Research & Innovation

PhD-level foundations and delivery leadership across funded research programmes, high-performance computing, and applied systems engineering.

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Foundations

Academic training and applied research experience

  • PhD: Aeronautical Engineering — Helicopter Aerodynamics (Queen Mary, University of London)
  • UK Ministry of Defence: 4 years post-PhD research on helicopter aerodynamics (results delivered under appropriate constraints)
  • HPC & CFD: Longstanding work on parallel CFD solvers, performance optimisation, and distributed compute architectures

Note: For sensitive or restricted programmes, Symban describes scope and outcomes at an appropriate level and avoids confidential detail.

Funded programmes & consortia

Initiation, proposal leadership, technical architecture, and delivery governance

FLOWGRID (European Commission, 2004)

Initiated and led a European consortium of companies and universities to develop a distributed grid-based platform for running CFD applications. The consortium was awarded €1.1m in funding, with Symban providing technical leadership and project management.

See related outputs →

PASHA (EU programme, 1998)

Project managed a European-funded programme focused on high-performance systems and networking, coordinating delivery across partners and ensuring technical and programme governance.

Academic & industry collaboration

Experience working across university and industry contexts: aligning research objectives with engineering constraints, delivering usable platforms, and supporting dissemination and adoption.

How Symban works in research & academic contexts

A practical delivery model for high-trust programmes

Translate research into an executable plan

Turn research goals into a delivery plan with clear milestones, success criteria, datasets, and evaluation methods. Establish a credible path from prototype to adoption.

Engineer for reproducibility

Prioritise reproducible compute: containers, versioned pipelines, documented assumptions, automated testing, and controlled environments—essential for research credibility and repeatability.

Deliver governance without bureaucracy

Provide pragmatic governance: work-package coordination, reporting cadence, RAID discipline, and stakeholder alignment—lightweight enough to move fast, strong enough to reduce programme risk.

Research & engineering themes

Areas of depth that connect research to production delivery

  • High-performance computing: parallelisation, profiling, scalability, schedulers, and compute automation
  • Scientific software engineering: reliability, validation, reproducibility, and data pipelines for scientific outputs
  • Distributed computing: architectures spanning grid, cluster, and hybrid cloud compute
  • Applied AI tooling: using modern AI/LLM methods to support knowledge work and accelerate workflows where appropriate

Related pages: Selected outputs are listed in Publications. Delivery examples can be found in Case studies, with summarised outcomes in Achievements.