edvard-moser-lecture-slides

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2. Fine-scala functional anatomy To understand how grid patterns are generated, and how grid cells interact with other cell types, we need to determine how the network is wired together. But tetrode recordings are not sufficient for this purpose.
Determining the fine-scale functional topography of the entorhinal space network: Optical imaging with a fluorescent calcium indicator would improve the spatial resolution beyond that of tetrodes… But access to the medial entorhinal cortex is a challenge.. Lateral Dorsal Sinus postrhinal cortex MEC Franklin & Paxinos The Mouse Brain Albert Tsao Tobias Bonhoeffer Possible solution: Accessing the entorhinal surface through a prism Tsao et al., unpublished; See Heys et al, Neuron, Dec 2014, for a similar approach
Page 1 and 2: Nobel Prize in Physiology or Medici
Page 3 and 4: 1959 -: 1971 -: The high end… Sig
Page 5 and 6: CA1 cells continued to express plac
Page 7 and 8: Entorhinal cells had spatial fields
Page 9 and 10: Grid phase (x, y-locations) is dist
Page 11 and 12: Grid phase (x, y-locations) is dist
Page 13 and 14: Grid scale (spacing) follows a dors
Page 15 and 16: The average scale ratio of successi
Page 17 and 18: Grid maps: Scale, orientation and p
Page 19 and 20: 1. Mechanism for geometric alignmen
Page 21 and 22: Grid orientation is determined by t
Page 27 and 28: What is special about 7.5˚? 7.5˚
Page 29 and 30: Elliptification and axis rotation m
Page 31: Shear forces along the walls cause
Page 35 and 36: Hundreds of entorhinal cells can be
Page 37 and 38: Grid cells are distributed but form
Page 43 and 44: 3. Mechanism of hexagonal symmetry:
Page 45 and 46: Origin of hexagonal structure Fuhs
Page 47 and 48: HALF A CENTURY HAS PASSED AND TOLMA
Page 50: A. Wagner

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