---
title: "An uncharged, solid metal conductor of irregular shape is placed in a uniform external electric field \\(\\vec{E}_0\\). The system is allowed to reach electrostatic equilibrium. Which of the following statements correctly describes the net electric field inside the bulk of the conductor and provides the correct physical justification?"
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url: "https://nerd-notes.com/ubq/121179/"
date_modified: "2026-08-23T04:58:25+00:00"
---

# An uncharged, solid metal conductor of irregular shape is placed in a uniform external electric field \(\vec{E}_0\). The system is allowed to reach electrostatic equilibrium. Which of the following statements correctly describes the net electric field inside the bulk of the conductor and provides the correct physical justification?

An uncharged, solid metal conductor of irregular shape is placed in a uniform external electric field \(\vec{E}_0\). The system is allowed to reach electrostatic equilibrium. Which of the following statements correctly describes the net electric field inside the bulk of the conductor and provides the correct physical justification?

![A single smooth, irregular closed outline representing a solid conductor is centered horizontally. To the left of the conductor, exactly three horizontal, parallel arrows of equal length point toward the right. Above the topmost left arrow is the label \vec{E}_0. To the right of the conductor, exactly three horizontal, parallel arrows of equal length point toward the right. The interior of the conductor outline is completely blank. No other labels, lines, text, or axes appear.](https://nerd-notes.com/wp-content/uploads/ubq-frq-generated/stem-fig-1-1787461105-Kj4FZ2.jpg)

- **A.** The net electric field inside the conductor is zero because free electrons redistribute along the outer surface until the electric field produced by the induced surface charges exactly cancels the external field throughout the interior.
- **B.** The net electric field inside the conductor is zero because the metal acts as a physical barrier that absorbs electric field lines and blocks them from penetrating the surface.
- **C.** The net electric field inside the conductor is non-zero because an uncharged conductor contains no net excess charge and therefore cannot generate an internal induced electric field to oppose the external field.
- **D.** The net electric field inside the conductor is zero because bound atomic dipoles throughout the interior volume align uniformly to neutralize the field within the entire bulk.

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