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Project-declaredLean 4.32.0 · mathlib@81a5d257c8e4

Contr T to Complex

realLorentzTensor.contrT_toComplex

Plain-language statement

The map toComplex commutes with contrT.

Exact Lean statement

lemma contrT_toComplex {n : ℕ}
    {c : Fin (n + 1 + 1) → realLorentzTensor.Color} {i j : Fin (n + 1 + 1)}
    (h : i ≠ j ∧ (realLorentzTensor).τ (c i) = c j) (t : ℝT(3, c)) :
    toComplex (c := c ∘ Fin.succSuccAbove i j) (contrT (S := realLorentzTensor) n i j h t)
      =
    contrT (S := complexLorentzTensor) n i j (by
        simpa [Function.comp_apply] using
          And.intro h.1 (by
            simpa [tau_colorToComplex] using congrArg colorToComplex h.2))
      (toComplex (c := c) t)

Formal artifact

Lean source

Canonical source
Full Lean sourceLean 4
lemma contrT_toComplex {n : }    {c : Fin (n + 1 + 1)  realLorentzTensor.Color} {i j : Fin (n + 1 + 1)}    (h : i  j  (realLorentzTensor).τ (c i) = c j) (t : T(3, c)) :    toComplex (c := c ∘ Fin.succSuccAbove i j) (contrT (S := realLorentzTensor) n i j h t)      =    contrT (S := complexLorentzTensor) n i j (by        simpa [Function.comp_apply] using          And.intro h.1 (by            simpa [tau_colorToComplex] using congrArg colorToComplex h.2))      (toComplex (c := c) t) := by  induction t using induction_on_basis with  | h b =>    rw [Tensor.basis_apply (S := realLorentzTensor) c b,      contrT_pure (S := realLorentzTensor) (p := Pure.basisVector c b),      toComplex_pure_basisVector (c := c) b,      contrT_pure (S := complexLorentzTensor)        (p := Pure.basisVector (colorToComplex ∘ c) (ComponentIdx.complexify b))]    exact toComplex_contrP_basisVector h b  | hzero => simp  | hsmul r t ht => simp [map_smul, ht]  | hadd t1 t2 h1 h2 => simp [map_add, h1, h2]
Project
Physlib
License
Apache-2.0
Commit
dd43e9e65791
Source
Physlib/Relativity/Tensors/RealTensor/ToComplex.lean:636-656

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Project-declaredLean 4.32.0

Adiabatic relation log

adiabatic_relation_log

Plain-language statement

Adiabatic relation in logarithmic form: If S(Ua,Va,N) = S(Ub,Vb,N) with N fixed, then c * log (Ua/Ub) + log (Va/Vb) = 0.

physicsquantum field theoryrelativity

Source project: Physlib

Person-level attribution pending.

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Project-declaredLean 4.32.0

Adiabatic relation Ua Ub Va Vb

adiabatic_relation_UaUbVaVb

Plain-language statement

Adiabatic relation in product form: If S(Ua,Va,N) = S(Ub,Vb,N) with N fixed, then (Ua/Ub)^c * (Va/Vb) = 1.

physicsquantum field theoryrelativity

Source project: Physlib

Person-level attribution pending.

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