One mole of an ideal monatomic gas undergoes a linear process from A to B , in which is pressure P and its volume V change as shown in figure . The absolute temperature T versus volume V for the given process is
KINETIC THEORY OF GASES AND FIRST LAW OF THERMODYNAMICS
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One mole of an ideal monotomic gas undergoes a linear process from A to B in which its pressure p and its volume V change as shown in figure. The absolute temperature T versus volume V for the given process is
A
B
C
D
One mole of an ideal monotomic gas undergoes a linear process from A to B in which its pressure p and its volume V change as shown in figure. The maximum temperature of the gas during this process is
A
`(p_(0)V_(0))/(2R)`
B
`(p_(0)V_(0))/(4R)`
C
`(3p_(0)V_(0))/(4R)`
D
`(3p_(0)V_(0))/(2R)`
One mole of ideal gas undergoes a linear process as shown in figure below. Its temperature expressed as function of volume V is -
A
`(P_(0)V_(0))/(R )`
B
`(P_(0)V)/(R )`
C
`(P_(0)V)/(R )(1-(V)/(V_(0)))`
D
`(P_(0)V_(0))/(R )(1-((V)/(V_(0)))^(2))`
CENGAGE PHYSICS-KINETIC THEORY OF GASES-Compression