Hey there 👋

I'm Davide De Benedittis

Robotics Engineer and Postdoctoral Researcher

Postdoc by day, robotics engineer by night...
My research focuses on:
  • Planning and control of multi-robot systems 🤖🤖🤖
  • Locomotion of legged robots 🦿
I aim to develop algorithms that can guarantee safety without sacrificing performance in real-world applications. I like...

My last projects

All projects

Control of Quadrupedal Robots on Soft Terrains

Model-based control for quadrupedal robots moving on compliant terrains.

Hierarchical Constraint-Based Control of Multi-Robot Systems

Control of heterogeneous multi-robot fleet using hierarchical optimization and quadratic programming.

Multi-Robot Systems Reinforcement Learning JAX

Control of multi-robot systems using reinforcement learning and JAX.

Docker Container for ROS (1 and 2), GUIs, and NVIDIA GPUs Docker

Docker container to be used with ROS 1 or ROS 2. Supports the usage of GUIs and NVIDIA GPUs.

Latest publications

All publications

Botany Meets Robotics in Alpine Screes Monitoring

IEEE Transactions on Field Robotics

Autonomous monitoring framework for alpine screes using a quadrupedal robot equipped with cameras.

Robotic Monitoring of European Habitats: a Labeled Dataset for Plant Detection in Annex I Habitats of Italy

Scientific Data

A labeled image dataset acquired by a quadrupedal robot for plant species detection across Annex I habitats of Italy.

Managing Conflicting Tasks in Heterogeneous Multi-Robot Systems Through Hierarchical Optimization

IEEE Robotics and Automation Letters

Leverage hierarchical optimization (or hierarchical quadratic programming) for multi-robot coordination and guaranteed prioritized task execution.

A Reproducible Benchmarking Methodology to Assess Robotic Locomotion Over Irregular Terrains: A Practical and Scalable Approach

IEEE Robotics & Automation Magazine

A modular, replicable testbed, standardized protocol, and performance indicators to objectively benchmark legged locomotion over irregular and sloped terrains.

Soft Bilinear Inverted Pendulum: a Model to Enable Locomotion with Soft Contacts

IEEE Transactions on Systems, Man, and Cybernetics: Systems

Model-based two-control-blocks architecture (motion planner and tracking controller) for quadrupedal locomotion in the presence of soft contacts.