Thermal Energy Storage

Neopentyl glycol can be used for thermal energy storage by virtue of its soHd-phase transition, which occurs at 39—41°C, a temperate range useful for solar heating and cooling (28—31). [Pg.372]

Minor and potential new uses include flue-gas desulfurization (44,45), silver-cleaning formulations (46), thermal-energy storage (47), cyanide antidote (48), cement additive (49), aluminum-etching solutions (50), removal of nitrogen dioxide from flue gas (51), concrete-set accelerator (52), stabilizer for acrylamide polymers (53), extreme pressure additives for lubricants (54), multiple-use heating pads (55), in soap and shampoo compositions (56), and as a flame retardant in polycarbonate compositions (57). Moreover, precious metals can be recovered from difficult ores using thiosulfates (58). Use of thiosulfates avoids the environmentally hazardous cyanides. [Pg.30]

Thermal Energy Storage Systems—These are intermittent use systems where the cold is produced off-peak and then used to chill the inlet air during the hot hours of the day. [Pg.96]

Garg, H. P. Mullick, S. C. and Bhargava, A. K. (1985). Solar Thermal Energy Storage. Boston D. Reidel Publishing Col. [Pg.1102]

H. O. Paksoy (ed.), Thermal Energy Storage for Sustainable Energy Consumption, 3-22. [Pg.3]

UTES encompasses both aquifer thermal energy storage (ATES) and borehole thermal energy storage (BTES). [Pg.15]

C448.3-02 Design and Installation of Underground Thermal Energy Storage Systems for Commercial and Institutional Buildings [14]... [Pg.17]

Environmental Checklist for Earth Energy Heat Pumps and Underground Thermal Energy Storage (UTES) Systems... [Pg.17]

Morofsky, E., 1997. Seasonal Cold Storage Building and Process Applications A Standard Design Option MEGASTOCK 97 Proc. of the 7th International Conference on Thermal Energy Storage, Sapporo, Japan, pp. 1009-1014. [Pg.21]

ENERGETIC, EXERGETIC, ENVIRONMENTAL AND SUSTAINABILITY ASPECTS OF THERMAL ENERGY STORAGE SYSTEMS... [Pg.23]

Keywords Energy, exergy, environment, efficiency, sustainability, thermal energy storage. [Pg.23]

Dincer, I., and M.A. Rosen, 2002. Thermal Energy Storage Systems and Applications, John Wiley Sons, London, 580 pp. [Pg.45]

Dincer, I., and S. Dost, 1996. A perspective on thermal energy storage systems for solar energy applications, Int. J. Energy Res., 20, 547-557. [Pg.45]

Krane, R.J., 1989. Second-law optimization of thermal energy storage systems Fundamentals and sensible heat systems, in Energy Storage Systems, edited by B. Kilkis and S. Kakac, Kluwer Academic Publishers, pp. 37-67. [Pg.45]

Rosen, M.A., 1992. Appropriate thermodynamic performance measures for closed systems for thermal energy storage, ASME J. Solar Energy Eng., 114, 100-105. [Pg.45]

See also in sourсe #XX -- [ Pg.3 , Pg.4 , Pg.9 , Pg.10 , Pg.14 , Pg.15 , Pg.16 , Pg.21 , Pg.23 , Pg.24 , Pg.25 , Pg.26 , Pg.27 , Pg.33 , Pg.37 , Pg.38 , Pg.42 , Pg.43 , Pg.50 , Pg.59 , Pg.75 , Pg.81 , Pg.97 , Pg.101 , Pg.103 , Pg.104 , Pg.132 , Pg.155 , Pg.157 , Pg.221 , Pg.222 , Pg.228 , Pg.229 , Pg.235 , Pg.239 , Pg.310 , Pg.335 , Pg.340 , Pg.367 , Pg.368 , Pg.371 , Pg.377 , Pg.378 , Pg.379 , Pg.380 , Pg.383 , Pg.393 , Pg.408 , Pg.409 , Pg.416 ]

See also in sourсe #XX -- [ Pg.614 ]

See also in sourсe #XX -- [ Pg.156 ]

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