Analyzing the Motion of a Projectile A projectile is fired at an inclination of 45 ∘ to the horizontal, with a muzzle velocity of 100 feet per second. The height h of the projectile is modeled by h ( x ) = − 32 x 2 100 2 + x Where x is the horizontal distance of the projectile from the firing point. At what horizontal distance from the firing point is the height of the projectile Find the maximum height of the projectile. At what horizontal distance from the firing point will the projectile strike the ground? Graph the function h 0 ≤ x ≤ 350 . Use a graphing utility to verify the results obtained in parts ( b ) and ( c ) . When the height of the projectile is 50 feet above the ground, how far has it travelled horizontally?
Analyzing the Motion of a Projectile A projectile is fired at an inclination of 45 ∘ to the horizontal, with a muzzle velocity of 100 feet per second. The height h of the projectile is modeled by h ( x ) = − 32 x 2 100 2 + x Where x is the horizontal distance of the projectile from the firing point. At what horizontal distance from the firing point is the height of the projectile Find the maximum height of the projectile. At what horizontal distance from the firing point will the projectile strike the ground? Graph the function h 0 ≤ x ≤ 350 . Use a graphing utility to verify the results obtained in parts ( b ) and ( c ) . When the height of the projectile is 50 feet above the ground, how far has it travelled horizontally?
Analyzing the Motion of a Projectile A projectile is fired at an inclination of
45
∘
to the horizontal, with a muzzle velocity of
100
feet per second. The height
h
of the projectile is modeled by
h
(
x
)
=
−
32
x
2
100
2
+
x
Where
x
is the horizontal distance of the projectile from the firing point.
At what horizontal distance from the firing point is the height of the projectile
Find the maximum height of the projectile.
At what horizontal distance from the firing point will the projectile strike the ground?
Graph the function
h
0
≤
x
≤
350
.
Use a graphing utility to verify the results obtained in parts
(
b
)
and
(
c
)
.
When the height of the projectile is
50
feet above the ground, how far has it travelled horizontally?
4
In the integral dxf1dy (7)², make the change of variables x = ½(r− s), y = ½(r + s), and
evaluate the integral. Hint: Find the limits on r and s by sketching the area of integration in the (x, y) plane along
with the r and s axes, and then show that the same area can be covered by s from 0 to r and r from 0 to 1.
7. What are all values of 0, for 0≤0<2л, where 2 sin² 0=-sin?
-
5π
6
π
(A) 0, л,
and
6
7π
(B) 0,л,
11π
, and
6
6
π 3π π
(C)
5π
2 2 3
, and
π 3π 2π
(D)
2' 2'3
, and
3
4元
3
1
די
}
I
-2m
3
1
-3
บ
1
#
1
I
3#
3m
8. The graph of g is shown above. Which of the following is an expression for g(x)?
(A) 1+ tan(x)
(B) 1-tan (x)
(C) 1-tan (2x)
(D) 1-tan
+
X
-
9. The function j is given by j(x)=2(sin x)(cos x)-cos x. Solve j(x) = 0 for values of x in the interval
Quiz A: Topic 3.10
Trigonometric Equations and Inequalities
Created by Bryan Passwater
Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, calculus and related others by exploring similar questions and additional content below.
Fundamental Theorem of Calculus 1 | Geometric Idea + Chain Rule Example; Author: Dr. Trefor Bazett;https://www.youtube.com/watch?v=hAfpl8jLFOs;License: Standard YouTube License, CC-BY