Engineering
Engineering, 20.01.2021 20:50, miguelc2145

An ideal gas with a constant temperature specific heat capacity of 29.2 kJ/kmol pressure of 4.6 MPa with an irreversible process and from the temperature of 640 K, the pressure of 4.6 MPa and the path in the figure to the temperature of 318 K (from 1 point to 2 point, 2
from point 3 to point and finally from point 3 to point 4) by following
references In the entropy of the ideal gas as a result of the process performed by following this path
calculate the change that occurred.

answer
Answers: 2

Other questions on the subject: Engineering

image
Engineering, 04.07.2019 16:10, TheOriginalMeyah
An electrical motor raises a 50kg load at a construct velencity .calculate the power of the motor, if it takes 40sec to raise the load through a height of 24m(take g =9.8n/g)
Answers: 2
image
Engineering, 04.07.2019 18:10, 19deleonl
Coiled springs ought to be very strong and stiff. si3n4 is a strong, stiff material. would you select this material for a spring? explain.
Answers: 2
image
Engineering, 04.07.2019 18:10, redrosesxx
Water at 55c flows across a flat plate whose surface temperature is held constant at 95c. if the temperature gradient at the plate's surface for a given value of x is 18 c/mm, find a) local heat transfer coefficient. b) heat flux
Answers: 3
image
Engineering, 04.07.2019 18:20, maustin5323
Athin walled concentric tube exchanger is used to cool engine oil from 160°c to 60°c with water that is available at 25°c acting as a coolant. the oil and water flow rates are each at 2 kg/s, and the diameter of the inner tube is 0.5 m and the corresponding value of the overall heat transfer coefficient is 250 w/m2. oc. how long must the heat exchanger be to accomplish the desired cooling? cpwater=4.187 kj/kg-candcpengine el=2.035 kj/kg·°c, oil . 120]
Answers: 1
Do you know the correct answer?
An ideal gas with a constant temperature specific heat capacity of 29.2 kJ/kmol pressure of 4.6 MPa...

Questions in other subjects:

Konu
Advanced Placement (AP), 26.02.2021 23:40