is I meter above the ground. The six o'clock position on the Ferris wheel is level with the loading platform. The wheel completes 1 full revolution in 12 minutes. The function h (t) gives a person's height in meters above the ground t minutes after the wheel begins to turn. a. Find the amplitude, midline, and period of h (t). Enter the exact answers. Amplitude: A = Number Midline: h= Number Period: P = Number meters meters minutes b. Assume that a person has just boarded the Ferris wheel from the platform and that the Ferris wheel starts spinning at time t = 0. Find a formula for the height function h (t).

Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
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**Problem Description:**

A Ferris wheel is 29 meters in diameter and boarded from a platform that is 1 meter above the ground. The six o’clock position on the Ferris wheel is level with the loading platform. The wheel completes 1 full revolution in 12 minutes. The function \( h(t) \) gives a person’s height in meters above the ground \( t \) minutes after the wheel begins to turn.

**Tasks:**

a. Find the amplitude, midline, and period of \( h(t) \).

- **Amplitude: \( A = \) [Number] meters**

- **Midline: \( h = \) [Number] meters**

- **Period: \( P = \) [Number] minutes**

Enter the exact answers.

b. Assume that a person has just boarded the Ferris wheel from the platform and that the Ferris wheel starts spinning at time \( t = 0 \). Find a formula for the height function \( h(t) \).

---

**Explanation for Graphs/Diagrams (if present):**

The problem deals with calculating characteristics of a sinusoidal function representing the motion of a Ferris wheel. There are no explicit graphs or diagrams in the text, but understanding these characteristics will help illustrate the vertical motion of a rider on the Ferris wheel over time. The amplitude represents the vertical distance from the midline to the peak, the midline is the average height above the ground, and the period is the time it takes to complete one full revolution.
Transcribed Image Text:**Problem Description:** A Ferris wheel is 29 meters in diameter and boarded from a platform that is 1 meter above the ground. The six o’clock position on the Ferris wheel is level with the loading platform. The wheel completes 1 full revolution in 12 minutes. The function \( h(t) \) gives a person’s height in meters above the ground \( t \) minutes after the wheel begins to turn. **Tasks:** a. Find the amplitude, midline, and period of \( h(t) \). - **Amplitude: \( A = \) [Number] meters** - **Midline: \( h = \) [Number] meters** - **Period: \( P = \) [Number] minutes** Enter the exact answers. b. Assume that a person has just boarded the Ferris wheel from the platform and that the Ferris wheel starts spinning at time \( t = 0 \). Find a formula for the height function \( h(t) \). --- **Explanation for Graphs/Diagrams (if present):** The problem deals with calculating characteristics of a sinusoidal function representing the motion of a Ferris wheel. There are no explicit graphs or diagrams in the text, but understanding these characteristics will help illustrate the vertical motion of a rider on the Ferris wheel over time. The amplitude represents the vertical distance from the midline to the peak, the midline is the average height above the ground, and the period is the time it takes to complete one full revolution.
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