Vocal tract sound transmission is governed by cross-sectional area
Related
- Vocal tract transmission depends solely on the cross-sectional area function. (similarity 0.85)
- Vocal tract acoustics reduce to a cross-sectional area function along one axis (similarity 0.85)
- Auditory categorization is hierarchically organized along the ventral pathway (similarity 0.83)
- The speech tract is modeled as a transmission line with pressure and volume-velocity variables (similarity 0.83)
- Male and female voices differ by vocal tract scale and fold length (similarity 0.83)
- Sound power level can be derived by dividing intensity by radiating area (similarity 0.82)
- Measurable and audible sound qualities can be shown to correlate reliably (similarity 0.82)
- The auditory spectrum differs from the physical power spectrum in resolution and shape (similarity 0.82)
- The auditory cortex decodes speech from acoustically jumbled waveforms. (similarity 0.81)
- Vocal tract wall softness and open-end impedance mismatch lower resonance Q (similarity 0.81)
- A pianoforte with raised dampers can physically re-echo sung vowels via sympathetic resonance (similarity 0.81)
- Transducer resonances radiate widely and thus stay audible in rooms (similarity 0.81)
- Auditory sensitivity varies nonuniformly across the frequency range (similarity 0.81)
- High ambient noise forces listeners to raise volume toward hearing-loss levels (similarity 0.81)
- Hearing thresholds vary individually but share a common perceptual order (similarity 0.81)