All Intermediate Geometry Resources
Example Questions
Example Question #932 : Plane Geometry
A rectangle is attached to a regular hexagon as shown by the figure.
If the diagonal of the hexagon is , find the area of the entire figure.
When all of the diagonals of a regular hexagon are drawn in, you should notice that the hexagon is divided into six congruent equilateral triangles. The length of the diagonal is twice the length of a side of one of the equilateral triangles.
Thus, the diagonal of a hexagon is also twice the length of a side of the regular hexagon.
Substitute in the given diagonal to find the side length of the hexagon.
Now, recall how to find the area of a regular hexagon.
Substitute in the value of the side length to find the area of the hexagon.
Next, notice that the hexagon shares a side with the length of the rectangle.
Recall how to find the area of a rectangle.
Substitute in the length and the width of the rectangle to find the area.
.
In order to find the area of the entire figure, add the areas of the hexagon and rectangle together.
Solve and round to two decimal places.
Example Question #32 : How To Find The Area Of A Hexagon
A rectangle is attached to a regular hexagon as shown by the figure.
If the diagonal of the hexagon is , find the area of the entire figure.
When all of the diagonals of a regular hexagon are drawn in, you should notice that the hexagon is divided into six congruent equilateral triangles. The length of the diagonal is twice the length of a side of one of the equilateral triangles.
Thus, the diagonal of a hexagon is also twice the length of a side of the regular hexagon.
Substitute in the given diagonal to find the side length of the hexagon.
Now, recall how to find the area of a regular hexagon.
Substitute in the value of the side length to find the area of the hexagon.
Next, notice that the hexagon shares a side with the length of the rectangle.
Recall how to find the area of a rectangle.
Substitute in the length and the width of the rectangle to find the area.
.
In order to find the area of the entire figure, add the areas of the hexagon and rectangle together.
Solve and round to two decimal places.
Example Question #33 : How To Find The Area Of A Hexagon
A rectangle is attached to a regular hexagon as shown by the figure.
If the diagonal of the hexagon is , find the area of the entire figure.
When all of the diagonals of a regular hexagon are drawn in, you should notice that the hexagon is divided into six congruent equilateral triangles. The length of the diagonal is twice the length of a side of one of the equilateral triangles.
Thus, the diagonal of a hexagon is also twice the length of a side of the regular hexagon.
Substitute in the given diagonal to find the side length of the hexagon.
Now, recall how to find the area of a regular hexagon.
Substitute in the value of the side length to find the area of the hexagon.
Next, notice that the hexagon shares a side with the length of the rectangle.
Recall how to find the area of a rectangle.
Substitute in the length and the width of the rectangle to find the area.
.
In order to find the area of the entire figure, add the areas of the hexagon and rectangle together.
Solve and round to two decimal places.
Example Question #131 : Hexagons
A rectangle is attached to a regular hexagon as shown by the figure.
If the diagonal of the hexagon is , find the area of the entire figure.
When all of the diagonals of a regular hexagon are drawn in, you should notice that the hexagon is divided into six congruent equilateral triangles. The length of the diagonal is twice the length of a side of one of the equilateral triangles.
Thus, the diagonal of a hexagon is also twice the length of a side of the regular hexagon.
Substitute in the given diagonal to find the side length of the hexagon.
Now, recall how to find the area of a regular hexagon.
Substitute in the value of the side length to find the area of the hexagon.
Next, notice that the hexagon shares a side with the length of the rectangle.
Recall how to find the area of a rectangle.
Substitute in the length and the width of the rectangle to find the area.
.
In order to find the area of the entire figure, add the areas of the hexagon and rectangle together.
Solve and round to two decimal places.
Example Question #132 : Hexagons
A rectangle is attached to a regular hexagon as shown by the figure.
If the diagonal of the hexagon is , find the area of the entire figure.
When all of the diagonals of a regular hexagon are drawn in, you should notice that the hexagon is divided into six congruent equilateral triangles. The length of the diagonal is twice the length of a side of one of the equilateral triangles.
Thus, the diagonal of a hexagon is also twice the length of a side of the regular hexagon.
Substitute in the given diagonal to find the side length of the hexagon.
Now, recall how to find the area of a regular hexagon.
Substitute in the value of the side length to find the area of the hexagon.
Next, notice that the hexagon shares a side with the length of the rectangle.
Recall how to find the area of a rectangle.
Substitute in the length and the width of the rectangle to find the area.
.
In order to find the area of the entire figure, add the areas of the hexagon and rectangle together.
Solve and round to two decimal places.
Example Question #133 : Hexagons
A rectangle is attached to a regular hexagon as shown by the figure.
If the diagonal of the hexagon is , find the area of the entire figure.
When all of the diagonals of a regular hexagon are drawn in, you should notice that the hexagon is divided into six congruent equilateral triangles. The length of the diagonal is twice the length of a side of one of the equilateral triangles.
Thus, the diagonal of a hexagon is also twice the length of a side of the regular hexagon.
Substitute in the given diagonal to find the side length of the hexagon.
Now, recall how to find the area of a regular hexagon.
Substitute in the value of the side length to find the area of the hexagon.
Next, notice that the hexagon shares a side with the length of the rectangle.
Recall how to find the area of a rectangle.
Substitute in the length and the width of the rectangle to find the area.
.
In order to find the area of the entire figure, add the areas of the hexagon and rectangle together.
Solve and round to two decimal places.
Example Question #134 : Hexagons
A rectangle is attached to a regular hexagon as shown by the figure.
If the diagonal of the hexagon is , find the area of the entire figure.
When all of the diagonals of a regular hexagon are drawn in, you should notice that the hexagon is divided into six congruent equilateral triangles. The length of the diagonal is twice the length of a side of one of the equilateral triangles.
Thus, the diagonal of a hexagon is also twice the length of a side of the regular hexagon.
Substitute in the given diagonal to find the side length of the hexagon.
Now, recall how to find the area of a regular hexagon.
Substitute in the value of the side length to find the area of the hexagon.
Next, notice that the hexagon shares a side with the length of the rectangle.
Recall how to find the area of a rectangle.
Substitute in the length and the width of the rectangle to find the area.
.
In order to find the area of the entire figure, add the areas of the hexagon and rectangle together.
Solve and round to two decimal places.
Example Question #135 : Hexagons
A rectangle is attached to a regular hexagon as shown by the figure.
If the diagonal of the hexagon is , find the area of the entire figure.
When all of the diagonals of a regular hexagon are drawn in, you should notice that the hexagon is divided into six congruent equilateral triangles. The length of the diagonal is twice the length of a side of one of the equilateral triangles.
Thus, the diagonal of a hexagon is also twice the length of a side of the regular hexagon.
Substitute in the given diagonal to find the side length of the hexagon.
Now, recall how to find the area of a regular hexagon.
Substitute in the value of the side length to find the area of the hexagon.
Next, notice that the hexagon shares a side with the length of the rectangle.
Recall how to find the area of a rectangle.
Substitute in the length and the width of the rectangle to find the area.
.
In order to find the area of the entire figure, add the areas of the hexagon and rectangle together.
Solve and round to two decimal places.
Example Question #136 : Hexagons
A rectangle is attached to a regular hexagon as shown by the figure.
If the diagonal of the hexagon is , find the area of the entire figure.
When all of the diagonals of a regular hexagon are drawn in, you should notice that the hexagon is divided into six congruent equilateral triangles. The length of the diagonal is twice the length of a side of one of the equilateral triangles.
Thus, the diagonal of a hexagon is also twice the length of a side of the regular hexagon.
Substitute in the given diagonal to find the side length of the hexagon.
Now, recall how to find the area of a regular hexagon.
Substitute in the value of the side length to find the area of the hexagon.
Next, notice that the hexagon shares a side with the length of the rectangle.
Recall how to find the area of a rectangle.
Substitute in the length and the width of the rectangle to find the area.
.
In order to find the area of the entire figure, add the areas of the hexagon and rectangle together.
Solve and round to two decimal places.
Example Question #137 : Hexagons
A rectangle is attached to a regular hexagon as shown by the figure.
If the diagonal of the hexagon is , find the area of the entire figure.
When all of the diagonals of a regular hexagon are drawn in, you should notice that the hexagon is divided into six congruent equilateral triangles. The length of the diagonal is twice the length of a side of one of the equilateral triangles.
Thus, the diagonal of a hexagon is also twice the length of a side of the regular hexagon.
Substitute in the given diagonal to find the side length of the hexagon.
Now, recall how to find the area of a regular hexagon.
Substitute in the value of the side length to find the area of the hexagon.
Next, notice that the hexagon shares a side with the length of the rectangle.
Recall how to find the area of a rectangle.
Substitute in the length and the width of the rectangle to find the area.
.
In order to find the area of the entire figure, add the areas of the hexagon and rectangle together.
Solve and round to two decimal places.
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