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Fig 1.

A view of the air-cooling method installation under the PV.

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Table 1.

Specifications of system components with forced air-cooling.

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Fig 2.

Pipes affixed to the underside of the PV to transport the cooling fluid.

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Table 2.

Specifications for components of PVs with liquid cooling from the rear.

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Table 2 Expand

Fig 3.

Water spraying method for cooling the PV surface.

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Table 3.

Measuring equipment.

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Fig 4.

Sensor location.

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Fig 5.

Intensity of solar radiation at various hours of the day on four distinct days.

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Fig 6.

Temperature of the ambient, PV with forced air-cooling method, and PV without cooling system during the day.

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Fig 7.

The PV efficiency with forced air-cooling and without a cooling system.

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Fig 8.

The 3D diagram of PV surface temperature and its efficiency during different hours of the day for air-cooling method.

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Fig 9.

The ambient temperature, the PV throughout the day without a cooling system, and the PV with a water-cooling system on the back.

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Fig 10.

The PV efficiency with forced water-cooling and without a cooling system.

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Fig 11.

The 3D diagram of PV surface temperature and its efficiency during different hours of the day for the water-cooling method on the rear.

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Fig 12.

Temperature of the ambient, PV with nanofluid cooling method on the rear, and PV without cooling system during the day.

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Fig 13.

The PV efficiency with nanofluid cooling and without a cooling system.

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Fig 14.

The 3D diagram of PV surface temperature and its efficiency during different hours of the day for the nanofluid cooling method on the rear.

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Fig 15.

Ambient temperature, PV without a cooling system throughout the day, and PV with a water-cooling method from the front surface (spraying water).

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Fig 16.

PV efficiency with cooling and without cooling systems.

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Fig 17.

The 3D diagram of PV surface temperature and its efficiency during different hours of the day for water-cooling method from the front surface (sprinkling water).

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Fig 18.

The maximum and minimum temperature of the PV during the day.

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Fig 19.

Bar graph of the average efficiency of PVs during the day.

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Fig 20.

Bar graph of increasing efficiency of PVs during the day compared to the state without cooling.

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