
This enables us to derive two more kinematic equations in addition to the definitions of average speed and acceleration:


- From the definitions of average speed and acceleration, derive the two formulas for the distance.
- Assume a toy car is travelling at 2 m/s and there is no acceleration. Construct a table showing the distance travelled, the speed, and the acceleration for each second of the first 6 seconds.
- What distance is travelled by a train as it is accelerated uniformly from 22 m/s to 44 m/s in 20 s?
- A car travelling at 44 m/s is uniformly decelerated to a speed of 22 m/s over an 11-s period. What distance does it travel during this time?
- An engineer is to design a runway to accommodate airplanes that must gain a ground speed of 60 m/s before they can take off. The planes accelerate at the rate of 1.5 m/s2. How long will it take the planes to achieve take-off speed? What must be the minimum length of the runway?
- A car starting from rest is accelerated at a constant rate of 6.2 m/s2. What distance does the car travel during the first 7.0 s of acceleration?
- An airplane starts from rest and undergoes a uniform acceleration of 3.0 m/s2 for 30 s before leaving the ground. What distance does it travel during the 30 seconds?
- Assume an airplane starts with an initial speed of zero and is accelerated at 20 m/s2. Construct a table showing the distance traveled, the speed, and acceleration.