Let's break down the relationship between the number of rectangles (x) and the perimeter of the figure they form (y).
Part 1: Table Representation
We need to fill out the table based on the provided information. The perimeter shown for each number of rectangles implies a pattern. Here’s how it can look:
| Number of Rectangles, x | Perimeter, y | Ordered Pair (x, y) | |-------------------------|---------------|---------------------------| | 1 | 8 | (1, 8) | | 2 | 10 | (2, 10) | | 3 | 12 | (3, 12) |
Part 2: Words Representation
Multiply the number of rectangles in each figure by 2 to get the total length of the left and right sides of the combined figure. Then add 4 for the total length of the top and bottom sides of the combined figure to get the entire perimeter.
Observations for the Relationship
- For every additional rectangle added, the perimeter increases by 2.
- The relationship between the number of rectangles (x) and the perimeter (y) can be expressed mathematically.
Part 3: Equation Representation
From the patterns seen in our table, we can formulate the equation:
\[ y = 2x + 6 \]
Where:
- \( y \) is the perimeter,
- \( x \) is the number of rectangles,
- The constant \( 6 \) comes from the initial perimeter when there is 1 rectangle (the base length).
Part 4: Graph Representation
To graph the relationship, create a Cartesian coordinate system where the x-axis represents the number of rectangles and the y-axis represents the perimeter.
- Plot the points from the ordered pairs: (1, 8), (2, 10), (3, 12)
- The points will create a linear relationship which can be connected with a straight line.
- Label the axes and draw the line to show the increasing perimeter with each additional rectangle.
Conclusion: This illustrates a linear relationship where the perimeter increases predictably with the number of rectangles added to the figure. The equation \( y = 2x + 6 \) encapsulates this relationship, and the graph visually depicts it.