Bharat Singhal

I am a third-year Ph.D. student in the Applied Mathematics Lab at Washington University in St. Louis. My primary research interests are in control theory, network science, and nonlinear dynamics. Specifically, my research focuses on understanding and controlling complex networks of nonlinear units using tools from control theory and optimization.

I received my bachelor’s degree (B.Tech) in Electrical Engineering and my master's degree (M.Tech) in Control Systems Engineering from IIT Kharagpur in 2017. After obtaining my master's, I worked as an engineer in the Design Methodology and Kit Development (DMKD) division at TSMC for three years.

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Research Topics

I am passionate about the following research problems that have potential applications in a variety of scientific disciplines, ranging from neuroscience to circadian biology.

  • Data-driven Network Inference: Inferring the connectivity structure of a network of nonlinear oscillators from the measurement data.
  • Control of Dynamic Patterns: Designing external stimuli to regulate the collective behavior, such as synchronization or desynchronization, for a network of nonlinear oscillators.
Recent Works
Optimal Phase-Selective Entrainment of Heterogeneous Oscillator Ensembles
Bharat Singhal, Istvan Z. Kiss, Jr-Shin Li
SIAM Journal on Applied Dynamical Systems

Designing optimal entrainment signals that entrain an ensemble of heterogeneous nonlinear oscillators at desired phases.

Iterative Approach to Optimal Control Design for Oscillator NetworksAn
Bharat Singhal, Minh Vu, Shen Zeng, Jr-Shin Li
ACC, 2023

Designing time or energy-optimal controls for a network of coupled neurons.

Engineering spatiotemporal patterns: information encoding, processing, and controllability in oscillator ensembles
Walter Bomela, Bharat Singhal, Jr-Shin Li
Biomedical Physics & Engineering Express

A principled control technique for designing optimal stimuli that produce desired spatiotemporal patterns in a network of interacting neurons without requiring feedback information.

A Data-efficient Framework for Inference of Nonlinear Oscillator Networks
Bharat Singhal, Minh Vu, Shen Zeng, Jr-Shin Li
IFAC World Congress, 2023

A data-driven inference technique that can identify the network structure reliably in the case of limited measurement data.

Finding influential nodes in networks using pinning control: Centrality measures confirmed with electrochemical oscillators
Walter Bomela, Michael Sebek , Raphael Nagao, Bharat Singhal, Istvan Z. Kiss, Jr-Shin Li
Chaos: An Interdisciplinary Journal of Nonlinear Science

A system-theoretic approach for finding the most influential node for network stabilization.