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Fig 1.

Geometrical configuration of the inclined channel with adiabatic extensions.

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Fig 2.

a: Average Nusselt number versus the modified Rayleigh number in the case of a vertical channel (Ar = b/H = 1/5 and ϕ = 90°). b: Average Nusselt number versus the modified Rayleigh number in the case of an inclined channel (Ar = b/H = 1/30 and ϕ = 30°).

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Fig 2 Expand

Fig 3.

a: Maximum dimensionless PV module temperature as a function of channel aspect ratio for different tilt angles at Ra* = 105 (channel without extensions). b: Dimensionless mean velocity as a function of channel aspect ratio for different tilt angles at Ra* = 105 (channel without extensions).

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Fig 3 Expand

Fig 4.

a: Velocity profiles at the channel inlet for different tilt angles (Ar = b/H = 1/8; Ra* = 105). b: Velocity profiles at the channel outlet for different tilt angles (Ar = b/H = 1/8; Ra* = 105).

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Fig 4 Expand

Fig 5.

Dimensionless temperature profiles along the upper channel wall for different tilt angles (Ar = b/H = 1/8; Ra* = 105).

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Fig 5 Expand

Fig 6.

a: Dimensionless mass flow rate as a function of tilt angles for different modified Rayleigh numbers (Ar = b/H = 1/8). b: Average Nusselt number as a function of tilt angles for different modified Rayleigh numbers (Ar = b/H = 1/8).

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Fig 6 Expand

Fig 7.

a: Dimensionless mass flow rate as a function of tilt angles for different adiabatic extensions at the channel inlet and outlet (Ar = b/H = 1/8; Ra* = 105). b: Average Nusselt number as a function of tilt angles for different adiabatic extensions at the channel inlet and outlet (Ar = b/H = 1/8; Ra* = 105).

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Fig 7 Expand

Fig 8.

a: Dimensionless mass flow rate as a function of normalized adiabatic extension at the channel outlet for different modified Rayleigh numbers (Ar = b/H = 1/8; ϕ = 30°). b: Average Nusselt number as a function of normalized adiabatic extension at the channel outlet for different modified Rayleigh numbers (Ar = b/H = 1/8; ϕ = 30°).

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Fig 8 Expand

Fig 9.

a: Channel exit velocity profiles for different adiabatic extension Eout (Ar = b/H = 1/8; Ra* = 105; ϕ = 30°). b: Dimensionless temperature profiles along the upper channel wall for different adiabatic extension Eout (Ar = b/H = 1/8; Ra* = 105; ϕ = 30°).

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Fig 9 Expand