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This research establishes a computational bridge between relativistic twisted fermion beams and photonic systems using gauged Hopf lattices, demonstrating that topological spin textures like Skyrmions can emerge in accessible optical platforms. The study provides numerical simulations showing persistent core features and flux transfer dynamics analogous to probability-current continuity in matter waves, offering new tools for exploring structured wave topology without requiring relativistic particle accelerators.
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Bridging Relativistic Twisted Fermion Beams and Photonic OAM Flux in Gauged Hopf Lattices: Emergent Topological Analogs

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arXiv:2607.16520v1 Announce Type: cross Abstract: Recent work has demonstrated non-diffractive topological spin textures (Skyrmion- and meron-like) that persist in the core of diffracting relativistic twisted fermion beams [1]. Here we present numerical simulations of an analogous photonic system: Laguerre-Gaussian (LG) twisted photon packets coupled to a gauged Hopf lattice with discrete flux flywheels. Our results reveal emergent behavior of the same qualitative class, including persistent core features under propagation, mean survival approx 0.150 at critical lambdat = 2 clustering tightly with the mystery scale e^{-2} approx 0.1353 and residual R approx 0.1375, golden-angle correlations in the OAM mode ladder, and topological residuals with long-lived structure. Multi-l simulations further exhibit z-resolved flux transfer and twist dynamics that play a role analogous to probability-current continuity in the fermionic setting. These findings suggest photonic platforms as accessible analogs for exploring topological textures in structured waves, and they formalize a concrete computational bridge between relativistic twisted matter waves and topological photonics.

Abstract:Recent work has demonstrated non-diffractive topological spin textures (Skyrmion- and meron-like) that persist in the core of diffracting relativistic twisted fermion beams [1]. Here we present numerical simulations of an analogous photonic system: Laguerre-Gaussian (LG) twisted photon packets coupled to a gauged Hopf lattice with discrete flux flywheels. Our results reveal emergent behavior of the same qualitative class, including persistent core features under propagation, mean survival approx 0.150 at critical lambdat = 2 clustering tightly with the mystery scale e^{-2} approx 0.1353 and residual R approx 0.1375, golden-angle correlations in the OAM mode ladder, and topological residuals with long-lived structure. Multi-l simulations further exhibit z-resolved flux transfer and twist dynamics that play a role analogous to probability-current continuity in the fermionic setting. These findings suggest photonic platforms as accessible analogs for exploring topological textures in structured waves, and they formalize a concrete computational bridge between relativistic twisted matter waves and topological photonics.

Code frozen at: this https URL (commit a86062d) Includes full anc/ directory with frozen code, data, and figure scripts. Live demo: this https URL

Optics (physics.optics); Quantum Physics (quant-ph)

arXiv:2607.16520 [physics.optics]

(or arXiv:2607.16520v1 [physics.optics] for this version)

https://doi.org/10.48550/arXiv.2607.16520 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

data/emergence_probes/ell_survival_sweep.png

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data/vqc_coupling_demo/flux_kick_slice.png

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oam_flux/README.md

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oam_flux/pyproject.toml

oam_flux/requirements.txt

oam_flux/scripts/deploy_hf_space.sh

oam_flux/scripts/run_coupling_demo.py

oam_flux/scripts/run_eddington_probe.py

oam_flux/scripts/run_emergence_probes.py

oam_flux/scripts/run_vqc_coupling_demo.py

oam_flux/scripts/sync_hf_space.sh

oam_flux/space/oam_flux/README.md

oam_flux/space/oam_flux/app.py

oam_flux/space/oam_flux/build_info.py

oam_flux/space/oam_flux/configs_default.yaml

oam_flux/space/oam_flux/demo_core.py

oam_flux/space/oam_flux/oam_flux/__init__.py

oam_flux/space/oam_flux/oam_flux/back_reaction.py

oam_flux/space/oam_flux/oam_flux/constants.py

oam_flux/space/oam_flux/oam_flux/coupling.py

oam_flux/space/oam_flux/oam_flux/dose_equivalence.py

oam_flux/space/oam_flux/oam_flux/eddington.py

oam_flux/space/oam_flux/oam_flux/emergence.py

oam_flux/space/oam_flux/oam_flux/flux_deposit.py

oam_flux/space/oam_flux/oam_flux/helix_viz.py

oam_flux/space/oam_flux/oam_flux/lattice.py

oam_flux/space/oam_flux/oam_flux/momentum.py

oam_flux/space/oam_flux/oam_flux/photon.py

oam_flux/space/oam_flux/oam_flux/pulse_envelope.py

oam_flux/space/oam_flux/oam_flux/pulse_stats.py

oam_flux/space/oam_flux/oam_flux/pulse_train.py

oam_flux/space/oam_flux/oam_flux/vqc_coupling.py

oam_flux/space/oam_flux/oam_flux/vqc_photonics.py

oam_flux/space/oam_flux/requirements.txt

oam_flux/src/oam_flux/__init__.py

oam_flux/src/oam_flux/back_reaction.py

oam_flux/src/oam_flux/constants.py

oam_flux/src/oam_flux/coupling.py

oam_flux/src/oam_flux/dose_equivalence.py

oam_flux/src/oam_flux/eddington.py

oam_flux/src/oam_flux/emergence.py

oam_flux/src/oam_flux/flux_deposit.py

oam_flux/src/oam_flux/helix_viz.py

oam_flux/src/oam_flux/lattice.py

oam_flux/src/oam_flux/momentum.py

oam_flux/src/oam_flux/photon.py

oam_flux/src/oam_flux/pulse_envelope.py

oam_flux/src/oam_flux/pulse_stats.py

oam_flux/src/oam_flux/pulse_train.py

oam_flux/src/oam_flux/vqc_coupling.py

oam_flux/src/oam_flux/vqc_photonics.py

oam_flux/tests/test_back_reaction.py

oam_flux/tests/test_constants.py

oam_flux/tests/test_dose_equivalence.py

oam_flux/tests/test_eddington.py

oam_flux/tests/test_emergence.py

oam_flux/tests/test_exponential_recovery.py

oam_flux/tests/test_helix_viz.py

oam_flux/tests/test_momentum.py

oam_flux/tests/test_pulse_envelope.py

oam_flux/tests/test_pulse_stats.py

oam_flux/tests/test_pulse_train.py

oam_flux/tests/test_recovery.py

oam_flux/tests/test_vqc_photonics.py

scripts/regenerate_figure_2.py

scripts/regenerate_figures_3_4.py

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