Physics for Scientists and Engineers
6th Edition
ISBN: 9781429281843
Author: Tipler
Publisher: MAC HIGHER
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Chapter 25, Problem 117P
To determine
The proof if a resistor of resistance
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Chapter 27, Problem 039 GO
In the figure two batteries of emf E = 11.0 V and internal resistance r =
0.306 are connected in parallel across a resistance R. (a) For what
value of R is the dissipation rate in the resistor a maximum? (b) What is
that maximum?
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A battery with emf E and internal resistance r is first connectedto a resistor of resistance R1 = R, where R is greater than r.This resistor is then disconnected from the battery and replaced with aresistorof resistance R2 = 2R. Find the ratio of the power dissipated in the second resistor to the power dissipated in the first resistor.
Chapter 25 Solutions
Physics for Scientists and Engineers
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- In the figure two batteries of emf E = 11.0V and internal resistance r = 0.240 Q are connected in parallel across a resistance R. (a) For what value of R is the dissipation rate in the resistor a maximum? (b) What is that maximum? R ww (a) Number i Units (b) Number i Unitsarrow_forwardConsider the circuit shown in Figure. The emf source has negligible internal resistance. The resistors have resistances R1= 6Ω and R2= 4Ω. The capacitor has capacitance C=9 μF. When the capacitor is fully charged, the magnitude of the charge on its plates is Q=36. Calculate the emf ε.arrow_forwardThe capacitance in the curcuit is C = 0.3μF, the total resistance is R=20kQ and the battery emf is 12 V. Determine the time is takes for the charge the capacitor could acquire, to reach 99% of max value.arrow_forward
- A battery has an emf of ε = 7 V, an internal resistance r = 18 Ω, and is connected to a resistor of R = 65 Ω. Express the current I through the circuit in terms of ε, r and R.arrow_forwardPlease asnwer all parts of the one problem: Consider the three resistors R1 = 17 Ω, R2 = 41 Ω, and R3 = 71 Ω in the configuration shown in the figure. A potential difference ΔV = 4.5 V is applied between A and B. Part (a) Calculate the numerical value of the total resistance R of this circuit, in ohms. Part (b) Calculate the numerical value of the current I traveling from A to B, in amperes. Part (c) Calculate the numerical value of I2 traveling through the resistor R2, in amperes. Part (d) Calculate the numerical value of I3 traveling through the resistor R3, in amperes.arrow_forwardThe manufacturer of one brand of AAA battery states that the battery’s emf is 1.50 V, its internal resistance is 0.160 Ω, and the maximum allowed current for short times is 2.00 A. Find (a) the smallest resistance to which this battery can be connected for short times and (b) the potential difference across the battery terminals when it is so connected.arrow_forward
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