A steel wire of length $3.2 m \left( Y _{ S }=2.0 \times 10^{11}\,Nm ^{-2}\right)$ and a copper wire of length $4.4\,M$ $\left( Y _{ C }=1.1 \times 10^{11}\,Nm ^{-2}\right)$, both of radius $1.4\,mm$ are connected end to end. When stretched by a load, the net elongation is found to be $1.4\,mm$. The load applied, in Newton, will be. (Given $\pi=\frac{22}{7}$)

  • [JEE MAIN 2022]
  • A

    $360$

  • B

    $180$

  • C

    $1080$

  • D

    $154$

Similar Questions

The Young’s modulus for steel is much more than that for rubber. For the same longitudinal strain, which one will have greater tensile stress ?

Column$-II$ is related to Column$-I$. Join them appropriately :

Column $-I$  Column $-II$ 
$(a)$ When temperature raised Young’s modulus of body $(i)$ Zero
$(b)$ Young’s modulus for air $(ii)$ Infinite
  $(iii)$ Decreases
  $(iv)$Increases

The dimensions of four wires of the same material are given below. In which wire the increase in length will be maximum when the same tension is applied

If in case $A$, elongation in wire of length $L$ is $l$, then for same wire elongation in case $B$ will be ......

The area of cross-section of a wire of length $1.1$ metre is $1$ $mm^2$. It is loaded with $1 \,kg.$ If Young's modulus of copper is $1.1 \times {10^{11}}\,N/{m^2}$, then the increase in length will be ......... $mm$ (If $g = 10\,m/{s^2})$