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The Journal of Neuroscience, September 15, 2001, 21(18):7284-7292
Dentate Gyrus and CA1 Ensemble Activity during Spatial Reference
Frame Shifts in the Presence and Absence of Visual Input
Katalin M.
Gothard1,
Kari L.
Hoffman2,
Francesco
P.
Battaglia2, and
Bruce L.
McNaughton2
1 Department of Psychiatry, California Regional Primate
Research Center, University of California Davis, Davis, California
95616, and 2 Arizona Research Laboratory Division of
Neural Systems, Memory and Aging, University of Arizona, Tucson,
Arizona 85724
In rats shuttling between a variably placed landmark of origin and
a fixed goal, place fields of hippocampal CA1 cells encode location in
two spatial reference frames. On the initial part of the outbound
journey, place fields encode location with respect to the origin while
on the final segment, place fields are aligned with the goal (Gothard
et al., 1996b). An abrupt switch of reference frame can be
induced experimentally by shortening the distance between the origin
and the goal. Two linked hypotheses concerning this effect were
addressed: (1) that the persistent, landmark-referenced firing results
from some internal dynamic process (e.g., path integration or
"momentum") and is not a result of maintained sensory input from
the landmark of origin; and (2) that this hypothetical process is
generated by connections either within CA3 or between CA3 and CA1, in
which case the effect might be absent from the dentate gyrus. Neuronal
ensemble recordings were made simultaneously from CA1 and the dentate
gyrus as rats shuttled on a linear track between a variably located box
and a goal, under light or dark conditions. The box-referenced firing
persisted significantly longer in the dark in both hippocampal
subfields, suggesting a competitive interaction between an internal
dynamic process and external sensory cues. The similarity between
reference frame transitions in the dentate gyrus and the CA1 region
suggests that this process probably occurs before CA3, possibly in the
entorhinal cortex or subiculum.
Key words:
multisite recording; path integration; spatial memory; navigation; neural ensembles; population vector; granule cells
Copyright © 2001 Society for Neuroscience 0270-6474/01/21187284-09$05.00/0
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