Surface recombination represents a handicap for high-efficiency solar cells. This is especially important for nanowire array solar cells, where the surface-to-volume ratio is greatly enhanced. Here, the effect of different passivation materials on the effective recombination and on the device performance is experimentally analyzed. Our solar cells are large area top-down axial n-p junction silicon nanowires fabricated by means of Near-Field Phase-Shift Lithography (NF-PSL). We report an efficiency of 9.9% for the best cell, passivated with a SiO2/SiN x stack. The impact of the presence of a surface fixed charge density at the silicon/oxide interface is studied
A simple two-step surface treatment process is proposed to boost the efficiency of silicon nanowire/...
Surface passivation continues to be a significant requirement in achieving high solar-cell efficienc...
Solar cells based on arrays of CVD-grown Si nano- or micro-wires are being considered as a potential...
As a renewable and environmentally-friendly energy, solar energy can effectively avoid the destructi...
Nanowires have unique optical properties(1-4) and are considered as important building blocks for en...
This study proposes metal-assisted chemical etching (MAE) as a facile method to fabricate silicon na...
In this paper effective surface recombination velocities Ssubeff at the rear Si-Si0sub2 interface of...
Silicon nanowires (SiNWs) have attracted increasing attention for their enhanced light harvesting an...
We investigated Si nanowires (SiNWs) fabricated by wet etching and chemical vapor deposition (CVD), ...
Abstract Silicon nanowires (SiNWs) show a great potential for energy applications because of the opt...
High-density silicon nanowires (SiNWs) were fabricated on p-Si substrates by metal-assisted chemical...
Surface passivation of a nanostructured Si solar cells plays a crucial role in collecting photogener...
Optical losses at the front surface of a silicon solar cell have a significant impact on efficiency,...
Effective reduction of front surface carrier recombination is essential for high efficiency silicon ...
Thin crystalline silicon (c-Si) solar cells are beneficial for reducing the materials cost, but requ...
A simple two-step surface treatment process is proposed to boost the efficiency of silicon nanowire/...
Surface passivation continues to be a significant requirement in achieving high solar-cell efficienc...
Solar cells based on arrays of CVD-grown Si nano- or micro-wires are being considered as a potential...
As a renewable and environmentally-friendly energy, solar energy can effectively avoid the destructi...
Nanowires have unique optical properties(1-4) and are considered as important building blocks for en...
This study proposes metal-assisted chemical etching (MAE) as a facile method to fabricate silicon na...
In this paper effective surface recombination velocities Ssubeff at the rear Si-Si0sub2 interface of...
Silicon nanowires (SiNWs) have attracted increasing attention for their enhanced light harvesting an...
We investigated Si nanowires (SiNWs) fabricated by wet etching and chemical vapor deposition (CVD), ...
Abstract Silicon nanowires (SiNWs) show a great potential for energy applications because of the opt...
High-density silicon nanowires (SiNWs) were fabricated on p-Si substrates by metal-assisted chemical...
Surface passivation of a nanostructured Si solar cells plays a crucial role in collecting photogener...
Optical losses at the front surface of a silicon solar cell have a significant impact on efficiency,...
Effective reduction of front surface carrier recombination is essential for high efficiency silicon ...
Thin crystalline silicon (c-Si) solar cells are beneficial for reducing the materials cost, but requ...
A simple two-step surface treatment process is proposed to boost the efficiency of silicon nanowire/...
Surface passivation continues to be a significant requirement in achieving high solar-cell efficienc...
Solar cells based on arrays of CVD-grown Si nano- or micro-wires are being considered as a potential...