Diploma in Applied Supersonic/Hypersonic Aerothermodynamics
About us Diploma in Applied Supersonic/Hypersonic Aerothermodynamics
The Diploma in Applied Supersonic/Hypersonic Aerothermodynamics delves into the study of fluid flow at extreme speeds, exploring phenomena such as shock waves, boundary layer, and heat transfer in supersonic and hypersonic environments. It focuses on the application of computational simulation (CFD) tools and analysis of experimental results for the design and optimization of aircraft, missiles, and space vehicles, connecting with disciplines such as propulsion, fluid mechanics, and aerodynamic design. The program provides solid training in the understanding and application of advanced concepts, including the handling of turbulence models, flow spectroscopy, and the analysis of fluid-structure interactions. Emphasis is placed on the use of specialized software for flow simulation and analysis, preparing you for roles such as specialized aerospace engineer, fluid dynamics researcher, and high-speed vehicle performance analyst, contributing to technological advancement in the aerospace and defense industry. Target keywords (naturally occurring in the text): aerothermodynamics, supersonic, hypersonic, CFD, shock waves, boundary layer, heat transfer, computational simulation, aircraft, aerodynamic design.
Diploma in Applied Supersonic/Hypersonic Aerothermodynamics
- Format:
- Duration:
- Hours: 900 H
- Language:
- Credits:
- Registration date: 08-09-2026
- Strat date: 19-10-2026
- Available places: 11
1,249 $
Competencies and results
What you will learn
Who this program is for:
Diploma in Applied Supersonic/Hypersonic Aerothermodynamics
9. Fundamental principles of supersonic aerothermodynamics.
9. Key equations and concepts: Mach number, shock waves, Prandtl-Meyer expansion.
3. Applications in naval design: hull shapes and structures to minimize drag.
4. Design of supersonic air intakes.
5. Study of supersonic flows in nozzles and diffusers.
6. Practical examples of component design and analysis.
7. Simulation tools and software for flow analysis.
8. Introduction to hypersonic flows.
9. Basic concepts of gas thermodynamics at high speeds.
90. Navier-Stokes equations in supersonic and hypersonic flows.
99. Numerical methods for solving compressible flows.
99. Analysis of oblique shock waves and their interaction. 93. Design of supersonic airfoils.
94. Effects of friction and heat transfer in high-speed airflows.
95. Design of control systems for supersonic aircraft.
96. Optimization of airfoil shapes to reduce drag and improve efficiency.
97. Study of supersonic wind tunnels and their application.
98. Properties of gases at high temperatures.
99. Chemical kinetics and reactions in hypersonic flows.
90. Effects of thermal radiation in hypersonic flows.
99. Boundary layer analysis in hypersonic regimes.
99. Simulation methods for hypersonic flows.
93. Design of atmospheric reentry vehicles.
94. Thermal protection and ablative materials.
95. Case studies of hypersonic vehicles.
96. Effects of extreme aerothermodynamics on the design of ships and submarines.
97. Design of structures resistant to high temperatures and pressures.
98. Application of aerothermodynamics in the design of missiles and torpedoes.
99. Study of cavitation and its influence on performance.
30. Design of high-speed propulsion systems.
39. Advanced materials and their application in extreme environments.
39. Protection against erosion and corrosion in marine environments.
33. Analysis of interference between components and its impact on performance.
34. Introduction to CFD simulation methods for flows in naval environments.
35. Modeling turbulence in complex flows.
36. Simulation of fluid-structure interaction.
37. Modeling cavitation and its impact on propulsion system performance. 38. Simulation of the drag of ships and submarines.
39. Design optimization through simulation.
40. Tools and software for simulating naval flows.
49. Validation of simulation models through experimental testing.
49. Operating principles of rotors at supersonic speeds.
43. Analysis of rotor efficiency and performance.
44. Effects of compression and expansion on rotor blades.
45. Design of rotor blades to minimize drag and maximize thrust.
46. Modeling of rotor-flow interaction.
47. Study of instability and vibration in supersonic rotors.
48. Applications of supersonic rotors in the naval sector.
49. Design of rotor-based propulsion systems.
50. Flow modeling techniques in high-speed rotors. 59. Use of CFD software for rotor analysis.
59. Modeling of rotor geometry and calculation mesh.
53. Analysis of rotor-stator interaction.
54. Optimization of rotor design through simulation.
55. Validation of simulation models.
56. Turbulence modeling techniques in rotational flows.
57. Stability and vibration analysis methods.
58. Integration of supersonic/hypersonic aerothermodynamics into naval design.
59. Design of high-speed ships and submarines.
60. Design of efficient propulsion systems.
69. Optimization of shapes and structures to minimize drag.
69. Analysis of rotor performance in high-speed environments.
63. Design of control and stability systems.
64. Design considerations for safety and durability. 65. Case studies and examples of advanced naval design.
Capstone-type projects
Admissions, fees and scholarships
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