Graduate research and engineering work spanning experimental dynamics, vibration measurement, signal processing, system identification, numerical modeling, and advanced manufacturing.
Research focused on extracting dynamic-system behavior from measured vibration data and connecting physical experiments with numerical modeling and stability analysis.
MASc research combining machining dynamics, vibration measurement, state-space modeling, signal processing, system identification, and stability analysis to estimate the approach to regenerative chatter while the process remains stable.
Non-contact vibration measurement using a Laser Doppler Vibrometer, acoustic excitation, MATLAB signal processing, and Operational Modal Analysis to identify micromilling-system dynamics.
Although the applications were rooted in machining and vibration, the underlying analytical methods are shared broadly across dynamic systems, control, estimation, and robotics.
Multi-degree-of-freedom mechanical systems, modal coordinates, state-space representations, and numerical simulation of dynamic response.
Delayed feedback, eigenvalue and pole analysis, damping estimation, and dynamic-system stability.
Estimating physical-system dynamics directly from measured sensor data using correlation, spectral, and modal-identification methods.
Vibration acquisition, filtering, PSD analysis, correlation functions, modal extraction, and validation against physical experiments.
Hands-on responsibility for manufacturing laboratories involving CAD/CAM workflow, machining verification, CNC execution, and student troubleshooting.
Supported senior undergraduate manufacturing laboratories involving SolidWorks, MasterCAM, VERICUT, G-code verification, and 3-axis Haas CNC machining. Reviewed student designs, toolpaths, and machining programs before execution and supported safe machine operation and troubleshooting.
Additional engineering work completed during the University of Victoria period.
Structural and dynamic analysis supporting experimental mechanical-system investigations.
Optical-sensing research involving fiber-based Long Period Grating sensor development and fabrication.
Advanced manufacturing work involving laser-based processing and small-scale fabrication.