Applications of Integration
For an object in motion along a line with acceleration described by , how many times between t=0 and t=10 do velocity and acceleration have opposite signs?
Four times
Three times
Once
Twice
If the velocity function of a ball is , what is the acceleration of the ball at ?
24
22
28
14
Given that a particle's velocity function is defined as , at which value of t does the acceleration function take on its maximum value?
Suppose a particle travels with position . At what rate does position change with respect to time at ?
At the exact moment , there was absolutely no change in position being experienced.
Rate of change cannot be calculated due to lack of information on velocities available.
Rate at which position changes is
Change rates are represented by
If the velocity function of a car is , what is the acceleration of the car at ?
Which graph would represent an object at rest based on its position-time graph ?
A sloping line moving upwards
A wavy line oscillating above and below the t-axis
A parabolic curve opening upwards
A horizontal line
If the position function of a car is given by , what is the velocity of the car at ?
26
33
11
18

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If displacement from origin after a certain duration is represented through , then during which intervals is the object's instantaneous speed decreasing?
When T ∈ (-∞, 0] U [1, ∞)
When T < 0
When T > 1
When T ∈ (-∞, -1) U (0, ∞)
Consider a particle moving along a path. The velocity function of the particle is given by . What is the position function of the particle?
s(t) = 2t^2 - 3t + C
s(t) = t^2 - 3t + C
s(t) = t^3 - 3t + C
s(t) = 2t^3 - 3t + C
Considering an initially stationary particle whose acceleration function is given by , how should one determine its velocity at using proper calculus methods?
Find since velocity can be found by integrating acceleration with respect to time over a given period.
Calculate as if finding instantaneous rate of change in acceleration would give velocity.
Take the derivative of and then evaluate it at assuming constant acceleration up to that point.
Use motion equations from physics assuming linear motion without considering calculus principles.