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J. Krauskopf, David Williams, D. Heeley (1981)
Computer controlled color mixer with laser primariesVision Research, 21
Y. Nayatani, Kotaro Takahama, H. Sobagaki (1986)
Prediction of color appearance under various adapting conditionsColor Research and Application, 11
V. Smith, J. Pokorny (1975)
Spectral sensitivity of the foveal cone photopigments between 400 and 500 nmVision Research, 15
R. Hunt, M. Pointer (1985)
A colour‐appearance transform for the CIE 1931 standard colorimetric observerColor Research and Application, 10
B. Crawford (1965)
Colour matching and adaptation.Vision research, 5 1
J. Pokorny, V. Smith, M. Lutze (1987)
Aging of the human lens.Applied optics, 26 8
P. Kaiser, H. Hemmendinger (1980)
The Color Rule: A Device for Color‐Vision TestingColor Research and Application, 5
Stiles Stiles, Burch Burch (1959)
N.P.L. colour‐matching investigation. Mean results from a pilot group of ten subjectsOptica Acta, 2
Y. Nayatani, Kotaro Takahama, H. Sobagaki (1988)
Physiological causes of individual variations in color-matching functionsColor Research and Application, 13
C. Ingling, B. Drum (1973)
How neural adaptation changes chromaticity coordinates.Journal of the Optical Society of America, 63 3
R. Lozano, D. Palmer (1968)
Large-field color matching and adaptation.Journal of the Optical Society of America, 59 4
An instrument was developed for the psychophysical measurement of color matching functions. The instrumental design centers around the use of lasers as the primary light sources. The three (RGB) laser beams are independently controlled with acousto‐optic modulators and projected into a diffuser for color mixing. The instrument was designed to allow for free viewing of the matching fields and versatility in the implementation of the matching fields and surround. To simplify data collection, a model was developed that allows the computation of the full spectral tristimulus functions based on just five visual matches. This model expresses color matching functions as linear transforms of the cone action spectra multiplied by variable transmittances of the lens and macula. The model was tested using the 2° color matching data of Stiles and Burch, and preliminary data were collected and modeled using the new instrument.
Color Research & Application – Wiley
Published: Jun 1, 1989
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