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Answer:
When the speed of the bottle is 2 m/s, the average maximum height of the beanbag is 0.10 m.
When the speed of the bottle is 3 m/s, the average maximum height of the beanbag is 0.43 m.
When the speed of the bottle is 4 m/s, the average maximum height of the beanbag is 0.87 m.
When the speed of the bottle is 5 m/s, the average maximum height of the beanbag is 1.25 m.
When the speed of the bottle is 6 m/s, the average maximum height of the beanbag is 1.86 m.
Sorry for not answering early on! If anyone in the future needs help, I got these answers from 2020 egenuity, though I can't post the picture for proof. Stay Safe!
The average maximum height of the beanbag when the speed of the bottle is 2 m/s would be equal to 0.2 meter.
Scientific data:
- Acceleration due to gravity (g) = 10 [tex]m/s^2[/tex].
How to calculate the average maximum height.
In order to determine the average maximum height of the beanbag, we would apply the third equation of motion:
[tex]V^2=U^2+2gH\\\\V^2=0^2+2gH\\\\H=\frac{V^2}{2g}[/tex]
Note: U is the initial speed and it should be equal to 0 m/s.
When V = 2 m/s:
[tex]H=\frac{2^2}{2 \times 10} \\\\H=\frac{4}{20}[/tex]
H = 0.2 meter.
When V = 3 m/s:
[tex]H=\frac{3^2}{2 \times 10} \\\\H=\frac{9}{20}[/tex]
H = 0.45 meter.
When V = 4 m/s:
[tex]H=\frac{4^2}{2 \times 10} \\\\H=\frac{16}{20}[/tex]
H = 0.8 meter.
When V = 5 m/s:
[tex]H=\frac{5^2}{2 \times 10} \\\\H=\frac{25}{20}[/tex]
H = 1.25 meter.
When V = 6 m/s:
[tex]H=\frac{6^2}{2 \times 10} \\\\H=\frac{36}{20}[/tex]
H = 1.8 meter.
Read more on speed here: brainly.com/question/10545161