Twa kɔ nsɛm atitiriw so
Log in
Sign up for FREE
arrow_back
Laabri

A Swing Moving Back and Forth - ES - PS - Forces and Interactions

star
star
star
star
star
Last updated 5 months ago
6 Nsɛmmisa
Hyɛ no nsow a efi ɔkyerɛwfo no hɔ:

Directions: Use the information provided and your knowledge of Physical Science to answer the following questions. Show all work where necessary.

Directions: Use the information provided and your knowledge of Physical Science to answer the following questions. Show all work where necessary.

0
Ɛhia
4
DOK 2
3-PS2-2
Ɛhia
6
DOK 3
3-PS2-2
Ɛhia
6
DOK 3
3-PS2-2
Ɛhia
4
DOK 2
3-PS2-2
Ɛhia
8
DOK 4
3-PS2-2
Ɛhia
6
DOK 3
3-PS2-2

A Swing Moving Back and Forth

Real-Life Phenomenon

A playground swing moves forward and backward in a repeating pattern. The swing slows slightly each time, but its motion sequence remains predictable: forward – back – forward – back.

A swing is a great example of a motion pattern that repeats. When someone pushes a swing, it moves forward, slows down, and then comes back the other way. This forward-and-back motion repeats many times. Even though the swing gradually slows down because of friction and air resistance, the overall pattern stays the same for several cycles.

This repeating motion makes the swing’s position predictable. If you know where the swing is at one moment, you can predict where it will be next. For example, if the swing is at its highest point in the forward direction, the next motion will always be backward. If the swing is at the lowest point in the middle, the next moment will always send it upward.

Scientists study patterns like these because repeating motion helps us predict how objects will move in the future. By measuring the swing’s position every second, we can observe how far it travels and how the pattern continues over time. Even as the swing slows down, the order of the pattern stays the same. Recognizing these patterns helps us understand and predict motion in many situations.

Diagram 1.

Diagram of a swing moving back and forth showing pivot point, pendulum bob, start and end of full swing cycle, and force of gravity.

Source: https://www.teachengineering.org/activities/view/cub_pend_lesson01_activity1

Table 1.

Time (s)

Swing Angle (°)

Distance from Center (cm)

0

40

52

1

0

0

2

-38

49

3

0

0

4

35

46

Graph of Information - Figure 1.

Graph of Information - Figure 2.

Asemmisa {{asɛmmisaAhyɛnsode}}
1.

Which description best matches the motion of a playground swing?

Asemmisa {{asɛmmisaAhyɛnsode}}
2.

Look at Table 1. At what times is the swing located at the center position?

Asemmisa {{asɛmmisaAhyɛnsode}}
3.

What pattern do you observe in the swing’s position as time increases from 0 to 4 seconds?

Asemmisa {{asɛmmisaAhyɛnsode}}
4.

If the swing is moving backward at one moment, what position will it move to next?

Asemmisa {{asɛmmisaAhyɛnsode}}
5.

What pattern can be observed in the swing’s motion, and how can this pattern be used to predict its future movement?

Claim:
Evidence:
Reasoning:

Asemmisa {{asɛmmisaAhyɛnsode}}
6.

Even though the swing slows down over time, why is its motion still predictable?