Research

My primary research interests are:

  • Hardware and AI-enabled Security in IoT
  • Generative AI for Hardware Design and Security
  • Neuromorphic and Biologically-Inspired AI Hardware
  • Energy-Efficient and Intelligent Signal Conversion and Processing in IoT
  • Reconfigurable and Adaptive Computer Architectures
  • Low-Power and Reliability-Aware VLSI circuits
  • Emerging Spin-Based Devices
  • Digital Twins and Mixed Reality for Workforce Training and Development
  • Generative AI for Personalized Education

Selected Research Projects

Ongoing: Researching novel and effective approaches for securing the Internet of Things (IoT) Supply Chain vulnerabilities

  • Investigate security vulnerabilities within the IoT supply chain and demonstrate the innovative use of supervised and unsupervised AI approaches to detect and prevent attacks on the IoT hardware supply chain.
  • Investigate possible hardware trojan insertion, firmware attack, and counterfeit component attack on Printed Circuit Boards (PCBs) within the IoT supply chain.
  • Developing security tools for static and dynamic firmware analysis and fuzzing.
  • Developing novel and effective data-driven automated framework for hardware weakness and vulnerability prediction, detection, and mitigation recommendation utilizing Machine Learning, Natural Language Processing, and Large Language Models.
  • Developing secure In-Memory Computing hardware accelerators.
  • Developing Neuromorphic Computing accelerators for hardware security.
  • Investigate security vulnerabilities that exist within the Autonomous Vehicles’ hardware.
  • Trojan Resilience Untrusted Cell Library Analysis, Detection, and Mitigation.

Completed: Researching novel and effective approaches for securing the Internet of Things (IoT) hardware against cutting edge Deep-learning-based Power Side-channel Attacks (DeePSAs) using emerging devices


Completed: Researched beyond von Neumann computing architectures for Internet of Things (IoT) devices and ambient-powered intelligent edge processing


Completed: Designed circuits for energy-efficient and reliable memory and signal conversion applications leveraging 2-terminal commercially-available STT-MTJs and 3-terminal emerging SOT-MTJs


Completed: Developed mixed-signal cross-layer algorithmic and hardware approaches for heterogeneous technology reconfigurable computing fabrics for in-situ signal processing