Explanation:
No, the blueprint does not accurately represent the length of the diagonal of square C.
To find the length of the diagonal, we need to use the Pythagorean Theorem, which states that for a right triangle with legs of length a and b, and hypotenuse of length c, we have:
c² = a² + b²
Since square C is a square, its sides are equal in length, so we can label the length of one side as x. Then, using the distances between the vertices of the blueprint, we can find the length of the diagonal as follows:
diagonal² = (distance between x and 14)² + (distance between x and 3)²
diagonal² = (14 - x)² + (x - 3)²
diagonal² = 196 - 28x + x² + x² - 6x + 9
diagonal² = 2x² - 34x + 205
To find the value of x that maximizes the length of the diagonal, we can take the derivative of the above expression with respect to x, set it equal to zero, and solve for x:
d/dx(diagonal²) = 4x - 34 = 0
x = 8.5
Plugging this value of x back into the expression for diagonal², we get:
diagonal² = 2(8.5)² - 34(8.5) + 205
diagonal² = 72.25
So the length of the diagonal of square C is the square root of 72.25, which is 8.5√2, or approximately 12.02.
Comparing this to the distances between the vertices in the blueprint, we can see that the distance between (3,5) and (12,14) is approximately 12.73, which is greater than the actual length of the diagonal. Therefore, the blueprint does not accurately represent the length of the diagonal of square C.