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  IMPARA L'INGLESE CON BABYLON!
Come servizio al nostro pubblico, riportiamo qui a sinistra il box di traduzione di Babylon
. Se c'θ una parola inglese che non capisci, digitala nella casella Traduci... , clicca su GO e subito si aprirΰ una finestra con la traduzione italiana. Per una maggiore comoditΰ e completezza, puoi scaricare qui gratuitamente per un mese Babylon Pro, lo strumento in assoluto piω utile per chi vuole imparare l'inglese. Da oggi anche con il traduttore di frasi inglesi incorporato!
 
 
 


CONTENTS

  1. Active recall
  2. Alzheimer's disease
  3. Amnesia
  4. Anamonic
  5. Anterograde amnesia
  6. Atkinson-Shiffrin memory model
  7. Attention versus memory in prefrontal cortex
  8. Baddeley's Model of Working Memory
  9. Barnes maze
  10. Binding problem
  11. Body memory
  12. Cellular memory
  13. Choice-supportive bias
  14. Chunking
  15. Clive Wearing
  16. Commentarii
  17. Confabulation
  18. Cue-dependent forgetting
  19. Decay theory
  20. Declarative memory
  21. Eidetic memory
  22. Electracy
  23. Emotion and memory
  24. Encoding
  25. Engram
  26. Episodic memory
  27. Executive system
  28. Exosomatic memory
  29. Explicit memory
  30. Exposure effect
  31. Eyewitness memory reconstruction
  32. False memory
  33. False Memory Syndrome Foundation
  34. Flashbulb memory
  35. Forgetting
  36. Forgetting curve
  37. Functional fixedness
  38. Hindsight bias
  39. HM
  40. Human memory process
  41. Hyperthymesia
  42. Iconic memory
  43. Interference theory
  44. Involuntary memory
  45. Korsakoff's syndrome
  46. Lacunar amnesia
  47. Limbic system
  48. Linkword
  49. List of memory biases
  50. Long-term memory
  51. Long-term potentiation
  52. Lost in the mall technique
  53. Memory
  54. Memory and aging
  55. MemoryArchive
  56. Memory consolidation
  57. Memory distrust syndrome
  58. Memory inhibition
  59. Memory span
  60. Method of loci
  61. Mind map
  62. Mnemonic
  63. Mnemonic acronym system
  64. Mnemonic dominic system
  65. Mnemonic link system
  66. Mnemonic major system
  67. Mnemonic peg system
  68. Mnemonic room system
  69. Mnemonic verses
  70. Mnemonist
  71. Philip Staufen
  72. Phonological loop
  73. Picture superiority effect
  74. Piphilology
  75. Positivity effect
  76. Procedural memory
  77. Prospective memory
  78. Recollection
  79. Repressed memory
  80. Retrograde amnesia
  81. Retrospective memory
  82. Rosy retrospection
  83. Self-referential encoding
  84. Sensory memory
  85. Seven Meta Patterns
  86. Shass pollak
  87. Short-term memory
  88. Source amnesia
  89. Spaced repetition
  90. SuperMemo
  91. Synthetic memory
  92. Tally sticks
  93. Testing effect
  94. Tetris effect
  95. The Courage to Heal
  96. The Magical Number Seven, Plus or Minus Two
  97. Tip of the tongue
  98. Visual memory
  99. Visual short term memory
  100. Visuospatial sketchpad
  101. VTrain
  102. Working memory

 



THE THEORY OF MEMORY
This article is from:
http://en.wikipedia.org/wiki/Binding_problem

All text is available under the terms of the GNU Free Documentation License: http://en.wikipedia.org/wiki/Wikipedia:Text_of_the_GNU_Free_Documentation_License 

Binding problem

From Wikipedia, the free encyclopedia

 

"The binding problem is the problem of how the unity of conscious perception is brought about by the distributed activities of the central nervous system."1

It arises whenever information from distinct populations of neurons must be combined. The activity of specialised sets of neurons dealing with different aspects of perception are combined to form a unified perceptual experience. The binding problem also occurs in each modality of perception and different versions of the problem have been described in language production, visual perception, auditory perception, and other mental processes.

In the case of visual perception, the brains of humans and other animals process different aspects of perception by separating information about those aspects and processing them in distinct regions of the brain. For example, different areas in the visual cortex specialise in processing the different aspects of colour, motion, and shape. This type of modular coding yields ambiguity in many instances. For example, when humans view a scene containing a red circle and a green square, some neurons signal the presence of red, others signal the presence of green, still others the circle shape and square shape. Here, the binding problem is the issue of how the brain represents the pairing of color and shape. Specifically, are the circles red or green?

The binding problem is also an issue in memory. How do we remember the associations among different elements of an event? How does the brain create and maintain those associations? Both the hippocampus and prefrontal cortex seem to be important for memory binding.

The binding problem is also closely related to the problem of the homunculus needed to explain who is watching the wonderfully integrated internal TV screen. The alternative to a ghost in the machine in this context is infinite regress. Various clusters of neurons have been suggested as candidates for the location where binding takes place; other hypotheses include microtubules and the red blood cells[1]. But of course regardless of which objective correlates relate to some process involved in the binding, the problem of how the subjective awareness of the internal 'virtual reality' screen arises is not solved. This is the hard problem of consciousness, with its implication of a homunculus.


A popular hypothesis is that features are bound via synchronisation of the firing of different neurons in the cortex. Engel and his coworkers (1992) have found that two different neurons with a different receptive field produce divergent correlograms according to whether the stimuli were binded together or not. However, Thiele and Stoner (2003) found that perceptual binding of two moving patterns had no effect on synchronization of the neurons responding to the two patterns.

See also

  • Attention
  • Attention-deficit hyperactivity disorder
  • Consciousness
  • Perception
  • Philosophy of perception
  • Feature integration theory

References

 
1 Revonsuo, A and Newman, J. (1999). Binding and Consciousness. Consciousness and Cognition 8, 123-127.
  • Treisman, A., & Gelade, G. (1980). A feature-integration theory of attention PDF
  • Thiele, A., & Stoner, G. (2003). Neuronal synchrony does not correlate with motion coherence in cortical area MT. Nature 421:366-70.
  • Zimmer, H., Mecklinger, A., Lindenberger, U. (2006). Binding in Human Memory. book link

External links

  • Emotional arousal and memory binding
  • Visual Binding Through Synchrony
Retrieved from "http://en.wikipedia.org/wiki/Binding_problem"
 

 

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