ice water metal isolation A metal block with mass mm initially has a temperature Tm,0 (with Tm,0 > 0°C). On top of that block a beaker with water with mass m and melting ice with mass m; is placed. It has a temperature T = 0°C. Everything is isolated so that there is no heat transfer to/from the surroundings. Assume the temperature of the water is homogeneous. The heat of fusion of water is Lf. The specific heat of the metal is cm; the specific heat of water is Cw; the specific heat of ice is C₁. (a) Calculate the temperature Tm,o the metal should have to just melt all the ice. Now, suppose the initial temperature I'm,0 of the metal is AT higher than the value calculated in (a) (b) Calculate the final temperature Te of the water and the metal after thermal equilibrium has been reached.

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ice
water
metal
isolation
A metal block with mass mm initially has a temperature Tm,0 (with Tm,0 > 0°C). On top of that block a beaker
with water with mass my and melting ice with mass m; is placed. It has a temperature T = 0°C.
Everything is isolated so that there is no heat transfer to/from the surroundings. Assume the temperature of the
water is homogeneous.
The heat of fusion of water is Lf. The specific heat of the metal is Cm; the specific heat of water is Cw; the
specific heat of ice is C₁.
(a) Calculate the temperature Tm,0 the metal should have to just melt all the ice.
Now, suppose the initial temperature Tm,0 of the metal is AT higher than the value calculated in (a)
(b) Calculate the final temperature Tf of the water and the metal after thermal equilibrium has been reached.
Transcribed Image Text:ice water metal isolation A metal block with mass mm initially has a temperature Tm,0 (with Tm,0 > 0°C). On top of that block a beaker with water with mass my and melting ice with mass m; is placed. It has a temperature T = 0°C. Everything is isolated so that there is no heat transfer to/from the surroundings. Assume the temperature of the water is homogeneous. The heat of fusion of water is Lf. The specific heat of the metal is Cm; the specific heat of water is Cw; the specific heat of ice is C₁. (a) Calculate the temperature Tm,0 the metal should have to just melt all the ice. Now, suppose the initial temperature Tm,0 of the metal is AT higher than the value calculated in (a) (b) Calculate the final temperature Tf of the water and the metal after thermal equilibrium has been reached.
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