Miranda, a satellite of Uranus, is shown in part a of the figure below. It can be modeled as a sphere of radius 242 km and mass 6.68 x 101⁹ kg. (a) Find the free-fall acceleration on its surface. 0.076 ✔ m/s² (b) A cliff on Miranda is 5.00 km high. It appears on the limb at the 11 o'clock position in part a of the figure above and is magnified in part (b) of the figure above. A devotee of extreme sports runs horizontally off the top of the cliff at 5.50 m/s. For what time interval is he in flight? (Ignore the difference in g between the lip and base of the cliff.) 362.74 ✔ S (c) How far from the base of the vertical cliff does he strike the icy surface of Miranda? 1995.06 ✔ m (d) What is his vector impact velocity? 27.8 ✔m/s 28.11 x Your response differs from the correct answer by more than 10%. Double check your calculations. below the horizontal

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# Educational Content: Physics Problem on Miranda, a Satellite of Uranus

## Miranda, a Satellite of Uranus

Miranda, a satellite of Uranus, is depicted in part (a) of the figure below. It can be modeled as a sphere with a radius of 242 km and a mass of \(6.68 \times 10^{19}\) kg.

### Figure Description

**Part (a):** Image of Miranda, showing surface features for reference.

**Part (b):** Enlarged image of a specific region on Miranda, illustrating a vertical cliff.

### Problem Breakdown

#### Question (a): Free-Fall Acceleration
**Objective:** Determine the free-fall acceleration on Miranda's surface.

**Given Values:** 
- Radius (\(r\)) = 242 km 
- Mass (\(m\)) = \(6.68 \times 10^{19}\) kg

**Result:**
\[ \text{Free-fall acceleration} = 0.076 \, \text{m/s}^2 \]

#### Question (b): Time of Flight from a Cliff
**Scenario:** A cliff on Miranda is 5.00 km high. An object is projected horizontally off the cliff at 5.50 m/s.

**Task:** Calculate the time interval (\(t\)) of flight, ignoring gravitational change over the height of the cliff.

**Given Values:**
- Height (\(h\)) = 5.00 km
- Initial horizontal velocity (\(v_x\)) = 5.50 m/s

**Result:**
\[ t = 362.74 \, \text{s} \]

#### Question (c): Distance from the Cliff Base
**Scenario:** The same object from part (b).

**Task:** Determine the horizontal distance from the base of the cliff where the object strikes Miranda's surface.

**Given Values:**
- Time of flight (\(t\)) from part (b) = 362.74 s
- Horizontal velocity (\(v_x\)) = 5.50 m/s

**Result:**
\[ \text{Distance} = 1995.06 \, \text{m} \]

#### Question (d): Vector Impact Velocity
**Scenario:** The same object as it impacts the surface of Miranda.

**Task:** Calculate the vector magnitude of the impact velocity.

**Results:**
- Incorrect attempt: \( v = 27.
Transcribed Image Text:# Educational Content: Physics Problem on Miranda, a Satellite of Uranus ## Miranda, a Satellite of Uranus Miranda, a satellite of Uranus, is depicted in part (a) of the figure below. It can be modeled as a sphere with a radius of 242 km and a mass of \(6.68 \times 10^{19}\) kg. ### Figure Description **Part (a):** Image of Miranda, showing surface features for reference. **Part (b):** Enlarged image of a specific region on Miranda, illustrating a vertical cliff. ### Problem Breakdown #### Question (a): Free-Fall Acceleration **Objective:** Determine the free-fall acceleration on Miranda's surface. **Given Values:** - Radius (\(r\)) = 242 km - Mass (\(m\)) = \(6.68 \times 10^{19}\) kg **Result:** \[ \text{Free-fall acceleration} = 0.076 \, \text{m/s}^2 \] #### Question (b): Time of Flight from a Cliff **Scenario:** A cliff on Miranda is 5.00 km high. An object is projected horizontally off the cliff at 5.50 m/s. **Task:** Calculate the time interval (\(t\)) of flight, ignoring gravitational change over the height of the cliff. **Given Values:** - Height (\(h\)) = 5.00 km - Initial horizontal velocity (\(v_x\)) = 5.50 m/s **Result:** \[ t = 362.74 \, \text{s} \] #### Question (c): Distance from the Cliff Base **Scenario:** The same object from part (b). **Task:** Determine the horizontal distance from the base of the cliff where the object strikes Miranda's surface. **Given Values:** - Time of flight (\(t\)) from part (b) = 362.74 s - Horizontal velocity (\(v_x\)) = 5.50 m/s **Result:** \[ \text{Distance} = 1995.06 \, \text{m} \] #### Question (d): Vector Impact Velocity **Scenario:** The same object as it impacts the surface of Miranda. **Task:** Calculate the vector magnitude of the impact velocity. **Results:** - Incorrect attempt: \( v = 27.
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