Cellular networks underlying human spatial navigation
By Arne D. Ekstrom, Michael J. Kahana, Jeremy B. Caplan, Tony A. Fields, Eve A. Isham, Ehren L. Newman, Itzhak Fried. Nature, 2003
1,379 citations recorded by the source corpus.
Subfields: Cognitive Neuroscience, Sensory Systems
View Paper: https://www.semanticscholar.org/paper/117939f9f0f3a5e0de562cc2604d1758a4f0f641
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Cognitive Neuroscience
- György Buzsáki
- Loren M. Frank
- David J. Foster
- Neil Burgess
- E. T. Rolls
- James J. Knierim
- Howard Eichenbaum
- Michael E. Hasselmo
In Sensory Systems
- Eric Krokos
- Amitabh Varshney
- Catherine Plaisant
- Russell A. Epstein
- M. Le Moal
- Neil Burgess
- E. T. Rolls
- Giulio Tononi
Citations in the corpus
- Adult neurogenesis: from precursors to network and physiology. (2005, background): “(201), current theories of hippocampal function wrestle with two major conceptual issues: whether the structure encodes spatial, nonspatial, or both types of information (139) and whether the information encoded is episodic or semantic.”
- The Role of Hippocampal Replay in Memory and Planning (2018, background): “Replay in Human and Non-human Primates Because of the relative paucity of single unit electrophysiology studies outside of the rodent, there is limited evidence for the existence of hippocampal replay in humans and non-human primates, though a number of studies have reported spatial and non-spatial ”
- Is there a geometric module for spatial orientation? squaring theory and evidence (2005, result): “Even more strikingly, the Maguire et al. hypothesis is consistent with data obtained by Ekstrom et al. (2003) , who conducted the first single-cell investigation of human spatial functioning.”
- Entorhinal Cortex Lesions Disrupt the Relational Organization of Memory in Monkeys (2004, background): “A popular view is that the hippocampus is specialized or disproportionately devoted to learning and memory for spatial information (Parkinson et al., 1988; Nadel, 1991; Gagliardo et al., 1999; Matsumura et al., 1999; Ekstrom et al., 2003).”
- Pattern separation, completion, and categorisation in the hippocampus and neocortex. (2016, background): “Further support for this type of representation of space being viewed ‘out there’ rather than only where one is located as for rat place cells is that cells in the human hippocampus have been found that respond to landmarks (or spatial views), with others coding for location (Ekstrom et al., 2003; R”
- Real versus imagined locomotion: A [18F]-FDG PET-fMRI comparison (2010, background): “The importance of this region for visually-guided spatial orientation and navigation has been shown (Ekstrom et al., 2003; Gron et al., 2000; Maguire et al., 1998).”
- Sequence Learning and the Role of the Hippocampus in Rodent Navigation (2012, positive): “Place cells have been recorded from the hippocampus of mice [70,71], rabbits [72], bats [73], and monkeys [74,75], and there is evidence that they may exist in humans as well [76].”
- Do Humans Integrate Routes Into a Cognitive Map? Map- Versus Landmark-Based Navigation of Novel Shortcuts (2005, background): “Further, this possibility was considered and ruled out by Fujita et al. (1993) in an analysis of path integration.”
- Environmental enrichment and neurogenesis: from mice to humans (2015, neutral): “[64 ,65 ].”
- Audio-Visual Embodied Navigation (2019, background): “The importance of vision in human navigation is well studied in neuroscience [27]: humans use their vision to build an internal representation, a cognitive map, and extract landmark information that facilitates navigation [93, 28, 1, 45].”