Home » Gruppi Di Ricerca » 18318
Computer Vision, Computer Graphics, Deep Learning

The Computer Vision, Computer Graphics, Deep Learning group is a multidisciplinary team of researchers that investigates several knowledge areas in vision and apply them to scientific problems in many contexts. 

The research activity of this group focuses on advancing the frontiers of computer vision, efficient architectures, multimedia security and edge computing. Our work is structured around four main pillars: 

1. Multimedia Security

  • Multimedia Forensics: Detection and attribution of manipulated and AI-generated media, spanning deepfake video/audio detection, synthetic image attribution, and spoofing/anti-fraud analysis.

  • Adversarial & Robustness: Study of adversarial vulnerabilities in ML pipelines, including data poisoning attacks and robustness evaluation of forensic detectors under adversarial conditions.

  • Explainable AI & Interpretability: Development of interpretability tools to explain the decisions of deep models, applied to deepfake detectors and depth estimation networks.

2. Lightweight and Efficiency

  • Real-world applications: Deployment of efficient and interpretable vision models for domain-specific tasks such as precision sericulture (bridging the reality gap in silkworm rearing via interpretable feature streams) and urban traffic/mobility monitoring. 

  • Embodied AI: Perception models for agents interacting with the physical world, including pedestrian intention estimation and efficient spatio-temporal predictive learning.

  • VR/AR: Real-time and lightweight solutions for immersive environments, such as efficient 3D object reconstruction for virtual content.

3. Computer Vision Applications

  • Earth Observation: Ground-to-aerial image matching, semantic segmentation, and generative (diffusion-based) methods applied to satellite/aerial imagery for tasks like change detection and misinformation verification.

  • Computer Vision Tasks: Core vision problems including monocular depth estimation, optical flow, video generation, and 3D scene reconstruction.

  • Medical Imaging: AI-assisted diagnostic support, including dental radiograph analysis for automated tooth segmentation and periapical lesion detection.

4. Edge Computing

  • Edge AI & TinyML: Design of efficient CNN architectures optimized for deployment on resource-constrained embedded hardware.

  • Computational Offloading & Task Scheduling: Algorithms for dynamic resource allocation, container autoscaling, and reinforcement-learning-based scheduling across fog/edge computing infrastructures.

  • Human Computer Interaction: Design and evaluation of intelligent XR interfaces to support human decision-making in safety-critical scenarios.

 
Visit the website ALCORLab 
 
 

 

People

© Università degli Studi di Roma "La Sapienza" - Piazzale Aldo Moro 5, 00185 Roma