OAI/Analysis/Kaplansky/TestAlgebra.lean
23 declarations, 0 contain sorry, 0 declared as axioms
Concrete test operators, their C-star algebra, and its faithful representation.
- abbrev
OAI.Kaplansky.ActualTestIndexline 18 - instance
OAI.Kaplansky.(instance at line 20)line 20 - abbrev
OAI.Kaplansky.ActualTestFiberline 23 - instance
OAI.Kaplansky.actualTestFiber_zero_nontrivialline 26 - def
OAI.Kaplansky.actualTestOperatorline 35Source documentation
Actual bounded blocks of the normalized bundle test, at all levels.
def actualTestOperator (i : Fin 24) (z : ActualTestIndex) (j : ℕ) : ActualTestFiber z j →L[ℂ] ActualTestFiber z (j+1) := by …Mentions: OAI.Kaplansky.ActualTestIndex, OAI.Kaplansky.ActualTestFiber
- theorem
OAI.Kaplansky.actualTestOperator_columnline 41 - theorem
OAI.Kaplansky.actualTestOperator_rowline 50 - theorem
OAI.Kaplansky.actualTestOperator_normline 59 - def
OAI.Kaplansky.actualTestWordline 69 - theorem
OAI.Kaplansky.actualTestWord_level_leline 72 - theorem
OAI.Kaplansky.actualTestWord_continuousline 75 - theorem
OAI.Kaplansky.actualTestWord_shift_evalline 83Source documentation
Exact agreement with the actual operators used in the constructed bounded-product algebra; this includes constants and every adjoint case.
theorem actualTestWord_shift_eval (z : ActualTestIndex) (w : List (Bool × Fin 24)) (v : ActualTestFiber z 0) : applyWord (shiftLetter (fun i j => actualTestOperator i z j) (fun i j => actualTestOperator_norm i z j)) w (lp.single 2 0 v) = lp.single 2 (actualTestWord (R := z.2.1.val) z.1.property w).level …Mentions: OAI.Kaplansky.ActualTestIndex, OAI.Kaplansky.ActualTestFiber, OAI.Kaplansky.applyWord, OAI.Kaplansky.shiftLetter, OAI.Kaplansky.actualTestOperator, OAI.Kaplansky.actualTestOperator_norm, OAI.Kaplansky.actualTestWord
- theorem
OAI.Kaplansky.actualTestPolynomial_from_bottomline 92Source documentation
The finite degree restriction for all actual test coordinates.
theorem actualTestPolynomial_from_bottom (z : ActualTestIndex) {J : Type*} (s : Finset J) (w : J → List (Bool × Fin 24)) (c : J → ℂ) (hdeg : ∀ j ∈ s, (w j).length ≤ z.2.1.val) (v : ActualTestFiber z 0) : (∑ j ∈ s, c j • applyWord (shiftLetter (fun i k => actualTestOperator i z k) (fun i k => actualTestOperator_norm i z k)) (w j) (lp.single 2 0 v)) ∈ hilbertLevels z.2.1.val := …Mentions: OAI.Kaplansky.ActualTestIndex, OAI.Kaplansky.ActualTestFiber, OAI.Kaplansky.applyWord, OAI.Kaplansky.shiftLetter, OAI.Kaplansky.actualTestOperator, OAI.Kaplansky.actualTestOperator_norm, OAI.Kaplansky.hilbertLevels
- instance
OAI.Kaplansky.actualHilbert_nontrivialline 104 - abbrev
OAI.Kaplansky.ActualHilbertline 107 - def
OAI.Kaplansky.actualBoundedGeneratorline 109 - abbrev
OAI.Kaplansky.ActualAlgebraline 113 - theorem
OAI.Kaplansky.actual_test_shift_algebraline 115 - def
OAI.Kaplansky.actualRepresentationline 131 - theorem
OAI.Kaplansky.actualRepresentation_generatorline 140 - theorem
OAI.Kaplansky.actualRepresentation_normline 144 - abbrev
OAI.Kaplansky.actualAlgebra_cstarline 148 - theorem
OAI.Kaplansky.actualAlgebra_nontrivial_separableline 150