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Electric Field Induction Extension
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In a parallel plate capacitor filled with a dielectric material, how does the induced charge distribution on the plates change when the dielectric is polarized in an external electric field?

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Learning Path

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A

The induced charge increases, leading to a stronger electric field between the plates.

B

The induced charge decreases, resulting in a weaker electric field.

C

The induced charge remains the same, but the direction of the electric field reverses.

D

The induced charge redistributes itself, but the overall electric field remains unchanged.

Understanding the Answer

Let's break down why this is correct

When the dielectric is polarized, the dipoles inside arrange with negative ends toward the positive plate and positive ends toward the negative plate. Other options are incorrect because The misconception is that polarization pulls charge away, reducing the field; It is wrong to think the charge stays the same and the field reverses.

Key Concepts

Polarization of Dielectrics
Induced Charge Distribution
Topic

Electric Field Induction Extension

Difficulty

medium level question

Cognitive Level

understand

Deep Dive: Electric Field Induction Extension

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Definition
Definition

Electric Field Effects on Charge explores how changing the distance between charged plates alters the electric field, affecting capacitance and charge flow. It highlights the relationship between electric field strength, distance, capacitance, and charge redistribution in a circuit.

Topic Definition

Electric Field Effects on Charge explores how changing the distance between charged plates alters the electric field, affecting capacitance and charge flow. It highlights the relationship between electric field strength, distance, capacitance, and charge redistribution in a circuit.

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