AI for Additive Manufacturing
Machine learning models for process optimization, reduced-order modeling, uncertainty analysis, and data-driven prediction of AM outcomes.
Ph.D. researcher and educator working across metal additive manufacturing, computational mechanics, machine learning, optimization, microstructure analysis, and sustainable powder recycling.
I develop data-driven and physics-informed frameworks that connect process parameters, thermal history, microstructure, and mechanical performance in metal additive manufacturing. My academic profile combines experimental AM, finite element simulation, reduced-order modeling, AI/ML, engineering teaching, and student supervision.
My work focuses on the scientific and computational bridge between additive manufacturing process design, microstructure evolution, material performance, uncertainty, and sustainability.
Machine learning models for process optimization, reduced-order modeling, uncertainty analysis, and data-driven prediction of AM outcomes.
Experimental and computational methods to understand how AM process windows influence microstructure, tensile behavior, fatigue response, and structural integrity.
Research on recyclability, degradation mechanisms, and sustainable reuse of metal powders for reducing cost, waste, and environmental impact in AM.
Thermo-mechanical finite element modeling of SLM/LPBF processes, calibration algorithms, residual stress analysis, and structural performance evaluation.
Genetic algorithms, differential evolution, and particle swarm optimization for identifying optimal AM process parameters and material performance targets.
Long-term vision: integrated sensing, simulation, surrogate modeling, and decision-making loops for intelligent additive manufacturing systems.
My teaching approach connects theory with hands-on tutorials, computational tools, design problems, and research-inspired examples that help students see engineering as a living, applied discipline.
Facilitated FEM sessions, hands-on Workbench tutorials, and student mentoring in structural and thermal analysis.
Conducted tutorials in compressible and incompressible fluid dynamics, including CFD demonstrations using ANSYS Fluent.
Taught science and mathematics, designed curriculum materials, and supported volunteer training and student mentorship.
ÉTS, University of Québec, Montréal, Canada · 2018–2023
Thesis: Optimizing the structural properties of metal 3D printed parts for aerospace application using machine learning.
IISER Kolkata, India · 2013–2017
Thesis: Analysis of flow and heat transfer in a radial jet.
Journal articles and conference contributions across additive manufacturing, reduced-order modeling, computational mechanics, microstructure-property modeling, and thermo-hydrodynamics.
Liem Huynh and David Holsworth, Royal Military College of Canada.
Syed Imran Ali, University of Prince Edward Island.
Pratyush Bhatt and Yash Kumar, ÉTS Montréal.
Lab Coordinator at ÉTS, managing supplies, budgets, procurement, and support for research and academic activities.
Co-founder of Ek Pehal NGO, supporting educational outreach, volunteer training, and science/mathematics learning.
I am interested in academic roles and collaborations at the intersection of additive manufacturing, machine learning, computational mechanics, aerospace structures, renewable energy, and sustainable materials.