Where the idea began
My interest started with whether selective optical excitation could help separate oxygen from titanium dioxide. I previously attempted a UV-C experiment, recalling a wavelength around 220 nm. That experiment did not achieve the intended result.
The present research direction
The broader concept combines optical activation with a separately specified chemical or electrochemical reduction step. Research questions include energy demand, oxygen removal, competing reactions, material purity, and reoxidation.
Creating oxygen vacancies, changing oxide colour, or producing a lower oxide would not by itself demonstrate titanium-metal production. The decisive measurement would be verified metallic titanium yield, composition, and total energy input.
A layerwise manufacturing concept
Deposit a controlled layer
Establish a reproducible TiO₂ feed layer and controlled reaction environment.
Activate and reduce
Investigate whether light improves a defined reduction pathway, using appropriate controls.
Manage oxygen
Remove reaction products and prevent reoxidation. Vacuum is an environmental control, not a reduction mechanism by itself.
Characterise and consolidate
Verify the product before considering laser or electron-beam consolidation and repeated layers.
Next milestone
A bounded experiment comparing a baseline reduction route with and without optical assistance, with phase identification, oxygen analysis, mass balance, and energy accounting. Any manufacturing proposal depends on first establishing the chemistry.
Potential collaborators
Materials characterisation specialists, electrochemists, laser-process researchers, and process-development teams interested in evaluating a narrowly defined experiment.
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