Step 1: Grouping mandatory pairs.
Q must be next to S, so QS or SQ is a block.
S must also be next to V → the only possible chain is:
\[
Q - S - V
\]
Step 2: Placement of R.
R is immediately to the right of V:
\[
Q - S - V - R
\]
Step 3: Placement of T and U.
T must be to the left of U and must be adjacent:
\[
T - U
\]
Step 4: Remaining car P.
P cannot be next to Q, so P must be placed on the far right end:
\[
Q - S - V - R - T - U - P
\]
This arrangement satisfies all constraints.
Step 5: Checking the options.
(A) "There are two cars between Q and V."
Actual positions: Q(1), S(2), V(3).
There are zero cars between Q and V.
So (A) is incorrect.
(B), (C), (D) are all consistent with the valid arrangement.
Hence, option (A) is the only incorrect statement.
Consider the following statements followed by two conclusions.
Statements: 1. Some men are great. 2. Some men are wise.
Conclusions: 1. Men are either great or wise. 2. Some men are neither great nor wise. Choose the correct option:
Statements: All apples are fruits. All fruits are tasty.
Conclusions: 1. All apples are tasty. 2. Some tasty things are apples.
A continuous time periodic signal \( x(t) \) is given by: \[ x(t) = 1 + 2\cos(2\pi t) + 2\cos(4\pi t) + 2\cos(6\pi t) \] If \( T \) is the period of \( x(t) \), then evaluate: \[ \frac{1}{T} \int_0^T |x(t)|^2 \, dt \quad {(round off to the nearest integer).} \]
The maximum percentage error in the equivalent resistance of two parallel connected resistors of 100 \( \Omega \) and 900 \( \Omega \), with each having a maximum 5% error, is: \[ {(round off to nearest integer value).} \]
Consider a distribution feeder, with \( R/X \) ratio of 5. At the receiving end, a 350 kVA load is connected. The maximum voltage drop will occur from the sending end to the receiving end, when the power factor of the load is: \[ {(round off to three decimal places).} \]
In the circuit with ideal devices, the power MOSFET is operated with a duty cycle of 0.4 in a switching cycle with \( I = 10 \, {A} \) and \( V = 15 \, {V} \). The power delivered by the current source, in W, is: \[ {(round off to the nearest integer).} \] 
The induced emf in a 3.3 kV, 4-pole, 3-phase star-connected synchronous motor is considered to be equal and in phase with the terminal voltage under no-load condition. On application of a mechanical load, the induced emf phasor is deflected by an angle of \( 2^\circ \) mechanical with respect to the terminal voltage phasor. If the synchronous reactance is \( 2 \, \Omega \), and stator resistance is negligible, then the motor armature current magnitude, in amperes, during loaded condition is closest to: \[ {(round off to two decimal places).} \]