269214 The velocity of a spherical ball through a viscous liquid is given by\(v=v_{0}\left(1-e^{k t}\right)\), where \(v_{\text {p }}\) is the initial velocity and \(t\) represents time. If k depends on radius of ball ( \(r\) ), coefficient of viscosity ( \(\eta\) ) and mass of the ball (m), then
269214 The velocity of a spherical ball through a viscous liquid is given by\(v=v_{0}\left(1-e^{k t}\right)\), where \(v_{\text {p }}\) is the initial velocity and \(t\) represents time. If k depends on radius of ball ( \(r\) ), coefficient of viscosity ( \(\eta\) ) and mass of the ball (m), then
269214 The velocity of a spherical ball through a viscous liquid is given by\(v=v_{0}\left(1-e^{k t}\right)\), where \(v_{\text {p }}\) is the initial velocity and \(t\) represents time. If k depends on radius of ball ( \(r\) ), coefficient of viscosity ( \(\eta\) ) and mass of the ball (m), then
269214 The velocity of a spherical ball through a viscous liquid is given by\(v=v_{0}\left(1-e^{k t}\right)\), where \(v_{\text {p }}\) is the initial velocity and \(t\) represents time. If k depends on radius of ball ( \(r\) ), coefficient of viscosity ( \(\eta\) ) and mass of the ball (m), then