Three key scientific problems:
how to learn faithful temporal representations from high-dimensional, noisy, and irregular sequential data
how to develop adaptive and generalizable models that remain robust under distribution shifts, uncertainty, and evolving environments
how to translate time-series understanding into efficient, interpretable, and deployable system-level prediction, diagnosis, and decision-making.
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We propose a formal interpretation framework that allows a human user to interrogate a cyber-physical system using temporal logic queries. The method formulates interpretation as a temporal logic inference problem and introduces a Gaussian-process-based active learning algorithm to obtain probably approximately correct solutions efficiently.
Temporal-Logic-Based Semantic Fault Diagnosis With Time-Series Data From Industrial Internet of Things
We formalize semantic fault diagnosis for IIoT systems as the task of learning signal temporal logic formulas directly from time-series data. To address combinatorial explosion, we propose an agenda-based, reinforcement-learning-enabled search strategy that discovers scalable and interpretable fault specifications from industrial sensor data.
Semantic Inference for Cyber-Physical Systems with Signal Temporal Logic
We present the problem of semantic inference for cyber-physical systems, aiming to translate system behaviors into signal temporal logic specifications automatically. To address combinatorial explosion in formula search, we propose an agenda-based computation framework and formulate semantic inference as a Markov decision process solved with reinforcement learning.
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- Time-series models
- Efficient analytics
- Interpretable learning
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