Примери коришћења Has length на Енглеском и њихови преводи на Српски
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Adjacent has length 4.
It has length, width, and height;
So maybe this has length 3.
And this base has length B, and this side over here has length H.
This side over here has length 9.
If the rectangle has length h and breadth k then a(R)= hk.
This means the hypotenuse AN has length 10.
A cube with side x has length x, width x, and height x.
In this case, relative to angle theta,the opposite side has length 7.
Maybe this has length 3, this has length 3, and this has length 2.
The next square has length 3.
That if the hypotenuse has length x.(so that's, remember the hypotenuse is opposite the 90 degree side.).
So once you have identified the hypotenuse-- and let's say that that has length C.
Every rectangle R is in M. If the rectangle has length h and breadth k then a(R)= hk.
And it looks like, if you just eyeball it at this point, it looks like it's at about negative 7. And if you have 2 minus negative 7 you get 9,and this indeed has length 9.
Let's say this side over here has length 12, and let's say that this side over here has length 6.
And we see here two sides are seven, but one side has length 4.
We live in a three-dimensional world where everything has length, width, and height. But what if our world were two-dimensional?
If(x, y) is a point on the unit circle in the first quadrant, then x andy are the lengths of the legs of a right triangle whose hypotenuse has length 1.
So for example, if this side has length 2 and this side has length 1, then the ratio of this side to this side is 2 to 1.
Hence T is exactly the length of the longest possible proper initial segment of W which is also a segment of the substring ending at W. We use the convention that the empty string has length 0.
So in this case cosine of theta is equal to the adjacent side, which has length 4, over the hypotenous which has the length square root of 65.
Let's say the hypotenuse has length four, let's say that this side over here has length two, and let's say that this length over here is going to be two times the square root of three.
The NP-hardness of the unweighted longest path problem can be shown using a reduction from the Hamiltonian path problem: a graph G has a Hamiltonian path if andonly if its longest path has length n- 1, where n is the number of vertices in G. Because the Hamiltonian path problem is NP-complete, this reduction shows that the decision version of the longest path problem is also NP-complete.
If the hypotenuse has length x,what we're going to prove is that the shorter side which is opposite the 30 degree side has length x/2, and that the 60 degree side… the 60 degree side, or the side that's opposite the 60 degree angle I should say is going to be the(the square root of 3 x the shorter side.) so the square root of 3 times(x/2) that's going to be its length. .
So for example,if I have a triangle like this, where this side has length 3, this side has length 4, and this side has length 5, then this is going to be a scalene triangle.
So for example, if this side has length 2 and this side has length 1, you have a 2 to 1 ratio between the second longest side and the shortest side.
So, in the first triangle right over here,we are given that this side has length three; this side has length six and this little dotted line here, this is clearly the angle bisector because they are telling us this angle is congruent to that angle right over there and than they tell us the length of just this part of this side right over here is 2.
The length of one is two,so all of the sides have length two.
For sets describing surfaces(2-dimensional sets having length and width);