The circuit shown in the figure below is connected for 1.50 min. (Assume R1 = 6.50 Ω, R2 = 1.50 Ω, and V = 13.0 V.) A circuit is comprised of two adjacent rectangular loops that share a side such that the right side of the left loop is also the left side of the right loop. The left side of the left loop contains a resistor R1. The top side of the right loop contains a 3.00 Ω resistor. The right side of the right loop contains a battery V oriented with the positive terminal above the negative terminal. A resistor R2 is above the battery. The shared side contains a 4.00 V battery oriented with the positive terminal above the negative terminal. A 1.00 Ω resistor is above the battery and a 5.00 Ω resistor is above the 1.00 Ω resistor. (a) Determine the current in each branch of the circuit. branch magnitude (A) direction left branch ---Select--- up down middle branch ---Select--- up down right branch ---Select--- up down (b) Find the energy delivered by each battery. 4.00 V battery J 13.0 V battery kJ (c) Find the energy delivered to each resistor. 6.50 Ω resistor J 5.00 Ω resistor J 1.00 Ω resistor J 3.00 Ω resistor J 1.50 Ω resistor J
The circuit shown in the figure below is connected for 1.50 min. (Assume R1 = 6.50 Ω, R2 = 1.50 Ω, and V = 13.0 V.) A circuit is comprised of two adjacent rectangular loops that share a side such that the right side of the left loop is also the left side of the right loop. The left side of the left loop contains a resistor R1. The top side of the right loop contains a 3.00 Ω resistor. The right side of the right loop contains a battery V oriented with the positive terminal above the negative terminal. A resistor R2 is above the battery. The shared side contains a 4.00 V battery oriented with the positive terminal above the negative terminal. A 1.00 Ω resistor is above the battery and a 5.00 Ω resistor is above the 1.00 Ω resistor. (a) Determine the current in each branch of the circuit. branch magnitude (A) direction left branch ---Select--- up down middle branch ---Select--- up down right branch ---Select--- up down (b) Find the energy delivered by each battery. 4.00 V battery J 13.0 V battery kJ (c) Find the energy delivered to each resistor. 6.50 Ω resistor J 5.00 Ω resistor J 1.00 Ω resistor J 3.00 Ω resistor J 1.50 Ω resistor J
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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The circuit shown in the figure below is connected for 1.50 min. (Assume R1 = 6.50 Ω, R2 = 1.50 Ω, and V = 13.0 V.)
A circuit is comprised of two adjacent rectangular loops that share a side such that the right side of the left loop is also the left side of the right loop.
- The left side of the left loop contains a resistor R1.
- The top side of the right loop contains a 3.00 Ω resistor.
- The right side of the right loop contains a battery V oriented with the positive terminal above the negative terminal. A resistor R2 is above the battery.
- The shared side contains a 4.00 V battery oriented with the positive terminal above the negative terminal. A 1.00 Ω resistor is above the battery and a 5.00 Ω resistor is above the 1.00 Ω resistor.
(a) Determine the current in each branch of the circuit.
(b) Find the energy delivered by each battery.
(c) Find the energy delivered to each resistor.
(d) Identify the type of energy storage transformation that occurs in the operation of the circuit.
(e) Find the total amount of energy transformed into internal energy in the resistors.
kJ
branch | magnitude (A) | direction |
left branch | ---Select--- up down | |
middle branch | ---Select--- up down | |
right branch | ---Select--- up down |
(b) Find the energy delivered by each battery.
4.00 V battery | J |
13.0 V battery | kJ |
(c) Find the energy delivered to each resistor.
6.50 Ω resistor | J |
5.00 Ω resistor | J |
1.00 Ω resistor | J |
3.00 Ω resistor | J |
1.50 Ω resistor | J |
(d) Identify the type of energy storage transformation that occurs in the operation of the circuit.
(e) Find the total amount of energy transformed into internal energy in the resistors.
kJ
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