The graph shows the flow of heat over time in the cooling of one gram of water. B C (2 Temperature (C) D 160 60 <-20 Cooling Curve for One Gram of Water 450 Based on your analysis of the graph, which scenario releases the greatest amount of heat? Allowing 1 g of boiling water at 100 °C to cool to 0 °C. Allowing 1 g of steam at 140 °C to cool to steam at 100 °C. Allowing 1 g of steam at 100 °C to condense to liquid water at 100 °C. Allowing 1 g of liquid water at 0 °C to cool to solid ice at -20 °C. 900 1350 1800 2250 Heat flow over time (3) 2700 3150
The graph shows the flow of heat over time in the cooling of one gram of water. B C (2 Temperature (C) D 160 60 <-20 Cooling Curve for One Gram of Water 450 Based on your analysis of the graph, which scenario releases the greatest amount of heat? Allowing 1 g of boiling water at 100 °C to cool to 0 °C. Allowing 1 g of steam at 140 °C to cool to steam at 100 °C. Allowing 1 g of steam at 100 °C to condense to liquid water at 100 °C. Allowing 1 g of liquid water at 0 °C to cool to solid ice at -20 °C. 900 1350 1800 2250 Heat flow over time (3) 2700 3150
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![## Question 2
The graph shows the flow of heat over time in the cooling of one gram of water.
### Cooling Curve for One Gram of Water
**Graph Explanation:**
- **X-axis:** Heat flow over time (Joules)
- **Y-axis:** Temperature (°C)
The graph illustrates the cooling process for one gram of water, showing different phases:
1. **Steam Cooling (140°C to 100°C):**
- The temperature decreases from 140°C to 100°C.
2. **Condensation (at 100°C):**
- A plateau indicates the phase change where the steam condenses to liquid water.
3. **Liquid Cooling (100°C to 0°C):**
- The temperature decreases linearly from 100°C to 0°C.
4. **Freezing (at 0°C):**
- Another plateau shows the phase change from liquid to solid.
5. **Solid Cooling (0°C to -20°C):**
- The temperature decreases further below zero, indicating cooling of the solid ice.
### Based on your analysis of the graph, which scenario releases the greatest amount of heat?
A. Allowing 1 g of boiling water at 100°C to cool to 0°C
B. Allowing 1 g of steam at 140°C to cool to steam at 100°C
C. Allowing 1 g of steam at 100°C to condense to liquid water at 100°C
D. Allowing 1 g of liquid water at 0°C to cool to solid ice at -20°C](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fb5d8c82e-9fbb-41d1-9e1c-01919ed01d05%2Fb40d3987-9f5f-4614-a3b0-e66f8b3ed501%2F11s52b_processed.jpeg&w=3840&q=75)
Transcribed Image Text:## Question 2
The graph shows the flow of heat over time in the cooling of one gram of water.
### Cooling Curve for One Gram of Water
**Graph Explanation:**
- **X-axis:** Heat flow over time (Joules)
- **Y-axis:** Temperature (°C)
The graph illustrates the cooling process for one gram of water, showing different phases:
1. **Steam Cooling (140°C to 100°C):**
- The temperature decreases from 140°C to 100°C.
2. **Condensation (at 100°C):**
- A plateau indicates the phase change where the steam condenses to liquid water.
3. **Liquid Cooling (100°C to 0°C):**
- The temperature decreases linearly from 100°C to 0°C.
4. **Freezing (at 0°C):**
- Another plateau shows the phase change from liquid to solid.
5. **Solid Cooling (0°C to -20°C):**
- The temperature decreases further below zero, indicating cooling of the solid ice.
### Based on your analysis of the graph, which scenario releases the greatest amount of heat?
A. Allowing 1 g of boiling water at 100°C to cool to 0°C
B. Allowing 1 g of steam at 140°C to cool to steam at 100°C
C. Allowing 1 g of steam at 100°C to condense to liquid water at 100°C
D. Allowing 1 g of liquid water at 0°C to cool to solid ice at -20°C
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