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Path Catalog
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A graduate-level learning path covering advanced astrodynamics, from fundamental orbital mechanics through perturbation analysis, Lambert's problem, and interplanetary trajectory design. Learners will develop the analytical and computational skills needed to model and design complex space missions.
This advanced graduate path develops a rigorous understanding of viscous flow phenomena in aerodynamics, covering the derivation of the boundary layer equations, laminar-turbulent transition, and turbulence modeling. Learners will build from fundamental fluid mechanics to analyze and predict skin friction, heat transfer, and flow separation on aerospace vehicles.
A rigorous graduate-level learning path covering the essential theory of compressible flow: from thermodynamics and conservation laws to the method of characteristics and shock wave theory. The path is designed to build a deep, mathematically grounded understanding of gas dynamics for aerospace engineering applications.
A comprehensive learning path for senior aerospace engineering students to understand the interactions between aerodynamic and structural forces, covering static aeroelastic phenomena (divergence, control reversal) and dynamic phenomena (flutter). The path builds from fundamental aerodynamics and structural dynamics to advanced analysis methods and practical considerations.
A comprehensive learning path for senior aerospace engineering students to master spacecraft attitude control. It covers attitude representations, sensors, actuators, and control laws, building from fundamental prerequisites in orbital mechanics and control systems to advanced application.
This path equips senior aerospace engineering students with the knowledge to design and analyze solid and liquid propellant rocket propulsion systems. It covers fundamental principles, performance metrics, nozzle theory, propellant chemistry, combustion, and system design considerations, culminating in a capstone design project.
This advanced path guides senior aerospace students from classical linear flight dynamics into the nonlinear regime, covering equations of motion, simulation, stability, and control, culminating in handling qualities analysis. It emphasizes the physical and mathematical foundations needed to analyze and design for nonlinear flight behavior.
This learning path guides senior aerospace engineering students through advanced aerodynamic theories applied to complex flows. It covers potential flow theory, panel methods, viscous flow phenomena, and computational fluid dynamics (CFD) applications, building from fundamental mathematical and fluid mechanics prerequisites to advanced numerical methods and practical applications.
This learning path introduces junior aerospace engineering students to the core avionics systems used in aircraft and spacecraft. It covers essential electronics, navigation, communication, flight control computers, and system integration, building from foundational concepts to advanced integration principles.
This learning path introduces junior aerospace engineering students to the key materials used in aerospace structures and engines. It covers metals (aluminum, titanium, superalloys) and composites, explaining their properties and selection criteria through foundational materials science concepts.