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The change in melting temperature of ice (in K ) when it is subjected to a pressure of 100 atm is _ Given: density of ice is , density of water is and latent heat of fusion is .
Ground off to two decimal places).

Ask by Daniel Craig. in India
Jan 21,2025

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The melting temperature of ice decreases by 0.72 K when subjected to a pressure of 100 atm.

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To find the change in melting temperature of ice under pressure, we can use the Clausius-Clapeyron equation, which relates changes in pressure to changes in temperature during phase changes. The formula is given by:
where is the latent heat of fusion, is the melting temperature of ice (approximately at standard conditions), and is the change in volume.
  1. First, let’s calculate :
The volume of ice can be calculated as:
The volume of water:
The change in volume ( ) during melting is:
  1. Now substituting into the Clausius-Clapeyron equation:
Take (since ).
The change in temperature for a pressure change of :
Thus, the change in melting temperature of ice when it is subjected to a pressure of 100 atm is approximately .
Grounded to two decimal places, the answer is .

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