Oxidation, autoignition and combustion chemistry
Doctoral-level research addressed the oxidation and autoignition of alkanes, aromatic compounds and their mixtures under elevated-pressure conditions, supported by detailed chemical-kinetic modelling.
Professional Profile · Evidence · Career Architecture
Reactive & Thermochemical Systems · Modelling, Verification, Validation & Scale-Up
Applied physical chemistry, chemical kinetics, reactor and CFD modelling, model verification, experimental validation, process development and industrial engineering are integrated to support evidence-based technology-development and scale-up decisions.
Professional summary
The work connects physical chemistry, thermodynamics, chemical kinetics, transport phenomena, reactor and CFD modelling, experiments and process engineering. The objective is not simply to describe a technical effect, but to determine what governs it, whether the model or calculation is internally verified, how the underlying claim can be validated, and whether it can be transferred responsibly to a practical system.
The professional path spans academic research, industrial R&D, combustion and emissions development, thermochemical-process engineering, experimental and pilot-oriented development, customer-facing technical projects, multidisciplinary leadership and scientific communication.
Recommendations are assessed against reproducibility, material and energy efficiency, operability, safety, evidence maturity and quality, scale-dependent risk and realistic industrial value. Implementation integrity, experimental validation and industrial applicability are treated as separate evidence questions.
Professional evidence
Academic records, qualified employment references, peer-reviewed publications, public technical frameworks, repositories and controlled professional records support different parts of the profile and are not treated as interchangeable forms of validation. Software tests and reproducible execution demonstrate implementation integrity; they do not by themselves establish physical or industrial validation. Detailed professional cases are maintained in Selected Work, while publication and repository evidence is maintained in Publications and Research & Tools.
Public-scope boundary: this page presents a concise professional profile, not a complete personnel file or project archive. Employer-owned, customer-confidential and proprietary technical information remains outside the public evidence layer.
Professional development path
The path combines fundamental research, computational science, experimental development, process engineering and technical project leadership.
Doctoral-level research addressed the oxidation and autoignition of alkanes, aromatic compounds and their mixtures under elevated-pressure conditions, supported by detailed chemical-kinetic modelling.
Subsequent work expanded into premixed and high-pressure flames, HCCI systems, engine pollutant formation, soot and nanoparticle inception, experimental diagnostics and reaction-network analysis.
Industrial R&D work added test-rig integration, sensors, acquisition and control interfaces, planned testing, technical reporting and design-oriented interpretation.
The scope broadened to pyrolysis-process development, plant trials, process calculations, technical documentation, plant-concept engineering and wider thermochemical systems. This professional plant-engineering experience is distinct from later independent public pyrolysis-modelling development.
Recent work combines project planning and control, multidisciplinary coordination, customer and supplier interfaces, technical assessment and the translation of scientific principles into development decisions.
The current direction prioritizes technically suitable employment, collaboration and defined consulting assignments requiring scientific depth, engineering judgement, verification and validation discipline, process-development capability and implementation awareness.
Qualifications and professional development
Physical chemistry, with research in oxidation, autoignition and detailed chemical kinetics.
Energetics, supporting the connection of scientific analysis with energy and process systems.
Foundational scientific education supporting later research and engineering development.
Documented training covering classical, agile and hybrid project approaches; presented as training rather than formal certification.
Languages and working environment
Professional direction
I am open to selected professional opportunities requiring scientific depth, engineering judgement and implementation awareness. Relevant directions include employment in R&D, process and technology-development leadership, specialist scientific or process-engineering roles, technical-project responsibility, and selected consulting or scientific and industrial collaboration.
Each opportunity is evaluated according to technical fit, evidence maturity and quality, implementation feasibility, confidentiality, intellectual-property boundaries and realistic professional, collaborative or commercial value.
Contact and professional information
Employers, technical leaders, research organizations, industrial partners and potential collaborators are welcome to make contact regarding a relevant professional or technical opportunity. A detailed CV, selected supporting evidence and additional non-confidential project information can be provided when useful.
Confidential or proprietary information should not be sent before an appropriate confidentiality arrangement is in place.