Examples of using Complex number in English and their translations into Turkish
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So this will be the new complex number.
You input some complex number and it will output the imaginary part.
And so if I multiply a complex number.
So when I divided one complex number by another, I got another complex number.
So how would we write this complex number?
So far we have learned what a complex number is; we have even learned how to graph it.
So there are two ways to write a complex number.
But now that we have defined what a complex number is, let's see how we can operate with it.
And you could, if you want, even graph a complex number.
The IMABS(complex number) returns the norm of a complex number of form x+yi.
The IMSQRT(string) returns the square root of a complex number.
Let's say, in theory, I multiply a complex number c plus di times c minus di.
And in particular, when I divide this, I want to get another complex number.
The IMPOWER(string) returns a complex number raised to a power.
The IMLN(string) returns the natural logarithm of a complex number.
The IMARGUMENT(complex number) returns the argument of a complex number of form x+yi.
The COMPLEX(real; imag) returns a complex number of form x+yi.
The IMCONJUGATE(complex number) returns the conjugate of a complex number of form x+yi.
A matrix of this form is the matrix representation of a complex number.
In this customary notation the complex number z corresponds to the point(x, y) in the Cartesian plane.
And that still might not look like a complex number to you.
In such cases the conductivity must be expressed as a complex number(or even as a matrix of complex numbers, in the case of anisotropic materials) called the admittivity.
And what you're going tofind in this video is finding the conjugate of a complex number is shockingly easy.
And this right here is called the magnitude or sometimes the modulus orthe absolute value of the complex number.
So you say zero squared plus that number, that complex number, is equal to that.
And so a number that has a real part, like the five, and an imaginary part, like the twoi,this is called a complex number.
Now you're probably saying ok,fairly straightforward to find a conjugate of a complex number, but what is it good for?
Then you put that in here,and then you do that number squared plus that complex number, and you do it again.
This problem arises because the point z 0 has just one square root,while every other complex number z≠ 0 has exactly two square roots.
While analogous to ordinary orthogonality, particularly as it is known with ordinary complex number arithmetic, this condition is more subtle.