If the HCF of 65 and 117 is expressible in the form \(65m – 117\), then the value of \(m\) is
4
2
1
3



We first find HCF(65, 117) using Euclid’s division algorithm:
\(117 = 65 \times 1 + 52\)
\(65 = 52 \times 1 + 13\)
\(52 = 13 \times 4 + 0\)
So the HCF is 13.
Now, it is given that HCF can be expressed as \(65m - 117\).
So, \(65m - 117 = 13 \Rightarrow 65m = 130 \Rightarrow m = 2\).
Thus, the required value of \(m\) is 2.