369855 The Young's modulus of a steel wire of length \(6\;m\) and cross-sectional area \(3\;m{m^2}\), is \(2 \times {10^{11}}\;N/{m^2}\). The wire is suspended from its support on a given planet. A block of mass \(4\;kg\) is attached to the free end of the wire. The acceleration due to gravity on the planet is \(\dfrac{1}{4}\) of its value on the earth. The elongation of wire is (Take \(g\) on the earth \( = 10\;m{s^{ - 2}}\))
369855 The Young's modulus of a steel wire of length \(6\;m\) and cross-sectional area \(3\;m{m^2}\), is \(2 \times {10^{11}}\;N/{m^2}\). The wire is suspended from its support on a given planet. A block of mass \(4\;kg\) is attached to the free end of the wire. The acceleration due to gravity on the planet is \(\dfrac{1}{4}\) of its value on the earth. The elongation of wire is (Take \(g\) on the earth \( = 10\;m{s^{ - 2}}\))
369855 The Young's modulus of a steel wire of length \(6\;m\) and cross-sectional area \(3\;m{m^2}\), is \(2 \times {10^{11}}\;N/{m^2}\). The wire is suspended from its support on a given planet. A block of mass \(4\;kg\) is attached to the free end of the wire. The acceleration due to gravity on the planet is \(\dfrac{1}{4}\) of its value on the earth. The elongation of wire is (Take \(g\) on the earth \( = 10\;m{s^{ - 2}}\))
369855 The Young's modulus of a steel wire of length \(6\;m\) and cross-sectional area \(3\;m{m^2}\), is \(2 \times {10^{11}}\;N/{m^2}\). The wire is suspended from its support on a given planet. A block of mass \(4\;kg\) is attached to the free end of the wire. The acceleration due to gravity on the planet is \(\dfrac{1}{4}\) of its value on the earth. The elongation of wire is (Take \(g\) on the earth \( = 10\;m{s^{ - 2}}\))