Striatal cell-type specific stability and reorganization underlying agency and habit
Malvaez, M.; Liang, A.; Hall, B. S.; Giovanniello, J. R.; Paredes, N.; Gonzalez, J. Y.; Blair, G. J.; Sias, A. C.; Murphy, M. D.; Guo, W.; Wang, A.; Singh, M.; Griffin, N. K.; Bridges, S. P.; Wiener, A.; Pimenta, J. S.; Holley, S. M.; Cepeda, C.; Levine, M. S.; Blair, H. T.; Wikenheiser, A. M.; Wassum, K. M.
Show abstract
Adaptive, goal-directed decision making requires agency, knowledge that an action will cause a particular outcome. For well-practiced routines, agency is relinquished in favor of automatic habits. Here, we used cell-type specific, longitudinal, cellular-resolution, microendoscopic calcium imaging, chemogenetics, instrumental conditioning and a test of behavioral strategy to ask how dorsomedial striatum D1+ and D2/A2A+ neurons contribute to the formation of agency and habit. We found that DMS D1+ neurons stably encode actions and variables related to goal-directed v. habitual behavioral strategy, develop encoding of the action-outcome relationship, and are critical for both action-outcome learning and the application of this learned agency for flexible, goal-directed decision making. Conversely, one ensemble of A2A+ neurons transiently encodes actions and behavioral transition variables during early action-outcome learning and another slowly starts to encode actions as routine habits form. Correspondingly, A2A+ neurons are only transiently necessary for initial formation of the action-outcome model underlying agency. Thus, agency is learned through DMS D1+ and A2A+ neuronal activity and then maintained in DMS D1+ neurons to support adaptive, goal-directed decision making. Habit formation is associated with reorganization of A2A+ neuronal encoding. These data reveal important insights into the neuronal circuits of learning and decision making.
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