Carbon nanotube-silicon film laminated solar battery and preparation method thereof
A carbon nanotube thin film, solar cell technology, applied in nanotechnology, nanotechnology, nanotechnology for information processing, etc. The effect of transmission and broad application prospects
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0034] Example 1, Preparation and performance testing of carbon nanotube-silicon thin film stacked solar cells
[0035] 1) Evaporate a layer of 200nm thick indium tin oxide transparent conductive film on the glass substrate, and lead it out with a wire;
[0036] 2) sequentially depositing a 50nm thick N-type amorphous silicon layer, a 500nm thick I-type amorphous silicon layer and a 50nm thick P-type amorphous silicon layer on the transparent conductive film by plasma enhanced chemical vapor deposition;
[0037] 3) spreading a single-walled carbon nanotube film with a thickness of 200nm on the P-type amorphous silicon layer, and making the carbon nanotube film closely contact with the silicon film;
[0038] 4) An aluminum electrode with a thickness of 20nm is vapor-deposited on the carbon nanotube film, and drawn out with a wire to obtain a carbon nanotube-silicon film laminated solar cell.
[0039] Performance Testing:
[0040] Under standard light source (AM1.5, 100mW / cm ...
Embodiment 2
[0041] Example 2, Preparation and performance testing of carbon nanotube-silicon thin film stacked solar cells
[0042] 1) Evaporate a layer of 100nm thick indium tin oxide transparent conductive film on the glass substrate;
[0043] 2) sequentially depositing a 500nm thick N-type silicon thin film layer, a 10nm thick I-type silicon thin film layer and a 1500nm thick P-type silicon thin film layer on the transparent conductive film by plasma enhanced chemical vapor deposition;
[0044] 3) transferring the single-walled carbon nanotube film with a thickness of 200nm to the p-type silicon layer;
[0045] 4) An aluminum electrode with a thickness of 20nm is vapor-deposited on the carbon nanotube film, and drawn out with a wire to obtain a carbon nanotube-silicon film laminated solar cell.
[0046] 5) Detection and analysis under scanning electron microscope
[0047] See attached Figure 5
[0048] Performance Testing:
[0049] Under standard light source (AM1.5, 100mW / cm 2 ...
Embodiment 3
[0050] Example 3, Preparation and performance testing of carbon nanotube-silicon thin film stacked solar cells
[0051] 1) Evaporate a layer of 200nm thick indium tin oxide transparent conductive film on the glass substrate, and lead it out with a wire;
[0052] 2) On the transparent conductive film, a 100nm thick N-type amorphous silicon layer, an 800nm thick I-type amorphous silicon layer, a 100nm thick P-type amorphous silicon layer and a 50nm thick N-type amorphous silicon layer were sequentially deposited by plasma-enhanced chemical vapor deposition layer;
[0053] 3) spreading a single-walled carbon nanotube film with a thickness of 300nm on the N-type amorphous silicon layer, and making the carbon nanotube film closely contact with the silicon film;
[0054] 4) Evaporating aluminum electrodes with a thickness of 50 nm on the carbon nanotube film and leading them out with wires to obtain a carbon nanotube-silicon film stacked solar cell.
[0055] Performance Testing:...
PUM
| Property | Measurement | Unit |
|---|---|---|
| thickness | aaaaa | aaaaa |
| thickness | aaaaa | aaaaa |
| thickness | aaaaa | aaaaa |
Abstract
Description
Claims
Application Information
Login to View More 