Page 59 - ASME DSCC 2015 Program
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Technical Program




                                                                     Smartphone-Based Wheel Imbalance Detection
              ConTRIBuTED SESSIon
              1-19-1  TP2  Diagnostics and Detection                 Contributed regular paper. DSCC2015-9716
              George Bellows B                        4:00pm–6:00pm  Joshua Siegel, Rahul Bhattacharyya, Sanjay Sarma, Massachusetts
                                                                     Institute of Technology, Cambridge, MA, United States, Ajay Deshpande,
              Session Chair: Jason Kolodziej, Rochester Institute of Technology  IBM Research, Yorktown Heights, NY, United States
              Session Co-Chair: Ioannis Raptis, University of Massachusetts Lowell  Onboard sensors in smartphones present new opportunities for vehicular
                                                                     sensing. In this paper, we explore a novel application of fault detection in
              Design and Analysis of a Scale-Sized Electromechanical Actuator for
                                                                     wheels, tires and related suspension components in vehicles. We present
              unsteady Condition Monitoring Applications
                                                                     a technique for in-situ wheel imbalance detection using accelerometer
              Contributed regular paper. DSCC2015-9688
                                                                     data obtained from a smartphone mounted on the dashboard of a vehicle
              Jason Kolodziej, Rochester Institute of Technology, Rochester, NY, United   having balanced and imbalanced wheel conditions. The lack of observable
              States, William Craig, University of Maryland, College Park, MD, United   distinguishing features in a Fourier Transform (FT) of the accelerometer data
              States
                                                                     necessitates the use of supervised machine learning techniques for imbal-
              Growing interest in using Electromechanical Actuators to replace current hy-  ance detection. We demonstrate that a classification tree model built using
              draulic actuation methods on aircraft control surfaces has driven significant   Fourier feature data achieves 79% classification accuracy on test data. We
              research in the area of prognostics and health management. Non-stationary   further demonstrate that a Principal Component Analysis (PCA) transforma-
              speeds and loads in the course of controlling an aircraft surface make fault   tion of the Fourier features helps uncover a unique observable excitation
              identification in EMAs difficult. This work presents a time-frequency analysis   frequency for imbalance detection. We show that a classification tree model
              of EMA thrust bearing vibration signals using wavelet transforms. A lab sized   trained on randomized PCA features achieves greater than 90% accuracy
              EMA system is designed and fabricated to allow for quick and repeatable   on test data. Results demonstrate that the presence or absence of wheel
              component replacement. Indentation faults from moderate and heavy loads   imbalance can be accurately detected on at least two vehicles of different
              are seeded in the thrust bearings and are then tested to generate data.  An   make and model. Sensitivity of the technique to different road and traffic
              artificial neural network achieves 95% classification accuracy in a two class   conditions is examined. Future research directions are also discussed.
              scenario using healthy and moderately spalled thrust bearings.
                                                                     observer Based Diagnostic Scheme for lithium-Ion Batteries
              full-order Distributed fault Diagnosis for large-Scale nonlinear   Contributed regular paper. DSCC2015-9913
              Stochastic Systems                                     Zoleikha Abdollahi Biron, Pierluigi Pisu, Beshah Ayalew,
              Contributed regular paper. DSCC2015-9927               Clemson University, Greenville, SC, United States
              Elaheh noursadeghi, Ioannis Raptis, University of Massachusetts Lowell,   This paper presents an observer based fault diagnosis approach for Lith-
              Lowell, MA, United States
                                                                     ium-ion battery. This method detects and isolates five single faults in the
              This paper deals with the problem of designing a distributed fault detection   system which includes sensor faults in current, voltage and temperature sen-
              and isolation algorithm for nonlinear large-scale systems that are subjected   sors, failure in fan actuator and disturbance in battery State-of-Charge (SOC)
              to multiple fault modes. To solve this problem, a network of detection nodes   dynamics. Current, voltage and temperature of the battery are used as the
              is deployed to monitor the monolithic system. Each node consists of an   only possible measurements to design two different observers; Kalman filter
              estimator with partial observation of the system’s state. The local estima-  and sliding mode observer. Three residuals derived from the observers gen-
              tor executes a distributed variation of the particle filtering algorithm; that   erate fault signature to detect and isolate the faults and SOC disturbance in
              process the local sensor measurements and the fault progression model   the system. Simulation results show the effectiveness of the approach.
              of the system. In addition, each node communicates with its neighbors by
              sharing pre-processed information. The communication topology is defined
              using graph theoretic tools. The information fusion between the neighboring
              nodes is performed by a distributed average consensus algorithm to ensure
              the agreement on the value of the local estimates. The simulation results
              demonstrate the efficiency of the proposed approach.
              Vibration Detection of Clutch Dragging Process for Multi Clutch
              Transmission
              Contributed regular paper. DSCC2015-9695
              Man Chen, Biao Ma, Changsong Zheng, Beijing Institute of Technology,
              Beijing, China

              Vibration Detection of Clutch Dragging Process for Multi Clutch
              Transmission




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