No. The hypotenuse is the side of a right triangle that is not adjacent to the right angle. The Pythagorean theorem says that a2+b2=h2 where h is the length of the hypotenuse and a and b are the lengths of the other sides.
Let's say the hypotnuse is 3, then
a2+b2=9
a and b could be the 1 and the square root of 8
or the square root of 2 and the square root of 7
or the square root of 3 and the square root of 6.
In fact, there are an infinite number of combinations of lengths that a and b could be.
To find the square of the hypotenuse, c, you must know the values of the other two sides (a and b). Square each of the two sides and add them together. This will be the value of the hypotenuse squared. (a2 + b2) = c2 To find the value of the hypotenuse, determine the square root of both sides of the equation. √(a2 + b2) = √c2 = c
If only one of the side lengths is 17, both of the other two sides are the same length. Using Pythagoras's Theorem, a2=b2+c2 This means that 289=2a2 because 17 is the hypotenuse and both of the remaining sides are equal. Therefore the other two sides equal 12.02. If both the sides of the triangle are 17 units long, the hypotenuse equals Sqrt(172+172)=24.04
the only way for a right triangle to have a line of symmetry, is if the legs of the triangle are congruent. Or you can show that both non-right angles are congruent (45 degrees). you may also prove that the altitude of the triangle bisects the hypotenuse or that it equals 1/2 of the hypotenuse.
Rectangle has 4 sides, and triangle has 3 sides. So they are similar, they both have sides - one has more than the other :)
Both legs are equal in length
Yes with a bit of give and take its sides can eventually be worked out.
The hypotenuse is [ 9 sqrt(2) ] = 12.728(rounded)
1/2*base*height = area Multipiy both sides by 2 and then divide both sides by the given value which then will give the value of the other side. Use Pythagoras' theorem to find the hypotenuse:- a2+b2 = c2
Depending on the information given;- If two other(shorter) sides are known, use Pythagoras. h^(2) = a^(2) + b^(2) If one angle and one side are given then you use Trigonometry . Sin(angle) = opposite/ hypotenuse hypotenuse = opposite/Sin(angle) or Cos(angle) = adjacent/hypotenuse hypotenuse = adjacent/ Cos(Angle).
The other sides are both 16. This is because in a 45-45-90 triangle the legs are congruent because of the isosceles triangle theorem, and also the hypotenuse of the triangle is equal to the leg times root 2. That is because of the 45-45-90 triangle theorem. So in a summary the legs are congruent and the hypotenuse is equal to the leg times root 2.
To the SQUARE of the hypothenuse. That's Pythagoras' Theorem.
The hypotenuse is the longest side of the right triangle. To calculate the hypotenuse of a right triangle, you would square the sides, add them up, and find the square root of the sum. When you find the square root of the sum, that will be the hypotenuse of your right triangle. For instance, let's say you are given a triangle. We'll call it Triangle ABC. In the triangle, you have three sides, Side A, Side B, and Side C. Sides A and B will represent the two known legs, also the shortest legs. Side C will represent the hypotenuse, the side we're trying to find. We know that Side A is 5km and that Side B is 12km. Now we just have to calculate the hypotenuse of the right triangle. To do that you would square both sides and add them, first. Like this: (5 x 5) + (12 x 12) which is the same as saying 25 + 144. Now you find the sum, which is 169. Now, there is one last step, finding the square root of the sum. Our square root would be 13, because we know that 13 x 13=169. So now you have found the missing side, the hypotenuse of the right triangle (Side C) which is 13km. And that's how you find the hypotenuse of a right triangle. Hope I could help!
16 sqrt(2) = 22.6274 (rounded)
To find the square of the hypotenuse, c, you must know the values of the other two sides (a and b). Square each of the two sides and add them together. This will be the value of the hypotenuse squared. (a2 + b2) = c2 To find the value of the hypotenuse, determine the square root of both sides of the equation. √(a2 + b2) = √c2 = c
Using Pythagoras it works out as 24*square root of 2 which is about 34 feet
The hypotenuse of a right triangle is found using the Pythagorean theorem: c^2 = a^2 + b^2. Plugging in the given values, we have c^2 = 33^2 + 41^2. Simplifying, c^2 = 1089 + 1681 = 2770. Taking the square root of both sides, we find that the hypotenuse (c) is approximately 52.59 feet.
I spent some time attempting to work this out by algebra and came to the conclusion that there is no (real) solution to this. This triangle does not exist. Rather than my writing a page on it which culminates in a quadratic equation without real roots, I will just point out that the two statements in this question can not both be true! If the hypotenuse (which is the longest side) is 12cm then the perimeter can not be 50cm! There is an error in either the hypotenuse given or the perimeter given. I wish I had spotted this a little sooner. ~ A simple reason why this cannot be a plausible length for the hypotenuse: The hypotenuse's length should be the greatest length in the triangle. If we subtract 12 from 50, we get 38. If the two sides were equal, then one leg's length is 19. 19 is greater than 12.