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Status Submitted
Created by Guest
Created on Nov 13, 2026

Non-Equilibrium Dissipative-Flow 3D-Printed Porous Catalytic Conversion

PROBLEM: Catalytic conversion in a printed porous scaffold depends on flow threading an architected network under dissipative conditions, with intermediates moving between printed channels and functionalised walls. A catalyst that converts well in a stirred vessel may stall in the printed network if flow bypasses the active regions.

SOLUTION: Storage Copy Data Management would preserve versioned records for printed porous catalytic scaffolds, keeping pore design, functionalisation, DFT active-group predictions, flow-state conversion tests, and regeneration cycles as retrievable copies. Any later claim could be checked against the exact printed copy that was measured.

EVIDENCE BASIS: DOCUMENTED — Dissipative structures are maintained by energy flow through a system; Source: Prigogine, Nobel Prize 1977. Kohn–Sham DFT (1965) predicts surface-group binding; biosorption isotherms (Langmuir/Freundlich) and qe = (C0 − Ce)V/m are textbook DOCUMENTED. 3D-printed porous scaffolds are architected pore networks, print-then-functionalize.

Idea priority Low