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Intelligent Monitoring of Rotating Machinery Condition Through the Fusion of Audio, Acoustic Emission, Vibration, and Current Signals

  • Llerena Pizarro, Omar Rosendo (Col)
  • Sanchez Loja, Rene Vinicio (PI)
  • Cabrera Mendieta, Diego Roman (Col)
  • Lucero Otorongo, Pablo Moises (External)
  • Macancela Poveda, Jean Carlo (External)
  • Perez Rivera, Ivan Andres (External)
  • Pacheco Cordova, Edison Eugenio (External)
  • Vacacela Costa, Andres Segundo (Student)
  • Pacheco Montilla, Fannia Karolina (External)
  • Villacis Marin, Mauricio Leonardo (Col)
  • Guaman Buestan, Adriana Del Pilar (Col)
  • Torres Diaz, Cristian Paul (External)
  • Valente De Oliveira, José Luís (External)
  • Vásquez, Rafael (External)
  • Lojano Armijos, Francisco Jose (Student)
  • Chingal Imaicela, David Esteban (External)
  • Siguencia Urgiles, Julio Fernando (External)
  • Cajas Muñoz, Franco David (External)
  • Montalvan Pulla, Felipe Israel (Student)
  • Quinteros Espinoza, Maria Eugenia (External)
  • Ortega Lucero, Luis Renato (Student)
  • Llivicura Orellana, Holger Florencio (Student)
  • Calle Lazo, Ana Karla (Student)
  • Li, Chuan (External)

Project Details

Description

This project addresses the critical need to enhance Predictive Maintenance (PdM) strategies for rotating machinery, including gearboxes, bearings, and shafts, where unexpected failures cause substantial losses. The core problem is the difficulty in inspecting these enclosed components without halting operations. The proposed solution focuses on Intelligent Condition Monitoring (ICM) through the fusion of multiple monitoring signals: acoustic, vibration, acoustic emission, and current. The methodology is structured in five phases: an exhaustive literature review; experimental data acquisition under controlled conditions using vibration test benches and software like LabVIEW and Matlab; extraction of Condition Parameters (CPs) across time, frequency, and time-frequency domains; selection and reduction of the most relevant CPs; and finally, the design and evaluation of diagnostic systems based on data fusion at the source, data, and classifier levels, employing machine learning to increase diagnostic accuracy and system reliability.<br/><br/><b>Goal</b>: <br/>The main objective is to develop an intelligent monitoring system for the condition of rotating machinery (shafts, bearings, gearboxes) by fusing audio, acoustic emission, vibration, and current signals, utilizing data mining and machine learning techniques to achieve more accurate fault diagnosis.<br/><br/><b>Research lines</b>: <br/>Control engineering and automation technologies
StatusActive
Effective start/end date17/01/19 → …

Keywords

  • Predictive Maintenance
  • Condition Monitoring
  • Rotating Machinery
  • Fault Diagnosis
  • Data Fusion
  • Machine Learning
  • Gearboxes
  • Bearings
  • Shafts
  • Data Mining

CACES Knowledge Areas

  • 827A Industrial maintenance