DocumentCode :
1885920
Title :
Design of resonant converter for high power factor operation and optimum losses in magnetic components
Author :
Tanavade, S.S. ; Chaudhari, Mrs M A ; Suryawanshi, H.M. ; Thakre, K.L.
Author_Institution :
V.N.I.T., Nagpur, India
Volume :
3
fYear :
2004
fDate :
20-25 June 2004
Firstpage :
1818
Abstract :
This work presents a systematic design procedure of resonant converter for its operation in high input line power factor. Selection of quality factor of the resonant tank circuit influences instantaneous gain and power factor of the converter. The design calculations are done for AC to DC modified series-parallel resonant converter (MSPRC) delivering a peak power of 2Po (Po is output power), by choosing quality factor Q at the peak of AC line cycle for minimum AC input voltage. For high power factor operation the value of Q at peak of AC input should be chosen such that the instantaneous available gain of the converter is greater than the required gain. Design of magnetic components under cost and loss constraints is outlined. The optimal number and the diameter of the strands to minimize loss in magnetic components are given for particular design example. The sub-optimal stranding is also considered to arrive at best cost-loss compromised designs. A MATLAB program is used to arrive at cost-loss compromised design. To validate the design procedures simulation results of a typical MSPRC are presented. Finally results of an experimental prototype built in the laboratory are given to substantiate the outlined design procedure.
Keywords :
AC-DC power convertors; Q-factor; losses; magnetic materials; power engineering computing; power factor; resonant power convertors; AC input voltage; AC line cycle; AC-DC modified series-parallel resonant converter; MATLAB program; MSPRC; cost-loss compromised design; high input line power factor; loss minimisation; magnetic component; quality factor; resonant tank circuit; suboptimal stranding; Analog-digital conversion; Costs; MATLAB; Magnetic losses; Magnetic resonance; Power generation; Q factor; RLC circuits; Reactive power; Voltage;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Power Electronics Specialists Conference, 2004. PESC 04. 2004 IEEE 35th Annual
ISSN :
0275-9306
Print_ISBN :
0-7803-8399-0
Type :
conf
DOI :
10.1109/PESC.2004.1355392
Filename :
1355392
Link To Document :
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