2010
DOI: 10.1037/a0020174
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Are psychophysical scales of intensities the same or different when stimuli vary on other dimensions? Theory with experiments varying loudness and pitch.

Abstract: Does the theory extend to other intensive continua (prothetic attributes)? If so, which ones? And does it extend to cross-modal matching?

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Cited by 27 publications
(94 citation statements)
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“…Sensory organs and early sensory processing can expand or compress the signals from the world, and these signals are often subjected to some corruption-typically described as Gaussian internal noise. Though this classic model is by no means complete (e.g., Luce, Steingrimsson, & Narens, 2010;Steingrimsson & Luce, 2012), it remains highly influential and is widely used in cognitive, comparative, and developmental psychology, as well as neuroscience and computational modeling. This classic psychophysical model traditionally has two parameters: (1) the degree of psychophysical scaling (e.g., the power law exponent β, variously named in the literature as β, a, n, r, and slope; Laming, 1997;Stevens, 1964), which is thought to reflect the underlying compression or expansion of the external signal onto the internal scale (e.g., how the means of the Gaussian activations change with increasing stimulus intensity), and (2) the inherent variability, or noise, in the Gaussian activations along the scale, which linearly scales with the mean (σ, also discussed in the literature as CV, the Weber fraction, JND, or k; Laming, 1997).…”
mentioning
confidence: 99%
“…Sensory organs and early sensory processing can expand or compress the signals from the world, and these signals are often subjected to some corruption-typically described as Gaussian internal noise. Though this classic model is by no means complete (e.g., Luce, Steingrimsson, & Narens, 2010;Steingrimsson & Luce, 2012), it remains highly influential and is widely used in cognitive, comparative, and developmental psychology, as well as neuroscience and computational modeling. This classic psychophysical model traditionally has two parameters: (1) the degree of psychophysical scaling (e.g., the power law exponent β, variously named in the literature as β, a, n, r, and slope; Laming, 1997;Stevens, 1964), which is thought to reflect the underlying compression or expansion of the external signal onto the internal scale (e.g., how the means of the Gaussian activations change with increasing stimulus intensity), and (2) the inherent variability, or noise, in the Gaussian activations along the scale, which linearly scales with the mean (σ, also discussed in the literature as CV, the Weber fraction, JND, or k; Laming, 1997).…”
mentioning
confidence: 99%
“…We contend that the ratio scale is more fit for defining outcome satisfaction, than the difference scale. First, the ratio scale is dimensionless and does not depend on the measurement units of the divided goods; second, it is the standard scale in psychophysics, starting with Fechner's law [33] and Steven's power law [34,35] to more recent theories of audio and visual perception [36] and signal detection [37]; third, the ratio scale is very common in physics, biology, evolution, and other exact sciences; fourth, all types of statistical measures are applicable to ratio scales, and only with these scales may we properly indulge in logarithmic transformations [34].…”
Section: Introductionmentioning
confidence: 99%
“…The current evidence is that p only changes with the sign of p -1 (Luce, Steingrimsson, & Narens, 2010;Steingrimsson & Luce, 2007;Steingrimsson, Luce, & Narens, in press). …”
Section: The Production Equationmentioning
confidence: 76%