The diagram shows a movement of a car in \(3 \) seconds.
The car is moving with \(\underline {\hspace {3.5cm}}\).
A boy rides his bike for \(2 \space \text {km}\) from his house to a shop. After that, he comes home. On the way home, he stops at a stall just \(1.2 \space \text {km}\) from his home.
What is the distance and displacement the boy travels from home to stall?
Distance (\(\textbf {km}\))
Displacement (\(\textbf {km}\))
(A)
\(2.8 \)
\(0.8\)
(B)
\(1.2 \)
(C)
\(3.2 \)
(D)
\(0.8 \)
Hisham starts driving his car from the house with uniform acceleration and reaches the speed of \(15.00 \space \text m \text s^{-1}\) in \(5 \) seconds.
What is the acceleration and the displacement of the car as soon as the car starts moving?
A speeding car with a velocity of \(40 \space \text m \text s^{-1}\) was stopped shortly after the brake was pressed. The distance traveled by car before stopping is \(100 \space \text m\).
Calculate the deceleration of the car?
(A) \(1 \space \text m \text s^{-2}\)
(B) \(8 \space \text m \text s^{-2}\)
(C) \(-1 \space \text m \text s^{-2}\)
(D) \(-8 \space \text m \text s^{-2}\)
A policeman sees a thief towards a junction with a uniform velocity of \(0.6 \space \text m \text s^{-1}\). At that time, the position of the policeman, the thief and the junction are shown in the diagram respectively.
If the policeman runs towards the thief with a uniform acceleration of \(1.5 \space \text m \text s^{-2}\), can the policeman catch the thief before he reaches the junction?
There is something wrong with this question.
Are sure you want to exit the exam? All your progress is going to be saved.