You can treat i as any constant like C. So the derivative of i would be 0. However, when dealing with complex numbers, we must be careful with what we can say about functions, derivatives and integrals. Take a function f(z), where z is a complex number (that is, f has a complex domain). Then the derivative of f is defined in a similar manner to the real case: f^prime(z) = lim_(h to 0) (f(z+h
norm () - It is used to find the norm (absolute value) of the complex number. If z = x + iy is a complex number with real part x and imaginary part y, the complex conjugate of z is defined as z' (z bar) = x - iy, and the absolute value, also called the norm, of z is defined as : CPP. #include . #include .
So this is the conjugate of z. So just to visualize it, a conjugate of a complex number is really the mirror image of that complex number reflected over the x-axis. You can imagine if this was a pool of water, we're seeing its reflection over here. And so we can actually look at this to visually add the complex number and its conjugate.
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