
This is the author archived version of a peer reviewed conference paper published in the proceedings of the 36th Annual International Solid Freeform Fabrication Symposium (SFF 2025), held August 10 –13, 2025, at the AT&T Hotel and Conference Center, Austin, TX, USA. The work investigates rheology informed mixture engineering of granular ceramic aggregates under extrusion to enable adaptive control and improved printability in extrusion based additive manufacturing. The official version is available via the SFF Symposium website.
closed-loop control, material extrusion, Printability and buildability of granular materials, Flow regime transitions in dense suspensions, Non-Newtonian particulate suspensions, Granular Paste Extrusion, particle size distribution, Rheology, Particle-laden flow in semi-solid media, additive manufacturing
closed-loop control, material extrusion, Printability and buildability of granular materials, Flow regime transitions in dense suspensions, Non-Newtonian particulate suspensions, Granular Paste Extrusion, particle size distribution, Rheology, Particle-laden flow in semi-solid media, additive manufacturing
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