MCQ
The figure shows $P-V$ diagram of a thermodynamic cycle. Which corresponding curve is correct?
- ✓
- B
- C
- D
✓
Answer
Correct option: A.
a
$\begin{array}{lll}\text { For } A-B: V=\text { constant } & \text { (ideal qas equation } \Rightarrow) \\ (P \propto T) & (\text { straight line) } & (P V=n R T \\ A B & & (P \alpha T) \text { for } A B\end{array}$
For $B-C \because P=$ constant $(v \propto T)$ for $B C$
$(V \propto T)$ (constant line parallel to $T($ temperature)) axis.
For $C D$ it will be similar to $A B$
and $DA$ It will be simicar to $BC$
$\therefore$ considering all above constraints option $(A)$ is the correct graph
$\begin{array}{lll}\text { For } A-B: V=\text { constant } & \text { (ideal qas equation } \Rightarrow) \\ (P \propto T) & (\text { straight line) } & (P V=n R T \\ A B & & (P \alpha T) \text { for } A B\end{array}$
For $B-C \because P=$ constant $(v \propto T)$ for $B C$
$(V \propto T)$ (constant line parallel to $T($ temperature)) axis.
For $C D$ it will be similar to $A B$
and $DA$ It will be simicar to $BC$
$\therefore$ considering all above constraints option $(A)$ is the correct graph
Need a full question paper?
Generate a complete, print-ready paper with questions like this in minutes — across 16+ boards, with answer keys.
Explore more
Similar questions
A stationary man observes that the rain is falling vertically downward. When he starts running with a velocity of $12\,\,km/h$ he observes that the rains is falling at an angle $60^o$ with the vertical. The actual velocity of rain is
→The pressure p and volume $V$ of an ideal gas both increase in a process.
→- Such a process is not possible.
- The work done by the system is positive.
- The temperature of the system must increase.
- Heat supplied to the gas is equal to the change in internal energy.
A liquid flows in a tube from left to right as shown in figure. ${A_1}$ and ${A_2}$ are the cross-sections of the portions of the tube as shown. Then the ratio of speeds ${v_1}/{v_2}$ will be
→The fundamental frequency of a sonometer with a weight of $4\,kg$ is $256\,Hz$ . The weight required to produce its octave is .... $kg-wt$
→The radius in kilometer to which the present radius of earth $( R =6400\, km )$ to be compressed so that the escape velocity is increased $10$ time is ............$km$
→If the equation of transverse wave is $Y = 2\sin (kx - 2t),$ then the maximum particle velocity is .... $units$
→A $NCC$ parade is going at a uniform speed of $9\,km / h$ under a mango tree on which a monkey is sitting at a height of $19.6\,m$. At any particular instant, the monkey drops a mango. A cadet will receive the mango whose distance from the tree at time of drop is $...m$
→(Given $g=9.8\,m / s ^{2}$ )
There is a destructive interference between the two waves of wavelength $\lambda$ coming from two different paths at a point. To get maximum sound or constructive interference at that point, the path of one wave is to be increased by
→$Dyne/cm^2$ is not a unit of
→A mass of $0.5\ kg$ moving with a speed of $1.5\ ms^{-1}$ on a horizontal smooth surface, collides with a nearly weightless spring of spring constant $k = 50\ N/ m^{-1}$
The maximum compression of the spring would be:
→The maximum compression of the spring would be: