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Meeting MS&T25: Materials Science & Technology
Symposium Materials and Manufacturing in Low Earth Orbit (and Beyond)
Presentation Title Scientific Discovery Through Engineering Tech – How the MOVE: CAN-DO Project Builds Mutually Beneficial Collaborations
Author(s) Ben Rupp, Ian Hanson
On-Site Speaker (Planned) Ian Hanson
Abstract Scope The NASA Science Mission Directorate funded MOVE: CAN-DO to explore what useful scientific output can come from opportunistic collaborations. In our first attempt we’re partnering with Cislunar Industries. For risk reduction for their Modular Space Foundry concept, Cislunar Industries casts engineering alloys in hardware designed to test orbital hardware on parabolic flights. The MOVE: CAN-DO project works with Cislunar Industries to complete an additional flight day to cast alloys like those previously cast in NASA physical science experiments including CETSOL and MiCAST. Using the diagnostic capabilities of the Marshall Space Flight Center and Cislunar hardware, the MOVE: CAN-DO project aims to generate an engineering dataset from samples cast in microgravity for validation of advanced Integrated Computational Materials Engineering (ICME) models.

OTHER PAPERS PLANNED FOR THIS SYMPOSIUM

A Multifunctional SolidStir® Manufacturing Technology for Extra Terrestrial Applications
Atomic Oxygen-Induced Degradation in a Polyimide Film From Reactive Molecular Dynamics Simulations
Beyond microgravity: considering other biomechanical features of organoids and tissue models for in-space biomedicine and biomanufacturing
Bridging Atomistic-Continuum Simulations for Spacecraft Materials in Extreme Conditions
Building Materials Research and Manufacturing Capabilities in Low Earth Orbit
Challenges in Laser Welding for Space: Metal Vapor, Lens Fogging, and Plume Effects
Commercial Space Flight: Opportunities for Materials/Manufacturing
Delta-to-Gravity™: Machine Learning Informed Predictive Analytics for Microgravity and Scalable In-Space Manufacturing
Instrumentation for the Testing of Laser Beam Welding under Simulated Space Conditions via Parabolic Flight
Laser Beam Welding in Space – From Science to Technology Development
Laser Directed Energy Deposition Additive Manufacturing of Lunar Regolith Simulant
Leveraging Microgravity to Produce Bacteriorhodopsin-Based Thin Films for Biohybrid Applications
Machine Learning-Driven Design of Polymers Resistant to Atomic Oxygen in Low Earth Orbit
Modifying Properties of Lunar Regolith Via High-Power Microwave Torch
Numerical Modeling of Laser Beam Welding for In-Space Applications: Insights from Parabolic Flight Experiments
Optimizing Surface Melting Techniques for In-Space Aluminum Fabrication
Oxide Dispersion Strengthening via Additive Processing: A Revolutionary New Approach for High Temperature Alloys
Porosity formation and microstructure characterization in pulsed LBW of 316L SS under space conditions and different levels of gravity
Scientific Discovery Through Engineering Tech – How the MOVE: CAN-DO Project Builds Mutually Beneficial Collaborations
The Design of a Robotic Cold Welding and Deformation System for In-Space Manufacturing
The Generation of Gold Nanospheres in the Microgravity Environment of Low Earth Orbit
The Ionizing Radiation Environment in Low Earth Orbit
Towards Lifetime Predictions for Widegap Semiconductors in Low Earth Orbit
Towards On-Orbit Synthesis of Metal-Organic Frameworks
Ultra-Strong, Lightweight Polymer Composite Films for Space Applications

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