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Guided learning journeys that build knowledge step by step.
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7812 Paths · page 354 / 782
This learning path guides senior engineering students through the mathematical analysis of complex fluid flows using differential methods. It begins with essential mathematical tools and the foundational equations of fluid mechanics, then progresses through potential flow, boundary layer theory, turbulent flow, and compressible flow, culminating in advanced solution techniques and practical applications.
A comprehensive learning path for senior engineering students to apply thermodynamic principles to complex systems, covering gas-vapor mixtures, air-conditioning processes, chemical reactions, combustion, and exergy analysis. The path builds from foundational concepts through advanced applications.
This learning path systematically guides senior engineering students from foundational calculus and mechanics of materials through the advanced topics of 3D stress/strain transformation, Mohr's circle, thick-walled cylinders, curved beams, and energy methods. It emphasizes conceptual understanding and problem-solving skills necessary for solving complex stress and strain problems in three dimensions.
This learning path introduces the core principles of automotive systems, covering engine types, powertrain, transmission, suspension, steering, and braking. It builds on foundational thermodynamics and mechanics to explain how these systems function and interact. Designed for university students with an interest in automotive engineering, this path provides a structured journey from basic principles to integrated system understanding.
This learning path guides senior engineering students through the analysis of oscillatory motion in mechanical systems, focusing on single-degree-of-freedom systems. It covers free and forced vibrations, damping, resonance, and vibration isolation, building from fundamental dynamics and differential equations to advanced analysis techniques.
A systematic path for junior/senior engineering students to master kinematic and kinetic analysis of mechanical systems, focusing on linkages and cams. It covers position, velocity, and acceleration analysis, then extends to static and dynamic force analysis, including balancing of rotating and reciprocating masses.
This learning path provides junior engineering students with a systematic understanding of major manufacturing processes, including casting, forming, machining, and joining. It integrates essential materials science and metrology concepts to explain process selection, capabilities, and quality considerations.
A structured learning path for junior engineering students to master the mechanical design process, covering fundamental concepts, failure theories, and the design of shafts, keys, and couplings. The path integrates mechanics of materials and statics to build a solid foundation for real-world machine design.
This learning path guides junior engineering students through the fundamental modes of heat transfer—conduction, convection, and radiation—and their governing laws. Starting with essential thermodynamics and calculus foundations, it builds a systematic understanding of each mode and culminates in practical applications and problem-solving.
This learning path guides sophomore engineering students from foundational fluid properties through hydrostatics and fluid kinematics to the analysis of flows in pipes and over surfaces. It emphasizes the derivation and application of Bernoulli's equation and introduces boundary layer concepts, with practice and assessment integrated throughout.