In the figure R₁ = 6.770, R₂ = 20.30, and the ideal battery has emf ε = 10.2 V. (a) What is the magnitude of current i₁? (b) How much energy is dissipated by all four resistors in 2.06 min? 4 R₁ 8 R₂ 11 R₂ ww R₂

Q: In the figure R1 = 5.55 Q, R2 = 16.7 0, and the ideal battery has emf ɛ = 10.4 V. (a) What is the…

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Q: In the figure R1 = 6.97 Q, R2 = 20.9 Q, and the ideal battery has emf ɛ = 10.9 V. (a) What is the…

A: Notice that All the three resistors R2 are in parallel (net resistance R2/3). This combination is…

Q: In the figure R1 = 5.05 Q, R2 = 15.2 Q, and the ideal battery has emf e = 10.7 V. (a) What is the…

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Q: In the figure R1 = 4.45 Q, R2 = 13.4 Q, and the ideal battery has emf ɛ = 12.5 V. (a) What is the…

A: All three resistors having resistance R2 are is parallel. Determine the equivalent resistance.

Q: In the figure R₁ = 5.19 Q, R₂ = 15.6 02, and the ideal battery has emf = 12.5 V. (a) What is the…

A: Given: Resistance,R1=5.19 Ω Resistance, R2=15.6 Ω E.M.F potential, ε=12.5 V

Q: In the figure R1 - 4.78 0, R2 - 14.3 0, and the ideal battery has emf e - 11.8 V. (a) What is the…

A: Answer of the question given in picture below ...

Q: In the figure R₁ = 5.240, R₂ = 15.70, and the ideal battery has emf & = 13.4 V. (a) What is the…

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Q: In the figure R₁ = 7.50 02, R₂ = 22.5 02, and the ideal battery has emf & = 12.4 V. (a) What is the…

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Q: In the figure the ideal battery has emf -32.6 V, and the resistances are R₁ R₂-210. Rg-R₁ Rs -9.10,…

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Q: In Figure (a) resistor 3 is a variable resistor and the ideal battery has emf 8-35 V. Figure (b)…

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Q: In the figure ε1 = 2.46 V, ε2 = 0.819 V, R1 = 6.20 Ω, R2 = 1.80 Ω, R3 = 4.00 Ω, and both batteries…

A: GIVEN ε1 = 2.46 V, ε2 = 0.819 V, R1 = 6.20 Ω, R2 = 1.80 Ω, R3 = 4.00 Ω, To find out Power of battery…

Q: In the figure circuit section AB absorbs energy at a rate of 53 W when current i = 1.4 A through it…

A: Given : P = 53 W i = 1.4 A R = 2 ohms

Q: In the figure R, = 6.53 Q, R2 = 19.6 Q, and the ideal battery has emf ɛ = 11.0 V. (a) What is the…

A: Given value--- R1 = 6.53 ohm. R2 = 19.6 ohm. E = 11 V. t = 2.21 min. We need to find--- (a) What…

Q: In the figure R1=4.26 Q, R2 = 12.8 Q, and the ideal battery has emf ɛ = 10.8 V. (a) What is the…

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Q: In the figure R₁ = 6.59 M, R₂ = 19.8 2, and the ideal battery has emf ε = 12.3 V. (a) What is the…

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Q: In the figure R₁ = 5.13 0, R₂ = 15.40, and the ideal battery has emf & = 13.8 V. (a) What is the…

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Q: In the figure R, = 4.70 0, R2 = 14.1Q, and the ideal battery has emf ɛ = 13.4 V. (a) What is the…

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Q: In the figure R = 4.64 Q, R2 = 13.9 Q, and the ideal battery has emf ɛ = 13.8 V. (a) What is the…

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Q: What is the current in resistor R1, R2, R3, R4, R5 and What is the absolute value of the potential…

A: Dear student please find the attachment below...thank you ????Explanation:Step 1:Step 2:

Q: In the figure R1 = 7.86 Q, R2 = 23.6 Q, and the ideal battery has emf ɛ = 13.2 V. (a) What is the…

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Q: In the figure R1 = 5.27 Q, R2 = 15.8 N, and the ideal battery has emf ɛ = 10.0 V. (a) What is the…

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Q: In the figure circuit section AB absorbs energy at a rate of 39 W when current i = 0.91 A through it…

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Q: In the figure R₁ = 4.49 Q, R₂ = 13.5 Q, and the ideal battery has emf & = 10.9 V. (a) What is the…

A: Given value--- R1 = 4.49 ohm. R2 = 13.5 ohm. emf = 10.9 V. time = 1.28 min . We have to find---…

Q: In the figure R1 = 6.20 Q, R2 = 18.6 Q, and the ideal battery has emf ɛ = 13.2 V. (a) What is the…

A: Given, R1 = 6.20 ΩR2=18.6 Ωemf of the battery, ε = 13.2 Vtime, t = 2.23 min

Q: In the figure R₁ = 5.24 0, R₂ = 15.70, and the ideal battery has emf & = 13.4 V. (a) What is the…

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Q: In the figure R1 = 7.06 Q, R2 = 21.2 Q, and the ideal battery has emf ɛ = 12.8 V. (a) What is the…

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Q: In the figure R1 = 7.13 Q, R2 = 21.4Q, and the ideal battery has emf ɛ = 10.7 V. (a) What is the…

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Q: In the figure ε1 = 3.76 V, ε2 = 1.05 V, R1 = 4.69 Ω, R2 = 2.72 Ω, R3 = 4.95 Ω, and both batteries…

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Q: In the figure the current in resistance 6 is i6 = 1.38 A and the resistances are R1 = R2 = R3 = 2.20…

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Q: In the figure R₁ = 4.560, R₂ = 13.70, and the ideal battery has emf & = 10.5 V. (a) What is the…

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Q: In the figure R₁ = 7.660, R₂ = 23.00, and the ideal battery has emf ε = 12.8 V. (a) What is the…

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Q: the figure circuit sectior cks internal resistance. (b) What is its emf? absorbs energy at a rate…

A: Let the power is given by P. Let the potential difference is given by V. Let the current is given by…

Q: In the figure R1 = 4.09 N, R2 = 12.3 0, and the ideal battery has emf ɛ = 11.7 V. (a) What is the…

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Q: In the figure R1 = 4.58 2, R2 = 13.7 2, and the ideal battery has emf ɛ = 10.8 V. (a) What is the…

A: (a) In the given circuit, the three R2 resistors are connected in parallel. And this network is in…

Q: In the figure R₁ = 5.760, R₂ = 17.30, and the ideal battery has emf ε = 13.4 V. (a) What is the…

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Q: In the figure R1 = 4.31 0, R2 = 12.9 0, and the ideal battery has emf ɛ = 12.6 V. (a) What is the…

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Q: In the figure R1 = 4.07 Q, R2 = 12.2 Q, and the ideal battery has emf ɛ = 10.1 V. (a) What is the…

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Q: In the figure R1 = 7.62 Q, R2 = 22.9 N, and the ideal battery has emf ɛ = 13.3 V. (a) What is the…

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Q: In the figure R₁ = 4.320, R₂ = 13.00, and the ideal battery has emf ε = 13.8 V. (a) What is the…

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Q: In the figure R1 = 7.18 N, R2 = 21.5 0, and the ideal battery has emf ɛ = 12.6 V. (a) What is the…

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Q: In the figure R, = 6.24 Q, R2 = 18.7 Q, and the ideal battery has emf ɛ = 13.2 V. (a) What is the…

A: R1 = 6.24 ohm R2 = 18.7 ohm E = 13.2 V t = 0.574 min

Q: In the figure R; - 4.78 O, R2 = 14.3 N, and the ideal battery has emf t - 11.8 V. (a) What is the…

A: given information: The resistance are: R1=4.78 ΩR2=14.3 Ω The emf applied (ε) = 11.8 V The battery…

Q: In the figure R₁ = 4.60 02, R₂ = 13.8 02, and the ideal battery has emf & = 13.7 V. (a) What is the…

A: Given that R1=4.6 ohms R2=13.8 ohms E=13.7 volts t= 2.93 min= 2.93×60 sec

Ohm's law

Ohm’s law is a prominent concept in physics and electronics. It gives the relation between the current and the voltage. It is used to analyze and construct electrical circuits. Ohm's law states that the voltage across a conductor is directly proportional to the current flowing through it.

Path of Least Resistance

In a series of alternate pathways, the direction of least resistance is the actual or metaphorical route that offers the least resistance to forwarding motion by a given individual or body.