Research programme

Exact mathematical structures in field theory, gravity & quantum/information geometry

My work uses geometry to study quantum states, gauge fields, and spacetime. Recent papers ask how spectral distances encode qubit distinguishability, how a snapshot ensemble determines Laughlin quasihole geometry, and what source is represented by a Yang–Mills field singular on a lightcone. Work on black-hole flows examines the evolution of densities and amplitudes, including their geometric phases.

How the programme works

Specify the geometry

Choose a spacetime symmetry, a finite algebra and Dirac operator, or a family of quantum states

Carry out the calculation

Solve the reduced field equations, evaluate spectral distances, or evolve densities and amplitudes

Interpret the result

Determine sources and charges, compare state distinguishability, or identify the phase acquired by a flow

Geometric visual motif connecting exact structures with physical dynamics

Research map

Directions and entry points

Four connected routes through the programme; open any direction for methods, figures, and public anchors.

Publications

Publications and public preprints

For citation counts and full indexing, see InspireHEP or arXiv.

Academic activity

Talks, conferences, and schools

Selected talks

Earlier and local seminars

Conferences

Schools

Research trajectory

Where the programme developed

Earlier to current research homes.