Suppose the initial conditions in Example 5a are v 0 = 14.7 in/s and s 0 = 49 m. Write the position function s ( t ), and state its domain. At what time will the stone reach its maximum height? What is the maximum height at that time? Example 5 Motion In A Gravitational Field A stone is launched vertically upward with a velocity of v 0 m/s from a point s 0 meters above the ground, where v 0 > 0 and s 0 ≥ 0. Assume the stone is launched at time t = 0 and that s ( t ) is the position of the store at time t ≥ 0; the positive s -axis points upward with the origin at the ground. By Newton’s Second Law of Motion, assuming no air resistance, the position of the stone is governed by the differential equation s ″( t ) = − g , where g = 9.8 m/s 2 is the acceleration due to gravity (in the downward direction) a. Find the position s ( t ) of the stone for all times at which the stone is above the ground.
Suppose the initial conditions in Example 5a are v 0 = 14.7 in/s and s 0 = 49 m. Write the position function s ( t ), and state its domain. At what time will the stone reach its maximum height? What is the maximum height at that time? Example 5 Motion In A Gravitational Field A stone is launched vertically upward with a velocity of v 0 m/s from a point s 0 meters above the ground, where v 0 > 0 and s 0 ≥ 0. Assume the stone is launched at time t = 0 and that s ( t ) is the position of the store at time t ≥ 0; the positive s -axis points upward with the origin at the ground. By Newton’s Second Law of Motion, assuming no air resistance, the position of the stone is governed by the differential equation s ″( t ) = − g , where g = 9.8 m/s 2 is the acceleration due to gravity (in the downward direction) a. Find the position s ( t ) of the stone for all times at which the stone is above the ground.
Solution Summary: The author calculates the position function, domain, time and height of the stone when reached at the highest point of trajectory.
Suppose the initial conditions in Example 5a are v0 = 14.7 in/s and s0 = 49 m. Write the position function s(t), and state its domain. At what time will the stone reach its maximum height? What is the maximum height at that time?
Example 5 Motion In A Gravitational Field
A stone is launched vertically upward with a velocity of v0 m/s from a point s0 meters above the ground, where v0 > 0 and s0 ≥ 0. Assume the stone is launched at time t = 0 and that s(t) is the position of the store at time t ≥ 0; the positive s-axis points upward with the origin at the ground. By Newton’s Second Law of Motion, assuming no air resistance, the position of the stone is governed by the differential equation s″(t) = −g, where g = 9.8 m/s2 is the acceleration due to gravity (in the downward direction)
a. Find the position s(t) of the stone for all times at which the stone is above the ground.
With integration, one of the major concepts of calculus. Differentiation is the derivative or rate of change of a function with respect to the independent variable.
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