Exploiting Quantum Confinement for Future Solar Cell Application
Exploiting Quantum Confinement for Future Solar Cell Application
摘要
Present solar cells are expensive making photovoitaic electricity only attractive whenever there is government incentive. This paper highlights the cost of photovoltaic classified according to first, second and third generations. The first and second generations make up the current photovoltaic. The reasons for the efficiency limitation of the first and second generation photovoltaic are given. Nanoparticles such as quantum dots have confinement properties that can be exploited to improve solar cell efficiency and help reduce the cost. Quantum effect that support hot electron collection and multiple exciton generation through impact ionization are discussed. These form the basis of the future generation quantum dot solar cell.
参考文献15
-
1S. O'Rouke, P. Kim, H. Polavarapu, Solar Photovoltaic Industry: Looking through the Storm, Deutsche Bank Report, available online at: http://www.dbleadershipforum. com/index.php?id=article 1#5, 2009.
-
2Solarbuzz.com: Solar Electricity Price Index, available online at: http://www.solarbuzz.com/SolarPrices.htm.
-
3H.W. Hillhouse, M.C. Beard, solar cells from colloidal nanocrystals: fundamentals, materials, devices, and economics, Current Opinion in Colloid & Interface Science 4 (2009) 245-259.
-
4First Solar: 2008 Annual Report, available online at: http://www.investor.firstsolar.com/.
-
5W. Shockley, H.J. Queisser, Detailed balance limit of efficiency of p-n junction solar cells, Journal of Applied Physics 32 (1961) 510-519.
-
6Press Release, University of Delaware, 2007, available online at: http//www.udel.edu/PR/UDaily/2008/jul/ solar072307.html.
-
7J.L. Blackburn, R.J. Ellingson, O.T. Micic, A.J. Nozik, Electron relaxation m colloidal InP quantum dots with photo-generated excitons or chemically injected electrons. J. Phys. Chem. B107 (2003) 102-109.
-
8V.I. Klimov, A.A. Mikhailovsky, D.W. McBranch, C.A.Leatherdale, M.G. Bawendi, Mechanisms for intraband energy relaxation in semiconductor quantum dots: the role of electron-hole interactions, Phys. Rev. B61 (2000) R13349-R13352.
-
9J.M. Harbold, H. Du, T.D. Krauss, K.S. Cho, C.B. Murray, F.W. Wise, Time-resolved intraband relaxation of strongly confined electrons and holes in colloidal PbSe nanocrystals, Phys. Rev. B72 (2005) 1-6.
-
10O. Christensen, Quantum efficiency of the internal photoelectric effect in silicon and germanium, Journal of Applied Physics 47 (1976) 689-695.
-
1俞鸣人,侯晓远.多孔硅材料和光电器件[J].半导体光电,1993,14(2):109-114.
-
2俞鸣人,王迅.多孔硅发光机理的新探索[J].物理,1995,24(4):212-217. 被引量:7
-
3Zhang Funghui (Anyang Electron Tube Factory,Henan 455000).掺杂纳米晶体荧光粉[J].真空电子技术,1998,11(4):30-34.
-
4工信部召开太阳能电池金属栅线技术现状及趋势研讨会[J].信息技术与标准化,2014,0(9):10-10.
-
5丘志仁,俞平,黄锦圣,WongGeorgeKL,余振新.氧化锌薄膜的室温受激紫外激光发射[J].中山大学学报(自然科学版),1998,37(1):51-54. 被引量:3
-
6姚钢.电网等价点:向“硅”走、向“膜”走?[J].电子设计技术 EDN CHINA,2008,15(7):42-42.
-
7包婧文.高精度电源转换平台支持颠覆性逆变器技术以降低光伏发电成本[J].太阳能,2016(5):68-69.
-
8Hua Li,Bing-Can Liu,Bing-Xin Shi,Si-Yu Dong,Qiang Tian.Novel method to determine effective length of quantum confinement using fractional-dimension space approach[J].Frontiers of physics,2015,10(4):97-102. 被引量:2
-
9Day4Energy公司开发制造新型高效太阳能电池[J].中国建设动态(阳光能源),2008(5):64-64.
-
10我国探索低成本多晶硅新路线[J].新材料产业,2009(6):87-88.