Environmental Engineering Reference
In-Depth Information
the computing resources required to successfully undertake the latter have become
widely available.
To represent insolation, ambient temperature and load characteristics in stochastic
simulations, Markov chain models can be produced from several years hour-by-hour
data for a specific location. Though the transition probability matrices would give
the long-term system behaviour, the technique has yet to be established in a software
environment that would render it a practical proposition for use in system design.
A variety of detailed hour-by-hour simulation models are available to determine
the outputs of systems with differing layouts, component specifications and control
regimes (Klein et al., 1996). Either an overarching optimisation algorithm or multiple
simulations are required to ascertain an economically optimal combination of system
components. To determine economically optimum designs for solar industrial process
heat systems artificial intelligence methods have be employed.
REFERENCES
Al-Ibrahim A.M., Beckman W.A., Klein S.A. and Mitchell J.W. (1998) Design procedure for
selecting an optimum photovoltaic pumping system in solar domestic hot water system.
Solar Energy , 64, 227-239
Arthur A.C. and Norton B. (1988) Factors affecting the performance of integral passive solar
energy water heaters. In: Proceedings of the 6th International Solar Energy Forum , Berlin,
Germany , pp. 189-194.
Bainbridge D.A. (1981) The integral passive solar water heater topic . The Passive Solar Institute,
Davis, California, USA.
Bansal N.K., Sawhney R.L., Misra A. and Boettcher A. (1988) Solar sterilization of water. Solar
Energy , 40, 35-39.
Bar-Cohen A. (1976) Thermal optimisation of compact solar water heaters. Solar Energy , 20,
193-196
Bishop R.C. (1983) Superinsulated batch heaters for freezing climates. In: Proceedings of the
8th National Passive Solar Conference, Sante Fe, New Mexico, USA , pp. 807-810.
Braun, J.E., Klein, S.A. and Beckman, W.A. (1981) Seasonal storage of energy in solar heating,
Solar Energy , 26, 403-411.
Budihardjo I. and Morrison G.L. (2007) Natural circulation flow through water-in-glass
evacuated tube solar collectors. Solar Energy , 12, 1460-1472.
Butti K. and Perlin J. (1980) A Golden Thread . Van Nostrand Reinhold Co., New York, USA.
Chauhan R.S. and Kadambi V. (1976) Performance of a collector-cum-storage type of solar
water heater. Solar Energy , 18, 327-335.
Charters W.W.S., de Forest L., Dixon C.W.S. and Taylor L.E. (1980) Design and performance
of some solar booster heat pumps. In: Annual Conference of the Australia and New Zealand
Solar Energy Society, Melbourne, Australia .
Chow T.T, W. He and J. Ji (2008) Hybrid photovoltaic-thermosyphon water heating system for
residential application, Solar Energy , 80, 298-306.
Collares-Pereira, M., Gordon, J.M., Rabl A. and Zarmi Y. (1984) Design and optimisation of
solar industrial hot water systems with storage. Solar Energy , 32, 121-133.
Dalenbäck J.D. (2010) Take off for solar district heating in Europe. Polska Energetyka
Sloneczna , 1/2010, 9-13
Davidson J.H. and Adams D.A. (1994) Fabric stratification manifolds for solar water heater.
ASME Solar Energy Engineering , 116, 130-136.
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