copacitor has aircular parallel plaks that have a radius 3.00 and are seperated by hillum. The space between the plates is filled with polycarbonate (k = 2.8, E-30×10²) Find the permittivity of polycarbonate. Find the maximum permissible voltope across the capacitor to avaid dielectric break down, © When the voltage equals the value found in part (b), find the surface charge density on each plak (6), find the induce surface charge density on the surface of the surface of the dielectric (5), and find the ret surface change density (that).

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### Problem Description

A capacitor has circular parallel plates with a radius of 3.00 m and is separated by 4.00 mm. The space between the plates is filled with polycarbonate. The properties of polycarbonate are given as follows:
- \( k = 2.8 \)
- \( E_{\text{max}} = 3.0 \times 10^7 \, \text{V/m} \)

### Task List

1. **Find the Permittivity of Polycarbonate:**
   - Calculate the permittivity of the polycarbonate material used between the plates.

2. **Determine the Maximum Permissible Voltage:**
   - Find the maximum voltage that can be applied across the capacitor to avoid dielectric breakdown.

3. **Assess Surface Charge Densities:**
   - When the voltage is equal to the value found in part (2):
     - Calculate the surface charge density on each plate (\( \sigma \)).
     - Calculate the induced surface charge density on the surface of the dielectric (\( \sigma_i \)).
     - Determine the net surface charge density (\( \sigma_{\text{net}} \)).
Transcribed Image Text:### Problem Description A capacitor has circular parallel plates with a radius of 3.00 m and is separated by 4.00 mm. The space between the plates is filled with polycarbonate. The properties of polycarbonate are given as follows: - \( k = 2.8 \) - \( E_{\text{max}} = 3.0 \times 10^7 \, \text{V/m} \) ### Task List 1. **Find the Permittivity of Polycarbonate:** - Calculate the permittivity of the polycarbonate material used between the plates. 2. **Determine the Maximum Permissible Voltage:** - Find the maximum voltage that can be applied across the capacitor to avoid dielectric breakdown. 3. **Assess Surface Charge Densities:** - When the voltage is equal to the value found in part (2): - Calculate the surface charge density on each plate (\( \sigma \)). - Calculate the induced surface charge density on the surface of the dielectric (\( \sigma_i \)). - Determine the net surface charge density (\( \sigma_{\text{net}} \)).
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