From the AES link:
"However, because the loudspeaker load is typically nonlinear and causes harmonic currents to flow, finite impedance in an audio cable does indeed cause harmonic voltages to appear across the loudspeaker."
~~~~~~~~~~
The signal level cables also have finite impedance. They also cause variance in signal distortion, distortion due to the signal source and the receiving impedance both not being perfectly exact and finite under complex dynamic conditions. Which is the description of an audio signal. A signal so complex it is considered, for the most part, to be non repeating.
There is only ONE cable type, both speaker and signal level types...that has a complex dynamic impedance that is varied by the signal load.
Only one cable type that solves the issue where it lives. That particular cornerstone of transmission line design is also unique enough to be patentable - and is indeed patented.
"However, because the loudspeaker load is typically nonlinear and causes harmonic currents to flow, finite impedance in an audio cable does indeed cause harmonic voltages to appear across the loudspeaker."
~~~~~~~~~~
The signal level cables also have finite impedance. They also cause variance in signal distortion, distortion due to the signal source and the receiving impedance both not being perfectly exact and finite under complex dynamic conditions. Which is the description of an audio signal. A signal so complex it is considered, for the most part, to be non repeating.
There is only ONE cable type, both speaker and signal level types...that has a complex dynamic impedance that is varied by the signal load.
Only one cable type that solves the issue where it lives. That particular cornerstone of transmission line design is also unique enough to be patentable - and is indeed patented.