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Give step-by-step solution with explanation and final answer:vy g123” | e— B iil 2 EEL 1 HH] i i oa 3 ist hs HE 1 i RS il i i iH iE: fi gt { 3

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Give step-by-step solution with explanation and final answer:Uploaded Imagevy g123” | e— B iil 2 EEL 1 HH] i i oa 3 ist hs HE 1 i RS il i i iH iE: fi gt { 3

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Asked by: Rahul
Created at: 2026-02-18 03:29:56

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Let's break down and solve the problem step by step. --- ## **Problem Restatement** You are asked to: 1. **Draw a depiction of several equipotentials** for a parallel plate capacitor formed by two parallel conductors (as shown). 2. **Suppose the potential difference between the plates is 3 V**, with the top plate at V and the bottom at 3 V. 3. **Show the equipotentials clearly.** 4. **Estimate the spacing between them if the plates are separated by 6 cm.** 5. **Draw at least two other equipotentials and label your estimates.** --- ## **Step-by-Step Solution** ### **Step 1: Understanding Equipotentials in a Parallel Plate Capacitor** - **Equipotentials** are lines (or surfaces, in 3D) where the electric potential is constant. - For a parallel plate capacitor with plates at uniform potential difference, the equipotentials are **equally spaced straight lines parallel to the plates**. --- ### **Step 2: Setting Up Values** - **Top plate**: \( V = \) V - **Bottom plate**: \( V = 3 \) V - **Separation**: \( d = 6 \) cm \( = .06 \) m The electric field between the plates is uniform, so the potential varies **linearly** with distance between the plates. --- ### **Step 3: Equation for Potential** Let \( y \) be the vertical distance from the top plate (top = , bottom = 6 cm): \[ V(y) = \left(\frac{3 \text{ V}}{6 \text{ cm}}\right) y = .5y \text{ V/cm} \] --- ### **Step 4: Calculating Equipotential Locations** Let's pick at least **two intermediate equipotentials** (besides the plates): - **Equipotential at 1 V:** \[ 1 = .5y \implies y = 2 \text{ cm} \] - **Equipotential at 2 V:** \[ 2 = .5y \implies y = 4 \text{ cm} \] So, the equipotentials are at: - ** V**: Top plate ( cm) - **1 V**: 2 cm from top - **2 V**: 4 cm from top - **3 V**: Bottom plate (6 cm) --- ### **Step 5: Drawing the Equipotentials** Here’s how to draw and label them: ``` --------------------------------- (Top plate, V, y = cm) --------------------------------- (Equipotential, 1 V, y = 2 cm) --------------------------------- (Equipotential, 2 V, y = 4 cm) --------------------------------- (Bottom plate, 3 V, y = 6 cm) ``` **Label each line** with its potential and distance from the top plate. --- ### **Step 6: Final Answer - Written Description** #### **Equipotentials for Parallel Plate Capacitor** - Equipotentials are straight horizontal lines parallel to the plates. - For this case, the lines are located at: - cm ( V, top plate) - 2 cm (1 V) - 4 cm (2 V) - 6 cm (3 V, bottom plate) - The spacing between adjacent equipotentials (for 1 V difference) is **2 cm**. #### **Diagram Example** ``` |----------------| V (Top Plate, y = cm) |----------------| 1 V (y = 2 cm) |----------------| 2 V (y = 4 cm) |----------------| 3 V (Bottom Plate, y = 6 cm) ``` --- ## **Summary Table** | Distance from Top Plate (cm) | Potential (V) | |-----------------------------|---------------| | | | | 2 | 1 | | 4 | 2 | | 6 | 3 | --- ## **Final Answer** **Equipotentials are straight, equally spaced lines parallel to the plates. For a 6 cm separation and 3 V across the plates:** - V at top plate ( cm) - 1 V at 2 cm - 2 V at 4 cm - 3 V at bottom plate (6 cm) The **spacing between 1 V equipotentials is 2 cm**. --- If you need this as a hand-drawn image, let me know!

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