Five-knot cascade photovoltaic cell with antireflection film
A technology of photovoltaic cells and anti-reflection films, applied in photovoltaic power generation, circuits, electrical components, etc., can solve problems such as increasing transmission, affecting battery energy conversion efficiency, and reducing
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Embodiment 1
[0013] like figure 1 As shown, the five-junction cascaded photovoltaic cell with antireflection film proposed by the present invention has the following structure:
[0014] A bottom electrode (14) is set on the lower surface of the InP substrate (1), and a GaAs sub-cell (2) is set on the upper surface of the InP substrate (1); the GaAs sub-cell (2) has a GaInAs sub-cell (2). A battery (3); a GaInP subcell (5) on the GaInAs subcell (3); a strain-compensated GaAsP / GaInAs superlattice cell (6) on the GaInP subcell (5); a strain-compensated GaAsP GaInP sub-cell (9) on the GaInAs superlattice cell (6); wherein, there is a first anti-reflection layer (4) between the GaInAs sub-cell (3) and the GaInP sub-cell (5); There is a second anti-reflection layer (7) and a third anti-reflection layer (8) between the GaAsP / GaInAs superlattice cell (6) and the GaInP sub-cell (9); there is a fourth anti-reflection layer on the GaInP sub-cell (9). A reflection layer (10), a fifth antireflection ...
Embodiment 2
[0018] Introduce the preferred embodiment of the five-junction photovoltaic cell with anti-reflection film that the present invention proposes below, this five-junction photovoltaic cell with anti-reflection film has following structure:
[0019] A bottom electrode (14) is set on the lower surface of the InP substrate (1), and a GaAs sub-cell (2) is set on the upper surface of the InP substrate (1); the GaAs sub-cell (2) has a GaInAs sub-cell (2). A battery (3); a GaInP subcell (5) on the GaInAs subcell (3); a strain-compensated GaAsP / GaInAs superlattice cell (6) on the GaInP subcell (5); a strain-compensated GaAsP GaInP sub-cell (9) on the GaInAs superlattice cell (6); wherein, there is a first anti-reflection layer (4) between the GaInAs sub-cell (3) and the GaInP sub-cell (5); There is a second anti-reflection layer (7) and a third anti-reflection layer (8) between the GaAsP / GaInAs superlattice cell (6) and the GaInP sub-cell (9); there is a fourth anti-reflection layer on ...
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