for Solid L fins at ambient temperat...
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 14 Temperature contour for PV module only for Perforated L fins at ambient temperature of 30 °C, heat flux of 800 W/m 2 , and convection coefficient of 12 W/m 2 K More about this image found in Temperature contour for PV module only for Perforated L fins at ambient tem...
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 15 Temperature contour for PV module only for Solid T fins at ambient temperature of 30 °C, heat flux of 800 W/m 2 , and convection coefficient of 12 W/m 2 K More about this image found in Temperature contour for PV module only for Solid T fins at ambient temperat...
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 16 Temperature contour for PV module only for Perforated T fins at ambient temperature of 30 °C, heat flux of 800 W/m 2 , and convection coefficient of 12 W/m 2 K More about this image found in Temperature contour for PV module only for Perforated T fins at ambient tem...
Image
in Numerical Study on Uniform Passive Cooling Configurations for Photovoltaic Modules in Hot Climatic Conditions
> Journal of Solar Energy Engineering
Published Online: February 17, 2025
Fig. 17 Temperature contour for PV module only for wire mesh at ambient temperature of 30 °C, heat flux of 800 W/m 2 , and convection coefficient of 12 W/m 2 K More about this image found in Temperature contour for PV module only for wire mesh at ambient temperature...
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