(i)
2−Chloro−3−methylbutane (Secondary alkyl halide)
(ii)
3−Chloro−4−methyhexane (Secondary alkyl halide)
(iii)
1−Iodo−2,2−dimethylbutane (Primary alkyl halide)
(iv)
1−Bromo−3,3−dimethyl−1−phenylbutane (Secondary benzyl halide)
(v)
2−Bromo−3−methylbutane (Secondary alkyl halide)
(vi)
1−Bromo−2−ethyl−2−methylbutane (Primary alkyl halide)
(vii)
3−Chloro−3−methylpentane (Tertiary alkyl halide)
(viii)
3−Chloro−5−methylhex−2−ene (Vinyl halide)
(ix)
4−Bromo−4−methylpent−2−ene (Allyl halide)
(x)
1−Chloro−4−(2−methylpropyl) benzene (Aryl halide)
(xi)
1−Chloromethyl−3−(2,2−dimethylpropyl) benzene (Primary benzyl halide)
(xii)
1−Bromo−2−(1−methylpropyl) benzene (Aryl halide)
A school is organizing a debate competition with participants as speakers and judges. $ S = \{S_1, S_2, S_3, S_4\} $ where $ S = \{S_1, S_2, S_3, S_4\} $ represents the set of speakers. The judges are represented by the set: $ J = \{J_1, J_2, J_3\} $ where $ J = \{J_1, J_2, J_3\} $ represents the set of judges. Each speaker can be assigned only one judge. Let $ R $ be a relation from set $ S $ to $ J $ defined as: $ R = \{(x, y) : \text{speaker } x \text{ is judged by judge } y, x \in S, y \in J\} $.
Given below is a heterogeneous RNA formed during Eukaryotic transcription:
How many introns and exons respectively are present in the hnRNA?
A certain reaction is 50 complete in 20 minutes at 300 K and the same reaction is 50 complete in 5 minutes at 350 K. Calculate the activation energy if it is a first order reaction. Given: \[ R = 8.314 \, \text{J K}^{-1} \, \text{mol}^{-1}, \quad \log 4 = 0.602 \]