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show your location at 10-second intervals, starting at t = 0. Using the graph in Figure 2.4, find (c) your net displacement and (d) the total distance you covered during the 50-second period. SOLUTION (a) At a time of t = 40 s, the graph shows that your motion changes from travel in the positive x-direction to travel in the negative x-direction.
When you describe distance, you only include the magnitude, the size or amount, of the distance traveled. However, when you describe the displacement, you take into account both the magnitude of the change in position and the direction of movement.
To answer this question we need to know two things: the distance around Pluto’s equator and the crawling speed of a mauve caterpillar. Since we are provided with the radius of Pluto in the question, we can calculate the distance via the formula 2ˇr. The crawling speed of a mauve caterpillar, however, is considerably more di cult to nd.
Problems with detailed solutions on displacement and distance of moving objects. Problem 1. An object moves from point A to point B to point C, then back to point B and then to point C along the line shown in the figure below. a) Find the distance covered by the moving object. b) Find the magnitude and direction of the displacement of the object.
Finding distance and displacement from graphs. A baby elephant trots in a straight line along a river. The horizontal position of the elephant in meters over time is shown below.
It refers to the numerical measurement of how far an object is from a particular place. Also, in physics, it may refer to the physical length or evaluation based on some criteria. Furthermore, a distance from X to Y is exchangeable with distance from Y to X.
distance covered in each interval and the total distance covered by two methods: 1) Calculation of the area under the line R( P); 2) Using the formula for the distance in the motion with constant acceleration.
