ds/de = v(t). Now time to implement some calculus! Let s(t) be the position of your...
Let s(t) represent the position, v(t) represent the velocity, and a(t) represent the acceleration of a particle moving along a horizontal line. For each of the problems below: a. Find the net distance traveled in the interval given. Justify your answer analytically b. Find the total distance traveled in the interval given. Justify your answer analytically. v(t) = t^2 – 5t + 6 where 0 ≤ t ≤ 3.
Consider an object moving along a line with the following
velocity and initial position. Assume time t is measured in seconds
and velocities have units of m/s. Complete parts (a) through (d)
below.
Consider an object moving along a line with the following velocity and initial position. Assume time t is measured in seconds and velocities have units of m/s. Complete parts (a) through (d) below. v(t) = -1-2cos for Osts (0) = 0 (**). a. Over the given interval,...
S The function s = 12 - 91? + 27t, Osts 4, gives the position of a body moving on a coordinate line, with sin meters and t in seconds. a. Find the body's displacement and average velocity for the given time interval b. Find the body's speed and acceleration at the endpoints of the interval. c. When, if ever, during the interval does the body change direction? 3.4.7 At time t, the position of a body moving along the...
Consider an object moving along a line with the following velocity and initial position. v(t) = 9 -12 on [0, 4); $(0) = -1 Determine the position function for t20 using both the antiderivative method and the Fundamental Theorem of Calculus. Check for agreement between the two methods. To determine the position function for t20 using the antiderivative method, first determine how the velocity function and the position function are related. Choose the correct answer below. O A. The position...
The velocity of truck (in miles per hour) is given by v(t) = 4(t)^3/2 + 4/t - 3, where t is in hours. a. Write a definite integral for the distance the car travels between t = 1 and t = 3. b. Sketch a graph of velocity against time and present the distance traveled during t = 1 and t = 3 hours as an area on your graph. c. Use Fundamental Theorem of Calculus to find this distance.
The position of a car as a function of time is given by x=(45m)+(−5.5m/s)t+(−8m/s^2)t^2. a. What is the initial position of the car? b. What is the initial velocity of the car? c. What is the acceleration of the car? d. What distance does the car travel during the first 1.0 s? e. What is the average velocity of the car between t=1.0s and t=2.0s?
20. Suppose an object moves so that its velocity at time t is described by the function v(t) = t2 – 8t + 7. Express the total distance traveled by the particle from time t=0 to 1= 4 using an integral or combination of integrals. Then evaluate the integral(s) to determine the solution. You are allowed to use the integration capabilities of a graphing calculator to evaluate the integral(s).
Consider a car whose position, s, is given by the table t(s) 0 0.2 0.4 0.6 0.8 1 s (ft) 0 0.4 1.3 3.8 6.5 9.6 Find the average velocity over the interval 0 <t<0.2. average velocity = — help (units) Estimate the velocity at t = 0.2. velocity = — help (units) Use the figure below to estimate the indicated derivatives, or state that they do not exist. If a derivative does not exist, enter dne in the answer...
4. Two toy remote-controlled cars start from the same position, O, at time t-0. One car, C ,travels north at 4 m/s, while the other, C2, travels west at 2 m/s. (a) After two seconds, compute the rate of change of the distance between Ci and Cz. Draw a diagram to help you answer this question and the next and clearly state the units. Simplify your answer as much as possible. (7 pts.) (b) After two seconds find the rate...
Table t in seconds 0 10 15 25 30 40 45 20 35 v(t) in feet per second 274.27 179.23 141.4 108.83 80.80 56.68 35.91 18.04 2.65 223.19 Table II t in seconds 4. 5 14 15 24 25 34 35 44 45 232.8 v(t) in feet per second 223.19 148.52 39.82 35.91 5.55 141.4 86.08 80.80 2.65 Part ll: Analysis of Data Applying Integrals Calculating total change (distance traveled) of the aircraft. Using the data in Table I, use...