A silicon heterojunction solar cell using silicon carbide as front contact is presented, which features the main advantage of high transparency. To enhance this advantage, an optical loss analysis is performed. It is found that reflection losses play an important role for the solar cell, which can easily be reduced by applying an additional MgF2 coating. The deposition of the coating degrades the passivation quality of the contact but can be cured, eventually leading to a certified short circuit current density of 40.9 mA/cm² and efficiency of 23.99%. Afterwards, a roadmap to a theoretical efficiency of 25% is presented
We analyze the optical losses that occur in interdigitated back-contacted amorphous/crystalline sili...
Silicon heterojunction (SHJ) solar cells have reached high power conversion efficiency owing to thei...
In order to compensate the insufficient conductance of heterojunction thin films, transparent conduc...
Herein, an optical loss analysis of the recently introduced silicon carbide–based transparent passiv...
We present a new transparent passivated contact concept utilizing microcrystalline silicon carbide a...
The goal of this work is to develop a transparent, passivating and conductivecontact for the light f...
A highly transparent passivating contact (TPC) as front contact for crystalline silicon (c-Si) solar...
The goal of this work is to develop a transparent, passivating and conductive contact for the light ...
A highly transparent front contact layer system for crystalline silicon (c-Si) solar cells is invest...
We demonstrate silicon heterojunction solar cells with microscale effectively transparent front cont...
We have developed effectively transparent contacts (ETCs) that allow for increased current in hetero...
N-type microcrystalline silicon carbide (μc-SiC:H(n)) is a wide bandgap material that is very promis...
Increasing the solar cell efficiency by applying advanced cell architectures is one route for crysta...
The interdigitated back contact silicon heterojunction (IBC-SHJ) solar cell requires a low temperatu...
Light trapping in crystalline silicon (c-Si) solar cells is an essential building block for high eff...
We analyze the optical losses that occur in interdigitated back-contacted amorphous/crystalline sili...
Silicon heterojunction (SHJ) solar cells have reached high power conversion efficiency owing to thei...
In order to compensate the insufficient conductance of heterojunction thin films, transparent conduc...
Herein, an optical loss analysis of the recently introduced silicon carbide–based transparent passiv...
We present a new transparent passivated contact concept utilizing microcrystalline silicon carbide a...
The goal of this work is to develop a transparent, passivating and conductivecontact for the light f...
A highly transparent passivating contact (TPC) as front contact for crystalline silicon (c-Si) solar...
The goal of this work is to develop a transparent, passivating and conductive contact for the light ...
A highly transparent front contact layer system for crystalline silicon (c-Si) solar cells is invest...
We demonstrate silicon heterojunction solar cells with microscale effectively transparent front cont...
We have developed effectively transparent contacts (ETCs) that allow for increased current in hetero...
N-type microcrystalline silicon carbide (μc-SiC:H(n)) is a wide bandgap material that is very promis...
Increasing the solar cell efficiency by applying advanced cell architectures is one route for crysta...
The interdigitated back contact silicon heterojunction (IBC-SHJ) solar cell requires a low temperatu...
Light trapping in crystalline silicon (c-Si) solar cells is an essential building block for high eff...
We analyze the optical losses that occur in interdigitated back-contacted amorphous/crystalline sili...
Silicon heterojunction (SHJ) solar cells have reached high power conversion efficiency owing to thei...
In order to compensate the insufficient conductance of heterojunction thin films, transparent conduc...