A glass beaker containing a sample of water is in a calorimeter. The beaker has a mass of 0.200 kg and the water has a mass of 1.45 kg. Both the beaker and water are at a temperature of 12.0°C. You de equilibrium temperature. (Make the reasonable assumptions that any steam produced condenses into liquid water during the process of equilibration and that the evaporation and condensation don't affec What is the final equilibrium temperature of the system (in *C)? If you don't account for the beaker, would you expect the equilibrium temperature to be higher or lower? O higher

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A glass beaker containing a sample of water is in a calorimeter. The beaker has a mass of 0.200 kg and the water has a mass of 1.45 kg. Both the beaker and water are at a temperature of 12.0°C. You drop a piece of steel with a mass of 0.365 kg at 235°C into it. After some time, the sizzling subsides and the system reaches an
equilibrium temperature. (Make the reasonable assumptions that any steam produced condenses into liquid water during the process of equilibration and that the evaporation and condensation don't affect the final temperature.)
What is the final equilibrium temperature of the system (in °C)?
°C
If you don't account for the beaker, would you expect the equilibrium temperature to be higher or lower?
O higher
O lower
Comparing the mass and specific heat of the beaker to those of the water, do you think the beaker will make much difference in the equilibrium temperature? Explain your answer.
O No, there won't be a large difference. The mass and specific heat of the beaker are small compared to water, so the beaker requires much more heat than water to increase its temperature and therefore has a small effect on the equilibrium temperature.
O Yes, there will be a large difference. The mass and specific heat of the beaker are small compared to water, so the beaker requires much less heat than water to increase its temperature and therefore has a large effect on the equilibrium temperature.
O No, there won't be a large difference. The mass and specific heat of the beaker are small compared to water, so the beaker requires much less heat than water to increase its temperature and therefore has a small effect on the equilibrium temperature.
O Yes, there will be a large difference. The mass and specific heat of the beaker are small compared to water, so the beaker requires much more heat than water to increase its temperature and therefore has a large effect on the equilibrium temperature.
Transcribed Image Text:A glass beaker containing a sample of water is in a calorimeter. The beaker has a mass of 0.200 kg and the water has a mass of 1.45 kg. Both the beaker and water are at a temperature of 12.0°C. You drop a piece of steel with a mass of 0.365 kg at 235°C into it. After some time, the sizzling subsides and the system reaches an equilibrium temperature. (Make the reasonable assumptions that any steam produced condenses into liquid water during the process of equilibration and that the evaporation and condensation don't affect the final temperature.) What is the final equilibrium temperature of the system (in °C)? °C If you don't account for the beaker, would you expect the equilibrium temperature to be higher or lower? O higher O lower Comparing the mass and specific heat of the beaker to those of the water, do you think the beaker will make much difference in the equilibrium temperature? Explain your answer. O No, there won't be a large difference. The mass and specific heat of the beaker are small compared to water, so the beaker requires much more heat than water to increase its temperature and therefore has a small effect on the equilibrium temperature. O Yes, there will be a large difference. The mass and specific heat of the beaker are small compared to water, so the beaker requires much less heat than water to increase its temperature and therefore has a large effect on the equilibrium temperature. O No, there won't be a large difference. The mass and specific heat of the beaker are small compared to water, so the beaker requires much less heat than water to increase its temperature and therefore has a small effect on the equilibrium temperature. O Yes, there will be a large difference. The mass and specific heat of the beaker are small compared to water, so the beaker requires much more heat than water to increase its temperature and therefore has a large effect on the equilibrium temperature.
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