Local correlation bounds confine completion budgets and their extremal profiles.
Theorem 1.1 (The hyperbolic budget tube).
∀ C o m pl e t i o n ∈ T y p e , L ∈ Real ( ) , a ∈ Real ( ) , b u d g e t ∈ C o m pl e t i o n → Real ( ) , corre l a t i o n ∈ C o m pl e t i o n → ( Real ( ) → Real ( ) ) , g l o ba lC o m pl e t i o n ∈ C o m pl e t i o n , l oc a lC o m pl e t i o n ∈ C o m pl e t i o n , ( 0 < L ∧ ( 0 < a ∧ ( ( ∀ co m pl e t i o n ∈ C o m pl e t i o n , t ∈ Real ( ) , ∣ apply ( corre l a t i o n , co m pl e t i o n , t ) ∣ ≤ apply ( b u d g e t , co m pl e t i o n ) ) ∧ ( ∀ t ∈ Real ( ) , ∣ t ∣ < mul ( 2 , L ) ⇒ sub ( apply ( corre l a t i o n , l oc a lC o m pl e t i o n , t ) , apply ( corre l a t i o n , g l o ba lC o m pl e t i o n , t ) ) = mul ( sub ( apply ( b u d g e t , l oc a lC o m pl e t i o n ) , apply ( b u d g e t , g l o ba lC o m pl e t i o n ) ) , cosh ( mul ( a , t ) ) ) ) ) ) ) ⇒ ( mul ( apply ( b u d g e t , g l o ba lC o m pl e t i o n ) , pow ( tanh ( mul ( a , L ) ) , 2 ) ) ≤ apply ( b u d g e t , l oc a lC o m pl e t i o n ) ∧ apply ( b u d g e t , l oc a lC o m pl e t i o n ) ≤ mul ( apply ( b u d g e t , g l o ba lC o m pl e t i o n ) , pow ( div ( cosh ( mul ( a , L ) ) , sinh ( mul ( a , L ) ) ) , 2 ) ) )
Proof. Machine-checked in Lean as D5/S3/Weil/ZetaGamma/HyperbolicBudgetTube.hyperbolic_budget_tube (✓ std3). ∎
Source. Repository-derived.
Commentary.
The endpoint estimate is obtained from the local correlation law by closedness at the edge of the observation window. The two signs of the budget difference give the lower and upper walls separately.
Theorem 1.2 (Natural-budget profile and exponential width bounds).
∀ C o m pl e t i o n ∈ Real ( ) → T y p e , l amb d a O n e ∈ Real ( ) , b u d g e t ∈ Pi ( typed ( L , Real ( ) ) , apply ( C o m pl e t i o n , L ) → Real ( ) ) , corre l a t i o n ∈ Pi ( typed ( L , Real ( ) ) , apply ( C o m pl e t i o n , L ) → ( Real ( ) → Real ( ) ) ) , na t u r a lC o m pl e t i o n ∈ Pi ( typed ( L , Real ( ) ) , apply ( C o m pl e t i o n , L ) ) , ( 0 < l amb d a O n e ∧ ( ( ∀ L ∈ Real ( ) , apply ( b u d g e t , L , apply ( na t u r a lC o m pl e t i o n , L ) ) = mul ( 2 , l amb d a O n e ) ) ∧ ( ( ∀ L ∈ Real ( ) , co m pl e t i o n ∈ apply ( C o m pl e t i o n , L ) , t ∈ Real ( ) , ∣ apply ( corre l a t i o n , L , co m pl e t i o n , t ) ∣ ≤ apply ( b u d g e t , L , co m pl e t i o n ) ) ∧ ( ∀ L ∈ Real ( ) , co m pl e t i o n ∈ apply ( C o m pl e t i o n , L ) , t ∈ Real ( ) , ∣ t ∣ < mul ( 2 , L ) ⇒ sub ( apply ( corre l a t i o n , L , co m pl e t i o n , t ) , apply ( corre l a t i o n , L , apply ( na t u r a lC o m pl e t i o n , L ) , t ) ) = mul ( sub ( apply ( b u d g e t , L , co m pl e t i o n ) , apply ( b u d g e t , L , apply ( na t u r a lC o m pl e t i o n , L ) ) ) , cosh ( div ( t , 2 ) ) ) ) ) ) ) ⇒ let l o w er B u d g e t = lambda ( typed ( L , Real ( ) ) , sInf ( range ( apply ( b u d g e t , L ) ) ) ) , let u pp er B u d g e t = lambda ( typed ( L , Real ( ) ) , sSup ( range ( apply ( b u d g e t , L ) ) ) ) , let b u d g e t Wi d t h = lambda ( typed ( L , Real ( ) ) , sub ( apply ( u pp er B u d g e t , L ) , apply ( l o w er B u d g e t , L ) ) ) , ( ∀ L ∈ Real ( ) , 0 < L ⇒ ( ∀ co m pl e t i o n ∈ apply ( C o m pl e t i o n , L ) , mul ( mul ( 2 , l amb d a O n e ) , pow ( tanh ( div ( L , 2 ) ) , 2 ) ) ≤ apply ( b u d g e t , L , co m pl e t i o n ) ∧ apply ( b u d g e t , L , co m pl e t i o n ) ≤ mul ( mul ( 2 , l amb d a O n e ) , pow ( div ( cosh ( div ( L , 2 ) ) , sinh ( div ( L , 2 ) ) ) , 2 ) ) ) ) ∧ ( ( ∀ L ∈ Real ( ) , 0 < L ⇒ ( 0 ≤ sub ( mul ( 2 , l amb d a O n e ) , apply ( l o w er B u d g e t , L ) ) ∧ sub ( mul ( 2 , l amb d a O n e ) , apply ( l o w er B u d g e t , L ) ) ≤ div ( mul ( 2 , l amb d a O n e ) , pow ( cosh ( div ( L , 2 ) ) , 2 ) ) ) ) ∧ ( ( ∀ L ∈ Real ( ) , 0 < L ⇒ ( 0 ≤ sub ( apply ( u pp er B u d g e t , L ) , mul ( 2 , l amb d a O n e ) ) ∧ sub ( apply ( u pp er B u d g e t , L ) , mul ( 2 , l amb d a O n e ) ) ≤ div ( mul ( 2 , l amb d a O n e ) , pow ( sinh ( div ( L , 2 ) ) , 2 ) ) ) ) ∧ ( IsBigO ( lambda ( typed ( L , Real ( ) ) , sub ( mul ( 2 , l amb d a O n e ) , apply ( l o w er B u d g e t , L ) ) ) , a tT o p , lambda ( typed ( L , Real ( ) ) , exp ( neg ( L ) ) ) ) ∧ ( IsBigO ( lambda ( typed ( L , Real ( ) ) , sub ( apply ( u pp er B u d g e t , L ) , mul ( 2 , l amb d a O n e ) ) ) , a tT o p , lambda ( typed ( L , Real ( ) ) , exp ( neg ( L ) ) ) ) ∧ ( IsBigO ( b u d g e t Wi d t h , a tT o p , lambda ( typed ( L , Real ( ) ) , exp ( neg ( L ) ) ) ) ∧ ( IsBigO ( lambda ( typed ( L , Real ( ) ) , max ( 0 , sub ( sub ( mul ( 2 , l amb d a O n e ) , apply ( l o w er B u d g e t , L ) ) , mul ( 8 , l amb d a O n e , exp ( neg ( L ) ) ) ) ) ) , a tT o p , lambda ( typed ( L , Real ( ) ) , exp ( neg ( mul ( 2 , L ) ) ) ) ) ∧ ( IsBigO ( lambda ( typed ( L , Real ( ) ) , max ( 0 , sub ( sub ( apply ( u pp er B u d g e t , L ) , mul ( 2 , l amb d a O n e ) ) , mul ( 8 , l amb d a O n e , exp ( neg ( L ) ) ) ) ) ) , a tT o p , lambda ( typed ( L , Real ( ) ) , exp ( neg ( mul ( 2 , L ) ) ) ) ) ∧ IsBigO ( lambda ( typed ( L , Real ( ) ) , max ( 0 , sub ( apply ( b u d g e t Wi d t h , L ) , mul ( 16 , l amb d a O n e , exp ( neg ( L ) ) ) ) ) ) , a tT o p , lambda ( typed ( L , Real ( ) ) , exp ( neg ( mul ( 2 , L ) ) ) ) ) ) ) ) ) ) ) )
Proof. Machine-checked in Lean as D5/S3/Weil/ZetaGamma/HyperbolicBudgetTube.riemann_budget_tube (✓ std3). ∎
Source. Repository-derived.
Commentary.
The lower and upper profiles are the infimum and supremum of the actual completion-budget range at each scale. Their exact hyperbolic errors give the three leading exponential estimates and the three refined second-order positive-excess bounds.
Truth anchor: D5/S3/Weil/ZetaGamma/HyperbolicBudgetTube.hyperbolic_budget_tube
Truth anchor: D5/S3/Weil/ZetaGamma/HyperbolicBudgetTube.riemann_budget_tube