Academic CV · PhD Applications

Panagiota Grosdouli

Robotics · Robust Autonomy · Uncertainty-Aware AI

Download PDF CV

Profile

Electrical and Computer Engineering student building a PhD-oriented research portfolio in robust autonomy, visual-inertial localization, adaptive SLAM, uncertainty-aware sensor fusion, risk-aware navigation, and intelligent mobility safety.

Research Direction

My central research interest is how autonomous systems can remain reliable when perception, localization, mapping, and planning become uncertain.

I am particularly interested in graduate research groups working on SLAM, field robotics, UAV autonomy, safe robot navigation, uncertainty-aware perception, and intelligent transportation systems.

Education

MEng Electrical & Computer Engineering

2020–2026

Democritus University of Thrace, Xanthi, Greece

Thesis direction: Trajectory Prediction of Vulnerable Road Users at Smart Intersections

Research Interests

  • -Robust Autonomy: autonomous systems that remain reliable under perception, localization, and map uncertainty
  • -Visual-Inertial Odometry & SLAM: degradation monitoring, adaptive sensor fusion, and self-healing localization
  • -Risk-Aware Navigation: planning and replanning under uncertainty, collision risk, and safety constraints
  • -Intelligent Mobility: trajectory prediction and vulnerable road-user safety at smart intersections
  • -Computer Vision for Robotics: scene understanding, semantic perception, and failure-case analysis

Research Projects

2026–Present

SHIELD-VIO: Self-Healing Visual-Inertial Odometry

Flagship Robotics Research

Study whether visual-inertial odometry systems can detect degradation, diagnose likely failure causes, and select recovery actions before localization failure.

Planned

AEGIS-VIO: Uncertainty-Gated Visual-Inertial Estimation

VIO Safety Extension

Explore uncertainty-gated measurement selection for visual-inertial estimation under blur, lighting change, and dynamic-scene contamination.

2026–Present

Adaptive Multi-Modal SLAM with Uncertainty-Aware Sensor Fusion

Robust SLAM Research

Investigate adaptive fusion of visual, inertial, and event-based sensing under perceptual degradation such as blur, low light, texture scarcity, and rapid motion.

2025–Present

DynNav: Uncertainty-Aware Risk-Sensitive Navigation

Risk-Aware Navigation

Develop and evaluate navigation methods that reason about map uncertainty, collision risk, returnability, and safe replanning in unknown environments.

2025–Present

SafeCrossAI: Intelligent Intersection Safety

Intelligent Mobility Research

Develop a research platform for vulnerable road-user trajectory prediction, interaction modelling, risk assessment, and intelligent intersection safety.

2026–Present

OpenUWOC-AI: AI for Underwater Optical Wireless Communication

Communication-Constrained Autonomy

Explore how AI methods can support underwater optical communication reliability, channel adaptation, and communication-aware autonomy.

2026–Present

Urban Segmentation for Delivery Robots

Urban Robot Perception

Build a semantic-perception project for sidewalk and urban delivery robots, focused on navigability, obstacles, crossings, and scene reliability.

Planned

Risk-Aware UAV Return-to-Home

UAV Autonomy

Design a return-to-home planning prototype for UAVs that considers localization confidence, battery constraints, wind risk, and safe landing feasibility.

Planned

Real-Time Driving Scene Segmentation

Autonomous Driving Perception

Create a real-time semantic segmentation baseline for driving scenes with explicit reporting of latency, class-wise errors, and safety-relevant failure cases.

Planned

Neuromorphic Robot SNN

Neuromorphic Robotics

Prototype a small neuromorphic robotics experiment using spiking neural networks for event-driven perception or reactive control.

2025–Present

Formula 1 Race Simulation

Simulation and Reproducibility

Use race simulation as a clean, explainable environment for modelling strategy, uncertainty, event timing, and reproducible experiments.

2026–Present

Uncertainty-Aware Navigation

Focused Planning Benchmark

Create a focused benchmark for comparing classical shortest-path planning with uncertainty-weighted navigation in controlled map scenarios.

Technical Toolkit

Robotics & Autonomy

  • Visual-Inertial Odometry
  • SLAM
  • Sensor Fusion
  • Motion Planning
  • ROS 2
  • Navigation

AI & Vision

  • Python
  • PyTorch
  • Computer Vision
  • Trajectory Prediction
  • Uncertainty-Aware Evaluation
  • Data Analysis

Research Engineering

  • NumPy
  • Pandas
  • OpenCV
  • Matplotlib
  • Git
  • Linux
  • Docker
  • Reproducible Experiments

PhD Fit

Interested in PhD opportunities and research collaborations related to robust robotic perception, visual-inertial localization, adaptive SLAM, risk-aware navigation, uncertainty-aware autonomy, UAV systems, and intelligent mobility safety.