|(1) () The voltage 4,000,000 V can be expressed in powers of 10 as:(c) 4 MV (d) 4 GV(а) 4 mV(b) 4 kV(2) () The current 200µA can be expressed as:(а)2x10'A(b) 2х10°А (с) 2 х10 *А(c) 2×10A(d)2×10A|(3) ( ) The voltage drop across a 1.5-kW toaster that draws 12 A of current is:(a) 18 kV (b) 125 V (c) 120 V (d) 10.42 V|(4) ( ) The maximum current that a 2W, 80k resistor can safely conduct is:(b) 40 kA|(5) () Which of the circuits will give you Uab =9 V?(а) 160 kA(c) 5 mA(d) 25 mA5 V5 V5 V5 Vaa-o a3 V3 V3 V3 V-o b-o b-o b1 V1 V(b)1 V1V(a)|(6) () The current I in the circuit of Fig. 1-1 is:(а) -0.2 А(с) 0.2 А(c)(d)(b) 0.8 A(d) -0.8 A3 V5 V6ΩFig. 1-1

Note: Since we only answer up to 3 sub-parts, we’ll answer the first 3. Please resubmit the question…

(1) ( ) The voltage 4,000,000 V can be expressed in powers of 10 as: (а) 4 mV (b) 4 kV (с) 4 MV (d) 4 GV (2) ( ) The current 200µA can be expressed as: (a) 2×10³A (b) 2×10°A (c) 2×10³A (d) 2x10*A (3) ( ) The voltage drop across a 1.5-kW toaster that draws 12 A of current is: (a) 18 kV (b) l125 V (c) 120 V (d) 10.42 V (4) ( ) The maximum current that a 2W, 80k resistor can safely conduct is: (b) 40 kA (5) ( ) Which of the circuits will give you Uab =9 V? (а) 160 kA (c) 5 mA (d) 25 mA 5 V 5 V 5 V 5 V o a -o a a 3 V 3 V 3 V 3 V o b -o b -o b -o b 1 V (а) 1 V (b) 1 V (c) 1 V (d) (6) ( ) The current I in the circuit of Fig. 1-1 is: (b) 0.8 A (d) -0.8 A 4Ω (а) -0.2 А (c) 0.2 A 3 V +) 5 V 6Ω Fig. 1-1

(1) ( ) The voltage 4,000,000 V can be expressed in powers of 10 as: (а) 4 mV (b) 4 kV (с) 4 MV (d) 4 GV (2) ( ) The current 200µA can be expressed as: (a) 2×10³A (b) 2×10°A (c) 2×10³A (d) 2x10*A (3) ( ) The voltage drop across a 1.5-kW toaster that draws 12 A of current is: (a) 18 kV (b) l125 V (c) 120 V (d) 10.42 V (4) ( ) The maximum current that a 2W, 80k resistor can safely conduct is: (b) 40 kA (5) ( ) Which of the circuits will give you Uab =9 V? (а) 160 kA (c) 5 mA (d) 25 mA 5 V 5 V 5 V 5 V o a -o a a 3 V 3 V 3 V 3 V o b -o b -o b -o b 1 V (а) 1 V (b) 1 V (c) 1 V (d) (6) ( ) The current I in the circuit of Fig. 1-1 is: (b) 0.8 A (d) -0.8 A 4Ω (а) -0.2 А (c) 0.2 A 3 V +) 5 V 6Ω Fig. 1-1

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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