Casimir–van der Waals Gradient Multilayers for Catalytic Pollutant and CO2 Conversion

PROBLEM: A staged gradient catalyst moves reactants through zones of changing spacing and chemistry, so dispersion forces can help or hinder at different depths: a zone that attracts reactants may also hold products too long, while a zone that releases products easily may not attract reactants at all. A catalytic design that ignores the depth profile of dispersion forces will tune one zone correctly and the others by accident. The full zone history must be preserved to learn from each run.

SOLUTION: Storage Copy Data Management would provide a governed record capability that preserves the gradient recipe, zone-resolved DFT models, Casimir/van der Waals dispersion-force estimates, and operating conditions for each catalytic stack. The capability would version each reuse cycle, retain deposition, curing, and regeneration energy, and make the complete zone history retrievable so later runs can be compared zone by zone. It manages catalytic evidence rather than asserting conversion.

EVIDENCE BASIS: Casimir/van der Waals dispersion forces are DOCUMENTED: quantum-fluctuation forces between uncharged surfaces at nanoscale; Casimir measured 1997 (Lamoreaux). DFT is based on Hohenberg–Kohn 1964 and Kohn–Sham 1965, Nobel Prize 1998. Biosorption binding follows R−COOH + M2+ ⇌ R−COOM+ + H+ and is validated by batch isotherms, qe = (C0 − Ce)V/m, Langmuir and Freundlich isotherms, textbook DOCUMENTED. Source: Lamoreaux 1997 Casimir measurement and textbook DFT and biosorption isotherm literature as summarised in the batch method.