In a weird and strange way, yes you can say that just like how you can say that 0=2pi=4pi=6pi=...because sin(0)=sin(2pi)=(sin4pi)=... How can we say that 0=2pi=4pi=6pi=..., we can say that because when we go around a circle centered at zero, zero radians is that same as 2pi radians. If I start at zero and I move 2pi radians, I end up at the same point so I can refer to it as either zero radians or 2pi radians.
Stricly spekaing, 2ipi isnot zero because the complex numbers are in integral domain. There are no zero divisors meaning if I have a bunch of complex numbers multiplying out to zero, at least one of them has to be zero. 2 is nonzero, i is non zero, pi is nonzero, their product cannot be zero.
Contrast this example with the set of 2x2 matrices. You can easily have two nonzero matrices multiplying out to the zero matrix.
[{3,5},{3,5}]*[{5,-10},{-3,6}]
=[{0,0},{0,0}]
The reason you argument fails, is that you are taking the natural log of both sides, right? You cannot do that because for precisely this reason, the exponential is not a one-to-one function in the complex plane. It is one-to-one for the real numbers but in the complex plane, it is not. It is periodic. Therefore, no such inverse exists. If you want to define the inverse, then you have to restrict the domain and range to make the exponential one-to-one and onto.
The same thing happens in the real numbers with the sine function for example. y=sin(x) is a function but x=sin(y) is not a funtion in f. if we want the arcsin, then we have to restrict the domain to -pi to pi for example which fixes the range from 1 to -1.
In other words, when using don't complex numbers, don't take their log.
BTW, zero is a complex number also, written as 0=0+0i.