Framing Spatial Cognition: Neural Representations of Proximal and Distal Frames of Reference and Their Roles in Navigation

Knierim, James J., Hamilton, Derek A.·2011·Physiological Reviews

Cites (271)

Items 201–268 of 268

  1. Studies in spatial learning. VIII. Place performance and the acquisition of place dispositions.
    Benbow F. Ritchie, B. Aeschliman, P. Pierce · 1950 · Journal of Comparative and Physiological Psychology
  2. Latent place learning in a novel environment and the influences of prior training in rats
    Julian R. Keith, Katherine M. McVety · 1988 · Psychobiology
  3. Rodent navigation after dissociation of the allocentric and idiothetic representations of space
    Jan Bureš, André Antonio Fenton, Yu. Kaminsky, M Wesierska, A. Zahálka · 1998 · Neuropharmacology
  4. Flexible use of proximal objects and distal cues by hippocampal place cells
    Sophie Renaudineau, Bruno Poucet, Étienne Save · 2007 · Hippocampus
  5. Locating an invisible goal in a water maze requires at least two landmarks
    José Prados, Josep B. Trobalón · 1998 · Psychobiology
  6. The place preference task: A new tool for studying the relation between behavior and place cell activity in rats.
    Jérôme Rossier, Yu. Kaminsky, Françoise Schenk, Jan Bureš · 2000 · Behavioral Neuroscience
  7. Place fields of rat hippocampal pyramidal cells and spatial learning in the watermaze
    Stig Hollup, Sturla Molden, James Grant Donnett, May‐Britt Moser, Edvard Ingjald Moser · 2001 · European Journal of Neuroscience
  8. Control of anterodorsal thalamic head direction cells by environmental boundaries: Comparison with conflicting distal landmarks
    Benjamin J. Clark, Mark Harris, Jeffrey S. Taube · 2010 · Hippocampus
  9. What can the hippocampal representation of environmental geometry tell us about Hebbian learning?
    Colin Lever, Neil Burgess, Francesca Cacucci, Tom Hartley, John M. O'Keefe · 2002 · Biological Cybernetics
  10. A simple network model simulates hippocampal place fields: Parametric analyses and physiological predictions.
    Matthew L. Shapiro, Phil A. Hetherington · 1993 · Behavioral Neuroscience
  11. Rat Head Direction Cell Responses in Zero-Gravity Parabolic Flight
    Jeffrey S. Taube, Robert W. Stackman, Jeffrey L. Calton, Charles M. Oman · 2004 · Journal of Neurophysiology
  12. The Effects of Hippocampal Lesions on Response, Direction, and Place Learning in Rats.
    Krista G. Stringer, Gerard M. Martin, Darlene M. Skinner · 2005 · Behavioral Neuroscience
  13. Concordant and Discordant Coding of Spatial Location in Populations of Hippocampal CA1 Pyramidal Cells
    Joel E. Brown, William E. Skaggs · 2002 · Journal of Neurophysiology
  14. A simple network model simulates hippocampal place fields: II. Computing goal-directed trajectories and memory fields.
    Phil A. Hetherington, Matthew L. Shapiro · 1993 · Behavioral Neuroscience
  15. Evidence for a shift from place navigation to directional responding in one variant of the Morris water task.
    Derek A. Hamilton, Katherine G. Akers, Travis E. Johnson, James P. Rice, Felicha T. Candelaria‐Cook, Edward S. Redhead · 2009 · Journal of Experimental Psychology Animal Behavior Processes
  16. A computer simulation model of rats’ place navigation in the Morris water maze
    Donald M. Wilkie, Ron Palfrey · 1987 · Behavior Research Methods, Instruments, & Computers
  17. Dominance of the Proximal Coordinate Frame in Determining the Locations of Hippocampal Place Cell Activity During Navigation
    Jennifer J. Siegel, Joshua P. Neunuebel, James J. Knierim · 2007 · Journal of Neurophysiology
  18. A role for terrain slope in orienting hippocampal place fields
    Kathryn J. Jeffery, Rakesh L. Anand, Michael I. Anderson · 2005 · Experimental Brain Research
  19. Tasks And Techniques: A Sampling of the Methodologies for the Investigation of Animal Learning, Behavior And Cognition
    Matthew J. Anderson · 2006
  20. Rats use a sense of direction to alternate on T-mazes located in adjacent rooms
    Paul A. Dudchenko, Michelle Davidson · 2002 · Animal Cognition
  21. Rats with dorsal hippocampal lesions do react to new stimuli but not to spatial changes of known stimuli
    Gilberto Fernando Xavier, Cynthia Stein, Orlando Francisco Amodeo Bueno · 1990 · Behavioral and Neural Biology
  22. Remapping of place cell firing patterns after maze rotations
    Arnaud Cressant, Robert U. Muller, Bruno Poucet · 2002 · Experimental Brain Research
  23. The Neural Correlates of Navigation: Do Head Direction and Place Cells Guide Spatial Behavior?
    Gary M. Muir, Jeffrey S. Taube · 2002 · Behavioral and Cognitive Neuroscience Reviews
  24. Interaction between locale and taxon strategies in human spatial learning
    Edward S. Redhead, Derek A. Hamilton · 2007 · Learning and Motivation
  25. Rat anterodorsal thalamic head direction neurons depend upon dynamic visual signals to select anchoring landmark cues
    Michael B. Zugaro, Angelo Arleo, Cyril Déjean, Eric Burguière, Mehdi Khamassi, Sidney I. Wiener · 2004 · European Journal of Neuroscience
  26. Spatial integration with rats
    V. D. Chamizo, Teresa Rodrigo, Nicholas John Mackintosh · 2006 · Learning & Behavior
  27. Head direction cell activity and behavior in a navigation task requiring a cognitive mapping strategy
    Gary M. Muir, Jeffrey S. Taube · 2004 · Behavioural Brain Research
  28. Evidence of blocking with geometric cues in a virtual watermaze
    Edward S. Redhead, Derek A. Hamilton · 2008 · Learning and Motivation
  29. Absence of snapshot memory of the target view interferes with place navigation learning by rats in the water maze.
    María Pía Arolfo, Luděk Nerad, Françoise Schenk, Jan Bureš · 1994 · Behavioral Neuroscience
  30. The role of extramaze cues in place and response learning.
    Donald P. Scharlock · 1955 · Journal of Experimental Psychology
  31. A forwardgoing tendency in maze running.
    John Frederick Dashiell, Abram G. Bayroff · 1931 · Journal of comparative psychology
  32. Latent learning does not produce instantaneous transfer of place navigation: A rejoinder to Keith and McVety
    Ginger L. Chew, Robert J. Sutherland, Ian Q. Whishaw · 1989 · Psychobiology
  33. Visual perception in the white rat.
    Glenn D. Higginson · 1926 · Journal of Experimental Psychology
  34. Retention of cue-based associations in the water maze is time-dependent and sensitive to disruption by rotating the starting position
    Anne-Marie T. McGauran, Deirdre R. Harvey, Lorretto Cunningham, Sarah Craig, Seán Commins · 2003 · Behavioural Brain Research
  35. Preweanling rats solve the Morris water task via directional navigation.
    Katherine G. Akers, Felicha T. Candelaria‐Cook, Derek A. Hamilton · 2007 · Behavioral Neuroscience
  36. Hippocampal remapping: implications for spatial learning and navigation
    James J. Knierim · 2003 · Oxford University Press eBooks
  37. Place Learning by Fimbria-Fornix Transected Rats in a Modified Water Mazea
    Gitta Wörtwein, Lise Holm Saerup, Davy Charlottenfeld-Stapov, Jesper Mogensen · 1995 · International Journal of Neuroscience
  38. Delayed development of place navigation compared to directional responding in young rats.
    Katherine G. Akers, Felicha T. Candelaria‐Cook, James P. Rice, Travis E. Johnson, Derek A. Hamilton · 2009 · Behavioral Neuroscience
  39. The white rat and the maze problem: The introduction of an olfactory control.
    Stella B. Vincent · 1915 · Journal of Animal Behavior
  40. The white rat and the maze problem: The introduction of a visual control.
    Stella B. Vincent · 1915 · Journal of Animal Behavior
  41. Evidence for the flexible use of spatial knowledge in the rat
    Douglas B. Matthews, Phillip J. Best · 1997 · Psychobiology
  42. Frequency and recency factors in maze learning by white rats.
    Joseph K. Peterson · 1917 · Journal of Animal Behavior
  43. Impairment of place navigation of rats in the Morris water maze by intermittent light is inversely related to the duration of the flash
    Z. Liu, Liliana Francis Turner, Jan Bureš · 1994 · Neuroscience Letters
  44. A Room with a View and a Polarizing Cue: Individual Differences in the Stimulus Control of Place Navigation and Passive Latent Learning in the Water Maze
    Bryan D. Devan, Herbert L. Petri, Mortimer Mishkin, Eric M. Stouffer, Jonna L. Bowker, Pingbo Yin, Deanne M. Buffalari, James L. Olds · 2002 · Neurobiology of Learning and Memory
  45. Some Transfer Factors in Maze Learning by the White Rat.
    John Frederick Dashiell · 1920 · Psychobiology
  46. Active Spatial Information Processing in the Septo-Hippocampal System
    Taketoshi Ono, Hisao Nishijo · 1999 · Hippocampus
  47. Variables in spatial learning. I. Number of reinforcements during training.
    Howard H. Kendler, William P. Gasser · 1948 · Journal of Comparative and Physiological Psychology
  48. Single landmark learning in rats: Sex differences in a navigation task
    Laura Forcano, J. Santamaría, Nicholas John Mackintosh, V. D. Chamizo · 2008 · Learning and Motivation
  49. Where am I? Distal cues use requires sensitivity to start location change in the rat.
    Murray R. Horne, Gerard M. Martin, Carolyn W. Harley, Darlene M. Skinner · 2007 · Journal of Experimental Psychology Animal Behavior Processes
  50. Rats’ orientation is more important than start point location for successful place learning.
    Darlene M. Skinner, Murray R. Horne, Kate E. A. Murphy, Gerard M. Martin · 2010 · Journal of Experimental Psychology Animal Behavior Processes
  51. The Path-Integration Properties of Hippocampal Place Cells
    James J. Knierim · 2002 · Springer eBooks
  52. The role of vision in spatial orientation by the white rat.
    John Frederick Dashiell · 1959 · Journal of Comparative and Physiological Psychology
  53. The need for analytical study of the maze problem.
    John Frederick Dashiell · 1920 · Psychobiology
  54. An assessment of response, direction and place learning by rats in a water T-maze
    Jacqueline T. Whyte, Gerard M. Martin, Darlene M. Skinner · 2009 · Learning and Motivation
  55. Completeness of response as an explanation principle in learning.
    Joseph Peterson · 1916 · Psychological Review
  56. Spatial orientation in the white rat.
    H. D. Wilcoxon, Rolland H. Waters · 1948 · Journal of Experimental Psychology
  57. The contribution of spatial cues to memory: Direction, but not cue, changes support response reversal learning.
    Sandra L. Wright, Dene Williams, John H. Evans, Darlene M. Skinner, Gerard M. Martin · 2009 · Journal of Experimental Psychology Animal Behavior Processes
  58. An attractor model for hippocampal place cell hysteresis
    Simona Doboli, Ali A. Minai, Phillip J. Best, Aaron M. White · 2001 · Neurocomputing
  59. Maze learning in rats in the absence of specific intra- and extra-maze stimuli
    Charles H. Honzik · 1933 · University of California Press eBooks
  60. The effect of rotating the maze on the performance of the hooded rat.
    J. A. Gengerelli · 1928 · Journal of comparative psychology
  61. The Sensory Control of the White Rat in the Maze Habit
    Wayne Dennis · 2012 · The Journal of Genetic Psychology
  62. A test by factorial analysis of Honzik's exteroceptive data.
    Robert J. Wherry · 1940 · Journal of comparative psychology
  63. Considerations in evaluating the cognitive mapping theory of hippocampal function
    L. Jarrard · 1979 · Behavioral and Brain Sciences
  64. The influence of different maze surroundings on learning.
    Wilson J. Walthall · 1948 · Journal of Comparative and Physiological Psychology
  65. The Factor of General Orientation in Maze Learning in the White Rat
    Carl John Warden, F. R. Fox · 1931 · The Pedagogical Seminary and Journal of Genetic Psychology
  66. Cortico-hippocampal communication by way of parallel parahippocampal-subicular pathways.
    Lavenex · 2000 · Pure Amsterdam UMC
  67. Untitled work
    1999 · 10.1002/(sici)1098-1063(1999)9:2
  68. Untitled work
    2000 · 10.1002/(sici)1098-1063(2000)10:1