The general solution of a differential equation of the type \(\frac{dx}{dy}+p_{1}x=Q1\) is
\(ye^{\int{p_{1}dy}}=\int{(Q_{1}e^{\int{p_{1}dy}})}dy+C\)
\(y.e^{\int{p_{1}dx}}=\int{(Q_{1}e^{\int{p_{1}dx}})}dx+C\)
\(xe^{\int{p_{1}dy}}=\int{(Q_{1}e^{\int{p_{1}dy}})}dy+C\)
\(xe^{\int{p_{1}dx}}=\int{(Q_{1}e^{\int{p_{1}dx}})}dx+C\)
The integrating factor of the given differential equation \(\frac{dx}{dy}+p_{1}x=Q_{1}\) is \(e^{∫p_{1}dy}.\)
The general solution of the differential equation is given by,
\(x(I.F.)=\)\(\int{(Q×I.F.)dy}+C\)
\(⇒x.e^{\int{p_{1}dy}}=\)\(\int{(Q_{1}e^{\int{p_{1}dy)}}dy}+C\)
Hence, the correct answer is C.
Observe the given sequence of nitrogenous bases on a DNA fragment and answer the following questions: 
(a) Name the restriction enzyme which can recognise the DNA sequence.
(b) Write the sequence after restriction enzyme cut the palindrome.
(c) Why are the ends generated after digestion called as ‘Sticky Ends’?