The exploitation of regularities in the environment by the brain

被引:77
作者
Barlow, H [1 ]
机构
[1] Univ Cambridge, Physiol Lab, Cambridge CB2 3EG, England
关键词
Chasles' rule; evolution; geometry; perception; redundancy; statistics; twisting;
D O I
10.1017/S0140525X01000024
中图分类号
B84 [心理学];
学科分类号
04 ; 0402 ;
摘要
Statistical regularities of the environment are important for learning, memory, intelligence, inductive inference, and in fact, for any area of cognitive science where an information-processing brain promotes survival by exploiting them. This has been recognised by many of those interested in cognitive function, starting with Helmholtz, Mach, and Pearson, and continuing through Craik, Tolman, Attneave, and Brunswik. In the current era, many of us have begun to show how neural mechanisms exploit the regular statistical properties of natural images. Shepard proposed that the apparent trajectory of an object when seen successively at two positions results from internalising the rules of kinematic geometry, and although kinematic geometry is not statistical in nature, this is clearly a related idea. Here it is argued that Shepard's term, "internalisation," is insufficient because it is also necessary to derive an advantage from the process. Having mechanisms selectively sensitive to the spatio-temporal patterns of excitation commonly experienced when viewing moving objects would facilitate the detection, interpolation, and extrapolation of such motions, and might explain the twisting motions that are experienced. Although Shepards explanation in terms of Chasles' rule seems doubtful, his theory and experiments illustrate that local twisting motions are needed for the analysis of moving objects and provoke thoughts about how they might be detected.
引用
收藏
页码:602 / +
页数:19
相关论文
共 59 条
[21]   AN INFORMATION MAXIMIZATION APPROACH TO BLIND SEPARATION AND BLIND DECONVOLUTION [J].
BELL, AJ ;
SEJNOWSKI, TJ .
NEURAL COMPUTATION, 1995, 7 (06) :1129-1159
[22]   ECOLOGICAL CUE-VALIDITY OF PROXIMITY AND OF OTHER GESTALT FACTORS [J].
BRUNSWIK, E ;
KAMIYA, J .
AMERICAN JOURNAL OF PSYCHOLOGY, 1953, 66 (01) :20-32
[23]  
Brunswik E., 1956, PERCEPTION REPRESENT
[24]   Adaptation to contingencies in macaque primary visual cortex [J].
Carandini, M ;
Barlow, HB ;
OKeefe, LP ;
Poirson, AB ;
Movshon, JA .
PHILOSOPHICAL TRANSACTIONS OF THE ROYAL SOCIETY B-BIOLOGICAL SCIENCES, 1997, 352 (1358) :1149-1154
[25]   Reconciling simplicity and likelihood principles in perceptual organization [J].
Chater, N .
PSYCHOLOGICAL REVIEW, 1996, 103 (03) :566-581
[26]  
Craik, 1952, NATURE EXPLANATION, V445, DOI DOI 10.2307/2018933
[27]  
Elder J. H., 1998, P IEEE WORKSH PERC O
[28]   WHAT IS THE GOAL OF SENSORY CODING [J].
FIELD, DJ .
NEURAL COMPUTATION, 1994, 6 (04) :559-601
[29]   RELATIONS BETWEEN THE STATISTICS OF NATURAL IMAGES AND THE RESPONSE PROPERTIES OF CORTICAL-CELLS [J].
FIELD, DJ .
JOURNAL OF THE OPTICAL SOCIETY OF AMERICA A-OPTICS IMAGE SCIENCE AND VISION, 1987, 4 (12) :2379-2394
[30]   The limits of counting accuracy in distributed neural representations [J].
Gardner-Medwin, AR ;
Barlow, HB .
NEURAL COMPUTATION, 2001, 13 (03) :477-504