At time t = 0 a skier leaves the end of a ski jump with a speed of υ 0 ft / s at an angle α with the horizontal (see the accompanying figure). The skier lands 259 ft down the incline 2.9 s later. (a) Approximate υ 0 to the nearest f t / s and α to the nearest degree. [ N ote: Use g = 32 ft / s 2 as the acceleration due to gravity.] (b) Use a CAS or a calculating utility with a numerical integration capability to approximate the distance traveled by the skier.
At time t = 0 a skier leaves the end of a ski jump with a speed of υ 0 ft / s at an angle α with the horizontal (see the accompanying figure). The skier lands 259 ft down the incline 2.9 s later. (a) Approximate υ 0 to the nearest f t / s and α to the nearest degree. [ N ote: Use g = 32 ft / s 2 as the acceleration due to gravity.] (b) Use a CAS or a calculating utility with a numerical integration capability to approximate the distance traveled by the skier.
At time
t
=
0
a skier leaves the end of a ski jump with a speed of
υ
0
ft
/
s
at an angle
α
with the horizontal (see the accompanying figure). The skier lands 259 ft down the incline 2.9 s later.
(a) Approximate
υ
0
to the nearest
f
t
/
s
and
α
to the nearest degree. [Note:
Use
g
=
32
ft
/
s
2
as the acceleration due to gravity.]
(b) Use a CAS or a calculating utility with a numerical integration capability to approximate the distance traveled by the skier.
With differentiation, one of the major concepts of calculus. Integration involves the calculation of an integral, which is useful to find many quantities such as areas, volumes, and displacement.
An angler hooks a trout and reels in his line at 3 in./s. Assume the tip of the
fishing rod is 13 ft above the water and directly above the angler, and the fish is
pulled horizontally directly toward the angler (see figure). Find the horizontal
speed of the fish when it is 15 ft from the angler.
13 ft
Decreasing
at 3 in./s
Let x be the horizontal distance from the angler to the fish and z be the length of the fishing line, where both x and z
are measured in inches. Write an equation relating x and z.
How much force must be applied to a 1.8kg ice hockey puck to give it an acceleration of 10 m s-2
Given position s (in ft.) as a function of timet (in sec.): s=ť – 6t + 1, find the acceleration
when the velocity is 6 ft/sec.
5.
31°
3.
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