Give step-by-step solution with explanation and final answer:
A
7
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kg skydiver leaps out of an airplane.
2
.
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0
seconds later, a
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9
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N drag force is acting on them. They continue accelerating downwards, with their increasing speed causing a larger and larger drag force until,
1
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0
seconds after they leapt, they reach terminal velocity. After that point, they fall with a constant speed. a
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What is the skydiver
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s acceleration
2
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0
seconds after they leapt?
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What is the net force on the skydiver
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Question:
Give step-by-step solution with explanation and final answer:
A
7
0
.
0
kg skydiver leaps out of an airplane.
2
.
0
0
seconds later, a
2
9
.
0
N drag force is acting on them. They continue accelerating downwards, with their increasing speed causing a larger and larger drag force until,
1
0
.
0
seconds after they leapt, they reach terminal velocity. After that point, they fall with a constant speed. a
)
What is the skydiver
’
s acceleration
2
.
0
0
seconds after they leapt?
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_
_
_
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b
)
What is the net force on the skydiver
1
0
.
0
seconds after they leapt?
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This is AI generated Response.
Asked by: Sahab Sharan
Created at: 2025-09-26 08:51:42
Final Answer:
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# Skydiver Free Fall with Air Resistance
## Given Data
- Mass of skydiver, \( m = 70.\,\mathrm{kg} \)
- Gravitational acceleration, \( g = 9.8\,\mathrm{m/s^2} \)
- Drag force at \( t = 2.00\,\mathrm{s} \), \( F_{\mathrm{drag}} = 29.\,\mathrm{N} \)
- Skydiver reaches terminal velocity at \( t = 10.\,\mathrm{s} \)
---
## a) Acceleration at \( t = 2.00\,\mathrm{s} \)
### Step 1: Find the Gravitational Force
\[
F_g = mg = 70. \times 9.8 = 686\,\mathrm{N}
\]
### Step 2: Net Force at \( t = 2.00\,\mathrm{s} \)
\[
F_{\text{net}} = F_g - F_{\mathrm{drag}} = 686 - 29. = 657\,\mathrm{N}
\]
### Step 3: Use Newton’s Second Law to Find Acceleration
\[
a = \frac{F_{\text{net}}}{m} = \frac{657}{70.} = 9.39\,\mathrm{m/s^2}
\]
---
**Final Answer (a):**
\[
\boxed{9.39\,\mathrm{m/s^2}}
\]
The skydiver's acceleration \(2.00\,\mathrm{s}\) after leaping is **9.39 m/s² downward**.
---
## b) Net Force at \( t = 10.\,\mathrm{s} \) (Terminal Velocity)
### Step 1: At Terminal Velocity
- The forces are balanced: \( F_g = F_{\mathrm{drag}} \)
- Net force is zero because speed is constant.
### Step 2: State the Net Force
\[
F_{\text{net}} = \,\mathrm{N}
\]
---
**Final Answer (b):**
\[
\boxed{\,\mathrm{N}}
\]
The net force on the skydiver \(10.\,\mathrm{s}\) after leaping is ** N**.
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