As shown in the figure below, you have a system including a Aluminum cup with mass Mcup = 0.255 kg. The cup contains water with mass Mwater = 0.333 kg. Both the cup and water are initially at a temperature of 23.4 degrees Celsius. You drop ice into the system. The ice has an initial temperature of -39.8 degrees Celsius and a mass of Mice = 1.0983 kg. The system will reach equilibrium with none the ice having melted, but some of the water having frozen at the final temperature of 0 degrees Celsius. None of the ice melts some of the water freezes onto the ice the system reaches equilibrium at T= 0 degrees C Find the mass of water frozen, mfrozen =

As shown in the figure below, you have a system including a Aluminum cup with mass Mcup = 0.255 kg. The cup contains water with mass Mwater = 0.333 kg. Both the cup and water are initially at a temperature of 23.4 degrees Celsius. You drop ice into the system. The ice has an initial temperature of -39.8 degrees Celsius and a mass of Mice = 1.0983 kg. The system will reach equilibrium with none the ice having melted, but some of the water having frozen at the final temperature of 0 degrees Celsius. None of the ice melts some of the water freezes onto the ice the system reaches equilibrium at T= 0 degrees C Find the mass of water frozen, mfrozen =

Physics for Scientists and Engineers: Foundations and Connections

1st Edition

ISBN:9781133939146

Author:Katz, Debora M.

Publisher:Katz, Debora M.

Chapter20: Kinetic Theory Of Gases

Section: Chapter Questions

Problem 69PQ

See similar textbooks

Material	c (J/(kg K))
Aluminum	897
Beryllium	1820
Cadmium	231
Iron	412
Lead	129
Polyethylene	2303
Steel	466
Uranium	116

Water	c (J/(kg K))
ice	2090
water	4186
steam	2010

Water	L (J/kg)
Fusion	334000
Vaporization	2230000

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