We present experimental results for photocurrent enhancements in thin c-Si solar cells due to light-trapping by self-assembled, random Ag nanoparticle arrays. The experimental geometry is chosen to maximise the enhancement provided by employing previously reported design considerations for plasmonic light-trapping. The particles are located on the rear of the cells, decoupling light-trapping and anti-reflection effects, and the scattering resonances of the particles are red-shifted to target spectral regions which are poorly absorbed in Si, by over-coating with TiO2. We report a relative increase in photocurrent of 10% for 22 µm Si cells due to light-trapping. Incorporation of a detached mirror behind the nanoparticles increases the photocu...
Photocurrent enhancement induced by plasmonic light trapping is of great interest for photovoltaics....
Light trapping is of critical importance for constructing high efficiency solar cells. In this paper...
We show experimentally that the photocurrent of thin-film hydrogenated microcrystalline silicon (?c-...
We present experimental results for photocurrent enhancements in thin c-Si solar cells due to light-...
Ag nanoparticle arrays, located on the front or rear surface of a Si solar cell, can provide effecti...
A systematic investigation of the nanoparticle-enhanced light trapping in thin-film silicon solar ce...
Photocurrent enhancement in thin a-Si:H solar cells due to the plasmonic light trapping is investiga...
Plasmonic nanostructures have been recently investigated as a possible way to improve absorption of ...
The paper reports a development and implementation of light trapping based on light scattering from ...
Optically driven localised surface plasmons can be excited on sub-wavelength metal particles, which ...
Plasmonic thin film solar cells (modified with metallic nanostructures) often display enhanced light...
Significant photocurrent enhancement has been achieved for evaporated solid-phase-crystallized polyc...
We study Ag nanoparticles on thin-film Si solar cells using reflection and photocurrent mapping. We ...
ABSTRACT: Advanced light management in thin-film solar cells is becoming increasingly important to r...
Plasmonic light trapping in thin film silicon solar cells is a promising route to achieve high effic...
Photocurrent enhancement induced by plasmonic light trapping is of great interest for photovoltaics....
Light trapping is of critical importance for constructing high efficiency solar cells. In this paper...
We show experimentally that the photocurrent of thin-film hydrogenated microcrystalline silicon (?c-...
We present experimental results for photocurrent enhancements in thin c-Si solar cells due to light-...
Ag nanoparticle arrays, located on the front or rear surface of a Si solar cell, can provide effecti...
A systematic investigation of the nanoparticle-enhanced light trapping in thin-film silicon solar ce...
Photocurrent enhancement in thin a-Si:H solar cells due to the plasmonic light trapping is investiga...
Plasmonic nanostructures have been recently investigated as a possible way to improve absorption of ...
The paper reports a development and implementation of light trapping based on light scattering from ...
Optically driven localised surface plasmons can be excited on sub-wavelength metal particles, which ...
Plasmonic thin film solar cells (modified with metallic nanostructures) often display enhanced light...
Significant photocurrent enhancement has been achieved for evaporated solid-phase-crystallized polyc...
We study Ag nanoparticles on thin-film Si solar cells using reflection and photocurrent mapping. We ...
ABSTRACT: Advanced light management in thin-film solar cells is becoming increasingly important to r...
Plasmonic light trapping in thin film silicon solar cells is a promising route to achieve high effic...
Photocurrent enhancement induced by plasmonic light trapping is of great interest for photovoltaics....
Light trapping is of critical importance for constructing high efficiency solar cells. In this paper...
We show experimentally that the photocurrent of thin-film hydrogenated microcrystalline silicon (?c-...