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MAPlab   Memory, Action and Perception Laboratory

Elucidating the Neural Mechanisms of Action Control. At MAPlab, we investigate the transformation of mental events into physical action. Our research maps the cognitive architecture that bridges the gap between perception and behavior—from the basic mechanics of movement to the complex neural circuits that drive goal-oriented decision-making.

Our Research Focus

We explore the intersection of three critical cognitive domains to understand how humans interact with their environment:

  • Perception & Attention: How sensory inputs are filtered and processed to guide movement.

  • Decision-Making: The neural computations that precede voluntary action.

  • Memory & Learning: How past experiences and reinforcement shape future behaviour.

Methodological Approach

We employ a multimodal, quantitative strategy to probe the brain's control systems:

  • Neuroimaging: High-resolution functional and structural MRI to map functional networks and anatomical connectivity.

  • Computational Modelling: Using mathematical frameworks to formalize learning behaviors and predict decision-making processes.

  • Behavioral Analytics: Precise measurement of human kinematics and response patterns.

Translational Impact

Beyond fundamental neuroscience, our work aims to characterize the pathophysiology of injury and disease. By decoding the healthy mind in motion, we are establishing new baselines for understanding and treating disorders that disrupt the mind-body connection.

Most recent publications from the lab

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Transfer of motor learning is associated with patterns of activity in the default mode network

Rezaei, A., Areshenkoff, C.N., Gale, D.J., De Brouwer, A.J., Nashed, J.Y., Flanagan, J.R., & Gallivan, J.P. 

Plos Biology

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Contractions in human cerebellar-cortical manifold structure underlie motor reinforcement learning

Zhu, T., Areshenkoff, C.N.​, de Brouwer, A.J., Nashed, J.Y., Flanagan, J.R., & Gallivan, J.P. 

Journal of Neuroscience

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Distinct patterns of connectivity with the motor cortex reflect different components of sensorimotor learning

Areshenkoff, C.N., de Brouwer, A.J., Gale, D.J., Nashed, J.Y., Smallwood, J. Flanagan, J.R. & Gallivan, J.P.

Plos Biology

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Chagnes in social environment impact primate gut microbiota composition

Pearce CS, Bukovsky D, Douchant K, Katoch A, Greenlaw J, Gale DJ, Nashed JY, Brien D, Kuhlmeier VA, Sabbagh MA, Blohm G, De Felice FG, Pare M, Cook DJ, Scott SH, Munoz DP, Sjaarda CP, Tusche A, Sheth PM, Winterborn A, Boehnke S, Gallivan JP.

Animal Microbiome

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Visual statistical learning alters low-dimensional cortical architecture

Rowchan, K., Gale, D.J., Nick, Q., Gallivan, J.P. & Wammes, J.D.

Journal of Neuroscience

Changes in cortical manifold structure following stroke and its relation to behavioral recovery in male macaques

Nashed, J.Y., Gale, D.J., Gallivan, J.P & Cook, D.J.

Nature Communications

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Whole-brain modular dynamics at rest predict sensorimotor learning performance

Standage, D.I., Gale, D.J., Nashed, J.Y., Flanagan, J.R. & Gallivan, J.P.

Network Neuroscience

Adaptation of the gain of the corrective lifting response in object manipulation transfers across the hand.

McGarity-Shipley, M.R., Gallivan, J.P. & Flanagan, J.R.

Scientific Reports

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Distinct patterns of cortical manifold expansion and contraction underlie human sensorimotor adaptation.

Gale, D.J., Areshenkoff, C.N., Standage, D.P., Nashed, J.Y., Markello, R.D., Flanagan, J.R., Smallwood, J. & Gallivan, J.P.

Proceedings of the National Academy of Sciences

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Spontaneous behavioural recovery following stroke relates to the integrity of sensory and association cortices

Nashed, J.Y., Shearer, K.T., Wang, J.Z., Chen, Y., Cook, E.E., Champagne, A.A., Coverdale, N.S., Fernandez-Ruiz, J., Striver, S.I., Gallivan, J.P & Cook, D.J. 

Translational Stroke Research

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The influence of movement-related costs when searching to act and acting to search.

Moskowitz, J.B., Berger, S.A., Fooken, J., Castelhano, M.S., Gallivan, J.P. & Flanagan, J.R.

Journal of Neurophysiology

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Whole-brain dynamics of human sensorimotor adaptation.

Standage, D.I., Areshenkoff, C.N., Gale, D.J., Nashed, J.Y., Flanagan, J.R. & Gallivan, J.P.

Cerebral Cortex

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Neural excursions from low-dimensional manifold structure explain patterns of learning during human sensorimotor adaptation

 

Areshenkoff, C.A., Gale, D.J., Standage, D., Nashed, J.Y., Flanagan, J.R., & Gallivan, J.P.

eLife

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Human variation in error-based and reinforcement motor learning is associated with entorhinal volume

 

de Brouwer, A. J., Areshenkoff, C.A., Rashid, M.R., Flanagan, J.R., Poppenk, J.P. & Gallivan, J.P.

Cerebral Cortex

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Human somatosensory cortex is modulated during motor planning

 

Gale, D.J., Flanagan, J.R. & Gallivan, J.P.

The Journal of Neuroscience

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Motor planning modulates neural activity patterns in early human auditory cortex

 

Gale, D.J., Areshenkoff, C.A., Honda, C., Johnsrude, I. S., Flanagan, J.R. & Gallivan, J.P.

Cerebral Cortex

Contact Us

Principal Investigator

Jason Gallivan, PhD

Centre for Neuroscience Studies

Departments of Psychology &

Biomedical and Molecular Sciences

Queen's University

Kingston, Ontario

K7L 3N6

Email: gallivan@queensu.ca

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