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For two mole of an ideal gas, the correc...

For two mole of an ideal gas, the correct relation is :

A

`C_(v)-C_(p)=R`

B

`C_(p)-C_(v) = 2R`

C

`C_(p)-C_(v) = R`

D

`C_(v)-C_(p) = 2R`

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The correct Answer is:
To solve the problem regarding the relationship between the heat capacities \( C_p \) and \( C_v \) for 2 moles of an ideal gas, we can follow these steps: ### Step 1: Understand the Definitions - \( C_p \) is the heat capacity at constant pressure. - \( C_v \) is the heat capacity at constant volume. - The difference between these two heat capacities for an ideal gas is given by the equation: \[ C_p - C_v = nR \] where \( n \) is the number of moles of the gas and \( R \) is the universal gas constant. ### Step 2: Identify the Given Information - We are given that there are 2 moles of an ideal gas. Thus, \( n = 2 \). ### Step 3: Substitute the Values into the Equation - Using the equation \( C_p - C_v = nR \), we substitute \( n = 2 \): \[ C_p - C_v = 2R \] ### Step 4: State the Final Relation - Therefore, the correct relation for 2 moles of an ideal gas is: \[ C_p - C_v = 2R \] ### Conclusion - The answer to the question is \( C_p - C_v = 2R \). ---

To solve the problem regarding the relationship between the heat capacities \( C_p \) and \( C_v \) for 2 moles of an ideal gas, we can follow these steps: ### Step 1: Understand the Definitions - \( C_p \) is the heat capacity at constant pressure. - \( C_v \) is the heat capacity at constant volume. - The difference between these two heat capacities for an ideal gas is given by the equation: \[ C_p - C_v = nR ...
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NARENDRA AWASTHI ENGLISH-THERMODYNAMICS-Level 3
  1. For two mole of an ideal gas, the correct relation is :

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  2. The first law of thermodynamics for a closed system is dU = dq + dw, w...

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  3. The first law of thermodynamics for a closed system is dU = dq + dw, w...

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  4. If the boundary of system moves by an infinitesimal amount, the work i...

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  5. If the boundary of system moves by an infinitesimal amount, the work i...

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  6. If the boundary of system moves by an infinitesimal amount, the work i...

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  7. If the boundary of system moves by an infinitesimal amount, the work i...

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  8. Standard Gibb's energy of reaction (Delta(r )G^(@)) at a certain temp...

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  9. Standard Gibb's energy of reaction (Delta(r )G^(@)) at a certain temp...

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  10. Standard Gibb's energy of reaction (Delta(r )G^(@)) at a certain temp...

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  11. Standard Gibb's energy of reaction (Delta(r )G^(@)) at a certain temp...

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  12. Consider the following reaction : CO(g)+2H(2)(g)iffCH(3)OH(g) Give...

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  13. Enthalpy of neutralization is defined as the enthalpy change when 1 mo...

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  14. Enthalpy of neutralzation is defined as the enthalpy change when 1 mol...

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  15. Enthalpy of neutralzation is defined as the enthalpy change when 1 mol...

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  16. Gibbs Helmholtz equation relates the enthalpy, entropy and free energy...

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  17. Gibbs Helmholtz equation relates the enthalpy, entropy and free energy...

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  18. Gibbs Helmholtz equation relates the enthalpy, entropy and free energy...

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  19. Identify the intensive quantities from the following : (a)Enthalpy ...

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  20. Identify the extensive quantities from the following :

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  21. Identify the state functions from the following :

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