An ideal gas described by T i = 275 K , P i = 1 . 1 0 bar , and V i = 1 0.0 L is heated at constant volume until P = 1 0.0 bar . It then undergoes a reversible isothermal expansion until P = 1 . 1 0 bar . It is then restored to its original state by the extraction of heat at constant pressure. Depict this closed-cycle process in a P − V diagram. Calculate w for each step and for the total process. What values for w would you calculate if the cycle were traversed in the opposite direction?
An ideal gas described by T i = 275 K , P i = 1 . 1 0 bar , and V i = 1 0.0 L is heated at constant volume until P = 1 0.0 bar . It then undergoes a reversible isothermal expansion until P = 1 . 1 0 bar . It is then restored to its original state by the extraction of heat at constant pressure. Depict this closed-cycle process in a P − V diagram. Calculate w for each step and for the total process. What values for w would you calculate if the cycle were traversed in the opposite direction?
Solution Summary: The author defines a reversible process as the process which can be reversed without to its original state. In an adiabatic process the heat change is zero therefore the work done will be equal to the change in the internal
An ideal gas described by
T
i
=
275 K
,
P
i
=
1
.
1
0
bar
, and
V
i
=
1
0.0
L
is heated at constant volume until
P
=
1
0.0
bar
. It then undergoes a reversible isothermal expansion until
P
=
1
.
1
0
bar
. It is then restored to its original state by the extraction of heat at constant pressure. Depict this closed-cycle process in a
P
−
V
diagram. Calculate w for each step and for the total process. What values for w would you calculate if the cycle were traversed in the opposite direction?
So I need help with understanding how to solve these types of problems. I'm very confused on how to do them and what it is exactly, bonds and so forth that I'm drawing. Can you please help me with this and thank you very much!
Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, chemistry and related others by exploring similar questions and additional content below.
The Laws of Thermodynamics, Entropy, and Gibbs Free Energy; Author: Professor Dave Explains;https://www.youtube.com/watch?v=8N1BxHgsoOw;License: Standard YouTube License, CC-BY