Research programme

Exact mathematical structures for computable physics

I develop algebraic and geometric methods that turn difficult physical questions into explicit calculations. The programme now runs across quantum-state geometry, exact gauge fields and sources, quantum spacetime, and finite particle geometry, with public results ranging from Laughlin-state metrics and black-hole phases to characteristic Yang–Mills sources.

How the programme works

Rigid input

Symmetry reductions, finite algebras, quantum calculi, exact state families, or matrix backgrounds

Controlled construction

Solve the field, metric, phase, spectral, source, or transport problem without hiding its assumptions

Physical result

Observable geometry, exact sources and charges, propagation laws, or constraints on viable finite models

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.