UFSC · Department of Automation and Systems

Grupo de Sistemas Autônomos Inteligentes

O GSAI desenvolve pesquisa em inteligência artificial para sistemas autônomos, com ênfase em veículos e robôs, e em redes neurais informadas pela física para controle (PINC). O grupo conecta percepção, aprendizado por imitação, modelos generativos, controle e conhecimento físico em problemas do mundo real.

About the group

The group advances machine learning and control methods for intelligent autonomous systems, spanning end-to-end driving, Bird’s-Eye View representations, multimodal imitation learning, physics-informed modeling, and control of nonlinear dynamical systems.

GSAI’s research portfolio is organized around two complementary axes: autonomous systems and physics-informed neural networks for control. This combination allows the group to work on both data-driven intelligence and physically consistent decision-making.

Research pillars

Two core directions shape the current agenda of the group.

Autonomous systems

Research on intelligent vehicles and robots, especially policy learning for navigation in complex environments.

  • Autonomous driving in simulated and real-world-inspired environments
  • Imitation learning, GAIL, EBMs, and diffusion models
  • Bird’s-Eye View representations and mid-level perception
  • Robust policy generalization under multimodal behaviors

PINC and physics-informed control

Development of models that incorporate physical laws into learning for simulation and control.

  • Physics-informed neural networks for ODE/PDE-governed systems
  • Control of nonlinear and controllable dynamical systems
  • Physics-informed recurrent and reservoir-based models
  • Bridging data efficiency, prior knowledge, and control performance

News

Highlighted project currently under development in the group.

Approved CNPq Universal Project

Aprendizado de Políticas para Navegação Autônoma de Veículos

The project investigates advanced imitation learning approaches for autonomous driving, including GAIL, energy-based models, and diffusion models, combined with Bird’s-Eye View (BEV) representations. The main objective is to improve generalization beyond traditional behavior cloning in dynamic, multimodal urban driving scenarios. Experiments are conducted in CARLA and transferred to a miniature vehicle operating on simulated urban tracks and real campus sidewalks.

Period
2025–present
Funding
CNPq – Auxílio financeiro
Team
2 undergrads · 2 master’s · 1 PhD
Investigators
Eric Aislan Antonelo, Douglas Wildgrube Bertol, Marcelo Ricardo Stemmer, Luis Manuel Conde Bento

Members

Current team of staff and students.

Staff

Eric Aislan Antonelo

Eric Aislan Antonelo

Professor / Coordinator

Professor at UFSC (DAS). Research interests include autonomous systems, imitation learning, reservoir computing, and physics-informed neural networks for modeling and control.

PhD students

Gustavo Claudio Karl Couto

Gustavo Claudio Karl Couto

PhD Student

Research on implicit imitation learning and autonomous vehicles in urban environments.

Yessica Maria Valencia Lemos

Yessica Maria Valencia Lemos

PhD Student

Researcher in intelligent autonomous systems and machine learning.

Master students

Felipe Carlos dos Santos

Felipe Carlos dos Santos

Master Student

Works on Bird’s-Eye View generation from autonomous vehicle cameras using transformers.

Leonardo Pezenatto da Silva

Leonardo Pezenatto da Silva

Master Student

Works on vision-based inertial signal estimation and road condition monitoring.

Eduardo Vargas Zummach

Eduardo Vargas Zummach

Master Student

Works on imitation learning based on generative models for autonomous vehicles.

Undergraduate students

MC

Miguel Castilho Silva

Undergraduate Student

Undergraduate researcher in intelligent autonomous systems.

Gabriel Zipperer

Gabriel Zipperer

Undergraduate Student

Undergraduate researcher in AI and autonomous systems.

Selected publications

A curated list highlighting recent work aligned with the two main themes of the group.

PINC

Physics-informed neural nets for control of dynamical systems

Neurocomputing · 2024

PINC

Physics-Informed Neural Networks for Control of single-phase flow systems governed by partial differential equations

Engineering Applications of Artificial Intelligence · 2025

PINC

Physics-informed Echo State Networks for modeling controllable dynamical systems

Neurocomputing · 2025

Autonomous Driving

Hierarchical Generative Adversarial Imitation Learning With Mid-Level Input Generation for Autonomous Driving on Urban Environments

IEEE Transactions on Intelligent Vehicles · 2024

Autonomous Driving

Investigating Behavior Cloning from Few Demonstrations for Autonomous Driving Based on Bird’s-Eye View in Simulated Cities

Lecture Notes in Computer Science · 2025

Autonomous Driving

Exploring multimodal implicit behavior learning for vehicle navigation in simulated cities

ENIAC · 2025

Autonomous Driving

Investigating Diffusion Models for Offline Behavior Cloning in Autonomous Driving Scenarios

CROS · 2025

Perception

An Initial Study of Bird’s-Eye View Generation for Autonomous Vehicles using Cross-View Transformers

ENIAC · 2025

Media

External media and demonstration content related to the group’s autonomous driving research.

Featured media
Learning to Autonomously Drive a Vehicle by Imitation

Autonomous driving by imitation

This media item highlights the group’s research on autonomous driving based on imitation learning, including work on urban driving and hierarchical generative adversarial imitation learning.

Open media page

Previous alumni

Selected previous master’s students supervised or co-supervised in related topics.

  • Bruno Maciel Machado — Diffusion Models for Offline Behavior Cloning in Autonomous Driving Scenarios (2025)
  • Willian Benoski — Implicit Behavioral Cloning for Multimodal Behavior Learning in Autonomous Driving (2025)
  • Gustavo Claudio Karl Couto — Generative Adversarial Imitation Learning with Bird’s-Eye View Input Generation for Autonomous Driving on Urban Environments (2023)
  • Irving Giovani — Imitation Learning for Autonomous Driving: Disagreement-Regularization and Behavior Cloning with Beta Distribution (2023)
  • Eric Mochiutti — Physics-Informed Echo State Networks for Modeling Controllable Dynamical Systems (2023)
  • Rafael de Souza Toledo — Semantic Segmentation of Low-Resolution Images from Damaged Roads (2022)

Contact

Academic home of the group.

Eric Aislan Antonelo

Department of Automation and Systems (DAS), Federal University of Santa Catarina (UFSC), Florianópolis, Brazil.
Homepage: ericantonelo.paginas.ufsc.br