Two loops are side-by-side in the x-y plane. The right-hand loop has an initial current flowing clockwise. If the current decreases, what will happen in the left-hand loop? Show your work.
Two loops are side-by-side in the x-y plane. The right-hand loop has an initial current flowing clockwise. If the current decreases, what will happen in the left-hand loop? Show your work.
Introductory Circuit Analysis (13th Edition)
13th Edition
ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
Section: Chapter Questions
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Please show work and explain
![**Problem Statement:**
Two loops are side-by-side in the x-y plane. The right-hand loop has an initial current flowing clockwise. If the current decreases, what will happen in the left-hand loop? Show your work.
---
**Explanation:**
This problem involves electromagnetic induction and the concept of induced currents. When the current in the right-hand loop decreases, the magnetic field created by this loop also decreases. According to Lenz's Law, the left-hand loop will respond to this change by inducing a current that opposes the decrease in magnetic flux.
**Detailed Steps:**
- **Initial Situation:** The right-hand loop has a clockwise current creating a magnetic field. This magnetic field extends through space, interacting with the nearby left-hand loop.
- **Change in Current:** As the current in the right-hand loop decreases, the magnetic flux through the left-hand loop decreases.
- **Induced Current:** According to Lenz's Law, the left-hand loop will induce a current that opposes the change in flux. To oppose a decrease, the induced current must attempt to maintain the original magnetic field direction created by the right-hand loop's current.
- **Direction of Induced Current:** Therefore, the induced current in the left-hand loop will be counter-clockwise to try and increase the magnetic field back to its original strength.
---
This explanation should guide students through applying electromagnetic induction principles, particularly focusing on Lenz's Law.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F313c41c0-bf91-42cc-904b-430da81366aa%2F716efcd8-b8a2-4853-b5ab-4a087b584136%2Fa4zjqzs_processed.jpeg&w=3840&q=75)
Transcribed Image Text:**Problem Statement:**
Two loops are side-by-side in the x-y plane. The right-hand loop has an initial current flowing clockwise. If the current decreases, what will happen in the left-hand loop? Show your work.
---
**Explanation:**
This problem involves electromagnetic induction and the concept of induced currents. When the current in the right-hand loop decreases, the magnetic field created by this loop also decreases. According to Lenz's Law, the left-hand loop will respond to this change by inducing a current that opposes the decrease in magnetic flux.
**Detailed Steps:**
- **Initial Situation:** The right-hand loop has a clockwise current creating a magnetic field. This magnetic field extends through space, interacting with the nearby left-hand loop.
- **Change in Current:** As the current in the right-hand loop decreases, the magnetic flux through the left-hand loop decreases.
- **Induced Current:** According to Lenz's Law, the left-hand loop will induce a current that opposes the change in flux. To oppose a decrease, the induced current must attempt to maintain the original magnetic field direction created by the right-hand loop's current.
- **Direction of Induced Current:** Therefore, the induced current in the left-hand loop will be counter-clockwise to try and increase the magnetic field back to its original strength.
---
This explanation should guide students through applying electromagnetic induction principles, particularly focusing on Lenz's Law.
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