En este artículo se revisan los principales resultados experimentales acerca del papel que desempeñan, en el procesamiento visual, el contraste cromático y el contraste de luminancia. Se analiza la participación de ambos en el procesamiento de la profundidad y el movimiento; exponiendo los diferentes planteamientos teóricos y la evidencia experimental que avala cada uno de ellos.
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References
1.
AdelsonE. H.MovshonJ. A. (1982). Phenomenal coherence of moving visual patterns.Nature, 300, 523–525.
2.
BakerC. L.JRBoultonJ. C.MullenK. T. (1998). A Nonlinear chromatic motion mechanism.Vision Research, 38, 291–302.
3.
BraddickO. (1974). A short-range process in apparent motion.Vision Research, 14, 519–527.
4.
BurrD. C.FiorentiniA.MorroneM. C. (1998). Reaction time to motion onset of luminance and chromatic gratings is determined by perceived speed.Vision Research, 38, 3681–3690.
5.
CampbellF. W.RobsonJ. G. (1968). Aplication of Fourier Analysis to the Visibility of Gratings.Journal of Physiology, 197, 551–566.
6.
CavanaghP.AntisS. M. (1991). The contribution of color to motion in normal and color-deficient observers.Vision Research, 31, 2109–2148.
7.
CavanaghP.FavreauO. E. (1985). Color and luminance share a common motion pathway.Vision Research, 25, 1595–1601.
8.
CavanaghP.MatherG. (1989). Motion: the long and the short of it.Spatial Vision, 4, 103–129.
9.
CavanaghP.BoeglinJ.FavreauO. E. (1985). Perception of motion in equiluminous kinematograms.Perception14, 151–162.
10.
CavanaghP.TylerC. W.FavreauO. E. (1984). Perceived velocity of moving chromatic gratings.Journal of the Optical Society of AmericaA, 1, 893–899.
11.
ChubbCSpearlingG. (1988). Drift-balanced random stimuli: A general basis for studying non-Forier motion perception.Journal of the Optical Society of America A, 5, 1986–2006.
12.
ColeG. R.HineT.McihaggaW. (1993). Detection mechanisms in L-, M-, and S-cone contrast space.Journal of the Optical Society of America A, 10, 38–51.
13.
ColeG. R.HineT.McihaggaW. (1994). Estimation of linear detection mechanisms for stimuli of medium spatial frequency.Vision Research, 34, 1267–1278.
14.
ComerfordJ. P. (1974). Stereopsis with chromatic contours.Vision Research, 14, 975–982.
15.
CropperS. J.MullenK. T.BadcockD. R. (1996). Motion coherence across different chromatic axes.Vision Research, 36, 2475–2488.
16.
DerringtonA. M.BadcockD. R. (1985). The low level motion system has both chromatic and luminance inputs.Vision Research, 25, 1879–1884.
17.
DerringtonA. M.HenningG. B. (1993). Detecting and discriminating the direction of motion of luminance and colour gratings.Vision Research, 33, 799–812.
18.
De ValoisR. L.De ValoisK. K. (1988). Spatial Vision.Oxford: Oxford University Press.
19.
De WeertC. M. M. (1979). Colour contours and stereopsis.Vision Research, 19, 555–564.
20.
De WeertC. M. M.SadzaK. J. (1983). New data concerning the contribution of colour differences to stereopsis. EnMollonJ. D.SharpeL. (Eds.), Colour Vision: Physiology and Psychophysics (pp. 553–563). Londres: Academic Press.
21.
DeyoeE. A.Van EssenD. C. (1988). Concurrent processing streams in monkey visual cortex.Trends in Neuroscience, 11, 219–226.
22.
DobkinsK. D.AlbrightT. D. (1993). What happens if it changes color when it moves?: Psychophysical experiment on the nature of chromatic inputs to motion detectors.Vision Research, 33, 1019–1036.
23.
EdwardsM.BadcockD. R. (1996). Global-motion perception: interaction of chromatic and luminance signals.Vision Research, 36, 2433–2431.
24.
FarellB. (1999). Color and luminance in the perception of 1- and 2- dimensional motion.Vision Research, 39, 2633–2647.
25.
GegenfurtnerK. R.HawkenM. J. (1995). Temporal and chromatic properties of motion mechanisms.Vision Research, 35, 1547–1563.
26.
GegenfurtnerK. R.HawkenM. J. (1996a). Interaction of motion and colour in the visual pathways.Trends on Neuroscience, 19, 394–401.
27.
GegenfurtnerK.R.HawkenM. J. (1996b). Perceived velocity of luminance, chromatic and non-Fourier stimuli: Influence of contrast and temporal frequency.Vision Research, 36, 1281–1290.
28.
GoreaA.PapathomasT. V. (1989). Motion processing by chromatic and achromatic visual pathways.Journal of the Optical Society of America A, 6, 590–602.
29.
GrangerE. M.HeurtleyJ. C. (1973). Visual chromaticity-modulation transfer function.Journal of the Optical Society of America, 63, 1173–1174.
30.
GregoryR. L. (1977). Vision with equiluminant color contrast: 1. A projection technique and observations.Perception, 6, 113–119.
31.
GrossbergS.MingollaE. (1985a). Neural dynamics of perceptual grouping: Textures, boundaries, and emergent features.Perception & Psychophysics, 38, 141–171.
32.
GrossbergS.MingollaE. (1985b). Neural dynamics of form: Boundary completion, illusory figures, and neon color spreading.Psychological Review, 92, 173–211.
33.
HawkenM. J.GegenfurtnerK. R.TangC. (1994). Contrast dependence of colour and luminance motion mechanisms in human vision.Nature, 361, 268–270.
34.
JiménezJ. R.RubiñoM.HitaE.JiménezDELBarcoL. (1997). Influence of the luminance and opponent chromatic channels on stereopsis with random-dot stereograms.Vision Research, 37, 5, 591–596.
35.
KingdomF. A. A.SimmonsD. R. (1996). Stereoacuity and colour contrast.Vision Research, 36, 1311–1319.
36.
KingdomF. A. A.SimmonsD. R.Rainville (1999). On the apparent collapse of stereopsis in ran- dom-dot-stereograms at isoluminance.Vision Research, 39, 2127–2141.
37.
KrauskopfJ.FarellB. (1990). Influence of colour on the perception of coherent motion.Nature, 348, 328–331.
KrauskopfJ.WilliamsD. R.HeeleyD. W. (1982). Cardinal directions of colour space.Vision Research, 22, 1123–1131.
40.
LennieP. (1980). Parallel visual pathways: a review.Vision Research, 20, 561–594.
41.
LindseyD.TellerD. Y. (1990). Motion at isoluminance: discrimination/detection ratios for moving isoluminant gratins.Vision Research, 30, 1751–1761.
42.
LivingstoneM. S. (1996). Differences between stereopsis interocular correlation, and binocularity.Vision Research, 36, 1127–1140.
43.
LivingstoneM. S.HubelD. H. (1984). Anatomy and physiology of a color system in the primate visual cortex.Journal of Neuroscience, 4, 309–356.
44.
LivingstoneM. S.HubelD. H. (1987). Psychophysical evidence for separate channels for the perception of form, color, movement, and depth.The Journal of Neuroscience, 11, 3416–3468.
45.
LivingstoneM.HubelD. H. (1988). Segregation of form, color, movement, and depth: anatomy, physiology, and perception.Science, 240, 740–749.
46.
LogothetisN. K.SchillerP. H.CharlesE. RHurlberA. C. (1990). Perceptual deficits and the activity of the color-opponent and broad-band pathways at isoluminance.Science, 247, 214–217.
47.
LuC.FenderD. H. (1972). The interaction of color and luminance in stereoscopic vision.Investigation of Ophthalmology, 11, 482–490.
48.
MaslandR. H. (1996). Unscrambling color vision.Science, 271, 616–617.
49.
MeriganW. H.MaunselJ. H. (1993). How parallel are the primatie visual pathways?Annual Review of Neuroscience, 16, 369–402.
50.
MethaA. B.MullenK. T. (1996). Temporal mechanisms underlying flicker detection and identification for red-green and achromatic stimuli.Journal of the Optical Society of America A, 13, 1969–1980.
51.
MethaA. B.MullenK. T. (1997). Red-green and achromatic temporal filters: a ratio model predicts contrat-dependent speed perception.Journal of the Optical Society of America A, 14, 984–996.
52.
MethaA. B.MullenK. T. (1998). Failure of direction discrimination at detection threshold for both fast and slow chromatic motion.Journal of the Optical Society of America A, 15, 2945–2950.
53.
MethaA. B.VingrysA. J.BadcockD. R. (1994). Detection and discrimination of moving stimuli: the effects of color, luminance, and eccentricity.Journal of the Optical Society of America A, 11, 1697–1709.
54.
MollonJ. D. (1989). Tho' she kneel'd in that place where they grew.Journal oof Experimental Biology, 146, 21–38.
55.
MorganM. J.ClearyG. (1992a). Effects of colour substitutions upon motion detection in spatially random patterns.Vision Research, 32, 815–821.
56.
MorganM. J.ClearyG. (1992b). The effects of contrast substitutions upon motion detection in spatially random patterns.Vision Research, 32, 639–643.
57.
MorganM. J.IngleG. (1994). What direction of motion do we see if luminance but not colour contrast is reversed during displacement? Psychophysical evidence for a signed-color input to motion detection.Vision Research, 34, 2527–2535.
58.
MullenK. T.BoultonJ. C. (1992). Absence of smooth motion perception in color vision.Vision Research, 32, 483–488.
59.
MullenK. T.KingdomF. A. A. (1991). Colour contrast in form perception. EnGourasP. (Ed.) y J. Cronly-Dillon (Series Ed.), The Perception of Colour. Volume 6 of Vision and Visual Dysfunction (Cap. 12, pp. 198–217). Oxford: MacMilan.
60.
PalmerJ.MobleyL. A.TellerD. Y. (1993). Motion at isoluminance: discrimination/detection ratios and the summation of luminance and chromatic signals.Journal of the Optical Society of America A, 10, 1353–1362.
61.
PapathomasT. V.GoreaA.JuleszB. (1991). Two carriers for motion perception: color and luminance.Vision Research, 31, 1883–1891.
62.
RamachandranV. S.AntisS. M. (1983). Perceptual organization in moving patterns.Nature, 304, 529–531.
63.
RamachandranV. S.AntisS. M. (1985). Perceptual organization in multistable apparent motion.Perception, 14, 135–143.
64.
RamachandranV. S.GregoryR. L. (1978). Does colour provide an input to human motion perception?Nature, 275, 55–56.
65.
SankeralliM.Jy MullenK. T. (1996). Estimation of the L-, M-, and S- cone weights of the postreceptoral detection mechanisms.Journal of the Optical Society of America A, 13, 906–915.
66.
ScharffL. V.GeislerW. S. (1992). Stereopsis at isoluminance in the absence of chromatic aberrations.Journal of the Optical Society of America, A, 9, 868–876.
67.
SimmonsD. R.KingdomF. A. A. (1994). Contrast Thresholds for stereoscopic depth identification with isoluminant and isochromatic stimuli.Vision Research, 34, 2971–2982.
68.
SimmonsD. R.KingdomF. A. A. (1995). Differences between stereopsis with isoluminant and isochromatic stimuli.Journal of the Optical Society of America A12, 2094–2104.
69.
SimmonsD. R.KingdomF. A. A. (1997). On the independence of chromatic and achromatic stereopsis mechanisms.Vision Research, 37, 1271–1280.
70.
StewardJ. M.ColeL. (1989). What do color vision defectives say about every tasks?Optometry and Visual Science, 66, 228–292.
71.
StromeyerC. F.IIIEskewR. T.JRKronauerR. E. (1990). The most sensitive motion detectors in humans are spectrally-opponent.Investigative Ophtalmology and Visual Sciences (Supplement), 31, S240.
72.
StromeyerC. F.IIIColeG. R.KronauerR. E. (1985). Second-site adaptation in the red-green chromatic pathways.Vision Research, 25, 219–237.
73.
StromeyerC. F.IIIKronauerR. E.ColeG. R. (1983). Adaptive mechanisms controlling sensitivity to red-green chromatics flashes. EnMollonJ. D.SharpeL. (Eds.), Colour Vision: Physiology and Psychophysics (pp. 313–330). Londres: Academic Press.
74.
StromeyerC. F.IIIKronauerR. E.RyuA.ChaparroA.EskewR. T.JR (1995). Contribution of human long-wave and middle-wave cones to motion detection.Journal of Physiology, 485, 221–243.
75.
SwitkesE.BradleyA.De ValoisK. K. (1988). Contrast dependence and mechanisms of masking interaction among chromatic and luminance gratings.Journal of the Optical Society of America A, 5, 1149–1162.
76.
TylerC. W. (1990). A stereoscopic view of visual processing streams.Vision Research, 30, 1877–1895.
77.
TylerC. W.HardageL. (1998). Long-range twinkle induction: An achromatic rebound effect in the magnocellular processing system?Perception, 27, 203–214.
78.
VanDERHorstG. J. C.De WeertC. M. M.BoumanM. A. (1967). Transfer of spatial chromaticity-contrast threshold in the human eye.Journal of the Optical Society of America, 57, 1260–1266.
79.
WebsterM. A.MollonJ. D. (1994). The influence of contrast adaptation on color appearance.Vision Research, 34, 1993–2020.