To solve the problem, let's represent the total number of buttons that Mrs. Bowlin has with the variable \( B \).
If Mrs. Bowlin separates the buttons evenly into 8 containers, we can set up the equation as follows:
\[ \text{Number of buttons in each container} = \frac{B}{8} \]
To express this algebraically, we can also let \( x \) represent the number of buttons in each container:
\[ x = \frac{B}{8} \]
To find out how many buttons are in each container, we need specific information about \( B \). However, since \( B \) is not given in the problem, we cannot calculate the exact number of buttons per container.
Instead, let's assume a hypothetical total number of buttons. For example, if Mrs. Bowlin has 64 buttons:
\[ B = 64 \]
Then, plugging this value in, we calculate \( x \):
\[ x = \frac{64}{8} = 8 \]
So if Mrs. Bowlin has 64 buttons, there will be 8 buttons in each container.
Summary of Steps:
- Let \( B \) represent the total number of buttons.
- Set up the equation: \( x = \frac{B}{8} \).
- Substitute a specific value for \( B \) (e.g., 64).
- Calculate the result: \( x = 8 \).
If you have a different total number of buttons, simply plug in that value for \( B \) to find out how many buttons are in each container.