Area of research
Control and Systems Engineering · Biomedical Engineering
Research interest
Research interests include Bone Tissue Engineering Materials, Advanced Control Systems Optimization, Control Systems and Identification, and Fault Detection and Control Systems.
Clustering Then Estimation of Spatio-Temporal Self-Exciting Processes
Developing ML/AI Methods for High-Throughput Characterization of Multiple-Sensor Streams of Tokamak Dynamics for High-Speed Control (Final Report)
Code and Data Repository for Clustering Then Estimation of Spatio-Temporal Self-Exciting Processes
Invited Paper: Detection of False Data Injection Attacks in Power Systems Using a Secured-Sensors and Graph-Based Method
Future challenges in the<i>in vitro</i>and<i>in vivo</i>evaluation of biomaterial biocompatibility
First-in-Human Testing of a Wirelessly Controlled Drug Delivery Microchip
CPS: Medium: GOALI: Enabling Safe Innovation for Autonomy: Making Publish/Subscribe Really Real-Time
Collaborative Research: Bridging the scale gap between local and regional methane and carbon dioxide isotopic fluxes in the Arctic
RAPID: Ongoing Impacts of the Extraordinary Hunga Tonga Volcanic Eruption on the Stratosphere
CNS Core: Small: Budgets, Budgets Everywhere: A Necessity for Safe Real-Time on Multicore
CAREER: Towards Scale-Invariant Identification and Synthesis Algorithms for Control Using Randomization
Collaborative Research: Scalable & Communication Efficient Learning-Based Distributed Control
Collaborative Research: Bridging the scale gap between local and regional methane and carbon dioxide isotopic fluxes in the Arctic
CPS: Medium: GOALI: Enabling Scalable Real-Time Certification for AI-Oriented Safety-Critical Systems
Collaborative Research: Bridging the scale gap between local and regional methane and carbon dioxide isotopic fluxes in the Arctic
CPS: Medium: GOALI: Real-Time Computer Vision in Autonomous Vehicles: Real Fast Isn't Good Enough
CSR: Small: Software Transactional Memory for Real-Time Systems
RAPID: Ozone Loss Over the United States in Summer: Advancing Innovative Climate-Chemistry Research via In Situ Observations of ClO and BrO on Solar Powered Stratospheric Aircraft
CSR: Medium: Supporting Real-Time Data Flows on Heterogeneous Multicore Platforms
CPS: Synergy: Doing More With Less: Cost-Effective Infrastructure for Automotive Vision Capabilities
CPS: Breakthrough: Collaborative Research: Bringing the Multicore Revolution to Safety-Critical Cyber-Physical Systems
Travel Subsidies for 2013 CPS PI Meeting
Collaborative Research: Multi-Regional Scale Aircraft Observations of Methane and Carbon Dioxide Isotopic Fluxes in the Arctic
CSR: Small: A Comprehensive Framework for Real-Time Multiprocessor Synchronization
MRI: Development of a New Instrument to Observe Isotopic Fluxes of Methane and Carbon Dioxide from Arctic Melt Regions, to Link Carbon Fluxes, Climate Feedbacks and Sea Level Rise
Collaborative Research: VOCALS--Interaction of Aerosols with Marine Boundary Layer Clouds
EHCS(EHS), TM: Real-Time Synchronization on Multicore Platforms
Development of a Laser-Induced Fluorescence Ground-Based Instrument for Measurements of Atmospheric Iodine Monoxide
CSR---EHS: Real-Time Computing on Multicore Platforms