A ray-tracing framework that models sub-surface scattering via symmetry-constrained unitary quantum collisions, pre-computable on quantum computers to produce BSDFs for new coherent materials.
The quantum theory of optical coherence
4 Pith papers cite this work, alongside 4,023 external citations. Polarity classification is still indexing.
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Pith papers citing it
4,023
external citations · OpenAlex
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2026 4representative citing papers
Time-reversed Young interferometry acts as a source-space information processor where mutual information is the reciprocal invariant and source-label entropy can decrease near destructive interference while Fisher information rises.
Time-domain Stokes phenomenon unifies temporal-boundary scattering and k-gap amplification in photonic time crystals, producing Kerr-stabilized soliton pairs whose entanglement is testable via HBT and HOM measurements.
Constructs coherent states for quantized EM field matching classical non-null torus knot solutions and computes their field, energy, helicity, and correlation observables in terms of knot parameters (n,m,l,s).
citing papers explorer
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Rendering Coherent Scattering via Quantum Collision Models
A ray-tracing framework that models sub-surface scattering via symmetry-constrained unitary quantum collisions, pre-computable on quantum computers to produce BSDFs for new coherent materials.
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Entropic Reciprocity in Time-Reversed Young Interferometry
Time-reversed Young interferometry acts as a source-space information processor where mutual information is the reciprocal invariant and source-label entropy can decrease near destructive interference while Fisher information rises.
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Time domain Stokes mechanism of pair correlated k gap solitons in nonlinear photonic time crystal slabs
Time-domain Stokes phenomenon unifies temporal-boundary scattering and k-gap amplification in photonic time crystals, producing Kerr-stabilized soliton pairs whose entanglement is testable via HBT and HOM measurements.
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Coherent States of Non-Null Torus Knots
Constructs coherent states for quantized EM field matching classical non-null torus knot solutions and computes their field, energy, helicity, and correlation observables in terms of knot parameters (n,m,l,s).