A particle moving in the positive x-direction has initial velocity `v_(0)`. The particle undergoes retardation `kv^(2)` , where vis its instantaneous velocity. The velocity of the particle as a function of time is given by:

A particle moves with an initial velocity V_(0) and retardation alpha v , where alpha is a constant and v is the velocity at any time t. Velocity of particle at time is :

A particle moves with an initial velocity V_(0) and retardation alpha v , where alpha is a constant and v is the velocity at any time t. Velocity of particle at time is :

A particle starts moving in a straight line with initial velocity v_(0) Applied forces cases a retardation of av, where v is magnitude of instantaneous velocity and alpha is a constant. How long the particle will take to come to rest.

A particle starts moving in a straight line with initial velocity v_(0) Applied forces cases a retardation of av, where v is magnitude of instantaneous velocity and alpha is a constant. How long the particle will take to reduce its speed to half of its initial value?

A particle moves with initial velocity v_(0) and retardation alphav , where v is velocity at any instant t. Then the particle

A particle moves with initial velocity v_(0) and retardation alphav , where v is velocity at any instant t. Then the particle

A particle moves with an initial velocity v_(0) and retardation alpha v , where v is the velocity at any time t.

A particle starts moving in a straight line with initial velocity v_(0) Applied forces cases a retardation of av, where v is magnitude of instantaneous velocity and alpha is a constant. Total distance covered by the particle is