CBL - Campus del Baix Llobregat

Projecte matriculat

Títol: Sustainability-Driven Structural Optimization of a CubeSat Reaction-Wheel Mounting Bracket via SolidWorks API Automation


Director/a: PARK, HYUK

Departament: FIS

Títol: Sustainability-Driven Structural Optimization of a CubeSat Reaction-Wheel Mounting Bracket via SolidWorks API Automation

Data inici oferta: 14-09-2026     Data finalització oferta: 14-04-2027



Estudis d'assignació del projecte:
    GR ENG SIST AEROESP
Tipus: Individual
 
Lloc de realització: EETAC
 
Paraules clau:
CubeSat, Reaching Wheel, Solidworks
 
Descripció del contingut i pla d'activitats:
Objectives
General objective. To develop and validate an automated, multi-objective optimization pipeline
that yields a structurally qualified, mass and carbon-optimized bracket for mounting a reaction
wheel to the internal rail structure of a 3U CubeSat.
Specific objectives:
' To automate parametric geometry generation of the bracket (rib layout, thickness, hole
pattern) through the SolidWorks API.
' To automate structural verification of each candidate, stress, deflection and natural frequency,
against NASA's General Environmental Verification Standard (GEVS) through the
SolidWorks Simulation API.
' To integrate an embodied-carbon assessment of each candidate, over a fixed shortlist of
qualified metallic alloys, using the Climatiq API.
' To implement an outer optimization loop coupling geometry, structural margins and carbon
footprint, yielding a Pareto optimal set of bracket designs.
Synopsis
This project proposes an automated pipeline for the multi-objective structural optimization of a
single, well-bounded spacecraft component: the bracket mounting a reaction wheel to the internal
rail structure of a 3U CubeSat. A parametric CAD model, driven through the SolidWorks API,
generates candidate bracket geometries by varying rib layout, wall thickness and hole pattern; each
candidate is automatically assessed for mass, structural margin against GEVS through SolidWorks
Simulation, and embodied carbon footprint through the Climatiq API, evaluated across the
qualified material shortlist. An outer optimization loop couples these three evaluations to construct
a Pareto front of non-dominated designs, rendering the trade-off between mass, stiffness and
sustainability explicit and quantitative. The methodological contribution lies not in any individual
simulation, already available interactively in SolidWorks, but in the closed-loop automation that
couples CAD generation, structural verification and carbon accounting into a single function
usable by a search algorithm, situating the project at the intersection of structural optimization,
aerospace verification standards and sustainable engineering.
 
Orientació a l'estudiant:
 
 
 
Horari d'atenció a estudiants per a l'assignació de projecte:

© CBLTIC Campus del Baix Llobregat - UPC