A particle moves 8 m east, then 15 m north, and finally 8 m west. What is the ratio of the total distance travelled to the magnitude of the net displacement?
31:15
To solve the problem of determining the ratio of the total distance traveled to the magnitude of the net displacement, we need to break down the motion of the particle step-by-step. Let's follow the steps:
Step 1: Calculate the Total Distance Travelled
Step 2: Calculate the Net Displacement
Step 3: Calculate the Ratio
Hence, the ratio of the total distance traveled to the net displacement is 31:15.
A particle moves with uniform acceleration and has an initial velocity u. It covers distances s and 2s in two successive equal time intervals t. What is the acceleration of the particle?
Which of the following situations can represent non-uniform motion of a particle?
Consider the motion of a point on a circular trajectory. The acceleration in a linear motion (a) and the acceleration in angular motion (α), are related as : (Take r as the radius of circular trajectory)
A body of mass 10 kg moving with a velocity of 1 m/s is acted upon by a force of 50 N for two seconds. The final velocity will be:
A ball is dropped on a smooth horizontal surface from height ‘h’. What will be the height of rebounce after second impact, if coefficient of restitution between ball and surface is ‘e’?
Each of four particles move along an x-axis. Their coordinates (in meters) as functions of time (in seconds) are given by
1) particle 1: x (t) = 3.5 – 2.7 t3
2) particle 2: x (t) = 3.5 + 2.7 t3
3) particle 3: x (t) = 3.5 – 2.7 t2
4) particle 4: x (t) = 3.5 – 3.4t - 2.7 t2
Which of these particles have constant acceleration?
If water in a stream is flowing with a velocity of 20 kmph and a boat is travelling from one bank to another bank, if the velocity of boat in a direction perpendicular to direction of stream is 20 kmph and width of the stream is 2km, then the time taken and the angle at which boat makes with the direction stream is,