360957
A cube of wood of mass \(0.5\,kg\) and density \({800 {~kg} {~m}^{-3}}\) is fastened to the free end of a vertical spring of spring constant \({k=50 {Nm}^{-1}}\), fixed at the bottom. Now, the entire system is completely submerged in water. The elongation or compression of the spring in equilibrium is \({\dfrac{\beta}{2} {~cm}}\). The value of \({\beta}\) is
(Given, \({g=10 {~ms}^{-2}}\))
360957
A cube of wood of mass \(0.5\,kg\) and density \({800 {~kg} {~m}^{-3}}\) is fastened to the free end of a vertical spring of spring constant \({k=50 {Nm}^{-1}}\), fixed at the bottom. Now, the entire system is completely submerged in water. The elongation or compression of the spring in equilibrium is \({\dfrac{\beta}{2} {~cm}}\). The value of \({\beta}\) is
(Given, \({g=10 {~ms}^{-2}}\))
360957
A cube of wood of mass \(0.5\,kg\) and density \({800 {~kg} {~m}^{-3}}\) is fastened to the free end of a vertical spring of spring constant \({k=50 {Nm}^{-1}}\), fixed at the bottom. Now, the entire system is completely submerged in water. The elongation or compression of the spring in equilibrium is \({\dfrac{\beta}{2} {~cm}}\). The value of \({\beta}\) is
(Given, \({g=10 {~ms}^{-2}}\))
360957
A cube of wood of mass \(0.5\,kg\) and density \({800 {~kg} {~m}^{-3}}\) is fastened to the free end of a vertical spring of spring constant \({k=50 {Nm}^{-1}}\), fixed at the bottom. Now, the entire system is completely submerged in water. The elongation or compression of the spring in equilibrium is \({\dfrac{\beta}{2} {~cm}}\). The value of \({\beta}\) is
(Given, \({g=10 {~ms}^{-2}}\))
360957
A cube of wood of mass \(0.5\,kg\) and density \({800 {~kg} {~m}^{-3}}\) is fastened to the free end of a vertical spring of spring constant \({k=50 {Nm}^{-1}}\), fixed at the bottom. Now, the entire system is completely submerged in water. The elongation or compression of the spring in equilibrium is \({\dfrac{\beta}{2} {~cm}}\). The value of \({\beta}\) is
(Given, \({g=10 {~ms}^{-2}}\))