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A container holds 1.0 g of argon at a pressure of 8.0 atm.

a. How much heat is required to increase the temperature by 100°C at constant volume?

b. How much will the temperature increase if this amount of heat energy is transferred to the gas at constant pressure?

Short Answer

Expert verified

The answer for (a) is 31.25Jand (b) is59.9K

Step by step solution

01

Description 

As per provided information:

A container holds 1.0 g of argon at a pressure of 8.0 atm.

Heat required for isobaric heating through the difference of temperatureTof n moles is provided by:

Q=nCpT

02

Result of finding the accurate heat and temperature 

The number of moles is provided as:

n=mM

Thus, it can be written as:

Q=mMCvT

Argon's molar mass to be M=40g/molas well as Argon's isochoric specific heat Cv=12.5J/molK

Thus, it can be written on the basis of numerics:

Q=140·12.5·100=31.25J

It can be stated the relation of giving heat needed for the heating of isochoric.

Thus, there can provide an increase in temperature Tpfor the case of isochoric as:

Q=nCpTpTp=QnCp

Thus, it can be written as after analysing the expression for heat:

Tp=nCvTvnCp=1γTv

Thus, on the basis of numerics:

Tp=11.67·100=59.9K

The answer for (a) is 31.25J and (b) is59.9K.

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