Hi Kirkus
VERY insightful, thank you. I'll have to chew over all of this with my 'consultant engineer':-)
But now one question: Common mode rejection, yes well... everybody points this out on the differential circuits, and nobody is running 20m or more ICs (other then in the professional world).
But it was the OTHER item:
The inevitable and unavoidable 'ground contamination' influences of capacitors etc. that makes the other argument for differential/balanced vs. unbalanced.
It seems this (at least to my current take) is to be weighted against the ~ 'imbalance(s)' in a balanced design.
A lot could be said about some renown reviewers / testers having found, that even in a balanced design (not pseudo) the single-ended still sounded more 'natural'.
Why? It is that the differential circuit also cancels even-order harmonics in the process of common mode rejection, so you wind up with a bias toward odd-order harmonics, and that is not so 'natural' to our ear.
Be nice to have your take on this side of it.
Thanks,
Axel
VERY insightful, thank you. I'll have to chew over all of this with my 'consultant engineer':-)
But now one question: Common mode rejection, yes well... everybody points this out on the differential circuits, and nobody is running 20m or more ICs (other then in the professional world).
But it was the OTHER item:
The inevitable and unavoidable 'ground contamination' influences of capacitors etc. that makes the other argument for differential/balanced vs. unbalanced.
It seems this (at least to my current take) is to be weighted against the ~ 'imbalance(s)' in a balanced design.
A lot could be said about some renown reviewers / testers having found, that even in a balanced design (not pseudo) the single-ended still sounded more 'natural'.
Why? It is that the differential circuit also cancels even-order harmonics in the process of common mode rejection, so you wind up with a bias toward odd-order harmonics, and that is not so 'natural' to our ear.
Be nice to have your take on this side of it.
Thanks,
Axel