Q3.] The battery charger shown in Figure below is E = 24 V and its capacity is 200 Wh.The average charging current should be ldc = 10 A. The primary input voltage is Vr.m.s = 220V, 50 Hz, and the transformer has a turn ratio of n = 2:1. Calculate:Hint: [Idc (2πCOSα + 2Еα-лE)]2Ra) the conduction angle 6 of the diode. b) the current-limiting resistance R.c) the power rating PR of R. d) the charging time ho in hours..e) the rectifier efficiency n. f) the PIV of the dioden:1RD₁harE

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Q3. ] The battery charger shown in Figure below is E = 24 V and its capacity is 200 Wh. The average charging current should be ldc = 10 A. The primary input voltage is Vr.m.s = 220 V, 50 Hz, and the transformer has a turn ratio of n = 2:1. Calculate: Hint: [Idc (2πCOSа + 2Eα-ПE)] 2R a) the conduction angle 6 of the diode. b) the current-limiting resistance R. c) the power rating PR of R. d) the charging time ho in hours. .e) the rectifier efficiency n. f) the PIV of the diode n:1 R D hare E

Q3. ] The battery charger shown in Figure below is E = 24 V and its capacity is 200 Wh. The average charging current should be ldc = 10 A. The primary input voltage is Vr.m.s = 220 V, 50 Hz, and the transformer has a turn ratio of n = 2:1. Calculate: Hint: [Idc (2πCOSа + 2Eα-ПE)] 2R a) the conduction angle 6 of the diode. b) the current-limiting resistance R. c) the power rating PR of R. d) the charging time ho in hours. .e) the rectifier efficiency n. f) the PIV of the diode n:1 R D hare E

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

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