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Guided learning journeys that build knowledge step by step.
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7806 Paths · page 284 / 781
This graduate-level path develops a rigorous theoretical understanding of materials processing, covering constitutive modeling, plasticity, fracture, and processing maps. It builds from continuum mechanics and materials science fundamentals through advanced topics, emphasizing the physical mechanisms governing material behavior during processing and the tools used to design and optimize manufacturing processes.
This graduate-level learning path provides a systematic understanding of the physics that govern manufacturing processes. It covers the mechanics of deformation, heat transfer, and phase transformations, and integrates them to analyze and model manufacturing operations. The path emphasizes the underlying principles and their application to real processes, preparing learners for advanced research or engineering practice.
This advanced learning path equips senior university students with a deep understanding of sustainable manufacturing. It covers the fundamentals of manufacturing systems, environmental impacts, core sustainability principles, green manufacturing strategies, life-cycle assessment, recycling, and system-level integration, enabling learners to analyze and design sustainable manufacturing systems.
This path guides senior engineering students through the principles and processes of manufacturing at micro and nano scales. It covers essential physics, materials science, and metrology, then explores key technologies like lithography, micromachining, nanoimprinting, and MEMS, culminating in an integrated understanding of how these methods are applied in real devices.
This advanced learning path equips senior engineering students with the knowledge and skills to model and simulate manufacturing processes using finite element analysis (FEA). It covers the theoretical foundations, practical simulation techniques, and process optimization strategies necessary for systematic learning.
This learning path provides an advanced understanding of additive manufacturing (AM) technologies, focusing on FDM, SLA, SLS, and DMLS. It covers process principles, key process parameters, material considerations, and applications, enabling senior university students to select and evaluate AM processes for engineering applications.
This learning path provides a systematic understanding of non-traditional and advanced machining processes, including electrical discharge machining (EDM), electrochemical machining (ECM), laser machining, abrasive water jet machining, and ultrasonic machining. It covers the underlying principles, process parameters, capabilities, and applications of each process, along with the necessary foundational knowledge in manufacturing and materials.
This learning path provides junior university students with practical skills in manufacturing processes through hands-on laboratory practice. It covers machining, welding, casting, measurement, and data analysis, integrating theory with application to prepare students for real-world manufacturing engineering careers.
A structured learning path covering the foundational principles of lean manufacturing, including waste reduction, value stream mapping, just-in-time production, and kaizen. Designed for junior university students in manufacturing engineering to build a career-ready understanding of lean systems.
A structured learning path for junior manufacturing engineering students to understand production planning and control systems. Covers foundational operations management, forecasting, inventory control, MRP, ERP, capacity management, scheduling, and performance measurement.