Basic Thermodynamics A polytropic process of air from 150 psia, 300°F, and 1 ft³ occurs to p2 = 20 psia in accordance with pV¹.3= C.Determine (a) t₂ and V2, (b) AU, AH and AS, (c) JpdV and -Vdp. (d) Compute the heat from the polytropic specific heatand check by the equation Q = AU + JpdV. (e) Find the nonflow work and (f) the steady flow work for AKE = 0.

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A polytropic process of air from 150 psia, 300°F, and 1 ft³ occurs to p2 = 20 psia in accordance with pV1.3= C. Determine (a) t2 and V2, (b) AU, AH and AS, (c) JpdV and -Vdp. (d) Compute the heat from the polytropic specific heat and check by the equation Q = AU + JpdV. (e) Find the nonflow work and (f) the steady flow work for AKE = 0.

A polytropic process of air from 150 psia, 300°F, and 1 ft³ occurs to p2 = 20 psia in accordance with pV1.3= C. Determine (a) t2 and V2, (b) AU, AH and AS, (c) JpdV and -Vdp. (d) Compute the heat from the polytropic specific heat and check by the equation Q = AU + JpdV. (e) Find the nonflow work and (f) the steady flow work for AKE = 0.

University Physics Volume 2

18th Edition

ISBN:9781938168161

Author:OpenStax

Publisher:OpenStax

Chapter3: The First Law Of Thermodynamics

Section: Chapter Questions

Problem 66P: One of a dilute diatomic gas occupying a volume of 10.00 L expands against a constant pressure of...

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