Soroush Zare

Soroush Zare

Ph.D. Candidate
University of Virginia

About

I am a PhD Candidate at the University of Virginia specializing in AI-driven brain-computer interfaces and intelligent robotics. My research focuses on developing cutting-edge technologies that bridge neuroscience and engineering, with applications in neurorehabilitation, assistive robotics, and human-machine interaction. I combine expertise in EEG signal processing, deep learning, and reinforcement learning to create innovative solutions for real-world healthcare challenges. As a member of the WEARLab, I contribute to advancing wearable robotics and intelligent rehabilitation systems that improve quality of life for individuals with mobility impairments.

Research Focus

  • Brain-Computer Interfaces (BCI): EEG signal processing and neural decoding
  • Artificial Intelligence: Deep learning, reinforcement learning, and transformer models
  • Robotic Control & Automation: Advanced control systems, ROS (Robot Operating System), real-time control optimization, and industrial automation
  • Wearable Robotics: Soft exoskeletons and rehabilitation systems
  • Neurorehabilitation: Adaptive control strategies for motor recovery

Research Experience

🔬 Research Assistant | University of Virginia

Charlottesville, VA • Jan. 2023 - Present

  • Designing and developing soft upper limb rehabilitation exoskeleton
  • Contributed to the design and control of wearable soft rehabilitation robots using soft materials and 3D printing techniques
  • Developed transformer-based deep learning pipelines to decode EEG motor imagery for real-time control of upper-limb exoskeletons
  • Focused on non-invasive EEG signal acquisition, pre-processing, and classification to interpret motor intent and autonomic patterns
  • Collaborating in interdisciplinary teams to integrate high-resolution EEG technologies with real-time motor function support systems
  • Innovating non-invasive EEG sensor technology to reduce setup complexity and enhance user comfort in real-world applications

🔬 Research Assistant | York University

Toronto, Canada • Sept. 2022 - Jan. 2023

  • Developed and simulated robotic grasping mechanisms using UR5 robotic arm in ROS (Robot Operating System)
  • Utilized Gazebo for real-time simulation and testing of robotic control algorithms
  • Implemented deep reinforcement learning techniques for intelligent robotic manipulation

🔬 Research Assistant | University of Tehran

Tehran, Iran • Sept. 2018 - Sept. 2022

Member of Human and Robot Interaction Laboratory (TaarLab)

  • Control Cable-Driven Parallel Robot (CDPR) Using Deep Reinforcement Learning
  • Construct 3-D model of Objects Using CDPR
  • AI-based Object Tracking Using CDPR
  • System Identification of Suspended Under-constrained Cable-driven Robot
  • Control of Suspended Under-constrained Cable-driven Robot Creating 3D Graphical Model of Objects

Projects

🧠 EEGDiffFormer: Transformer-based EEG Decoder

Developed a state-of-the-art transformer-based architecture for EEG motor imagery classification, achieving superior performance in intent validation and robotic adaptation.

💪 NeuroMotion: EEG-Driven Soft Exoskeleton

Designed and implemented a soft exoskeleton system that adapts to user movements using reinforcement learning algorithms and real-time EEG signal processing.

🚴 VR-Bike EEG Study: Neuroplasticity Enhancement

Integrated EEG monitoring with virtual reality cycling to study and enhance neuroplasticity in rehabilitation settings.

🤖 Smart Grasping (UR5): Deep RL in Robotics

Developed intelligent grasping algorithms using deep reinforcement learning for the UR5 robotic arm in Gazebo simulation environment.

🤖 Linux for Robotics: Obstacle Avoidance

Real-time autonomous robot navigation using Bash scripting, ROS 2, and Gazebo simulation. Built for the Linux for Robotics Certificate by The Construct.

Demo Certificate

Publications

Awards

Professional Leadership & Services