ExLibris header image
SFX Logo
Title: Wide-band-gap InAlAs solar cell for an alternative multijunction approach
Source:

Applied Physics Letters [0003-6951] Leite, Marina yr:2011


Collapse list of basic services Basic
Full text
Full text available via AIP Journals (American Institute of Physics)
GO
Document delivery
Request document via Library/Bibliothek GO
Users interested in this article also expressed an interest in the following:
1. Law, Daniel C. "Future technology pathways of terrestrial III-V multijunction solar cells for concentrator photovoltaic systems." Solar energy materials and solar cells 94.8 (2008): 1314-1318. Link to SFX for this item
2. Peters, M. "Efficiency limit and example of a photonic solar cell." Journal of applied physics 110.4 (2011): 43104-43108. Link to SFX for this item
3. Canovas, E. "Photoreflectance analysis of a GaInP/GaInAs/Ge multijunction solar cell." Applied physics letters 97.20 (2010): 203504-203504. Link to Full Text for this item Link to SFX for this item
4. Shin, B. "Initiation and evolution of phase separation in heteroepitaxial InAlAs films." Applied physics letters 80.18 (2002): 3292-3294. Link to Full Text for this item Link to SFX for this item
5. Kurtz, S. "Multijunction solar cells for conversion of concentrated sunlight to electricity." Optics express 18.9 (2010): 6-8. Link to SFX for this item
6. Friedman, Friedman J. "Progress and challenges for next-generation high-efficiency multijunction solar cells." Current opinion in solid state & materials science 14.6 (2010): 131-138. Link to SFX for this item
7. Baur, C. "Triple-junction III-V based concentrator solar cells: Perspectives and challenges." Journal of solar energy engineering 129.3 (2007): 258-265. Link to SFX for this item
8. Dominguez, C. "Multijunction solar cell model for translating I-V characteristics as a function of irradiance, spectrum, and cell temperature." Progress in photovoltaics 18.4 (2010): 272-284. Link to Full Text for this item Link to SFX for this item
9. "High-resolution electroreflectance measurements of GaAs." Surface science 37.1: 631-638. Link to SFX for this item
10. Lei, W. "Alloy phase separation in InAs/InAlAs/InP nanostructure superlattices studied by finite element calculation." Journal of Crystal Growth 311.22 (2009): 4632-4635. Link to SFX for this item
11. Zhang, XB. "Growth of InAlAs self-assembled quantum dots on InAlGaAs∕InP for 1.55 μm laser applications by metalorganic chemical vapor deposition." Applied physics letters 89.19 (2006): 191104-. Link to Full Text for this item Link to SFX for this item
12. Leite, Marina S. "Towards an optimized all lattice-matched InAlAs/InGaAsP/InGaAs multijunction solar cell with efficiency >50%." Applied physics letters 102.3 (2013): 33901-. Link to Full Text for this item Link to SFX for this item
13. Giesecke, J A. "Measurement of net dopant concentration via dynamic photoluminescence." Journal of applied physics 112.6 (2012): 63704-. Link to SFX for this item
14. Zhang, C. "A simple and efficient solar cell parameter extraction method from a single current-voltage curve." Journal of applied physics 110.6 (2011): 64504-64504. Link to SFX for this item
15. Wang, H. "Rapid Microwave Synthesis of Porous TiO2 Spheres and Their Applications in Dye-Sensitized Solar Cells." The journal of physical chemistry. C 115.21 (2011): 10419-10425. Link to Full Text for this item Link to SFX for this item
16. Parida, B. "A review of solar photovoltaic technologies." Renewable & sustainable energy reviews 15.3 (2011): 1625-1636. Link to SFX for this item
17. Berginski, M. "Experimental studies and limitations of the light trapping and optical losses in microcrystalline silicon solar cells." Solar energy materials and solar cells 92.9 (2008): 1037-1042. Link to SFX for this item
18. Tsuruoka, T. "Microscopic identification of dopant atoms in Mn-doped GaAs layers." Solid state communications 121.2-3 (2002): 79-82. Link to Full Text for this item Link to SFX for this item
19. Rey-Stolle, I. "Improvements in the MOVPE growth of multi-junction solar cells for very high concentration." Journal of Crystal Growth 298.SPEC. ISS (2007): 762-766. Link to SFX for this item
20. Dharmadasa, I. "Third generation multi-layer graded band gap solar cells for achieving high conversion efficiencies - II: Experimental results." Solar energy materials and solar cells 88.4 (2005): 413-422. Link to SFX for this item
View More...
View Less...
Select All Clear All

Expand list of advanced services Advanced