Design and implementation of a hybrid solar wind energy tower

Author(s):  
Vinesh Thiruchelvam ◽  
Gary Tan Jun Ao

The proposed method might be a possible key to the combination of high levels of radiation by solar energy and speed of the wind on a monthly average basis. Wind Energy Tower (WET) and Hybrid Solar (HS) is combined to form the HSWET system and the function of solar panel in parallel with wind turbines thereby acquiring a higher total of renewable energy values. It is essential to measure the output power and monitor it regularly. And also the design of HSWET was being paralleled with an prevailing solar hybrid system have made changes from a single solar panel to a tree like structure which includes for solar panel to get more output power than before and the results of the proposed Hybrid Solar and Wind Energy Tower system resulted in a greater efficiency.


2019 ◽  
Vol 106 (11) ◽  
pp. 1519-1525
Author(s):  
J. Aaron Hogan ◽  
Christopher J. Nytch ◽  
John E. Bithorn ◽  
Jess K. Zimmerman

1995 ◽  
Vol 13 (5) ◽  
pp. 494-504 ◽  
Author(s):  
A. Belehaki ◽  
H. Mavromichalaki ◽  
D. V. Sarafopoulos ◽  
E. T. Sarris

Abstract. The relative importance of the two most likely modes of input energy dissipation during the substorm of 8 May 1986, with an onset at 12:15 UT (CDAW 9E event), is examined here. The combination of data from the interplanetary medium, the magnetotail and the ground allowed us, first of all, to establish the sequence of phenomena which compose this substorm. In order to calculate the magnetospheric energetics we have improved the Akasofu model, by adding two more terms for the total magnetospheric output energy. The first one represents the energy consumed for the substorm current wedge transformation, supplied by the asymmetric ring current. This was found to be 39% of the solar wind energy entering the magnetosphere from the start of the growth phase up to the end of the expansion phase. The second term represents the energy stored in the tail or returned to the solar wind. Our results suggest that the substorm leaves the magnetosphere in a lower energy state, since, according to our calculations, 23% of the energy that entered the magnetosphere during the whole disturbance was returned back to the solar wind. Finally, it is interesting to note that during the growth phase the driven system grow considerably, consuming 36% of the solar wind energy which entered the magnetosphere during this early phase of the substorm.


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