A new study from the University of Rome Tor Vergata, published in Engineering Proceedings, presents the design of the CubeSat Solar Polarimeter (CUSP), a cutting-edge instrument for studying space weather and solar flares through X-ray polarimetry.

Advanced Engineering for Space Missions

Led by Giovanni Lombardi and a team of researchers from INAF and other institutions, the study highlights the role of Radial Basis Functions (RBF) mesh morphing, a state-of-the-art numerical simulation technique used to optimize the payload structure.

How RBF Mesh Morphing Enhances CUSP’s Design

• Structural Optimization – Ensures mechanical resilience during launch and space operations.
• Thermal Stability – Reduces stress and deformation caused by extreme temperature shifts.
• Lightweight & Robust – Enhances payload performance while maintaining CubeSat constraints.

This cutting-edge approach significantly reduces computational time while improving structural efficiency—critical for small satellite missions.

Revolutionizing Solar X-ray Observations

CUSP will provide new insights into solar flare activity and space weather, improving our understanding of high-energy solar events. By integrating advanced engineering with astrophysical research, this project sets a new standard for CubeSat payload development.

For more details, check out the full study in Engineering Proceedings.