In briefUntested hypothesis: short-range atomic ordering in Co-Ni-V alloys may shift how CO2 and H2 bind to the surface, altering CO2-hydrogenation selectivity by at least 20%. The one computational campaign run against it (MACE-MP-0, 13 Sep 2026) did not test it: the arm labelled ordered had lost all surface cobalt in 11 of 12 configurations, so the comparison was between two different materials, and the pre-registered primary metric could not resolve its own threshold. No evidence either way.
Chemical short-range order (CSRO) in Co-Ni-V alloys will modulate the adsorption energy distributions (AEDs) of CO2 and H2 on alloy nanocatalyst surfaces, directly altering catalytic selectivity in CO2 hydrogenation by >=20% as predicted by machine-learned force fields and validated via high-throughput computational campaigns.
An independent panel that each critiques the hypothesis on its own; the score rewards genuine disagreement and discounts consensus.
If it held, this would enable rational design of selective catalysts for CO2 utilisation and hydrogen-economy applications, benefiting chemical manufacturers and carbon-neutral fuel synthesis. It has not been shown to hold. The single computational campaign run against it was disqualified by its own pre-registered composition control, so nothing here yet supports a design claim.
Logical constraints are satisfiable and formally consistent
Z3 checks internal logical consistency, not empirical truth.
Hypothesis is mathematically consistent (basic check)
Survived falsification attempt with caveats
No reviewer voted to falsify. The points below were raised as concerns by reviewers who still judged the hypothesis to survive.
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Uncovering the Crucial Role of Oxygen Vacancy in Altering Activity and Selectivity of CO2 Hydrogenation on ZnGa2O4 Spinel Surfaces
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Photo-Assisted Catalytic CO2 Hydrogenation to CO with Nearly 100% Selectivity over Rh/TiO2 Catalysts
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Machine Learned Potential Energy Surfaces and Force Fields
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Switching CO2 Hydrogenation Selectivity from CO to CH4 via H2OInduced Reconstruction on Ni/MoO2 Catalysts
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Research that informed this hypothesis:
This hypothesis bridges insights from:
Credible hypothesis with reasonable evidentiary support; 1 concern(s) recorded, but no reviewer voted to falsify.
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