A race car will make one lap around a circular track of radius R. When the car has traveled halfway around the track, what is the magnitude of the car's displacement from the starting point ?

A racecar, traveling at constant speed, makes one lap around a circular track of radius r in a time t .
When the car has traveled halfway around the track, what is the magnitude of its displacement from the starting point ?

A car is moving on a circular track of radius 0.1 km with a speed 60 km/h, angle of banking would be

A racecar, traveling at constant speed, makes one lap around a circular track of radius r in a time t .
Determine the magnitude of the average velocity of the car for one complete lap.

A racecar, traveling at constant speed, makes one lap around a circular track of radius r in a time t .
What is the average speed of the car for one complete lap ?

A racecar, traveling at constant speed, makes one lap around a circular track of radius r in a time t .
Which one of the following statements concerning this car is true ?

A car starts from rest and moves around a circular track of radius 32.0 m. Its speed increases at the constant rate of $0.600m/s^2$. (a) What is the magnitude of its net linear acceleration 15.0 s later? (b) What angle does this net acceleration vector make with the car's velocity at this time?

A car moves with speed $v$ on a horizontal circular track of radius $R$. A head-on view of the car is shown in figure. The height of the car's centre of mass above the ground is $h$, and the separation between its inner and outer wheels is $d$ The road is dry, and the car does not skid. The maximum speed the car can have without overturning is :
.

A car goes around uniform circular track of radius R at a uniform speed v once in every T seconds. The magnitude of the centripetal acceleration is $a_c$. If the car now goes uniformly around a larger circular track of radius 2R and experiences a centripetal acceleration of magnitude $8a_c$, then its time period is

A car runs at constant speed around the horizontal race track shown in the figure. Over which portion of the track is the magnitude of the acceleration the greatest?

When a car is going round a circular track, the resultant of all the forces on the car in an inertial frame is