Overview

Artifact classification

  • Category: Academic artifact hub
  • Skill themes: Fluid dynamics analysis, thermal reasoning, workflow automation
  • Problem context: Developing and Testing RDE models to further research into creating and commericalizing RDRE’s
  • Method: Utlize CFD software to garner insight into behvaiours within an RDE

Proposal summary

  • Simulated aerospike geometries across Mach 3 to Mach 5 with thermal-load focus
  • Quantified peak heat-flux ranges on the order of 3 to 5 MW for decision framing
  • Proposed hot-pressed silicon nitride for thermal feasibility
  • Evaluated drag/apogee trends and integrated findings into a deployable concept design

Current work

  • Simulate Fluid Solid CHT to quanitfy heat flux in an RDE
  • Quanitify the Heat Load in an RDE with an emphasis on boundary layer interactions

Tooling

Typical CFD workflow tooling

  • Geometry and CAD in Solidworks
  • Meshing such as Pointwise, ANSYS Meshing, snappyHexMesh
  • Solvers such as OpenFOAM, SU2, ANSYS Fluent
  • Post processing such as ParaView, Tecplot, Python notebooks
  • Automation such as Python scripts, CI checks, and templated cases

External Aerodynamics

Focus areas

  • Drag prediction across Mach and Reynolds number ranges
  • Control surface effects such as airbrakes and fins
  • Sensitivity to angle of attack and surface roughness

Add links

Internal Flow and Nozzles

Focus areas

  • Nozzle expansion and pressure distribution
  • Boundary layer behavior and losses
  • Geometry sweeps and parametric studies

Heat Transfer and Aerothermal

Focus areas

  • Convective heat flux estimation and trends
  • Wall temperature prediction with coupled or simplified models
  • Material limits and margin tracking

Post Processing and Automation

Focus areas

  • Batch runs and case templating
  • Consistent plots and summary tables
  • Data reduction for design reviews

Updated: