Area of research
Control and Systems Engineering · Mechanics of Materials
Research interest
Research interests include Computer science, Artificial intelligence, Data mining, Gas turbines, Anomaly detection, and Machine learning.
Gas Turbine Diagnostics by Means of Convolutional Neural Networks Fed With Time Series Data Encoded as Images
Gas Turbine Diagnostics by Means of Convolutional Neural Networks Fed With Time Series Data Encoded As Images
Encoding Multivariate Time Series of Gas Turbine Data as Images to Improve Fault Detection Reliability
Machine Learning Approaches for the Prediction of Gas Turbine Transients
Unsupervised Methodology for the Prognostics of Gas Turbine Abrupt Faults
Methodology to Monitor Early Warnings Before Gas Turbine Trip
Methodology to Monitor Early Warnings Before Gas Turbine Trip
Application of Transfer Learning for the Prediction of Gas Turbine Trip
Prediction of Gas Turbine Trip by Combining Gas Path Measurements and Vibration Signals
Detection of the Onset of Trip Symptoms Embedded in Gas Turbine Operating Data
Ensemble Learning Approach to the Prediction of Gas Turbine Trip
Optimal Classifier to Detect Unit of Measure Inconsistency in Gas Turbine Sensors
Statistical Rule Extraction for Gas Turbine Trip Prediction
Influence of the trigger time window on the detection of gas turbine trip
Statistical Rule Extraction for Gas Turbine Trip Prediction
Detection of the Onset of Trip Symptoms Embedded in Gas Turbine Operating Data
Ensemble Learning Approach to the Prediction of Gas Turbine Trip
Prediction of Gas Turbine Trip: A Novel Methodology Based on Random Forest Models
Detection of Unit of Measure Inconsistency in gas turbine sensors by means of Support Vector Machine classifier
Data Selection and Feature Engineering for the Application of Machine Learning to the Prediction of Gas Turbine Trip
Structured Methodology for Clustering Gas Turbine Transients by Means of Multivariate Time Series
Prediction of Gas Turbine Trip: a Novel Methodology Based on Random Forest Models
Structured Methodology for Clustering Gas Turbine Transients by Means of Multi-Variate Time Series
Detection of Unit of Measure Inconsistency by Means of a Machine Learning Model
Anomaly Detection in Gas Turbine Time Series by Means of Bayesian Hierarchical Models
Development and Validation of a General and Robust Methodology for the Detection and Classification of Gas Turbine Sensor Faults
Anomaly Detection in Gas Turbine Time Series by Means of Bayesian Hierarchical Models
A General Diagnostic Methodology for Sensor Fault Detection, Classification and Overall Health State Assessment
Validation of an Advanced Diagnostic Methodology for the Identification and Classification of Gas Turbine Sensor Faults by Means of Field Data
Capability of the Bayesian Forecasting Method to Predict Field Time Series