Слепая физиология. Удивительная книга про зрение и слух - Сьюзан Р. Барри
84
Goldberg, Creativity.
85
A. T. Morgan, L. S. Petro, and L. Muckli, “Scene Representations Conveyed by Cortical Feedback to Early Visual Cortex Can Be Described by Line Drawings,” Journal of Neuroscience 39 (2019): 9410–9423.
86
E. J. Gibson, “Perceptual Learning: Differentiation or Enrichment?” in An Odyssey in Learning and Perception (Cambridge, MA: MIT Press, 1991); E. J. Gibson and A. D. Pick, An Ecological Approach to Perceptual Learning and Development (New York: Oxford University Press, 2000); P. J. Kellman and P. Garrigan, “Perceptual Learning and Human Expertise,” Physics of Life Reviews 6 (2009): 53–84.
87
M. Sigman et al., “Top-Down Reorganization of Activity in the Visual Pathway After Learning a Shape Identification Task,” Neuron 46 (2005): 823–845.
88
A. W. Young, D. Hellawell, and D. C. Hay, “Configurational Information in Face Perception,” Perception 16 (1987): 747–759.
89
D. G. Pelli, “Close Encounters – an Artist Shows That Size Affects Shape,” Science 285 (1999): 844–846; P. Cavanagh and J. M. Kennedy, “Close Encounters: Details Veto Depth from Shadows,” Science 287 (2000): 2423–2425.
90
“Conversation: Chuck Close, Christopher Finch,” NewsHour, PBS, July 2, 2010, http://www.pbs.org/newshour/art/conversation-chuck-close-christopher-finch.
91
S. Hocken, Emma and I: The Beautiful Labrador Who Saved My Life (London: Ebury Press, 2011), 270.
92
R. L. Gregory and J. G. Wallace, Recovery from Early Blindness: A Case Study, Monograph No. 2 (Cambridge, UK: Experimental Psychology Society, 1963); R. Kurson, Crashing Through: A True Story of Risk, Adventure, and the Man Who Dared to See (New York: Random House, 2007); O. Sacks, “To See and Not See,” in An Anthropologist on Mars: Seven Paradoxical Tales (New York: Alfred A. Knopf, 1995); A. Valvo, Sight Restoration After Long-Term Blindness: The Problems and Behavior Patterns of Visual Rehabilitation (New York: American Federation for the Blind, 1971); M. Von Senden, Space and Sight: The Perception of Space and Shape in the Congenitally Blind Before and After Operation (Glencoe, IL: Free Press, 1960).
93
S. Geldart et al., “The Effect of Early Visual Deprivation on the Development of Face Processing,” Developmental Science 5 (2002): 490–501; R. A. Robbins et al., “Deficits in Sensitivity to Spacing After Early Visual Deprivation in Humans: A Comparison of Human Faces, Monkey Faces, and Houses,” Developmental Psychobiology 52 (2010): 775–781.
94
M. E. Arterberry and P. J. Kellman, Development of Perception in Infancy: The Cradle of Knowledge Revisited (New York: Oxford University Press, 2016); C. C. Goren, M. Sarty, and P. Y. K. Wu, “Visual Following and Pattern Discrimination of Face-Like Stimuli by Newborn Infants,” Pediatrics 56 (1975): 544–549; A. Slater, “The Competent Infant: Innate Organization and Early Learning in Infant Visual Perception,” in Perceptual Development: Visual, Auditory, and Speech Perception in Infancy, ed. A. Slater (East Sussex, UK: Psychology Press Ltd., Publishers, 1998).
95
Arterberry and Kellman, Development of Perception in Infancy; I. W. R. Bushnell, F. Sai, and J. T. Mullin, “Neonatal Recognition of the Mother’s Face,” British Journal of Developmental Psychology 7 (1989): 3–15.
96
N. Kanwisher and G. Yovel, “The Fusiform Face Area: A Cortical Region Specialized for the Perception of Faces,” Philosophical Transactions of the Royal Society B 1476 (2006): 2109–2128.
97
M. Bilalic et al., “Many Faces of Expertise: Fusiform Face Area in Chess Experts and Novices,” Journal of Neuroscience 31 (2011): 10206–10214.
98
Bilalic et al., “Many Faces of Expertise.”
99
C. Turati et al., “Newborns’ Face Recognition: Role of Inner and Outer Facial Features,” Child Development 77 (2006): 297–311.
100
R. Adolphs et al., “A Mechanism for Impaired Fear Recognition After Amygdala Damage,” Nature 433 (2005): 68–72.
101
Hocken, Emma and I.
102
G. Kanisza, “Subjective Contours,” Scientific American 234 (1976): 48–52.
103
A. L. Bregman, “Asking the ‘What For’ Question in Auditory Perception,” in Perceptual Organization, ed. M. Kubovy and J. R. Pomerantz (Hillsdale, NJ: Lawrence Earlbaum, 1981); K. Nakayama and S. Shimojo, “Toward a Neural Understanding of Visual Surface Representation,” The Brain, Cold Spring Harbor Symposium in Quantitative Biology 55 (1990): 911–924.
104
S. R. Barry, Fixing My Gaze: A Scientist’s Journey into Seeing in Three Dimensions (New York: Basic Books, 2009).
105
E. E. Birch, S. Shimojo, and R. Held, “Preferential-Looking Assessment of Fusion and Stereopsis in Infants Aged 1–6 Months,” Investigative Ophthalmology & Visual Science 26 (1985): 366–370; R. Fox et al., “Stereopsis in Human Infants,” Science 207 (1980): 323–324; B. Petrig et al., “Development of Stereopsis and Cortical Binocularity in Human Infants: Electrophysiological Evidence,” Science 213 (1981): 1402–1405; F. Thorn et al. “The Development of Eye Alignment, Convergence, and Sensory Binocularity in Young Infants,” Investigative Ophthalmology & Visual Science 35 (1994): 544–553.
106
M. E. Arteberry and P. J. Kellman, Development of Perception in Infancy: The Cradle of Knowledge Revisited (New York: Oxford University Press, 2016); M. Arterberry, A. Yonas, and A. S. Bensen, “Self-Produced Locomotion and the Development of Responsiveness to Linear Perspective and Texture Gradients,” Developmental Psychology 25 (1989): 976–982; M. Kavsek, A. Yonas, and C. E. Granrud, “Infants’ Sensitivity to Pictorial Depth Cues: A Review and Meta-analysis of Looking Studies,” Infant Behavior and Development 35 (2012): 109–128; A. Tsuruhara et al., “The Development of the Ability of Infants to Utilize Static Cues to Create and Access Representations of Object Shape,” Journal of Vision 10 (2010), doi:10.1167/10.12.2; A. Yonas and C. E. Granrud, “Infants’ Perception of Depth from Cast Shadows,”