None of your posts have used this decay measurement to show better fidelity.
you miss completely the argument...
It is not about measurement here... He explained why it is very difficult to measure this without very serious research... You dismissed it without even getting the main point BECAUSE IT SUIT YOU..😊
The main point is here :
«We have demonstrated that human auditory perception is primed for the shapes of natural sounds,a sharp attack followed by a long decay, corresponding to the physics of natural sound production. We have used simple, direct psychophysical measurements to test for the changes in simultaneous time-frequency acuity after reversing the temporal direction of symmetry-broken pulses, lending credence to,
at the minimum, statistical priors for sharp attack, long decay sounds. Such statistical priors add to the growing body of evidence that human auditory processing is adapted for natural sounds. Not only then is auditory processing inherently nonlinear, these nonlinearities are used to improve perceptual acuity to
sounds that correspond to the physics of natural sound production.»
This fact that human hearing trained by evolution makes us able to extract information over the Fourier uncertainty limit ,( because of this symmetry breaking disposition making us sensible or biased toward to Attack-decay time),
this fact make preposterous ANY CLAIM about the reduction of any auditory experience a consequence predicted by only a few set of measures on some piece of gear evaluated in the context of the Fourier linear mapping.
Then your pretense to predict sound quality with your narrow set of measures is preposterous... our ears/brain work non linearly in his own time domain...The sound quality cannot be predicted from the reading of the specs of a piece of gear interpreted in a linear context with simple tools. ... We cannot replace hearing...
this is why Van Maanen insisted on the importance of taking into account the way our hearing work:
«The, never mentioned, assumption is that the frequency components above the
hearing limit, usually taken at 20 kHz, do not influence the perceived
sound in any way.
Although this seems a reasonable assumption at first, it is not as
straightforward as one would think. Two aspects play an important role: the
first is that Fourier analysis only holds for linear systems and if there
is one transducer which is non-linear, it is the human ear. In non-linear
nal.
on and 5 periods off. Although Fourier analysis tells that 300 Hz is only a
weak component in this signal, it is the strongest one hears. As 300 Hz
corresponds to the envelope of the signal it is not surprising using the
non-linear properties of our ears. It can be concluded that frequencies
above the hearing limit can indeed generate signals that are below the
hearing limit which could thus influence the perceived sound and the
quality experienced.»