- A$1:10^3$
- B$1:10^4$
- C$1:10$
- ✓$1:10^2$
Maximum acceleration of $(1)=-\omega_{1}^{2} A$
Maximum acceleration of $(2)=-\omega_{2}^{2} A$
$\therefore \frac{\operatorname{accln}(1)}{\operatorname{accln}(2)}=\frac{\omega_{1}^{2}}{\omega_{2}^{2}}=\frac{(100)^{2}}{(1000)^{2}}=\frac{1}{100}$
$a(1): a(2)=1: 100$.
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$(i)$ Sequentially keeping in contact with $2$ reservoirs such that each reservoir supplies same amount of heat.
$(ii)$ Sequentially keeping in contact with $8$ reservoirs such that each reservoir supplies same amount of heat.
In both the cases body is brought from initial temperature $100^o C$ to final temperature $200^o C$. Entropy change of the body in the two cases respectively is :
