3.4 This problem derives the ideal gas law from the general differential equation of state. For ideal gases with a singlecomponent, experiments show that Kr = p-1, and a =T1. Moreover, for a single component, V = V/n (seeChapter 5). Starting with Equation 3.4, substitute the three results above and integrate. Within a mutliplicativeconstant, you should be able to recover the ideal gas law. Hint: although you should be able to separate variables,integration will require multiple steps. Use the fact that p, T, V, and n are state functions, and integrate from a singlestarting point with variables p, Vị, Tj, n; to general values p, V, T, n. dp +dT +dnEqn. (3.4) should be: dVOTP,nT.PT,n

Ideal gas law or general gas equation gives us the equation of the state of a hypothetical ideal…

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