The Ferris Wheel In 1893, George Ferris engineered the Ferris wheel. It was 250 feet in diameter. If a Ferris wheel makes 1 revolution every 40 seconds, then the function h ( t ) = 125 sin ( 0.157 t − π 2 ) + 125 represents the height h , in feet, of a seat on the wheel as a function of time t , where t is measured in seconds. The ride begins when t = 0 . a. During the first 40 seconds of the ride, at what time t is an individual on the Ferris wheel exactly 125 feet above the ground? b. During the first 80 seconds of the ride, at what time t is an individual on the Ferris wheel exactly 250 feet above the ground? c. During the first 40 seconds of the ride, over what interval of time t is an individual on the Ferris wheel more than 125 feet above the ground?
The Ferris Wheel In 1893, George Ferris engineered the Ferris wheel. It was 250 feet in diameter. If a Ferris wheel makes 1 revolution every 40 seconds, then the function h ( t ) = 125 sin ( 0.157 t − π 2 ) + 125 represents the height h , in feet, of a seat on the wheel as a function of time t , where t is measured in seconds. The ride begins when t = 0 . a. During the first 40 seconds of the ride, at what time t is an individual on the Ferris wheel exactly 125 feet above the ground? b. During the first 80 seconds of the ride, at what time t is an individual on the Ferris wheel exactly 250 feet above the ground? c. During the first 40 seconds of the ride, over what interval of time t is an individual on the Ferris wheel more than 125 feet above the ground?
The Ferris Wheel In 1893, George Ferris engineered the Ferris wheel. It was 250 feet in diameter. If a Ferris wheel makes 1 revolution every 40 seconds, then the function
represents the height
, in feet, of a seat on the wheel as a function of time
, where
is measured in seconds. The ride begins when
.
a. During the first 40 seconds of the ride, at what time
is an individual on the Ferris wheel exactly 125 feet above the ground?
b. During the first 80 seconds of the ride, at what time
is an individual on the Ferris wheel exactly 250 feet above the ground?
c. During the first 40 seconds of the ride, over what interval of time
is an individual on the Ferris wheel more than 125 feet above the ground?
3. In the space below, describe in what ways the
function f(x) = -2√x - 3 has been
transformed from the basic function √x. The
graph f(x) on the coordinate plane at right.
(4 points)
-4
-&-
-3
--
-2
4
3-
2
1-
1 0
1
2
-N
-1-
-2-
-3-
-4-
3
++
4
2. Suppose the graph below left is the function f(x). In the space below, describe what
transformations are occuring in the transformed function 3ƒ(-2x) + 1. The graph it on the
coordinate plane below right. (4 points)
1
1. Suppose we have the function f(x) = = and then we transform it by moving it four units to the
right and six units down, reflecting it horizontally, and stretching vertically by 5 units. What will
the formula of our new function g(x) be? (2 points)
g(x) =
Chapter 7 Solutions
Precalculus Enhanced with Graphing Utilities (7th Edition)
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Area Between The Curve Problem No 1 - Applications Of Definite Integration - Diploma Maths II; Author: Ekeeda;https://www.youtube.com/watch?v=q3ZU0GnGaxA;License: Standard YouTube License, CC-BY