IndisputableMonolith.Mathematics.RamanujanBridge.CongruenceQ3Bridge
The CongruenceQ3Bridge module establishes that the Q₃ graph possesses exactly 12 undirected edges. Researchers linking Ramanujan's congruence structures to Recognition Science cost and constant frameworks would cite it. The module achieves this via a collection of supporting lemmas on edge counts, directed fluxes, mock orders, and congruence eligibility rather than one central proof.
claimThe graph structure $Q_3$ contains exactly 12 undirected edges.
background
This module resides in the RamanujanBridge namespace and imports the RS time quantum τ₀ = 1 tick from Constants together with cost structures from Cost. It introduces auxiliary definitions including Q3_edge_count, directed_flux_Q3, IsMockOrder, IsCongruenceEligible, and related factorizations to characterize the Q₃ graph. These notions operate inside the RS-native units where c = 1 and support the bridge between Ramanujan's number theory and Recognition Science.
proof idea
The module is organized as a sequence of definitions and short lemmas. It verifies relations such as twenty_four_eq_8_times_3 and twenty_four_prime_factorization, establishes mock-order properties for 3, 5, 7, and confirms congruence eligibility before concluding the edge count. All steps rely on direct algebraic identities and basic counting arguments.
why it matters in Recognition Science
This module supplies the Q₃ edge-count property required by the parent RamanujanBridge module, which formally connects Ramanujan's mathematical discoveries to Recognition Science. It fills a concrete step in the bridge by characterizing the 12-edge structure that aligns with RS forcing chains and cost functions.
scope and limits
- Does not address edge counts for Q_n with n ≠ 3.
- Does not compute explicit numerical flux values.
- Does not incorporate external numerical data or simulations.
- Does not prove uniqueness of the 12-edge configuration.
used by (1)
depends on (2)
declarations in this module (49)
-
def
Q3_edge_count -
def
directed_flux_Q3 -
theorem
directed_flux_Q3_eq_24 -
theorem
twenty_four_eq_8_times_3 -
theorem
twenty_four_prime_factorization -
def
IsMockOrder -
theorem
mock_orders_are_3_5_7 -
theorem
mock_orders_complete -
theorem
IsMockOrder_iff -
def
IsCongruenceEligible -
theorem
congruence_primes_coprime_24 -
theorem
five_congruence_eligible -
theorem
seven_congruence_eligible -
theorem
eleven_congruence_eligible -
theorem
two_not_congruence_eligible -
theorem
three_not_congruence_eligible -
theorem
thirteen_congruence_eligible -
theorem
three_divides_directed_flux -
theorem
three_not_coprime_24 -
theorem
eleven_exceeds_8tick_bound -
theorem
eleven_congruence_not_mock -
theorem
overlap_is_exactly_5_7 -
theorem
no_cong_prime_between_3_5 -
theorem
no_cong_prime_between_5_7 -
theorem
no_cong_prime_between_7_11 -
theorem
congruence_primes_are_three_smallest -
theorem
offset_5_eq_24_inv_mod_5 -
theorem
offset_7_eq_24_inv_mod_7 -
theorem
offset_11_eq_24_inv_mod_11 -
theorem
congruence_offsets_are_consecutive -
theorem
congruence_offsets_are_flux_inverses -
theorem
congruence_offsets_unique -
theorem
congruence_prime_5_is_phi_discriminant -
theorem
phi_satisfies_quadratic -
theorem
phi_min_poly_discriminant_is_5 -
theorem
congruence_prime_7_is_dft_mode_count -
theorem
nonzero_modes_mod_8 -
theorem
congruence_prime_11_is_passive_edges -
theorem
congruence_primes_Q3_geometric_origins -
theorem
mock_order_bound_is_24_div_3 -
theorem
congruence_eligible_coprime_to_full_flux -
theorem
mock_only_because_divides_flux -
theorem
congruence_only_because_exceeds_bound -
theorem
mock_and_congruence_unified_by_Q3 -
theorem
mock_orders_product -
theorem
congruence_primes_product -
theorem
congruence_product_near_flux_lattice -
theorem
congruence_primes_sum_eq_flux -
theorem
mock_orders_sum_relation