Abstract
Outside of the laboratory, animals behave in spaces where they can transition between open areas and coverage as they interact with others. Replicating these conditions in the laboratory can be difficult to control and record. This has led to a dominance of relatively simple, static behavioral paradigms that reduce the ethological relevance of behaviors and may alter the engagement of cognitive processes such as planning and decision-making. Therefore, we developed a method for controllable, repeatable interactions with others in a reconfigurable space. Mice navigate a large honeycomb lattice of adjustable obstacles as they interact with an autonomous robot coupled to their actions. We illustrate the system using the robot as a pseudo-predator, delivering airpuffs to the mice. The combination of obstacles and a mobile threat elicits a diverse set of behaviors, such as increased path diversity, peeking, and baiting, providing a method to explore ethologically relevant behaviors in the laboratory.
Original language | English (US) |
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Article number | 113671 |
Journal | Cell reports |
Volume | 43 |
Issue number | 2 |
DOIs | |
State | Published - Feb 27 2024 |
Funding
We thank H. Davoudi for help with setting up animal care and pilot experiments. We thank L. Browdy, P. Ryan, J. Murciano, B. Zitzewitz, S. Griswold, and A. Ulmer for assisting with behavioral experiments and animal care. This work was funded by NSF IIS 2123725 and NSF ECCS 1835389 (to M.A.M. and D.A.D.).
Keywords
- CP: Neuroscience
- behavioral task
- naturalistic
- planning
- predator-prey
- reconfigurable arena
- representations of others
- robot
- spatial cognition
- spatial navigation
ASJC Scopus subject areas
- General Biochemistry, Genetics and Molecular Biology