A train accelerates from rest at a constant rate a for distance `x_(1)` and time `t_91)`. After that is retards at constant rate `beta` for distance `x_(2)` and time `t_(2)` and comes to the rest. Which of the following relation is correct:-

A train accelerates from rest at a constant rate α a for distance x_(1) and time t _(1) . After that is retards at constant rate beta for distance x_(2) and time t_(2) and comes to the rest. Which of the following relation is correct:-

A train accelerates from rest at a constant rate a for time t_(1) and then it retards at the constant rate b for time t_(2) then comes to rest. Find the ratio t_(1) / t_(2) .

An elevator accelerates from rest at a constant rate alpha for time interval t_(1) and travels a distance S_(1) It them retards at a constant rate beta for time interval t_(2) and finally comes to rest after travelling a distance S_(2) during its retardation Show that: (S_(1))/(S_(2))=(t_(1))/(t_(2))=(beta)/(alpha) .

A train accelerates from rest at a constant rate alpha for some time and then it retards to rest at the constant rate beta . If the total distance covered by the train is s, then the velocity of the train is

A car accelerates from rest at a constant rate a for some time after which it retards at a constant rate to come to rest. If the time elapsed is t, maximum velocity reached is

A train accelerates from at the constant rate b for time t_(2) at a constant rate a and then it retards at the comes to rest. Find the ratio t_(1) // t_(2) .

A train moves from rest with acceleration alpha and in time t_(1) covers a distance x. It then decelerates rest at constant retardation beta for distance y in time t_(2) . Then

A scooter accelerates from rest for time t_(1) at constant rate a_(1) and then retards at constant rate a_(2) for time t_(2) and comes to rest. The correct value of (t_(1))/(t_(2)) will be :-

A car accelerates from rest for time t_1 at a constant rate alpha and then it retards at the constant rate beta for time t_2 and comes to rest.Find the value of t_1 // t_2 .