Abstract
High temperature heat production requires a concentrator, an absorber and a heat transfer fluid, with the addition of an engine if electricity is to be generated. Reflector materials need to retain high specular reflectance under often harsh conditions. Specialised high-temperature selective multiple cermet layer coatings prepared by physical vapour deposition are necessary for operating temperatures above 400 °C (Kennedy and Price 2006). Selective coatings for medium-temperature applications such as metal-dielectric cermet composites of metal particles in a ceramic matrix are not stable at high operating temperatures.
In time, manufacturing will to a great extent follow the sun
C.G. Abbot (1928)
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Abdel-Salam HEA, Probert SD, Norton B (1986) Predicted performance of coffered solar ponds in the U.K and Egypt. Physio Chemical Hydrodynamics 7(4):217–233
Adams W (1878) Solar heat: a substitute for fuel in tropical countries. Education Society’s Press, Bombay
Akbarzadeh A, MacDonald RWG (1982) Introduction of a passive method for salt replenishment in the operation of solar ponds. Solar Energy 29:71–76
Akbarzadeh A, MacDonald RWG, Wang YF (1983) Reduction of surface mixing in solar ponds by floating rings. Solar Energy 31:377–380
Anderson CG (1958) Some limnological features of a shallow saline meromictic lake. Limnol Oceanogr 3:259–269
Assaf G (1976) The Dead Sea: a scheme for a Solar Lake. Solar Energy 1:293–299
Bachmann RW, Goldman CR (1965) Hypolimnetic heating in Castle Lake, California. Limnol Oceanogr 10:233–239
Bernardes MA, dos S, Valle RM, Cortez MFB (1999) Numerical analysis of natural laminar convection in a radial solar heater. Int J Therm Sci 38:42–50
Bitnar B, Dunseh W, Mayor JC, Sigg H, Tschudi HR (2002)
Bryant RS, Bowser RP, Wittenberg LJ (1979) Construction and initial operation of the Miamisburg saltgradient solar pond, Sun 2. In: Proceedings of the ISES silver jubilee congress, vol 2. Atlanta, pp 1005–1009
Burch J, Thomas K (1998) An overview of water disinfection in developing countries and the potential for solar thermal water pasteurisation. National Renewable Energy Laboratory, Golden
Cabanyes I (1903) Proyecto de Motor solar, La Energia Eléctrica – Revista General de Electricidad y sus Aplicaciones 8:61–65
Chandak A, Dubey D (2005) Innovative solar concentrator for industrial heating applications. International congress on renewable energy, Pune
Chen G (2001) Phonon heat conduction in low dimensional structures. Recent trends in thermoelectric materials research III. Academic, San Diego
Chergui T, Larbi S, Bouhdjar A, Gahgah M (2008) Performances analysis of a solar chimney power plant in South Algeria. In: Proceedings of the world renewable energy congress
Chiritescu C, Cahil DG, Ngayeu M, Johnson D, Bodapati A, Kebhiski P, Zschack P (2007) Ultralow thermal conductivity in disordered WSe2 crystals layered. Science 315:351–353
Church WC (1907) The life of John Ericsson. C Scribner’s Sons, New York
Crevier D, Moshref A (1981) The floating solar pond. ISES-AS conference, Philadelphia, pp 801–807
Dincer I, Rosen MA (1998) A worldwide perspective on energy, environment and sustainable development. Int J Energ Res 18:1305–1321
Duff WS, Hodgeson DA (2007) A simple high efficiency solar water purification system. Solar Energy 79:25–32
Elata C, Levien O (1966) Hydraulics of the solar ponds of the eleventh international congress international association for hydraulic research, Leningrad, pp 1–14
Eneas A (1901) Solar generator. US patent 670,917, 26 Mar 1901
Ericsson J (1868) The use of solar heat as a mechanical motor power. In the report of the centennial celebrations of the University of Lund, Lund
Ericsson J (1884) The sun motor and the sun’s temperature. Nature 29:217–218
Feachem RG, Garelick DJ, Mara DD (1983) Sanitation and disease: health aspects of excreta and wastewater management. Wiley, New York
Fleming JC, Liu SY, El-Kady I, Biswal R, Hu KM (2002) Nature 417:52–55
Fluri TP, Pretorius JP, Van Dyk C, Backstrom TW, Kröger DG, Van Zijl GPAC (2009) Cost analysis of solar chimney power plants. Solar Energy 83:246–256
Foster R, Ghassemi M, Alma Cota A (2010) Solar energy: renewable energy and the environment. CRC Press, Boca Raton
Gadhia D, Gadhia S (2006) Parabolic solar concentrators for cooking, food processing and other applications. International solar cooking conference, Granada
Goldsmid HJ (1960) Application of thermo electricity. Wiley, London
Günther H (1931) In Hundert Jahren – Die künftige Energieversorgung der Welt, Gesellschaft der Naturfreunde. Kosmos, Stuttgart
Haaf W (1984) Solar towers: part II: preliminary test results from the Manzanares pilot plant. Solar Energy 2:141–161
Haaf W, Friedrich K, Mayr G, Schlaich J (1983) Solar chimneys, part I: principle and construction of the pilot plant in Manzanares. Solar Energy 2:3–20
Huder PP, Sonnefeld P (1974) Hot brines on Los Roques, Venezuela. Science 185:440–442
Kalogirou S (2004) Solar thermal collectors and applications. Prog Energy Combust Sci 30:231–295
Kedare SB (2005) Solar concentrator for industrial process heat. International congress on renewable energy, Pune
Kennedy CE, Price H (2006) Progress in development of high-temperature solar-selective coating. In: Proceedings of the 2005 international solar energy conference (ISEC2005), 6–12 Aug 2005, Orlando, Paper no ISEC2005-76039, pp 749–755. American Society of Mechanical Engineers (ASME), New York, NREL report: CP-520-36997
Kooi CF (1979) The steady-state salt gradient solar pond. Solar Energy 23(3):7–45
Kraemer D, Poudd B, Feng H-P, Caylor JC, Yu B, Yan YM, Wang X, Wang D, Muto A, McEnaney K, Chiesa M, Ren Z, Chen G (2011) Higher-performance flat-panel solar thermoelectric generators with high concentration. Nat Mater 10:532–538
Larbi S, Bouhdjar A, Chergui T (2010) Performance analysis of a solar chimney power plant in the southwestern region of Algeria. Renew Sustain Energy Rev 14:470–477
Lytvynenko YM, Schur DV (1999) Utilisation of the concentrated solar energy for process of deformation of sheet metal. Renew Energy 16:753–756
Maia CB, Ferreira AG, Valle RM, Cortez MFB (2009) Theoretical evaluation of the influence of geometric parameters and materials on the behaviour of the air flow in a solar chimney. Comput Fluids 38:625–636
Melack JM, Kilham P (1972) Lake Mahega: a mesotropic sulfate chloride lake in Western Uganda. Afr J Trop Hydrobiol Fish 2:141–150
Morti A, Luque A (2003) Next generation photovoltaics; high efficiency through full spectrum utilization. Institute of Physics, Bristol
Mouchout A (1869) Le chaleur solarise et les applications industrielles, 1st edn, Paris
Mullick SC, Kandpal TC, Kumar S (1991) Thermal test procedure for a parabolic concentrator solar cooker. Solar Energy 46:139–144
Neumann O, Urban AS, Day J, Lal S, Nordlander P, Halas NJ (2013) Solar vapor generation enabled by nanoparticles. AesNano 7:42–49
Nielsen CE (1975) Salt-gradient solar ponds for solar energy utilization. Environ Conserv 2:289–292
Nielsen CE (1976) Experience with a prototype solar-pond for space heating, sharing the Sun solar technology in the seventies. Joint conference of the ISES-AS, and the Solar Energy Society of Canada, Winnipeg, pp 169–182
Nielsen CE (1979) Control of gradient zone boundaries, Sun 2. In: Proceedings of the ISES Congress, vol 2. Atlanta, pp 1010–1014
Nielsen CE, Rabl A (1976) Salt requirement and stability of solar ponds, shading the Sun: solar technology in the seventies. Joint conference of the ISES-AS and Solar Energy Society of Canada, Winnipeg, 5 Aug 1976, pp 183–187
Onwubiko C (1984) Effect of evaporation on the characteristic performance of the salt -gradient solar pond. Solar engineering – 1984. In: Proceedings of the ASME Solar Energy Division, sixth annual conference, Las Vegas, pp 6–11
Pasumarthi N, Sherif SA (1998) Experimental and theoretical performance of a demonstration solar chimney model, Part 1: Mathematical model developments. Int J Energy Res 22:277–288
Poppe WI, Woomer NM (1985) Algae management practices for solar salt ponds; practical approaches. In: Progress in solar energy, American Solar Energy Society Meeting, Boulder, 6:439–442
Por FD (1968) Solar lake on the shores of the Red Sea. Nature 218:860–861
Pretorius JP, Kröger DG, Buys JD, Von Backström TW (2004) Solar tower power plant performance characteristics. In: Proceedings of the ISES EuroSun 2004 international sonnenforum
Pretorius JP, Kröger DG (2006a) Solar chimney power plant performance. J Solar Energy 128:302–311
Pretorius JP, Kröger DG (2006b) Critical evaluation of solar chimney power performance. Solar Energy 80:535–544
Pujol R, Moià A, Martinex V (2011) Concentrador solar lineal con reflector estacionario y foco móvil. Era Solar 165:24–30
Rabl A, Neilsen CE (1975) Solar ponds for space heating. Solar Energy 17:1–12
Rodat S, Abanades S, Sans J-L, Flamant G (2009) Hydrogen production from solar thermal dissociation of natural gas: development of a 10 kW solar chemical reactor prototype. Solar Energy 83:1599–1610
Satish CJ, Gurmukh DM (1980) Laboratory demonstration of self-creation, self-maintenance and self-correction of saturated solar ponds. IECEC’80 energy to the 21st century. Proceedings of the15th inter-society energy conversion engineering conference, vol 2. Seattle, pp 1448–1452
Schladow SG (1984) The upper mixed zone of a salt-gradient solar pond: its dynamics, prediction and control. Solar Energy 33:417–426
Schlaich J (1995) The solar chimney: electricity from the Sun, Axel Menges edition, Stuttgart
Schlaich J, Bergermann R, Schiel W, Weinrebe G (2003a) Design of commercial solar tower systems-utilization of solar induced convective flows for power generation. In: Proceedings of the international solar energy conference
Schlaich J, Bergermann R, Schiel W, Weinrebe G (2003b) Sustainable electricity generation with solar updraft towers. Struct Eng Int 3:222–229
Schweiger H et al (2000) The potential of solar heat in industrial processes: a state of the art review for Spain and Portugal. In: Proceedings of the Eurosun, Copenhagen
Shaffer HL (1978) Viscosity-stabilized solar ponds mankind’s future source of energy. Proceedings congress, New Delhi
Shuman F (1911) Power from the Sun; a pioneer solar power plant. Scientific American, September
Shuman F, Boys CY (1917) Solar boiler. US patent 1,240,890, 25 Sept 1917
Seinfeld A (2005) Solar thermochemical production of hydrogen – a review. Solar Energy 78:603–615
Tabor H (1980) Non-convecting solar ponds. Solar energy. Proc Roy Soc A295: 422–433
Tabor H (1981) Review article: solar ponds. Solar Energy 27(3):181–194
Tabor H, Matz R (1964) A status Re ort on a solar-pond project. Solar Energy 9:177–182
Tellier C (1889) Elevation des eaux par la chaleur atmospherique, Paris
Vitner A, Reisfeld R, Sarig S (1984) Self-generation of a laboratory-scale saturated solar pond. Solar Energy 32:671–675
Weinberger H (1964) The physics of the solar pond. Solar Energy 8:45–56
WHO (2007) Combating waterborne disease at the household level. World Health Organisation, Geneva
Wilkins E, El-Genk M, El-Husseini K, Thakur D (1982) An evaluation of the gel pond performance. ASME, 82-WA/Sol-29
Wilson AT, Wellman HW (1962) Lake Vanda: an Antarctic lake. Nature 196:1171–1173
Wittenberg LJ, Harris MJ (1980) Management of a large operational solar pond. IECEC’80, Energy to the 21st century. Proceeding of the 15th inter-society energy conversion engineering conference, vol 2. Seattle, pp 1435–1437
Zangrando F (1980) A simple method to establish salt-gradient solar ponds. Solar Energy 25:467–470
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Norton, B. (2014). Solar Thermal Power Generation and Industrial Process Heat. In: Harnessing Solar Heat. Lecture Notes in Energy, vol 18. Springer, Dordrecht. https://doi.org/10.1007/978-94-007-7275-5_7
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