Abstract: . . .  compatibility of wind energy and compressor capacity; presenting the theoretical model and computational simulation of the system. The obtained compressor capacity vs wind power relationship in certain wind velocity range can be helpful in the designing of the wind power-compressed air system. Results of investigations on the application of high-pressure compressed air for pressure reduction led to conclusion that pressure reduction with expander is better than the throttle regulator in energy saving. Key words: Wind energy, Compressed air power, Pressure reduction, Clean energy Document code: A CLC . . .
. . .  (4):41-46. Wagner, H.H., 1993. Efficient Management of the Fourth Utility Compressed Air. In: Proceedings of the 9th Annual High Performance Blow Molding Conference. Publ by Soc of Plastics Engineers, Brookfield, CT, USA, p.235-251. Xue, H., Zhu, R.Z., Yang, Z.B., Yuan, C.H., 2001. As- sessment of wind energy reserves in China. Acta En- ergiae Solaris Sinica, 22(4):168-170(in Chinese).  . . .
. . .  capacity. Fig.3 shows that the compressor capacity de- ceases with increase of discharge pressure and de- crease of compressor stage number. Fig.4 shows that the compressor capacity increases with in- crease of wind speed and decrease of discharge pressure. Therefore, the energy extracted by the wind energy-compressed air power system used for generating the compressed air power follows the rule of generating high-pressure compressed air at higher wind speed and generating low pressure compressed air at lower speed will be regular way. Fig.3 The compressor capacity fitting to the discharge pressure . . .
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