Gear B has an angular acceleration, a = ¹²+t+rad/s² (t is in seconds). The radius of Gear A is 2 inches and the radius of Gear B is 4 inches. Determine the angular velocity and the angular displacement of gear A at t = 3 seconds. A B Angular Velocity, WA = Angular Displacement, A = Include units.

Elements Of Electromagnetics
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ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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**Gear Mechanics Problem Solving**

**Problem Statement:**
Gear B has an angular acceleration, \( \alpha_B = \frac{1}{4}t^2 + \frac{2}{5}t + \frac{1}{6} \) rad/\(s^2\) (t is in seconds). 
The radius of Gear A is 2 inches and the radius of Gear B is 4 inches. Determine the angular velocity and the angular displacement of Gear A at \( t = 3 \) seconds.

**Visual Aid Description:**
The provided image displays two interlocking gears labeled as Gear A and Gear B. Gear A is the smaller gear, positioned to the left, and Gear B is the larger gear, positioned to the right. The image aids in visualizing the relative sizes and positions of the gears, which are important for understanding the mechanical relationship and calculations.

**Formulas Needed:**
1. Angular Velocity: \( \omega_A \)
2. Angular Displacement: \( \theta_A \)

**Given Data:**
- Angular acceleration of Gear B, \( \alpha_B = \frac{1}{4}t^2 + \frac{2}{5}t + \frac{1}{6} \) rad/\( s^2 \)
- Radius of Gear A, \( r_A = 2 \) inches
- Radius of Gear B, \( r_B = 4 \) inches

**Tasks:**
Determine the following at \( t = 3 \) seconds:
1. Angular Velocity, \( \omega_A \)
2. Angular Displacement, \( \theta_A \)

**Solution Steps:**

To find the angular velocity \( \omega_A \) and angular displacement \( \theta_A \) of Gear A, follow these steps:

1. Integrate the angular acceleration of Gear B (\( \alpha_B \)) with respect to time to find the angular velocity (\( \omega_B \)).
2. Integrate \( \omega_B \) to determine the angular displacement (\( \theta_B \)).
3. Relate the angular motion of Gear B to Gear A using the gear ratio (\( \frac{r_A}{r_B} \)).

**Calculations:**

(Include detailed calculations)

**Results:**
- **Angular Velocity, \( \omega_A \) =** [Enter value with appropriate units]
- **Angular Displacement, \( \theta_A
Transcribed Image Text:**Gear Mechanics Problem Solving** **Problem Statement:** Gear B has an angular acceleration, \( \alpha_B = \frac{1}{4}t^2 + \frac{2}{5}t + \frac{1}{6} \) rad/\(s^2\) (t is in seconds). The radius of Gear A is 2 inches and the radius of Gear B is 4 inches. Determine the angular velocity and the angular displacement of Gear A at \( t = 3 \) seconds. **Visual Aid Description:** The provided image displays two interlocking gears labeled as Gear A and Gear B. Gear A is the smaller gear, positioned to the left, and Gear B is the larger gear, positioned to the right. The image aids in visualizing the relative sizes and positions of the gears, which are important for understanding the mechanical relationship and calculations. **Formulas Needed:** 1. Angular Velocity: \( \omega_A \) 2. Angular Displacement: \( \theta_A \) **Given Data:** - Angular acceleration of Gear B, \( \alpha_B = \frac{1}{4}t^2 + \frac{2}{5}t + \frac{1}{6} \) rad/\( s^2 \) - Radius of Gear A, \( r_A = 2 \) inches - Radius of Gear B, \( r_B = 4 \) inches **Tasks:** Determine the following at \( t = 3 \) seconds: 1. Angular Velocity, \( \omega_A \) 2. Angular Displacement, \( \theta_A \) **Solution Steps:** To find the angular velocity \( \omega_A \) and angular displacement \( \theta_A \) of Gear A, follow these steps: 1. Integrate the angular acceleration of Gear B (\( \alpha_B \)) with respect to time to find the angular velocity (\( \omega_B \)). 2. Integrate \( \omega_B \) to determine the angular displacement (\( \theta_B \)). 3. Relate the angular motion of Gear B to Gear A using the gear ratio (\( \frac{r_A}{r_B} \)). **Calculations:** (Include detailed calculations) **Results:** - **Angular Velocity, \( \omega_A \) =** [Enter value with appropriate units] - **Angular Displacement, \( \theta_A
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