Steam at `100^@C` is allowed to pass into a vessel containing `10g` of ice and 100 g of water at `0^@C` until all the ice is melted and the temperature is raised to `50^@C`. Neglecting water equivalent of the vessel and the loss due to radiation etc. Calculate how much steam is condensed.

Steam at `100^@C` is allowed to pass into a vessel containing `10g` of

1.	Steam at `100^@C` is allowed to pass into a vessel containing `10g` of ice and 100 g of water at `0^@C` until all the ice is melted and the temperature is raised to `50^@C`. Neglecting water equivalent of the vessel and the loss due to radiation etc. Calculate how much steam is condensed.
Answer» If `m` mass of steam, `10xx80+(10+100)xx1xx(5-0)=mxx540+mxx1xx(100-5)` `1350=635m` `m=(1350)/(635)=2.12g`

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Steam at `100^@C` is allowed to pass into a vessel containing `10g` of ice and 100 g of water at `0^@C` until all the ice is melted and the temperature is raised to `50^@C`. Neglecting water equivalent of the vessel and the loss due to radiation etc. Calculate how much steam is condensed.

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