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Guided learning journeys that build knowledge step by step.
category · Learning · slug · learning · 7812 Paths
7812 Paths · page 352 / 782
This advanced learning path equips senior and graduate mechanical engineering students with the analytical tools to evaluate internal combustion engine design and performance. It covers thermodynamic cycles, fuel-air requirements, combustion processes, emissions, performance parameters, and engine testing, providing a structured progression from fundamentals to practical application.
This learning path guides senior and graduate mechanical engineering students through the foundational principles of energy transfer in turbomachines. It covers thermodynamics, fluid mechanics, Euler's equation, velocity triangles, and performance characteristics of turbines, compressors, and pumps.
This learning path equips practicing mechanical engineers with the knowledge and skills to design pressure vessels and piping systems in accordance with ASME codes. It covers material selection, stress analysis, design of shells, heads, nozzles, and supports, and introduces key ASME BPV and B31 code requirements. The path emphasizes practical application and code compliance.
This learning path equips practicing engineers with the knowledge to design pressure vessels and piping systems in accordance with ASME codes. It covers essential mechanics of materials, stress analysis, and the application of ASME Boiler and Pressure Vessel Code (BPVC) and B31 piping codes to design components like shells, heads, nozzles, and supports. The path emphasizes practical design calculations and code compliance.
This path introduces the physics of sound, its measurement, and practical noise control in mechanical systems and buildings. It builds from wave physics and mathematics through to engineering applications, suitable for junior/senior university students.
An advanced learning path for senior engineering students covering building envelope, lighting, HVAC, energy modeling, and green building standards (LEED), with a focus on environmental impact. It integrates thermodynamics, heat transfer, and psychrometrics to build a comprehensive understanding of building energy performance.
This advanced path equips senior and graduate mechanical engineering students with the analytical skills to evaluate and design sustainable energy systems. It integrates thermodynamics, heat transfer, and life-cycle assessment across solar thermal, wind, biomass, geothermal, and energy storage technologies. The path emphasizes quantitative evaluation, system integration, and sustainability metrics.
This learning path equips senior engineering students with the knowledge to analyze road vehicle handling and stability. It covers tire mechanics, longitudinal and lateral dynamics, steering systems, suspension design, and rollover, building from fundamental mechanics to advanced vehicle dynamics concepts.
This advanced learning path guides senior engineering students through the integration of mechanical systems with electronics and control. It covers sensors, actuators, microcontrollers, signal conditioning, and control systems, culminating in a practical system integration project.
This advanced learning path guides senior engineering students from the fundamentals of CNC machining and robotics through flexible manufacturing systems to a comprehensive understanding of computer-integrated manufacturing (CIM). It emphasizes the integration of automation, information technology, and manufacturing processes to create efficient and adaptive production systems.