Step 1: Possible groups of order 6.
Up to isomorphism, there are two groups of order 6: the cyclic group \( \mathbb{Z}_6 \), which is cyclic, and the symmetric group \( S_3 \), which is non-cyclic. Hence, \( G \) need not be cyclic.
Step 2: Possible orders of subgroup \( H \).
By Lagrange's Theorem, the order of \( H \) must divide 6. Since \( 1 < |H| < 6 \), we have \( |H| = 2 \) or \( |H| = 3 \).
Step 3: Cyclicity of \( H \).
Any group of prime order is cyclic. Therefore, every subgroup of order 2 or 3 is cyclic.
Step 4: Conclusion.
Thus, \( G \) may not be cyclic, but \( H \) is always cyclic.
In a 4-bit ripple counter, if the period of the waveform at the last flip-flop is 64 microseconds, then the frequency of the ripple counter in kHz is ______________. {(Answer in integer)}
Consider the following C code segment:
int x = 126, y = 105;
do {
if (x > y)
x = x - y;
else
y = y - x;
} while (x != y);
printf("%d", x);
The output of the given C code segment is ____________. (Answer in integer)
The following two signed 2’s complement numbers (multiplicand \( M \) and multiplier \( Q \)) are being multiplied using Booth’s algorithm:
| Multiplicand (\( M \)) | Multiplier (\( Q \)) |
|---|---|
| 1100 1101 1110 1101 | 1010 0100 1010 1010 |
The total number of addition and subtraction operations to be performed is __________. (Answer in integer)
The maximum value of \(x\) such that the edge between the nodes B and C is included in every minimum spanning tree of the given graph is __________ (answer in integer).
Consider the following C program
The value printed by the given C program is __________ (Answer in integer).