REPOST! A manufacturer is trying to find the best way to package the new Rubik's Ball. The best two options are to place the ball into a cylinder bow (option 1) or a rectangular box (option 2), similar to the images below. (Each Rubik's ball has a diameter of 4 inches). The manufacturer wants to waste as little of space as possible inside the packaging wastes the least amount of space. What is the volume of the Rubik's Ball? what is the volume of the cylinder box? what is the volume of the rectangular box? which box is a better fit and wastes less space for the Rubik's ball?

REPOST A manufacturer is trying to find the best way to package the new Rubiks Ball The best two options are to place the ball into a cylinder bow option 1 or a class=


Answer :

Answer:

Option 2

Step-by-step explanation:

Solving the Problem

Understanding it First

If the manufacturer wants to waste the least amount of space, then the  package with the least remaining volume after the Rubik's ball is placed is our answer.

To calculate the remaining volume we must calculate difference between each of the volumes of the packages and the Rubik's ball.

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Calculating the Rubik's Ball's Volume

The volume of sphere can be calculated using its volume formula

                                               [tex]V=\dfrac{4}{3}\pi r^3[/tex],

where r is the radius of the sphere.

We're given the diameter of the ball which is also twice the length of its radius. Thus, the radius is 4 / 2 or 2.

                                        [tex]V=\dfrac{4}{3}\pi (2)^3 = \dfrac{32}{3} \pi[/tex]

We leave the ball's volume in pi to have the most accurate value.

Calculating the Packages' Volumes: Option 1

Using a similar method as before, we use the volume formula for a cylinder.

                                              [tex]V=\pi r^2h[/tex],

where r is the radius of the base and h is the length between the two bases.

Plugging in the values that the image gives us, the package's volume is

                                     [tex]V=\pi (2)^2(4)=16\pi[/tex].

Calculating the Packages' Volumes: Option 2

Using the volume formula of a rectangular prism, and plugging in its dimensions,

                               [tex]V=(4)(4)(4)=4^3=64[/tex].

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Finding Our Answer

The remaining space or volume after the ball is placed in the cylinder packaging is

                              [tex]16\pi - \dfrac{32}{3}\pi = \dfrac{16}{3}\pi \approx 16.76 ~\rm in^3[/tex].

For the rectangular packaging it is

                                       [tex]64-\dfrac{32}{3}\pi \approx 30.49 \rm ~in^3[/tex].

The second option wastes less space, so the manufacturer should the rectangular packaging.