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1 perties is the spatially selective firing of hippocampal 'place cells'.
2 be precisely connected to the properties of hippocampal place cells.
3 te reorganization of the firing locations of hippocampal place cells.
4 ough replay of sequential neural activity in hippocampal place cells.
5 gdala can produce stress-like alterations on hippocampal place cells.
6 ts underlying the spatial firing patterns of hippocampal place cells.
7 hanges in firing rates, but not locations of hippocampal place cells.
8 onsible for the phase-distance invariance of hippocampal place cells.
9 previously identified such responses within hippocampal place cells [1], the activity of which is th
10 Although these spatial functions depend on hippocampal place cells(2,3), the relationship between p
12 memory task, providing causal evidence that hippocampal place cells actively support spatial navigat
13 s during observation also predict subsequent hippocampal place cell activities during sharp-wave ripp
14 Visual cues exert a powerful control over hippocampal place cell activities that encode external s
19 thesis, we inactivated the mPFC and recorded hippocampal place cell activity while animals were perfo
20 es to an environment result in plasticity of hippocampal place cell activity, while in the absence of
26 predictions about the expected properties of hippocampal place cells and other cells of the proposed
27 atial cues, consistent with prior studies of hippocampal place cells and providing a rich representat
30 ent study examines the effects of ethanol on hippocampal place-cell and interneuron activity in freel
31 body of literature on the characteristics of hippocampal "place cells" and their relevance for our un
32 ucidate the links among synaptic plasticity, hippocampal place cells, and spatial memory, place cells
33 c conditional plasticity for actively firing hippocampal place cells, and that the BLA mediates this
45 Even during completely novel experiences, hippocampal "place cells" are rapidly configured such th
46 ignaling of fear influences the stability of hippocampal place cells as a function of threat distance
47 s process, here we interrogated ensembles of hippocampal place cells as rats explored 15 novel linear
48 potential relationships between engrams and hippocampal place cells, as well as the molecular, cellu
50 t al. discover that neuronal firing rates of hippocampal place cells code for periodically repeating
51 e data also support the hypothesis that aged hippocampal place cells, compared with young, may more o
56 may be to help localize the firing fields of hippocampal place cells during formation and use of the
57 l interaction of visual cortical neurons and hippocampal place cells during spatial navigation behavi
58 ional imaging, we found large populations of hippocampal place cells during virtual navigation, globa
59 l navigation capacity involves the replay of hippocampal place-cells during awake states, generating
66 a rhythms temporally coordinate sequences of hippocampal place cell ensembles during active behaviors
68 lidation [14, 15], since the reactivation of hippocampal place cell ensembles occurs during ripples [
69 smission probabilities on the ability of the hippocampal place cell ensembles to produce a cognitive
70 Recent progress has identified sequences of hippocampal place cells, evolving at multiple timescales
71 uring navigation to a goal, a portion of the hippocampal place cells exhibit directional preferences,
75 eriment, CNQX disrupted the stability of rat hippocampal place cell fields in a familiar environment.
79 el activity patterns produced when groups of hippocampal place cells fire in sequences that reflect a
82 Therefore, we tested the hypothesis that hippocampal place cell firing is impaired after PAE by p
83 information is encoded by location-dependent hippocampal place cell firing rates and sub-second, rhyt
85 track, in a correlated fashion with those of hippocampal place cells firing at overlapping locations.
86 l neurons that are functionally coupled with hippocampal place cells for spatial processing during na
90 The representation of distinct spaces by hippocampal place cells has been linked to changes in th
93 Consistent with this idea, the firing of hippocampal "place cells" have been shown to represent n
94 patial firing pattern owing to feedback from hippocampal place cells (i.e. a hexagonal pattern of rem
99 aset that contains the spike activity of rat hippocampal place cells in the CA1, CA2, and CA3 subregi
103 ressive improvement in spatial coding in new hippocampal place cell maps depends on the existence of
105 onstrated in a computational model, that the hippocampal place cells may ultimately be interested in
106 An important issue is understanding how the hippocampal place-cell network represents specific prope
107 e map of space, thought to be implemented by hippocampal place cells: neurons that exhibit location-s
108 lcium imaging and electrophysiology to track hippocampal place cells over 2 weeks of online spatial r
109 ere represented by the temporal relations of hippocampal place cell pairs within cycles of theta osci
110 pocampal manipulations, and the discharge of hippocampal place cell populations judiciously alternate
112 During both sleep and awake immobility, hippocampal place cells reactivate time-compressed versi
114 that contextual fear conditioning results in hippocampal place cell remapping and long-term stabiliza
120 mpaired the retrieval of a previously stored hippocampal place cell representation regardless of age.
122 to two differently shaped environments, the hippocampal-place-cell representations of those environm
123 trials and are correlated with activities of hippocampal place cells representing the same trajectori
129 We investigated whether such coordination of hippocampal place cell sequences is disrupted during err
132 oded by "theta sequences," ordered series of hippocampal place cell spikes that reflect the order of
133 In a recent study, Heiser et al. showed that hippocampal place cell stability and spatial encoding we
140 Replay is the sequential reactivation of hippocampal place cells that represent previously experi
141 ry depends on the reactivation ('replay') of hippocampal place cells that were active during recent b
142 show, using physiological evidence from rat hippocampal place cells, that the path-integration gain
143 h rate and place representations are used by hippocampal place cells to encode behavioral episodes, r
144 a conjunctive code that potentially enables hippocampal place cells to jointly represent spatial and
146 ptors and compared the changes in downstream hippocampal place cells to those of neurons in MEC.
147 complements the positional signal carried by hippocampal place cells; together, the directional and p
150 e more similar to canonical, sparsely firing hippocampal place cells, whereas neurons in the distal s
151 elative to an environment's geometry, unlike hippocampal place cells, which activate at particular ra
152 GNIFICANCE STATEMENT We investigated whether hippocampal place cells, which compute a self-localizati
153 prevent the storage of stable "rate maps" by hippocampal place cells, which in turn may contribute to
154 which the brain represents space is through hippocampal place cells, which indicate when an animal i
155 the neural basis of this theory, we examined hippocampal place cells, which represent spatial informa
157 of memories, we recorded large ensembles of hippocampal place cells while male rats ran repeated spa
158 tation of environmental location provided by hippocampal place cells while mice navigated a virtual r
159 ession is a well known phenomenon in which a hippocampal place cell will fire action potentials at su
160 a preconfigured network of taste-responsive hippocampal place cells with large fields, whose spatial
161 irectly the neurophysiological correlates of hippocampal place cells with navigational planning and a
162 kg ethanol potently suppressed the firing of hippocampal place-cells without altering place-field loc
163 ion information to entorhinal grid cells and hippocampal place cells, yaw plane optic flow signals li