theorem
proved
nonzero_charge_impossible
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IndisputableMonolith.NumberTheory.RH_Certificate on GitHub at line 64.
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61
62/-- No sensor with nonzero charge can physically exist.
63Contrapositive of the dichotomy. -/
64theorem nonzero_charge_impossible (sensor : DefectSensor)
65 (hm : sensor.charge ≠ 0) :
66 ¬PhysicallyExists sensor :=
67 nonzero_charge_not_physical sensor hm
68
69/-- For any point in the strip (1/2, 1), the unit-charge sensor is
70not physically realizable. Pure consequence of the dichotomy. -/
71theorem unit_sensor_not_physical_cert (σ : ℝ) (hstrip : 1/2 < σ ∧ σ < 1) :
72 ¬PhysicallyExists (zetaDefectSensor σ hstrip 1) :=
73 unit_sensor_not_physical σ hstrip
74
75/-! ### The RS-conditional result -/
76
77/-- **The Riemann Hypothesis, conditional on the RS Physical Thesis.**
78
79`RSPhysicalThesis` states that every nontrivial zeta zero in the strip
80is a physical recognition event. Given this, no strip zeros can exist
81(because physical sensors have charge 0, but zeros have positive
82multiplicity). Combined with the classical zero-free region
83(`Re(s) ≥ 1`), this gives Mathlib's `RiemannHypothesis`.
84
85To inspect the axiom footprint:
86```
87#print axioms riemann_hypothesis_from_rs
88```
89-/
90theorem riemann_hypothesis_from_rs :
91 RSPhysicalThesis → RiemannHypothesis :=
92 rh_certificate
93
94/-! ### The full certificate (zero sorry) -/