Author
Listed:
- Nancy Padilla-Coreano
(Salk Institute for Biological Studies)
- Kanha Batra
(Salk Institute for Biological Studies
University of California San Diego)
- Makenzie Patarino
(Salk Institute for Biological Studies)
- Zexin Chen
(Shanghai Jiao Tong University)
- Rachel R. Rock
(Massachusetts Institute of Technology)
- Ruihan Zhang
(Massachusetts Institute of Technology)
- Sébastien B. Hausmann
(Salk Institute for Biological Studies
Swiss Federal Institute of Technology (EPFL))
- Javier C. Weddington
(Massachusetts Institute of Technology)
- Reesha Patel
(Salk Institute for Biological Studies)
- Yu E. Zhang
(University of California San Diego)
- Hao-Shu Fang
(Shanghai Jiao Tong University)
- Srishti Mishra
(Salk Institute for Biological Studies)
- Deryn O. LeDuke
(Salk Institute for Biological Studies)
- Jasmin Revanna
(Salk Institute for Biological Studies)
- Hao Li
(Salk Institute for Biological Studies)
- Matilde Borio
(Salk Institute for Biological Studies)
- Rachelle Pamintuan
(Salk Institute for Biological Studies)
- Aneesh Bal
(Salk Institute for Biological Studies)
- Laurel R. Keyes
(Salk Institute for Biological Studies
Salk Institute for Biological Studies)
- Avraham Libster
(Salk Institute for Biological Studies)
- Romy Wichmann
(Salk Institute for Biological Studies)
- Fergil Mills
(Salk Institute for Biological Studies)
- Felix H. Taschbach
(Salk Institute for Biological Studies
University of California San Diego)
- Gillian A. Matthews
(Salk Institute for Biological Studies)
- James P. Curley
(University of Texas at Austin)
- Ila R. Fiete
(Massachusetts Institute of Technology)
- Cewu Lu
(Shanghai Jiao Tong University
Shanghai Artificial Intelligence Laboratory)
- Kay M. Tye
(Salk Institute for Biological Studies
Salk Institute for Biological Studies)
Abstract
Most social species self-organize into dominance hierarchies1,2, which decreases aggression and conserves energy3,4, but it is not clear how individuals know their social rank. We have only begun to learn how the brain represents social rank5–9 and guides behaviour on the basis of this representation. The medial prefrontal cortex (mPFC) is involved in social dominance in rodents7,8 and humans10,11. Yet, precisely how the mPFC encodes relative social rank and which circuits mediate this computation is not known. We developed a social competition assay in which mice compete for rewards, as well as a computer vision tool (AlphaTracker) to track multiple, unmarked animals. A hidden Markov model combined with generalized linear models was able to decode social competition behaviour from mPFC ensemble activity. Population dynamics in the mPFC predicted social rank and competitive success. Finally, we demonstrate that mPFC cells that project to the lateral hypothalamus promote dominance behaviour during reward competition. Thus, we reveal a cortico-hypothalamic circuit by which the mPFC exerts top-down modulation of social dominance.
Suggested Citation
Nancy Padilla-Coreano & Kanha Batra & Makenzie Patarino & Zexin Chen & Rachel R. Rock & Ruihan Zhang & Sébastien B. Hausmann & Javier C. Weddington & Reesha Patel & Yu E. Zhang & Hao-Shu Fang & Srisht, 2022.
"Cortical ensembles orchestrate social competition through hypothalamic outputs,"
Nature, Nature, vol. 603(7902), pages 667-671, March.
Handle:
RePEc:nat:nature:v:603:y:2022:i:7902:d:10.1038_s41586-022-04507-5
DOI: 10.1038/s41586-022-04507-5
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Citations
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Cited by:
- Wenqi Chen & Jiejunyi Liang & Qiyun Wu & Yunyun Han, 2024.
"Anterior cingulate cortex provides the neural substrates for feedback-driven iteration of decision and value representation,"
Nature Communications, Nature, vol. 15(1), pages 1-15, December.
- Atsushi Noritake & Taihei Ninomiya & Kenta Kobayashi & Masaki Isoda, 2023.
"Chemogenetic dissection of a prefrontal-hypothalamic circuit for socially subjective reward valuation in macaques,"
Nature Communications, Nature, vol. 14(1), pages 1-9, December.
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