Ознакомительная версия. Доступно 17 страниц из 81
Visual Imagery Facilitates Visual Perception: Psychophysical Evidence. Journal of Cognitive Neuroscience. 9 (1997): 476–89.
217
James W. The Principles of Psychology. New York: H. Holt & Company, 1890.
218
Somers D.C. et al. Functional MRI Reveals Spatially Specific Attentional Modulation in Human Primary Visual Cortex. Proceedings of the National Academy of Sciences of the United States of America. 96 (1999): 1663–68.
219
Wojciulik E. et al. Covert Visual Attention Modulates Face-Specific Activity in the Human Fusiform Gyrus: fMRI Study. Journal of Neurophysiology. 79 (1998): 1574–78.
220
Veldhuizen M.G. et al. Trying to Detect Taste in a Tasteless Solution: Modulation of Early Gustatory Cortex by Attention to Taste. Chemical Senses. 32 (2007): 569–81.
221
Moore T., Zirnsak M. Neural Mechanisms of Selective Visual Attention. Annual Review of Psychology. 68 (2017): 47–72; Reynolds J.H. et al. Attention Increases Sensitivity of V4 Neurons. Neuron. 26 (2000): 703–14; Sprague T.C. et al. Visual Attention Mitigates Information Loss in Small- and Large-Scale Neural Codes. Trends in Cognitive Sciences. 19 (2015): 215–26.
222
Sprague T.C., Serences J.T. Attention Modulates Spatial Priority Maps in the Human Occipital, Parietal, and Frontal Cortices. Nature Neuroscience. 16 (2013): 1879–87; Moore & Zirnsak. Neural Mechanisms.
223
Nieder A., Dehaene S. Representation of Number in the Brain. Annual Review of Neuroscience. 32 (2009): 185–208.
224
Izard V. et al. Distinct Cerebral Pathways for Object Identity and Number in Human Infants. PLoS Biology. 6 (2008): e11.
225
Harvey B.M., Dumoulin S.O. A Network of Topographic Numerosity Maps in Human Association Cortex. Nature Human Be-haviour. 1 (2017): 0036.
226
Hubbard E.M. et al. Interactions Between Number and Space in Parietal Cortex. Nature Reviews Neuroscience. 6 (2005): 435–48.
227
Toomarian E.Y., Hubbard E.M. On the Genesis of Spatial-Numerical Associations: Evolutionary and Cultural Factors Co-construct the Mental Number Line. Neuroscience & Biobehavioral Reviews 90 (2018): 184–99.
228
Dehaene S. et al. The Mental Representation of Parity and Number Magnitude. Journal of Experimental Psychology: General. 122 (1993): 371–96.
229
Bächtold D. et al. Stimulus-Response Compatibility in Representational Space. Neuropsychologia. 36 (1998): 731–35; Hartmann M. et al. There Is More Than “More Is Up”: Hand and Foot Responses Reverse the Vertical Association of Number Magnitudes. Journal of Experimental Psychology: Human Perception and Performance. 40 (2014): 1401–14.
230
Hubbard et al. Interactions Between.
231
Zorzi M. et al. Neglect Disrupts the Mental Number Line. Nature. 417 (2002): 138–39; Vuilleumier P. et al. The Number Space and Neglect. Cortex. 40 (2004): 399–410.
232
Rusconi E., Cubelli R. The Making of a Syndrome: The English Translation of Gerstmann’s First Report. Cortex. 117 (2019): 277–83.
233
Kinsbourne M., Warrington E.K. A Study of Finger Agnosia. Brain. 85 (1962): 47–66.
234
Rusconi E. et al. Dexterity with Numbers: rTMS over Left Angular Gyrus Disrupts Finger Gnosis and Number Processing. Neuropsychologia. 43 (2005): 1609–24.
235
Roux F.-E. et al. Writing, Calculating, and Finger Recognition in the Region of the Angular Gyrus: A Cortical Stimulation Study of Gerstmann Syndrome. Journal of Neurosurgery. 99 (2003): 716–27.
236
Rusconi E. et al. A Disconnection Account of Gerstmann Syndrome: Functional Neuroanatomy Evidence. Annals of Neurology. 66 (2009): 654–62.
237
Fayol M. et al. Predicting Arithmetical Achievement from Neuro-Psychological Performance: A Longitudinal Study. Cognition. 68 (1998): B63–B70; Noël M.-P. Finger Agnosia: A Predictor of Numerical Abilities in Children? Child Neuropsychology. 11 (2005): 413–30.
238
Crollen V. et al. The Role of Vision in the Development of Finger-Number Interactions: Finger-Counting and Finger-Montring in Blind Children. Journal of Experimental Child Psychology. 109 (2011): 25–39.
239
Guedin N. et al. Dexterity and Finger Sense: A Possible Dissociation in Children with Cerebral Palsy. Perceptual and Motor Skills. 125 (2018): 718–31.
240
Bender A., Beller S. Cultural Variation in Numeration Systems and Their Mapping onto the Mental Number Line. Journal of Cross-Cultural Psychology. 42 (2011): 579–97.
241
Coull J.T., Droit-Volet S. Explicit Understanding of Duration Develops Implicitly Through Action. Trends in Cognitive Sciences. 22 (2018): 923–37.
242
Núñez R., Cooperrider K. The Tangle of Space and Time in Human Cognition. Trends in Cognitive Sciences. 17 (2013): 220–29; Boroditsky L. Language and the Construction of Time Through Space. Trends in Cognitive Sciences. 41 (2018): 651–53.
243
Núñez R. et al. Contours of Time: Topgraphic Construals of Past, Present, and Future in the Yupno Valley of Papua New Guinea. Cognition. 124 (2012): 25–35.
244
Saj A. et al. Patients with Left Spatial Neglect Also Neglect the “Left Side” of Time. Psychological Science. 25 (2014): 207–14.
245
Merchant H. et al. Neural Basis of the Perception and Estimation of Time. Annual Review of Neuroscience. 36 (2013): 313–36.
246
Eichenbaum H. Time Cells in the Hippocampus: A New Dimension for Mapping Memories. Nature Reviews Neuroscience. 15 (2014): 732–44.
247
Hauk O. et al. Somatotopic Representation of Action Words in Human Motor and Premotor Cortex. Neuron. 41 (2004): 301–7.
248
Dinstein I. et al. Brain Areas Selective for Both Observed and Executed Movements. Journal of Neurophysiology. 98
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