Question
Explain, why it is not possible to increase the temperature of a gas while keeping its volume and pressure constant?

Answer

According to kinetic theory of gases,$\text{P}=\frac{1}{3}\rho\text{C}^2=\frac{1}{3}\frac{\text{M}}{\text{V}}\text{C}^2=\frac{1}{3}\frac{\text{M}}{\text{V}}\text{KT}$ ($\because C^2$ = KT. when K is constanst)
$\therefore\text{T}\propto\text{PV}$
Now as T is directly proportional to the product of P and V. If P and V are constant, then T is also constant.

Need a full question paper?

Generate a complete, print-ready paper with questions like this in minutes — across 16+ boards, with answer keys.

Start Generating Free

Similar questions

A spring of mass 2.50kg is under a tension of 200N. The length of the stretched string is 20.0m. If a transverse jerk is struck at one end of the string, how long does the disturbance take to reach the other end?
What is the energy required for 1gm of ice to become steam?
Two bombs of 20kg and 30kg are thrown from a cannon with the same velocity in the same direction. Which bomb will reach the ground first?
Suggest a way to measure:
  1. The thickness of a sheet of paper.
  2. The distance between the sun and the moon.
Prove that when there is an angle $\frac{2}{3} \pi$ between two vectors of equal magnitude, then the magnitude of resultant vector will be equal to the magnitude of one of the vectors.
Does a vibrating source always produce sound?
Find the angle between force $F =(3 \hat{ i }+4 \hat{ j }-5 \hat{ k })$ unit and displacement $d =(5 \hat{ i }+4 \hat{ j }+3 \hat{ k })$ unit. Also find the projection of $F$ on $d$.
A vertical U-tube of uniform cross-section contains water upto a height of 20cm. Calculate the time period of the oscillation of water when it is disturbed.
The mass of cyclist together with the bike is 90kg. Calculate the increase in kinetic energy if the speed increases from 6.0km/h to 12km/h.
Find the dimensions of :
  1. The specific heat capacity $c.$
  2. The coefficient of linear expansion $a$.
  3. The gas constant $R.$
Some of the equations involving these quantities are $\text{Q = mc(T}_2-\text{T}_1),\text{l}_{\text{t}}=\text{l}_0[1+\alpha(\text{T}_2-\text{T}_1)]$ and $\text{PV = nRT}.$