A steel pipe of length L = 4.0 ft, outside diameter d₂ = 6.0 in., and inside diameter d₁ = 4.5 in. is compressed by an axial force P = 140 kip. The material has a modulus of elasticity E = 30,000 ksi and Poisson's ratio v = 0.30. Determine the following quantities for the pipe: (a) the shortening 6, (b) the lateral strain € lat, (c) the increase in the outer diameter 4d₂ (e) the modulus of rigidity G Reminder: ksi = 1000 psi, and kip = 1000 lbf P -d₁-

Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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**Problem Description: Steel Pipe Compression Analysis**

A steel pipe is given with the following parameters:
- Length \( L = 4.0 \) ft
- Outside diameter \( d_2 = 6.0 \) in
- Inside diameter \( d_1 = 4.5 \) in

This pipe is subjected to an axial compressive force \( P = 140 \) kip. The material properties are as follows:
- Modulus of elasticity \( E = 30,000 \) ksi
- Poisson’s ratio \( \nu = 0.30 \)

**Objective:**

Determine the following quantities for the pipe:
(a) The shortening \( \delta \)
(b) The lateral strain \( \epsilon_{\text{lat}} \)
(c) The increase in the outer diameter \( \Delta d_2 \)
(d) The modulus of rigidity \( G \)

**Diagram Explanation:**

The diagram depicts a cylindrical steel pipe positioned vertically, with a downward axial force \( P \) applied at the top. The diagram shows:
- The length \( L \) of the cylinder.
- The outer diameter \( d_2 \) and inner diameter \( d_1 \).
- The pipe is compressed from the top, which potentially shortens its height and changes its diameter.

**Note:**

- \( \text{ksi} = 1000 \) psi
- \( \text{kip} = 1000 \) lbf
Transcribed Image Text:**Problem Description: Steel Pipe Compression Analysis** A steel pipe is given with the following parameters: - Length \( L = 4.0 \) ft - Outside diameter \( d_2 = 6.0 \) in - Inside diameter \( d_1 = 4.5 \) in This pipe is subjected to an axial compressive force \( P = 140 \) kip. The material properties are as follows: - Modulus of elasticity \( E = 30,000 \) ksi - Poisson’s ratio \( \nu = 0.30 \) **Objective:** Determine the following quantities for the pipe: (a) The shortening \( \delta \) (b) The lateral strain \( \epsilon_{\text{lat}} \) (c) The increase in the outer diameter \( \Delta d_2 \) (d) The modulus of rigidity \( G \) **Diagram Explanation:** The diagram depicts a cylindrical steel pipe positioned vertically, with a downward axial force \( P \) applied at the top. The diagram shows: - The length \( L \) of the cylinder. - The outer diameter \( d_2 \) and inner diameter \( d_1 \). - The pipe is compressed from the top, which potentially shortens its height and changes its diameter. **Note:** - \( \text{ksi} = 1000 \) psi - \( \text{kip} = 1000 \) lbf
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