TUTORIAL 7. PHOTONIC TOROIDAL VORTEX MODEL ARCHITECTURE
</> YAML
Title:
- Photonic_Toroidal_Vortex_Architecture
Description:
An_exact,_semiclassical,_geometric_alternative_to_probabilistic_theories._It_replaces_point_abstractions_with_a_local,_mechanical_conservation-of-action_principle,_within_a_structured_rotating-photon-framework.
Aim:
- Obtain_a_visualisable_mechanical_model_of_the_unobservable_world_beyond_the_senses
- Interpret_anthropocentric_theories_using_a_universal_model
Core_achievements:
- obtains_energy_levels_for_an_electron_without_an_external_potential
- reproduces_the_Sommerfeld-Dirac_fine_structure_hydrogen_atom_energy_levels_to_2_parts_in_10^10
- obtains_the_hyperfine_half_splitting_for_hydrogen_across_30_states_with_a_median_error_of_0.0014_MHz
- provides_explicit_local_physical_mechanisms_for_intrinsic_spin,_the_Lorentz_force_deflection,_mass_generation,_charge_invariance,_and_Bose_Einstein_statistics_with_distinguishable_photons
Main_research_and_documentation:
- https://barryispuzzled.com/physics
Relevant_publications:
- Reinterpretation_of_the_Grangier_experiment_using_a_multiple-triggering_single_photon_model,_Modern_Physics_Letters_B,_(2023),_DOI:_10.1142/S0217984923500422
- A_photonic_toroidal_vortex_model_of_the_hydrogen_atom_fine_structure,_Quantum_Studies:_Mathematics_and_Foundations,_(2025),_DOI:_10.1007/s40509-025-00364-9
Preprints:
- Geometrical_interpretation_of_the_hydrogen_atom_hyperfine_structure,_(2026),_DOI:_10.20944/preprints202603.1719.v1
- The_Lorentz_force_and_the_nature_of_charge_from_a_photonic_toroidal_vortex_model,_(2026),_DOI:_10.20944/preprints202603.2233.v2
- A_heuristic_model_of_the_Bose-Einstein_distribution_with_distinguishable_photons,_(2026),_DOI:_10.20944/preprints202605.1447.v1
Author:
Name: Dr Barry R. Clarke
Curriculum_vitae:
- The_Vortex_Atom,_World_Scientific_Publishing,_(2021)
- The Quantum_Puzzle,_World_Scientific_Publishing,_(2017)
- Puzzle_compiler_for_the_Daily_Telegraph_with_over_1800_mathematics_and_logic_puzzles
- Challenging_Logic_Puzzles_Mensa,_Sterling,_(2003),_over_100,000_sold
- MSc_by_thesis_in_matrix_mechanics_perturbation_methods_with_two_publications_in_J._Phys._A.
- PhD_in_Shakespeare_attribution_studies
website:
- https://barryispuzzled.com
- https://github.com/barryispuzzled/PTV-Hydrogen-Model
HS:
type: fundamental_construction_unit
description: finite-length_string
Sp-1:
derived_from: HS
description: optical_spin_angular_momentum_(optical_SAM)
structure: HS_helical_trajectory
Sp-2:
derived_from: Sp-1
description: optical_orbital_angular_momentum_(optical_OAM)
structure: Sp-1_helical_trajectory
Sp-3:
derived_from: Sp-2
description: toroidal_rotation
structure: Sp-2_rotation_around_toroidal_axis
constants:
alpha: fine_structure_constant
c: speed_light
mo: electron_rest_mass
m'o: proton_rest_mass
h: Planck's_constant
hbar: h/(2*pi)
M: mo/m'o
Ry : Rydberg_frequency
An: nuclear_mass_number
Zn: nuclear_charge
variables:
na: Sommerfeld_azimuthal_quantum_number
nr: Sommerfeld_radial_quantum_number
n: total quantum number
- n = na + nr
r2o: Sp-2_radius
- r2o = 3.86159268*10^(-13) m
r3o: Sp-3_radius
- r3o = 5.291631210153*10^(-11) m
v2: Sp-2_speed
v2f: Sp-2_field_speed
v3: Sp-3_speed
v3f: Sp-3_field_speed
p2f: Sp-2_field_momentum
p3f: Sp-3_field_momentum
xbar: bound-state_distance_between_proton-electron_toroidal_centers_as_fraction_of_r3o
dbar2: bound-state_distance_between_proton-electron_Sp-2_centers_as_fraction_of_r3o
E3: fine_structure_formula_with_reduced_mass
E3D: fine_structure_formula_with_reduced_mass_and_velocity_adjustment
nu_midpoint: hyperfine_midpoint_frequency_(MHz)
nu_magnetic_potential: magnetic_potential_frequency_(MHz)
nu_shift: hyperfine_half-interval_shift_from_midpoint_(MHz)
nu: frequency_(MHz)_includes_fine_structure_with_reduced_mass_and velocity_adjustment,_magnetic_potential,_and_hyperfine_half-interval_shift
capital_gamma: searchable_parameter_in_fine_structure_velocity_adjustment
A: Searchable_parameter_in_magnetic_potential
B: Searchable_paremeter_in_magnetic_potential
k: muliplier_in_hyperfine_half-shift_(k=1_for_nS1/2_states)
Fundamental_postulates:
- Sp-1_and_Sp-2_rotations_tend_to_preserve_action_h
- rotational_and_translational_action_are_interchangeable_when_Sp-1_or_Sp-2_action_is_overloaded_or_underloaded
used_in:
- dispersive_media_when_photon_speed_slows_due_to_translational_action_redistributed_into_Sp-1_action
- hyperfine_shift_when_changing_magnetic_momentum_field_overloads_or_underloads_electron_Sp-2_action_into_or_out_of_Sp-3_action
- Lorentz_force_when_Sp-2_circuit_in_toroid_is_underloaded_or_overloaded_due_to_field_gradient_across_it_and_change_in_Sp-3_translational_action_gives_deflection
Attraction_mechanism:
- proton_and_electron_Sp-3_have_opposite_rotations
- proton_Sp-3_field_momentum_intrudes_in_electron_Sp-3_rotation
- electron_Sp-3_action_reduced_by_field_momentum_so_toroid_attempts_to_find_next_lowest_integer_action
- electron_seeks_stronger_proton_field_to_reduce_action_further
- electron_Sp-3_energy_redistributed_into_translational_motion_towards_proton
- translational_energy_emitted_as_radiation_at_bound-state_distance
Repulsion_mechanism:
- same_charges_have_same_sense_Sp-3_rotations
- action_in_target_Sp-3_is_overloaded_by_intruding_Sp-3_field_momentum
- toroid_attempts_to_find_next_lowest_integer_action
- toroid_seeks_weaker_source_field_to_reduce_action_further
- Sp-3_energy_redistributed_into_translational_motion_away_from_source
Toroidal_frequencies:
- the_highest_Sp-3_frequency_is_at_n=1
- as_n_increases_the_Sp-3_frequency_decreases
Photon-toroid_interaction:
- photons_are_rotational_(SAM_or_OAM)
- when_a_photon_opposes_the_rotation_sense_of_the_toroid_it_decreases_the_Sp-3_frequency
- a_same_sense_photon_increases_the_Sp-3_frequency_and_lowers_the_n
- when_the_toroid_has_n>1,_a_same-sense_frequency_photon_appropriate_for_a_particular_
transition_can_induce_that_transition_to_a_lower_n,_with_the_transition-frequency_photon_
is_also_released_making_two_photons_(stimulated_emission)
rest_mass:
derived_from: Sp-2
structure: circular_Sp-2_rotation
condition: inversely_proportional_to_Sp-2_radius
equation: mo = h/(2*pi*r2o*c)
relativistic_mass:
derived_from:
- Sp-2
- Sp-3
condition: Sp-2_helical_trajectory_due_to_Sp-3_momentum_component
magnetic_momentum_field:
derived_from: Sp-2
structure:
- permanent_field_emission_due_to_Sp-2_rotation
- p2f_field_momentum
- r2f_field_radius
- radius_taken_from_Sp-2_center
- mass_of_field_invariant
- speed_inversely_proportional_to_r2f
- field_cuts_line_joining_source-target_Sp-2_centers_at_pi/4
- field_lines_are_parallel
used_in:
- changing_p2f_field_momentum_creates_hyperfine_splitting
formula:
- p2f = hbar/r2f
- v2 = c*sqr(1 - alpha)
electric_momentum_field:
derived_from: Sp-3
structure:
- permanent_field_emission_due_to_Sp-3_rotation
- p3f_field_momentum
- r3f_field_radius
- radius_taken_from_Sp-3_center
- electric_field_momentum_perpendicular_to_magnetic_field_momentum
used_in:
- Coulomb_field
- Ampere's_law: aligned_Sp-3_field_rotations_around_current-carrying_conductor
formula:
- p3f = hbar*alpha/(r2f*sqr(1 - alpha^2))
- v3 = alpha*c
dbar2:
name:
- bound-state_distance
derived_from:
- electron_Sp-3_residual_energy_after_field_intrusion
- proton_Sp-3_momentum_field_energy
condition: electron_Sp-3_residual_energy == proton_Sp-3_momentum_field_energy
used_in:
- fine_structure_velocity_adjustment_D-function
- magnetic_potential
- hyperfine_shift
- neutron_construction
formula:
- dbar2 = sqr(xbar^2 + (1 - M)^2)
charge:
derived_from:
- Sp-2
- Sp-3
- Lorentz_force_deflection_analysis
structure:
- view_rotations_in_v2_and_v3_directions
- two_chiralities_for_each_charge
- negative_charge: clockwise_Sp-2_and_counter_clockwise_Sp-3
- negative_charge: counter_clockwise_Sp-2_and_clockwise_Sp-3
- positive_charge: counter_clockwise_Sp-2_and_counter_clockwise_Sp-3
- positive_charge: clockwise_Sp-2_and_clockwise_Sp-3
principle:
- charge_invariance_when_viewing_it_moving_away_from_other_side
fine_structure_reduced_mass:
formula:
- MHz_frequency
- Y = nr^2 + sqr(na^2 - alpha^2)
- mu = mo/(1 + M)
- E3 = (10^(-6)/h)*(mu/sqr(1 - alpha^2/(2*(Y^2 + alpha^2))))*alpha^2*c^2/(2*(Y^2 + alpha^2))
fine_structure_velocity_adjustment:
formula:
- MHz_frequency
- D = (1 + capital_gamma*M/n)^2
- YD = nr^2 + sqr(na^2 - D*alpha^2)
- mu = mo/(1 + M)
- E3D = (10^(-6)/h)*(mu/sqr(1 - D*alpha^2/(2*(Y^2 + D*alpha^2))))*D*alpha^2*c^2/(2*(Y^2 + alpha^2))
- alpha^2_in_E3_replaced_by_alpha^2*D
- relative_speed_adjustment_of-electron_along_line_joining_Sp-2_centers
magnetic_potential:
formula:
- MHz_frequency
- nu_magnetic_potential = A*(dbar2)^B
nature:
- with_B=-3.000_(to_three_decimal_places_for_all_states)_it_resembles_a_dipole_moment
- boundary_term_that_remains_when_differentiated_field_momentum_with_respect to spatial_coordinates_is_integrated_over_trajectory_from_infinity_to_bound-state_distance_dbar2
- cumulative_effect_of_Sp-2_field
hyperfine_midpoint:
- used_instead_of_the_hyperfine_centroid
used_in: base-line_for_equal_magnitude_hyperfine_half-interval_shift_each_side
formula:
- MHz_frequency
- nu_midpoint = E3D + nu_magnetic_potential
parameter_constraints:
B:
- capital_gamma_in_E3D_is_varied
- found_by_minimizing_difference_between_experimental_value_of_nu_midpoint_and_E3D
- for_all_60_hydrogen_states
- B = -3.000 (3_decimal_places)
A:
- once_B_is_found_A_is_lined_up_on_lowest_n_of_set_for_example_1S1/2_in_nS1/2,_it_must_then_work_for_all_other_states_in_that_set
- it_then_has_to_work_on_other_five_tested_states_in_that_set
- two_values_for_each_states_with_A>0_and_A<0,_corresponding_to_two_values_of_capital_gamma_<0_and_>0
universal_scaling_law:
- A/capital_gamma = -28651713/(An*Zn)
- law_has_0.03%_error_for_deuterium
- law_has_0.04%_error_for_tritium
- law_has_0.05%_error_for_3He+
- law_has_0.01%_error_for_7Li2+
hyperfine_shift:
- two_cases_per_state_depending_on_whether_the_proton-electron_have_same_or_opposite_sense_rotations
- same_sense_proton-electron_Sp-2_rotations_as_they_approach_gives_red-shift,_capital_gamma_>0
- opposite_sense_proton-electron_Sp-2_rotations_as_they_approach_gives_blue-shift,_capital_gamma_<0
formula:
- nu_shift_value_can_be_plus_or_minus
- nu_shift = 2*k*pi*n^2*alpha^3*Ry/(sqr(2)*Y^2*sqr(1 + alpha^2/Y^2)*(1 - alpha^2)^(3/2)*dbar2^3)
- k=1_for_nS1/2_states_but_varies_for_other_sets_due_to_Sp-2_eccentricity_which_reduces_field_receptivity
nature:
- effect_of_changing_Sp-2_field_at_electron_Sp-2_location_in_one_electron_Sp-2_time_period
complete_calculation:
formula:
- nu = E3D + nu_magnetic_potential + nu_shift