SRIS Module · FLS

Formal Learning Systems

Neuro-symbolic and formally constrained learning systems that combine data, logic, and physical priors for trustworthy perception, diagnosis, and control.

Neuro-symbolic Formal Methods Trustworthy AI
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Neuro-Symbolic
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Verifiability
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Physics Priors
SRIS Laboratory SCUT · GZIC
Smart, Reliable, and Interpretable Systems
Overview

Research scope

Formal Learning Systems serves as one of the modular building blocks of the SRIS research portfolio. It connects methods, models, and deployment scenarios so that theory, algorithms, and system-level outcomes can be presented as a coherent academic narrative.

Systems & verification Formal methods Interpretable AI
Three key scientific problems:
  • how to design learning models that satisfy rigorous formal specifications and guarantees
  • how to maintain robustness, generalization, and adaptability under uncertainty and environment changes without violating these guarantees
  • how to unify formal methods with data-driven learning to achieve scalable, interpretable, and deployable intelligent systems.
  • Module resources

    Three module pillars

    The original three-pillar module area is now upgraded to a video-first layout. Each row presents one externally linked video together with its PDF resource, followed by the related publication list below.

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    Selected output

    Related publications

    Representative papers are pulled from the current publication archive and embedded here so each module page has both visual entry points and a paper list beneath them.

    Browse all publications

    Active Learning Based Requirement Mining for Cyber-Physical Systems

    Gang Chen, Zachary Sabato, Zhaodan Kong
    2016 IEEE 55th Conference on Decision and Control (CDC), 4586-4593
    Conference
    We study requirement mining for cyber-physical systems by combining signal temporal logic with active learning. The proposed GP-ACB algorithm accelerates the search for parametric temporal logic requirements by selecting informative samples, leading to faster convergence than existing Gaussian-process-based alternatives.

    Data-Driven Approximate Abstraction for Black-Box Piecewise Affine Systems

    Gang Chen, Zhaodan Kong
    Preprint
    Preprint
    We develop a data-driven algorithm to construct approximate abstractions for black-box piecewise affine systems by integrating system identification, abstraction, and active sampling under temporal-logic specifications with bounded error and probability guarantees.

    Requirement Mining from Closed-Loop Control Models via Human-Computer Collaboration

    Penghong Lu, Gang Chen
    2024 4th International Conference on Computer, Control and Robotics (ICCCR), Shanghai, China, 2024
    Conference
    Position in the lab

    How this module fits the SRIS portfolio

    Module identity
    Formal Learning Systems is presented as a reusable research block that can connect to papers, projects, talks, and demonstrations across the website.
    Typical outputs
    This module can aggregate theory papers, application case studies, tutorial materials, project narratives, and visual evidence under one stable page structure.
    Cross-links
    Use the quick-access tiles below to move from this module page to research overviews, team pages, publication lists, and lab visuals.
    Related themes

    Connections

    • Systems & verification
    • Formal methods
    • Interpretable AI