| Aware |
- Can describe the process and importance of numerical simulations (e.g. CFD, FEA) for space applications.
- Can identify key terms and fundamental principles related to the analysis of stresses, thermal shocks, pressure differentials, radiation, and vibration.
- Can name space industry simulation tools (ANSYS, Abaqus, Fluent, NASTRAN) and common applications, such as thermal and structural analysis.
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| Practitioner |
- Can set up and execute basic numerical simulations to analyse components and materials under defined conditions..
- Can interpret simulation results to inform design decisions and ensure components meet industry standards and specifications.
- Can identify simulation errors (e.g. mesh quality issues) and apply troubleshooting techniques.
- Can communicate findings clearly to improve designs and ensure alignment with standards.
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| Senior Practitioner |
- Can develop complex numerical simulations to analyse components and materials including transient, non-linear, and multi-physics analyses.
- Can optimise designs based on simulation results and resolving complex issues.
- Can validate simulation outcomes against physical tests and refine models for higher accuracy.
- Can collaborate across disciplines to provide integrated analyses.
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| Expert |
- Can develop novel simulation methodologies and techniques to enhance the accuracy and efficiency of analyses.
- Can predict and improve the performance of parts, subsystems, and spacecraft under unprecedented conditions.
- Can lead integration of simulations with advanced technologies (HPC, generative design).
- Can lead development of industry standards, mentors teams, and advises on simulation-driven design strategies for space missions.
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