ThermoMaze behavioral paradigm for assessing immobility-related brain events in rodents

Brain states fluctuate between exploratory and consummatory phases of behavior. These state changes affect both internal computation and the organism’s responses to sensory inputs. Understanding neuronal mechanisms supporting exploratory and consummatory states and their switching requires experimental control of behavioral shifts and collecting sufficient amounts of brain data. To achieve this goal, we developed the ThermoMaze, which exploits the animal’s natural warmth-seeking homeostatic behavior. By decreasing the floor temperature and selectively heating unmarked areas, we observed that mice avoided the aversive state by exploring the maze and finding the warm spot. In its design, the ThermoMaze is analogous to the widely used water maze but without the inconvenience of a wet environment and, therefore, allows the collection of physiological data in many trials. We combined the ThermoMaze with electrophysiology recording, and report that spiking activity of hippocampal CA1 neurons during sharp-wave ripple events encode the position of mice. Thus, place-specific firing is not confined to locomotion and associated theta oscillations but persist during waking immobility and sleep at the same location. The ThermoMaze will allow for detailed studies of brain correlates of immobility, preparatory–consummatory transitions, and open new options for studying behavior-mediated temperature homeostasis.

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Publication Details

Journal
eLife
Published
2025-02-12
DOI
https://doi.org/10.7554/elife.90347.3
Primary Topic
Memory and Neural Mechanisms
Type
article
Field-Weighted Citation Impact
0.00

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article

ThermoMaze behavioral paradigm for assessing immobility-related brain events in rodents

Yunchang Zhang, György Buzsáki, Roman Huszár, Aryeh Rothstein et al.
eLife
Memory and Neural Mechanisms
article

ThermoMaze behavioral paradigm for assessing immobility-related brain events in rodents

Yunchang Zhang, György Buzsáki, Roman Huszár, Aryeh Rothstein, Mihály Vöröslakos, Kathryn McClain
article en

Abstract

Brain states fluctuate between exploratory and consummatory phases of behavior. These state changes affect both internal computation and the organism’s responses to sensory inputs. Understanding neuronal mechanisms supporting exploratory and consummatory states and their switching requires experimental control of behavioral shifts and collecting sufficient amounts of brain data. To achieve this goal, we developed the ThermoMaze, which exploits the animal’s natural warmth-seeking homeostatic behavior. By decreasing the floor temperature and selectively heating unmarked areas, we observed that mice avoided the aversive state by exploring the maze and finding the warm spot. In its design, the ThermoMaze is analogous to the widely used water maze but without the inconvenience of a wet environment and, therefore, allows the collection of physiological data in many trials. We combined the ThermoMaze with electrophysiology recording, and report that spiking activity of hippocampal CA1 neurons during sharp-wave ripple events encode the position of mice. Thus, place-specific firing is not confined to locomotion and associated theta oscillations but persist during waking immobility and sleep at the same location. The ThermoMaze will allow for detailed studies of brain correlates of immobility, preparatory–consummatory transitions, and open new options for studying behavior-mediated temperature homeostasis.

eLifeVol. 12
Neurosciences Institute (US), Princeton University (US), Neuroscience Institute (IT), New York University (US)
National Institutes of Health
Clean water and sanitation
Openalex Percentile: Top 96%
Memory and Neural Mechanisms
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ThermoMaze behavioral paradigm for assessing immobility-related brain events in rodents — Yunchang Zhang, György Buzsáki, et al. · eLife (2025) | TGRS Research Map | TGRS