MCQ
$PVC$ is obtained from vinyl chloride by a reaction called
- AAddition
- BIsomerization
- ✓Polymerization
- DSubstitution
✓
Answer
Correct option: C.
Polymerization
c
(c) $_n(C{H_2} = CH - Cl) \xrightarrow{Polymeriza tion} \mathop {{{( - \,C{H_2} - \mathop {CH}\limits_{\mathop {|\,\,\,\,\,}\limits_{Cl\,} \,} - )_n}}}\limits_{({\rm{PVC}})} $
(c) $_n(C{H_2} = CH - Cl) \xrightarrow{Polymeriza tion} \mathop {{{( - \,C{H_2} - \mathop {CH}\limits_{\mathop {|\,\,\,\,\,}\limits_{Cl\,} \,} - )_n}}}\limits_{({\rm{PVC}})} $
Need a full question paper?
Generate a complete, print-ready paper with questions like this in minutes — across 16+ boards, with answer keys.
Explore more
Similar questions
Assign $A, B, C, D$ from given type of reaction.
$Fe\left( s \right) + {H_2}O\left( l \right)\xrightarrow{{Boil}}F{e_3}{O_4} + {H_2} \uparrow $
→Which of the following pair have same shape $\&$ total number of lone pair and $\sigma$ -$bond$ pair on central atom :
→Find the correct option
Carbide, which react with water to give propyne is
$0.1\, M$ formic acid solution is titrated against $0.1 \,M \,NaOH$ solution. What would be the difference in $pH$ between $1/5$ and $4/5$ stages of neutralization of acid ?
→In Carius method for estimation of halogens, $0.2\, \mathrm{~g}$ of an organic compound gave $0.188 \,\mathrm{~g}$ of $\mathrm{AgBr}$. The percentage of bromine in the compound is ...... . (Nearest integer)
→[Atomic mass: $\mathrm{Ag}=108, \mathrm{Br}=80$ ]
Final product of the reaction
→$C{H_3} - CH = C{H_2}\xrightarrow[{CC{l_4}}]{{B{r_2}}}A\xrightarrow[{(3\,\,moles)}]{{\mathop N\limits^ \oplus a\mathop N\limits^\Theta {H_2}}}B\xrightarrow{{C{H_3} - Br}}C\xrightarrow[{{H_2}}]{{Pd + BaS{O_4}}}D$
In which of the following molecule is the covalent bond most polar
Correct order of rate of $EAS$ (electrophilic aromatic substitution) is
→The heat of transition $(\Delta {H_t})$ of graphite into diamond would be, where$C({\rm{graphite}}) + {O_2}(g) \to C{O_2}(g);\,\,\Delta H = x\,kJ$ $C({\rm{diamond}})\, + {O_2}(g) \to C{O_2}(g);\,\,\Delta H = y\,kJ$
→