Materials synthesis & processing
Solid-state synthesis, precursor selection, composition modification, powder mixing and milling, calcination, pellet preparation, sintering and densification.
I connect material composition and processing with phase evolution, microstructure and functional performance. My research experience spans functional oxide ceramics, thermoelectric transport and hydrogen-related electrochemical materials. I am focused on bringing this experimental background into industrial materials R&D.
I approach materials research as an iterative engineering process: define the target property, select composition and processing variables, verify the resulting material, measure its response and use the evidence to decide what to change next.
Not just “Did the synthesis work?” but also: Which phase formed? What changed in the microstructure? Which variable controls the measured response? What experiment should follow?
Methods and technical activities grounded in my research experience.
Solid-state synthesis, precursor selection, composition modification, powder mixing and milling, calcination, pellet preparation, sintering and densification.
Phase identification, lattice analysis and microstructure evaluation to understand the effects of composition and processing.
Evaluation of thermoelectric transport, electrical response, impedance behaviour and hydrogen-related electrochemical performance.
Comparative experimental analysis, structure–property correlation, interpretation of performance limitations and planning of follow-up experiments.
Connecting synthesis, material verification and performance testing.
Target property, operating conditions and key constraints.
Composition, precursors and processing variables.
Synthesis, powder processing and ceramic fabrication.
Phase, microstructure and functional measurements.
Interpret results and select the next experiment.
Published work examined vanadium substitution and precursor selection as routes to modifying thermoelectric transport in a Magnéli-phase tungsten oxide.
The V₂O₅ route yielded a power factor of 0.73 mW m⁻¹ K⁻² and a maximum ZT of 0.22 at 1073 K for x = 0.10.
Read the journal article ↗These are areas where my materials background may be relevant; they are not claims of industrial product deployment.
Oxide materials, transport characterization and waste-heat recovery research.
Protonic and mixed-conducting oxides, impedance analysis and hydrogen-related testing.
Composition engineering, phase control, densification and structure–property analysis.
Optical properties, semiconductor interfaces and light-driven reaction evaluation.
I am interested in R&D environments where experimental materials science supports the development, characterization and validation of functional materials—particularly advanced ceramics, hydrogen and electrochemical materials, and energy-related materials.