||In this thesis, we use our program to design quickly aspheric curvature and conic constant of solar concentrator, also quickly and simply analyze all kinds of solar concentrators. Not only to design aspheric concentrators, but also to design another type which curve is composed of straight line. The concentrator is easy to manufactures and is quite cheap. It also can make a large concentrator, and it is also cheap.|
In the part of double reflective aspheric mirror, it includes two type. One is paraboloid－hyperboloid, and other is paraboloid－ellipe. The two types both use our program to design all kinds and to analyze. To analyze concentrator ratio, spot size, the second surface size and distance of the two surface. In specific condition, the two types have the highest concentrator ratio. All kinds of solar concentrator, the concentrator ratio of paraboloid－ellipe concentrator is the highest. The paraboloid－ellipe concentrator has the highest concentrator ratio which is 8404. The paraboloid－hyperboloid concentrator has the highest concentrator ratio which is 8029. After designing concentrator, we must analyze error angle of tracking and manufacture tolerances. According to the influence of error angle of tracking to consider that the concentrator has much concentrator ratio drop above a special error angle of tracking.
In the part of many rings type double reflective concentrator, also use our program to design all kinds. We use ASAP to simulate that real sunlight concentrate. We also must analyze error angle of tracking. The many rings type concentrator have some manufacture defect, so alter the many rings type concentrator to become amelioration type which is more easy to manufacture.
|| IEA, Final report of IEA-HA, “Annex-14” , International Energy Agency, (2004).|
 John L. Richter, “Optics Of A Two-Trough Solar Concentrator,”Solar Energy 56 (2) (1996) 191-198.
 J. M. Gordon, “A 100-Sun Linear photovoltaic Solar Concentrator Design From Inexpensive Commercial Components,”Solar Energy 57 (4) (1996) 301-305.
 J. M. Cariou, J. Dugas and L. Martin, “Transport Of Solar Energy With optical Fibers,”Solar Energy 29 (5) (1982) 397-406.
 O.A. Jaramillo, J.A. del Rio and G. Huelsz, “A thermal study of optical fibers transmitting concentrated solar energy,”J. Phys. D: Appl. Physics 32 (1999) 1000-1005.
 O.A. Jaramillo, G. Huelsz and J.A. del Rio, “A theoretical and experimental thermal study of SiO2 optical fibers transmitting concentrated radiative energy,” J. Phys. D: Appl. Physics. 35 (2002) 95-102.
 R.Y. Nuwayhid, F. Mard, R. Abu-Said, “The realization of a simple solar tracking concentrator for university research applications,” Renewable Energy 24 (2001) 207-222
 R.Y. Nuwayhid, F. Mard, R. Abu-Said, “The realization of simple solar tracking concentrator for unicersity research applications,”Renewable Energy 24 (2001) 207-222.
 Licht, S, “Solar water splitting to generate hydrogen fuel – a photothermal electrochemical analysis,” Int. J. Hydrogen Energy 30 (2005) 459-470.
 John Beavis Lasich, US patent,US5973825, “Prouduction Of Hydrogen From Solar Radiation At High Efficiency,” 1999.
 D. Feuermann and J.M. Gordon, “Solar fiber-optic mini-dishes: A new approach to the efficiency collection of sunlight,” Solar Energy 65 (3) (1999) 159-170.
 D. Feuermann, J.M. Gordon and M. Huleihil, “Solar fiber-optic mini-dish concentrators: First experimental results and field experience,”Solar Energy 72 (6) (2002) 459-472.
 Licht, S. , “Solar water splitting to generate hydrogen fuel: Photothermal electrochemical analysis,” J. Phys. Chem., B 107 (2003) 4253-4260.
 Dawei Liang, L. Fraser Monteiro, M. Ribau Teixeira, “Fiber-optic solar energy transmission and concentration, “ Solar Energy Materials and Solar Cells 54 (1998) 323-331.
 C. Ciamberlinia, F. Francinia, G. Longobardia, M. Piattellib, P. Sansonia,“Solar system for exploitation of the whole collected energy,”Optics and Lasers in Engineering 39 (2003) 233–246.
 I. Anto´n1, D. Silva, G. Sala, A.W. Bett, G. Siefer, I. Luque-Heredia and T. Trebst, “The PV-FIBRE Concentrator A System for Indoor Operation of 1000X MJ Solar Cells,”Progress In Photovoltaics:Research And Applications.
 Smith, Warren J., Modern Optical Engineering-The Design Of Optical Systems, McGraw-Hill Third Edition 2001.
 Hecht Eugene, Optics, Addison-Wesley Longamn, Inc Fourth Edition 2002.
 Jeffrey D. Muhs, US patent,US6603069, “Adaptive,Full-Spectrum Solar Energy System,” 2003.