Respuesta :
First we need to find the heigh of the soda can be rearanging the volume formula, [tex]V = pi * r^2* h[/tex]. We can make that [tex]h = \frac{V}{pi * r^2} [/tex] We know that V is 36 and radius is half of the diameter, so radius is 2. [tex]h = \frac{36}{pi * 2^2} [/tex]
[tex]h = \frac{36}{pi * 4} [/tex]
h = 2.87
Now, we can use the height to figure out the volume of a cone. The volume of a cone is [tex]V = pi * r^2 * \frac{h}{3} [/tex]
R is 2 again and h is 2.87
[tex]V = pi * 2^2 * \frac{2.87}{3} [/tex]
[tex]pi * 4 * .96[/tex]
12.56*.96 = 12.0576
So a cone with a volume of 12.0576 is the largest that will fit into the soda can
[tex]h = \frac{36}{pi * 4} [/tex]
h = 2.87
Now, we can use the height to figure out the volume of a cone. The volume of a cone is [tex]V = pi * r^2 * \frac{h}{3} [/tex]
R is 2 again and h is 2.87
[tex]V = pi * 2^2 * \frac{2.87}{3} [/tex]
[tex]pi * 4 * .96[/tex]
12.56*.96 = 12.0576
So a cone with a volume of 12.0576 is the largest that will fit into the soda can
For this case what we should do is model the soda can as a cylinder.
We have then:
[tex] V = \pi * r ^ 2 * h
[/tex]
Where,
r: can radius
h: height of the can
From here, we clear the value of the height:
[tex] h = \frac{V}{\pi * r ^ 2}
[/tex]
Substituting values we have:
[tex] h = \frac{36}{\pi * 2 ^ 2}
h = 2.87
[/tex]
We are now looking for the volume of the cone.
We have then:
[tex] V = (\frac{1}{3}) * (\pi) * (r ^ 2) * (h)
[/tex]
Substituting values we have:
[tex] V = (1/3) * (\pi) * (2 ^ 2) * (2.87)
V = 12.02
[/tex]
Answer:
the volume of a cone that fits perfectly inside the soda can is:
[tex] V = 12.02 [/tex]