Scientific direction for deployed AI

Chief Scientist at EyeTrustAI

I created and lead EyeTrustAI’s research programme on risk control for AI systems that act, adapt and operate under changing conditions.

From foundational questions to reproducible evidence and product architecture.

Research directionDefine the scientific programme and priorities.
Methods and evidenceDirect theory, experiments and reproducibility.
Product translationTurn research into risk-control primitives.

Research programme

Closed-loop conformal risk control

The programme advances conformal risk control beyond static calibration and isolated predictions toward adaptive, deployed systems.

Track I

Certificates across changing environments

Where is a risk certificate valid?

Transfer and maintain statistical guarantees when deployment context changes.

  • Contextual selective risk control
  • Meta-conformal transfer
  • Certificate expiry under drift
  • Adaptive risk contracts
Track II

Control inside closed-loop AI systems

What happens once the certificate controls the system?

Study sequential action, selective feedback and policies that alter future data.

  • Sequential conformal authorisation
  • Policy-dependent feedback
  • Safe active auditing
  • Performative risk control
Where the tracks converge Can a risk certificate transfer, act, receive feedback, adapt and remain statistically meaningful?

Featured research advance

Sequential safety for clinical decision pathways

The work extends conformal prediction from isolated image outputs to multi-stage workflows in which diagnostic actions reveal information and shape later decisions.

View related reproducible research
Scientific contribution

Pathway-level guarantees

The guarantee is pathway-level: at the target coverage, at least one guideline-consistent safe pathway remains reachable.

Decision structure

Uncertainty across stages

A shared miscoverage budget controls pruning as tests reveal information and the pathway evolves.

Empirical scope

Five public datasets

Ophthalmology studies examine pathway retention, decision risk and the operational effect of allocating uncertainty across stages.