Generator Histories and Parity-Odd Curvature in Lorentzian Topology Change
Keith Andrew, Eric V. Steinfelds, Kristopher A. Andrew

TL;DR
This paper introduces a generator-history framework for Lorentzian topology change, linking local operations, braid groups, and parity-odd curvature to understand chiral topology transitions in classical Lorentzian geometry.
Contribution
It develops an algebraic and geometric framework representing topology change through elementary local events and identifies parity-odd curvature as a key diagnostic of chiral topology change.
Findings
Braid groups model elementary local exchanges in topology change.
Parity-odd conformal curvature detects chiral generator accumulation.
Generator histories provide a covariant diagnostic independent of endpoint classes.
Abstract
Lorentzian topology change may be resolved into an ordered sequence of localized, orientation-sensitive operations rather than treated solely as a global transition between spatial manifolds. We develop a generator-history framework in which topology-changing spacetimes are represented algebraically as compositions of elementary local events, independent of dynamics, quantization, or anomaly inflow. Braid groups arise as the minimal realization of ordered, invertible pairwise exchanges, while higher-valence generators extend the construction to networked processes. Within this framework we identify parity-odd conformal curvature as the unique nontrivial local curvature pseudoscalar (without derivatives) capable of aggregating oriented generator content in four-dimensional Lorentzian vacuum geometry. The dual Weyl contraction changes sign under orientation reversal and therefore isolates…
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Taxonomy
TopicsNoncommutative and Quantum Gravity Theories · Topological Materials and Phenomena · Quantum Electrodynamics and Casimir Effect
