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Guided learning journeys that build knowledge step by step.
category · Learning · slug · learning · 7812 Paths
7812 Paths · page 351 / 782
This learning path guides senior and graduate students through the application of mechanics principles to biological systems, focusing on human movement, biomaterials, and musculoskeletal mechanics. It starts with foundational mechanics and biology, then builds through rigid-body dynamics, mechanics of materials, and soft tissue mechanics, culminating in joint and movement analysis.
This learning path introduces the fundamentals of composite materials, covering constituent materials, mechanics, manufacturing, and applications. It is designed for junior and senior university students with a background in materials science and mechanics of materials.
This graduate-level learning path guides learners through the fundamental principles, fabrication techniques, and design methodologies required to create micro-scale mechanical devices. It bridges mechanical engineering with electrical engineering, covering essential materials, transduction mechanisms, and system-level integration.
This learning path introduces the fundamental principles and applications of additive manufacturing (AM), covering key processes, materials, design considerations, and post-processing. It is designed for university students and professionals with a background in mechanical engineering, materials science, and CAD.
This advanced learning path equips senior or graduate students with the knowledge to understand and design wind energy conversion systems. It covers the essential aerodynamics, structural mechanics, and electrical engineering principles, progressing from fluid mechanics fundamentals to integrated system design.
This learning path equips practicing engineers with the knowledge to design and manage pipeline systems for fluid transport. It covers core fluid mechanics, material selection, stress analysis, corrosion protection, and pigging operations, building from foundational principles to advanced applications.
This learning path equips quality engineers with the knowledge and skills to apply statistical process control, control charts, process capability analysis, and the DMAIC methodology in a manufacturing environment. It starts with foundational statistics and quality concepts, then progresses through SPC and capability analysis, culminating in a comprehensive Six Sigma project framework.
This advanced graduate-level path equips engineers with a systematic understanding of tribology—the science of interacting surfaces in relative motion. Starting from essential mechanics and materials foundations, it progresses through surface contact, friction theories, wear mechanisms, and lubrication regimes, culminating in the ability to analyze and design tribological systems.
A focused learning path for senior mechanical engineering students to apply economic analysis and management principles to engineering projects. Covers time value of money, cost estimation, project scheduling with PERT/CPM, and risk analysis, with an emphasis on practical application.
This advanced professional learning path equips manufacturing engineers with the knowledge to design effective work-holding solutions and cutting tools. It covers cutting tool materials and geometry, tool wear mechanisms, and the principles of jig and fixture design, emphasizing accuracy, productivity, and cost-effectiveness.