Hello, I'm Sundari Elango

I'm a PhD candidate in Computational Neuroscience at IIT Madras, specializing in stroke rehabilitation, motor learning, and developing innovative virtual reality applications for healthcare. I have extensive experience in AI research and computational neuroscience.

About

I'm currently pursuing my PhD in Computational Neuroscience at IIT Madras with a CGPA of 9.3. My research focuses on developing patient-specific computational tools for rehabilitation in hemiparetic stroke of the upper extremity.

I combine computational neuroscience, machine learning, and virtual reality to create innovative solutions for stroke rehabilitation and motor learning. My work bridges the gap between theoretical neuroscience and practical healthcare applications.

I have extensive experience in developing virtual reality gaming systems for stroke patients, automated movement evaluation systems, and hierarchical motor learning networks. My work has been published in prestigious journals and presented at international conferences.

Sundari Elango presenting research at academic conference

Research Focus

Computational Models for Stroke Rehabilitation

My primary research focus is on developing computational models that can help understand and improve rehabilitation strategies for stroke patients. I work on creating patient-specific models that can predict recovery trajectories and optimize therapy approaches.

Motor Learning and Adaptation

I study the neural mechanisms underlying motor learning and adaptation, with a particular focus on how the brain adapts to perturbations and transfers skills between limbs. This research has implications for understanding recovery after neurological injury.

Virtual Reality Applications in Healthcare

I develop and evaluate virtual reality applications for healthcare, particularly focusing on rehabilitation. My work includes creating engaging VR environments that can motivate patients and provide real-time feedback during therapy.

Stroke Rehabilitation Projects

RL-based Model for Stroke Patient Assistance

Developing an RL-based model to learn how to play a virtual tennis game for stroke rehabilitation. The system anticipates and assists patients in recovery by playing the game along with the patient during rehabilitation.

GPUPythonAnacondaDQN

Virtual Reality Gaming System for Stroke Rehabilitation

A comprehensive virtual reality gaming system for upper extremity rehabilitation in stroke patients. The system has been deployed in several hospitals across India, integrating computer vision techniques to recognize patient gestures.

Unity EngineZMQ moduleVirtual Reality

Automated Movement Evaluation System for Stroke Patients

Using computer vision techniques to develop low-cost, affordable tools for evaluating motor performance in stroke patients. Building systems to evaluate, monitor and track improvements in motor performance.

MediaPipeOpenCVLSTMFlip flop neurons

Mapping Rehabilitation Therapy to Lesion in Stroke

Developed a simple feedforward network to capture basic features of bimanual reaching. Introduced stroke to this network and analyzed impact of increasing complexity of movements used in retraining on recovery.

KerasCNNBlenderRetrainingStroke

Publications

Journal Articles

A lateralized motor network in order to understand adaptation to visuomotor rotation

S. Elango, V. S. Chakravarthy, and P. K. Mutha

Journal of Neural Engineering, vol. 21, 2024

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Interaction of network and rehabilitation therapy parameters in defining recovery after stroke in a bilateral neural network

S. Elango, A. J. A. Francis, and V. S. Chakravarthy

Journal of NeuroEngineering and Rehabilitation, vol. 19, 2022

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A cortico-basal ganglia model for choosing an optimal rehabilitation strategy in hemiparetic stroke

R. Narayanamurthy, S. Jayakumar, S. Elango, V. Muralidharan, and V. S. Chakravarthy

Scientific Reports, vol. 9, 2019

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Recent Conference Proceedings

A computational model to understand hemispheric specialization in motor control

S. Elango, V. S. Chakravarthy, and P. Mutha

32nd Annual Computational Neuroscience Meeting, Germany, 2023

A comprehensive gaming system for rehabilitation of upper extremity post stroke

S. Elango, A. J. A. F, D. Darshini, et al.

11th International Brain Research Organization World Congress of Neuroscience, Spain, 2023

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Feasibility and efficacy of virtual reality rehabilitation for the treatment of impairment of the upper extremity due to ischemic stroke

R. Paul, S. Elango, S. Hafsa, et al.

11th Annual Conference of the Indian Federation of Neurorehabilitation, 2023

Automation of fugl-meyer assessment

A. Sharma, A. J. A. F, S. Elango, and V. S. Chakravarthy

13th World Stroke Congress (WSO 2021), 2021

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Patents

Virtual Reality Gaming System for Stroke Rehabilitation

Filed

A comprehensive virtual reality gaming system designed specifically for upper extremity rehabilitation in stroke patients. The system integrates computer vision techniques for gesture recognition and provides real-time feedback for motor performance evaluation.

Healthcare TechnologyVirtual RealityRehabilitation

Automated Movement Evaluation System for Motor Performance Assessment

Filed

A low-cost, computer vision-based system for automated evaluation of motor performance in patients. The system uses advanced algorithms to track and analyze movement patterns, providing objective assessments for rehabilitation progress.

Medical DevicesComputer VisionHealthcare Analytics

Interaction of Network and Rehabilitation Therapy Parameters in Defining Recovery After Stroke

Filed

A computational framework that models the interaction between neural network parameters and rehabilitation therapy variables to predict and optimize recovery outcomes in stroke patients. The system provides insights into personalized rehabilitation strategies.

Computational NeuroscienceRehabilitation MedicinePredictive Modeling

Cortico-Basal Ganglia Model for Optimal Rehabilitation Strategy Selection

GrantedPatent No: 507924

A biologically-inspired computational model based on cortico-basal ganglia circuits that determines optimal rehabilitation strategies for hemiparetic stroke patients. The model considers patient-specific factors to recommend personalized therapy approaches.

Neural NetworksStroke RehabilitationDecision Support Systems

Get in Touch

I'm always interested in discussing research collaborations, innovative projects in computational neuroscience, and opportunities to apply AI in healthcare and rehabilitation.