Examples of using Squared plus in English and their translations into Hebrew
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Colloquial
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Ecclesiastic
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So this simplifies to 9t squared plus.
B squared plus 2 times the base is equal to 168.
So we're left with x squared plus b/a x.
A squared plus B squared equals C squared. .
When x is equal to 1, x squared plus x plus 5, right.
So the Laplace transform of e to the t cosine of t became sminus 1 over s minus 1 squared plus 1.
So we know that x squared plus y squared is equal to what?
Josiah or Hosiah, I don't know how to pronounce that, concluded that for all positive values of x,x squared plus x plus 5 produces a prime number.
Such that both m divides n squared plus one and that n divides m squared plus one?".
So we're going to write it as 1 minus e to the minus 2 pi s, all of that times-- I will do it in orange--all of that times 1 over s squared plus 1 times s squared plus 4.
So this tells us that a squared plus 441 is going to be equal to 35 squared, which is 1225.
B was the coefficient on the-- or it was a term on top of the s squared plus 1, so that's why I'm using B there.
If X squared plus Y squared equals 16, how do we find D YID X as an implicit function of X and Y?
Now we can divide both sides of this equation by s squared plus 1, and we get the Laplace Transform of Y.
It's 1 over s squared plus 1 and then plus-- or minus actually, this is a minus-- minus the Laplace transfer of this thing, which was e to the minus 2 pi s over s squared plus 1.
So it would be times 5,and this whole thing x squared plus 5x plus 3, all that to the fourth power.
I can add 1 to both sides, and then I can get y is equal to 1 plus orminus the square root of x to the third plus 2x squared plus 2x plus 4.
It will look like with a denominator of s squared plus 1 and you have a numerator of 1 minus e to the minus 2 pi s.
So times s squared plus 1-- it's in the denominator so I'm dividing by it-- plus 2s plus 1-- I have to divide both of those terms by the s squared plus 1-- divided by s squared plus 1, divided by s squared plus 1.
So I get mu of x times 3xy plus y squared plus mu of x times x squared plus xy times y prime.
If we want to put all of the variable terms on left hand side,we could say that this is equal to x squared plus y squared minus cx to the third is equal to 0.
So if you multiply the 1 out,you get 1/3 times 1 over s squared plus 1-- I'm just multiplying the 1 out-- minus 1/6-- these are all the 1's times the 1-- times 2 over s squared plus 4.
I think you're going to see in a second why I'm writing this way--minus 1/3 times 2 over s squared plus 4, and then plus 2/3 times 1 over s squared plus 1.
This thing-- let me rewrite it--1 over s squared plus 1 times s squared plus 4 should be able to be rewritten as two separate fractions, s squared plus 1 and s squared plus 4.
We can add 2s plus 1 to both sides, to essentially move this to the right-hand side,and we're left with s squared plus 1, times Y of s, is equal to 2 over s squared plus 4, plus 2s, plus 1.
I probably didn't have to do it like this. a squared plus bup, bup, bup, bup, plus a to the N minus 1, plus a to the N minus 2.
So we multiply both sides times x squared, you get x squared plus y squared is equal to cx to the third.
Well, that means a to the 0, right, k is 0,plus a 1 plus a squared plus a to the third plus-- and you could keep going-- plus a to the N minus 1 plus a to the N minus 2.
So if we think about the Pythagorean theorem-- that A squared plus B squared is equal to C squared-- 12 you could view as C.
Laplace transform of cosine of t,we know that this is equal to s over s squared plus 1, which this kind of looks like if this was an s and this was an s squared plus 1.