The phrase "acoustic scale" is correct and usable in written English.
It can be used in contexts related to sound, music, or acoustics, often referring to a measurement or range of sound frequencies.
Example: "The engineer adjusted the settings on the acoustic scale to enhance the clarity of the audio output."
Alternatives: "sound spectrum" or "audio range".
This paper introduces a three-part report describing research into the acoustic scale modelling of factories.
The directionality of sound radiated by typical building elements was investigated by using the techniques of acoustic scale modelling.
The accuracy of acoustic scale modelling strongly depends on the choice of porous absorbing materials with properties at the scale frequencies which resemble those of full size absorbers.
This lends support, as do the other results of this investigation, to the premise that acoustic scale modelling of factories is a viable technique for predicting the efficacy of noise control measures.
({mathcal H}_{s_{r}}) and ({mathcal H}_{s}) are the HMM sequences of the correct label s r and a hypothesis s, respectively; p λ is the acoustic model likelihood; κ is the acoustic scale; p L is the language model likelihood; and A s,s r ) is the phoneme accuracy of s for s r.
This resulted in four conditions: (1) acoustic scale varies, category varies; (2) acoustic scale varies, category is fixed; (3) acoustic scale is fixed, category varies; and (4) acoustic scale is fixed, category is fixed (see Experimental Procedures for more details).
The method proposed herein decouples the hydraulic and acoustic scales, greatly improving computational efficiency.
Therefore, a joint isentropic formulation for flow and aeroacoustics can be devised which avoids the need for segregating flow and acoustic scales.
In this sense, a separated imposition of boundary conditions for flow and acoustic scales which allows the evacuation of waves through Dirichlet boundaries without using any tailored damping model will be presented.
A simple method for numerically computing the interface curvature is developed and an acoustic scaling of the surface tension coefficient is proposed for the non-dimensionalization of the model.
There were eleven possible acoustic-scale values in the experiment.
