CISS-Tuned 3D-Printed Energy-Storage Electrodes

PROBLEM: Printed electrodes with chiral biomass could in principle use spin-selective pathways through an architected pore network, yet a promising pore design can be lost when the next print changes functionalisation or chiral loading without a record. Storage performance depends on pore shape, chiral placement, and binding working together, so electrode programmes need preserved versions of each complete design. Without versioning, a working combination cannot be restored or fairly compared.

SOLUTION: Storage Copy Data Management would version CISS printed electrodes with their pore architecture, print parameters, chiral loading, DFT binding predictions, intended spin-selective step, and test results, with rollback to any earlier design. The capability would keep printing, functionalisation, drying, and regeneration energy with each version, so teams can restore the exact conditions behind a good result. Water-based, low-temperature variants would be preserved as distinct versions.

EVIDENCE BASIS: CISS — chiral molecules transmit one electron spin preferentially; observed in DNA, peptides, and helicenes since 1999; DOCUMENTED as a phenomenon, device-scale use REPORTED/emerging. DFT via Kohn–Sham equations; Hohenberg–Kohn 1964, Kohn–Sham 1965, Nobel 1998. Biosorption isotherms qe = (C0 − Ce)V/m and Langmuir/Freundlich models are textbook DOCUMENTED. Source: CISS literature since 1999; standard textbooks.