QiqtGrFreeField · section of the QIQT-H book
QIQTH.QiqtGrFreeField
← all sections · ← QiqtGrExplicitKG · QiqtGrGaussian →
QiqtGrFreeField · entries 549–555 of 1000
Lemma 549 (BL_kgStress_null). source ↗
Stage 0 (T3-3): the KG null-stress simplification. On the null cone BL(g x) v = 0, the Klein–Gordon stress tensor’s null component collapses to the squared directional derivative BL(kgStress) v = (∑ₐ vₐ ∂ₐφ)² — because the trace term −½ g_{ab} L contracts to −½·(BL(g x)v)·L = 0. This is the classical null-energy T_kk = (v^a ∂_a φ)² that the localization map (hTkk) identifies with the one-particle rapidity-momentum integral. Axiom-free, reusable.
(gx)(v,v)=0→(T(x))(v,v)=(a∑va⋅∂a(φ)(x))2
Proof. By kgLagr. □
Used by qiqt_gr_freefield_nullEnergy.
Lemma 550 (freeField_kd_conclusion). source ↗
The free-field flux equation kd x v = (2π/ℏ)·BL(T x)v, per null generator. The ∀-wrap of freeField_component_hFlux: given, for each null horizon generator (x,v), a smooth wedge mode f_{x,v} (with the standard integrability/measurability/bound data) together with - hbridge : the abstract coefficient kd x v IS the modular energy of the localized mode, and - hTkk : the localization identification of BL(T x)v with the mode’s rapidity stress flux, derivative uniqueness against the axiom-free freeField_oneParticle_hFlux yields the flux equation. This is the exact input qiqt_gr_from_flux_complete (hence qiqt_bekenstein_gives_gr) consumes. …
(∀(x:M4)(v:Fin4→R),Integrable(fxv)vol)→(∀(x:M4)(v:Fin4→R)(θ:R),(fxv)′(θ)=f′xvθ)→(∀(x:M4)(v:Fin4→R),AEStronglyMeasurable(f′xv)vol)→∀(B:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R)(θ:R),∥f′xvθ∥≤Bxv)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→2⋅π/ℏ⋅(Tx)(v,v)=(−(2⋅π⋅∫(θ:R),(starRingEndC)(fxvθ)⋅f′xvθ)).im)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(λt↦⟨toLp(fxv)⋯,(Δ(K(mwxv)⋯⋯)t)(toLp(fxv)⋯)⟩)′(0)=i⋅(K˙(x,v)))→∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→K˙(x,v)=2⋅π/ℏ⋅(Tx)(v,v)
Proof. By freeField_component_hFlux. □
Used by qiqt_gr_freefield.
Theorem 551 (qiqt_gr_freefield). source ↗
THE FREE-FIELD QIQT→GR CAPSTONE. Einstein’s equations for the explicit free Klein–Gordon field, with the wedge-KMS modular flux supplied entirely by the axiom-free +2π one-particle Bisognano–Wichmann machinery — NOT a labelled WedgeKMSFlux_complete bundle. Identical to qiqt_gr_explicit_kg (geometry hC/hric_symm/hreg, matter conserv, and hT_symm all discharged internally for kgStress), but the modular input is the per-null-generator localization datum (mw, f, f', …, hTkk, hbridge) feeding freeField_kd_conclusion. …
(∀(y:M4)(ab:Fin4),gab(y)=gba(y))→(∀(y:M4)(ab:Fin4),gab(y)=gba(y))→(∀(y:M4)(ab:Fin4),σ∑gaσ(y)⋅gσb(y)=δab)→(∀(ab:Fin4),(λy↦gab(y))∈C∞)→(∀(ab:Fin4),(λy↦gab(y))∈C∞)→∀(φ:M4→R)(mηℏa:R),ℏ=0→η=0→a=2⋅π/(ℏ⋅η)→(φ)∈C∞→(∀(x:M4),(□φ)(x)=m2⋅φx)→∀(PPinv:M4→Fin4→Fin4→R),(∀(x:M4)(ij:Fin4),k∑Pik(x)⋅(P−1)kj(x)=δij)→(∀(x:M4)(ij:Fin4),k∑(P−1)ik(x)⋅Pkj(x)=δij)→(∀(x:M4)(ij:Fin4),gij(x)=k∑l∑Pki(x)⋅ηkl⋅Plj(x))→∀(SfKEA:M4→(Fin4→R)→R→R)(sdkdad:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(Sfxv)′(0)=S˙(x,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(KExv)′(0)=K˙(x,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(Axv)′(0)=A˙(x,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→for t near 0,Sfxvt≤η⋅A(x,v,t))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→Sfxv0=η⋅A(x,v,0))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→∀(t:R),0≤KE(x,v,t)−Sfxvt)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→KE(x,v,0)−Sfxv0=0)→∀(mw:M4→(Fin4→R)→R)(hmw:∀(x:M4)(v:Fin4→R),0<mwxv)(ffff′:M4→(Fin4→R)→R→C)(hf2:∀(x:M4)(v:Fin4→R),MemLp(ffxv)2vol),(∀(x:M4)(v:Fin4→R),Integrable(ffxv)vol)→(∀(x:M4)(v:Fin4→R)(θ:R),(ffxv)′(θ)=ff′xvθ)→(∀(x:M4)(v:Fin4→R),AEStronglyMeasurable(ff′xv)vol)→∀(Bd:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R)(θ:R),∥ff′xvθ∥≤Bdxv)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→2⋅π/ℏ⋅(T(x))(v,v)=(−(2⋅π⋅∫(θ:R),(starRingEndC)(ffxvθ)⋅ff′xvθ)).im)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(λt↦⟨toLp(ffxv)⋯,(Δ(K(mwxv)⋯⋯)t)(toLp(ffxv)⋯)⟩)′(0)=i⋅(K˙(x,v)))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→A˙(x,v)=(λij↦Rij(x))(v,v))→∃Λ,∀(x:M4)(μν:Fin4),a⋅T(x)μν=Gμν(x)+Λ⋅gμν(x)
Proof. By pd, PdiffAt, scalarCurv, hreg_kg, kgLagr, kg_conserv_of_contDiff, freeField_kd_conclusion, qiqt_gr_from_flux_complete. □
Used by qiqt_gr_freefield_localized.
Theorem 552 (qiqt_gr_freefield_localized). source ↗
Stage 1 (T3-3): hbridge discharged. The free-field QIQT→GR capstone with the heat coefficient FIXED to the boost flux kd x v := (2π/ℏ)·BL(kgStress) v and the modular-localization hypothesis hbridge DERIVED internally from freeField_oneParticle_hFlux (the axiom-free +2π one-particle Bisognano–Wichmann machinery) given hTkk. The thermodynamic premise hK now reads HasDerivAt (KE x v) ((2π/ℏ)·T_kk) 0 — the genuine Clausius statement that the heat-functional rate IS the boost-energy flux (correctly kept labelled). Of the Gap-2 localization map only hTkk (Stage 3) and the focusing identity hFocus (Stage 2) survive as inputs. Axiom-free.
(∀(y:M4)(ab:Fin4),gab(y)=gba(y))→(∀(y:M4)(ab:Fin4),gab(y)=gba(y))→(∀(y:M4)(ab:Fin4),σ∑gaσ(y)⋅gσb(y)=δab)→(∀(ab:Fin4),(λy↦gab(y))∈C∞)→(∀(ab:Fin4),(λy↦gab(y))∈C∞)→∀(φ:M4→R)(mηℏa:R),ℏ=0→η=0→a=2⋅π/(ℏ⋅η)→(φ)∈C∞→(∀(x:M4),(□φ)(x)=m2⋅φx)→∀(PPinv:M4→Fin4→Fin4→R),(∀(x:M4)(ij:Fin4),k∑Pik(x)⋅(P−1)kj(x)=δij)→(∀(x:M4)(ij:Fin4),k∑(P−1)ik(x)⋅Pkj(x)=δij)→(∀(x:M4)(ij:Fin4),gij(x)=k∑l∑Pki(x)⋅ηkl⋅Plj(x))→∀(SfKEA:M4→(Fin4→R)→R→R)(sdad:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(Sfxv)′(0)=S˙(x,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(KExv)′(0)=2⋅π/ℏ⋅(T(x))(v,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(Axv)′(0)=A˙(x,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→for t near 0,Sfxvt≤η⋅A(x,v,t))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→Sfxv0=η⋅A(x,v,0))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→∀(t:R),0≤KE(x,v,t)−Sfxvt)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→KE(x,v,0)−Sfxv0=0)→∀(mw:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R),0<mwxv)→∀(ffff′:M4→(Fin4→R)→R→C),(∀(x:M4)(v:Fin4→R),MemLp(ffxv)2vol)→(∀(x:M4)(v:Fin4→R),Integrable(ffxv)vol)→(∀(x:M4)(v:Fin4→R)(θ:R),(ffxv)′(θ)=ff′xvθ)→(∀(x:M4)(v:Fin4→R),AEStronglyMeasurable(ff′xv)vol)→∀(Bd:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R)(θ:R),∥ff′xvθ∥≤Bdxv)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→2⋅π/ℏ⋅(T(x))(v,v)=(−(2⋅π⋅∫(θ:R),(starRingEndC)(ffxvθ)⋅ff′xvθ)).im)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→A˙(x,v)=(λij↦Rij(x))(v,v))→∃Λ,∀(x:M4)(μν:Fin4),a⋅T(x)μν=Gμν(x)+Λ⋅gμν(x)
Proof. By freeField_oneParticle_hFlux, qiqt_gr_freefield. □
Used by qiqt_gr_freefield_localized'.
Theorem 553 (qiqt_gr_freefield_localized'). source ↗
Stage 2 (T3-3): hFocus discharged via Raychaudhuri. The localized free-field capstone with the focusing identity hFocus (ad = R_kk) no longer assumed but DERIVED from the machine-checked Raychaudhuri equation (hFocus_of_raychaudhuri): per null generator (x,v) we supply a smooth geodesic congruence W x v through (x,v) (hWx : W x v x = v), at equilibrium (hWequil, the shear–expansion quadratic vanishes — Jacobson’s stationary/bifurcation horizon), with the area-vs-expansion identification hWarea. The Raychaudhuri focusing law ad = BL(Ric) v is then proved (no Einstein presupposed); christoffel smoothness is itself discharged (christoffel_contDiff). …
(∀(y:M4)(ab:Fin4),gab(y)=gba(y))→(∀(y:M4)(ab:Fin4),gab(y)=gba(y))→(∀(y:M4)(ab:Fin4),σ∑gaσ(y)⋅gσb(y)=δab)→(∀(ab:Fin4),(λy↦gab(y))∈C∞)→(∀(ab:Fin4),(λy↦gab(y))∈C∞)→∀(φ:M4→R)(mηℏa:R),ℏ=0→η=0→a=2⋅π/(ℏ⋅η)→(φ)∈C∞→(∀(x:M4),(□φ)(x)=m2⋅φx)→∀(PPinv:M4→Fin4→Fin4→R),(∀(x:M4)(ij:Fin4),k∑Pik(x)⋅(P−1)kj(x)=δij)→(∀(x:M4)(ij:Fin4),k∑(P−1)ik(x)⋅Pkj(x)=δij)→(∀(x:M4)(ij:Fin4),gij(x)=k∑l∑Pki(x)⋅ηkl⋅Plj(x))→∀(SfKEA:M4→(Fin4→R)→R→R)(sdad:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(Sfxv)′(0)=S˙(x,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(KExv)′(0)=2⋅π/ℏ⋅(T(x))(v,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(Axv)′(0)=A˙(x,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→for t near 0,Sfxvt≤η⋅A(x,v,t))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→Sfxv0=η⋅A(x,v,0))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→∀(t:R),0≤KE(x,v,t)−Sfxvt)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→KE(x,v,0)−Sfxv0=0)→∀(mw:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R),0<mwxv)→∀(ffff′:M4→(Fin4→R)→R→C),(∀(x:M4)(v:Fin4→R),MemLp(ffxv)2vol)→(∀(x:M4)(v:Fin4→R),Integrable(ffxv)vol)→(∀(x:M4)(v:Fin4→R)(θ:R),(ffxv)′(θ)=ff′xvθ)→(∀(x:M4)(v:Fin4→R),AEStronglyMeasurable(ff′xv)vol)→∀(Bd:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R)(θ:R),∥ff′xvθ∥≤Bdxv)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→2⋅π/ℏ⋅(T(x))(v,v)=(−(2⋅π⋅∫(θ:R),(starRingEndC)(ffxvθ)⋅ff′xvθ)).im)→∀(W:M4→(Fin4→R)→M4→Fin4→R),(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→Wxvx=v)→(∀(x:M4)(v:Fin4→R)(μ:Fin4),(λy↦Wxvyμ)∈C∞)→(∀(x:M4)(v:Fin4→R)(y:M4)(μ:Fin4),ν∑Wxvyν⋅(∇Wxv)νμ(y)=0)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→μ∑ν∑(∇Wxv)μν(x)⋅(∇Wxv)νμ(x)=0)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→A˙(x,v)=−ν∑Wxvxν⋅∂ν(λy↦θ(y))(x))→∃Λ,∀(x:M4)(μν:Fin4),a⋅T(x)μν=Gμν(x)+Λ⋅gμν(x)
Proof. By christoffel_contDiff, ricci, qiqt_gr_freefield_localized, hFocus_of_raychaudhuri. □
Used by qiqt_gr_freefield_nullEnergy.
Theorem 554 (qiqt_gr_freefield_nullEnergy). source ↗
Stage 3 (T3-3): hTkk in transparent form — the single irreducible localization input. Identical to qiqt_gr_freefield_localized', but the one surviving Gap-2 input hTkk is stated in its physically transparent form via the Stage-0 null-stress identity BL(kgStress) v = (∑ₐ vₐ ∂ₐφ)²:
2π/ℏ · (∑ₐ vₐ ∂ₐφ(x))² = (−2π ∫ conj(ff x v)·ff' x v).im. …
(∀(y:M4)(ab:Fin4),gab(y)=gba(y))→(∀(y:M4)(ab:Fin4),gab(y)=gba(y))→(∀(y:M4)(ab:Fin4),σ∑gaσ(y)⋅gσb(y)=δab)→(∀(ab:Fin4),(λy↦gab(y))∈C∞)→(∀(ab:Fin4),(λy↦gab(y))∈C∞)→∀(φ:M4→R)(mηℏa:R),ℏ=0→η=0→a=2⋅π/(ℏ⋅η)→(φ)∈C∞→(∀(x:M4),(□φ)(x)=m2⋅φx)→∀(PPinv:M4→Fin4→Fin4→R),(∀(x:M4)(ij:Fin4),k∑Pik(x)⋅(P−1)kj(x)=δij)→(∀(x:M4)(ij:Fin4),k∑(P−1)ik(x)⋅Pkj(x)=δij)→(∀(x:M4)(ij:Fin4),gij(x)=k∑l∑Pki(x)⋅ηkl⋅Plj(x))→∀(SfKEA:M4→(Fin4→R)→R→R)(sdad:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(Sfxv)′(0)=S˙(x,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(KExv)′(0)=2⋅π/ℏ⋅(T(x))(v,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(Axv)′(0)=A˙(x,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→for t near 0,Sfxvt≤η⋅A(x,v,t))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→Sfxv0=η⋅A(x,v,0))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→∀(t:R),0≤KE(x,v,t)−Sfxvt)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→KE(x,v,0)−Sfxv0=0)→∀(mw:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R),0<mwxv)→∀(ffff′:M4→(Fin4→R)→R→C),(∀(x:M4)(v:Fin4→R),MemLp(ffxv)2vol)→(∀(x:M4)(v:Fin4→R),Integrable(ffxv)vol)→(∀(x:M4)(v:Fin4→R)(θ:R),(ffxv)′(θ)=ff′xvθ)→(∀(x:M4)(v:Fin4→R),AEStronglyMeasurable(ff′xv)vol)→∀(Bd:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R)(θ:R),∥ff′xvθ∥≤Bdxv)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→2⋅π/ℏ⋅(b∑vb⋅∂b(φ)(x))2=(−(2⋅π⋅∫(θ:R),(starRingEndC)(ffxvθ)⋅ff′xvθ)).im)→∀(W:M4→(Fin4→R)→M4→Fin4→R),(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→Wxvx=v)→(∀(x:M4)(v:Fin4→R)(μ:Fin4),(λy↦Wxvyμ)∈C∞)→(∀(x:M4)(v:Fin4→R)(y:M4)(μ:Fin4),ν∑Wxvyν⋅(∇Wxv)νμ(y)=0)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→μ∑ν∑(∇Wxv)μν(x)⋅(∇Wxv)νμ(x)=0)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→A˙(x,v)=−ν∑Wxvxν⋅∂ν(λy↦θ(y))(x))→∃Λ,∀(x:M4)(μν:Fin4),a⋅T(x)μν=Gμν(x)+Λ⋅gμν(x)
Proof. By BL_kgStress_null, qiqt_gr_freefield_localized'. □
Used by qiqt_gr_freefield_geom, qiqt_gr_freefield_gaussian.
Theorem 555 (qiqt_gr_freefield_geom). source ↗
Stage 2′ (T3-3, option b): hWarea discharged — ad defined geometrically. Identical to qiqt_gr_freefield_nullEnergy, but the area first-variation rate ad is no longer an abstract parameter paired with the labelled identity hWarea; it is defined as the congruence-expansion derivative ad x v := −∑ᵥ Wˣᵛ ∂ᵥ θ[Wˣᵛ], so hWarea becomes rfl. hA (the area functional’s rate) now reads in that explicit geometric form. …
(∀(y:M4)(ab:Fin4),gab(y)=gba(y))→(∀(y:M4)(ab:Fin4),gab(y)=gba(y))→(∀(y:M4)(ab:Fin4),σ∑gaσ(y)⋅gσb(y)=δab)→(∀(ab:Fin4),(λy↦gab(y))∈C∞)→(∀(ab:Fin4),(λy↦gab(y))∈C∞)→∀(φ:M4→R)(mηℏa:R),ℏ=0→η=0→a=2⋅π/(ℏ⋅η)→(φ)∈C∞→(∀(x:M4),(□φ)(x)=m2⋅φx)→∀(PPinv:M4→Fin4→Fin4→R),(∀(x:M4)(ij:Fin4),k∑Pik(x)⋅(P−1)kj(x)=δij)→(∀(x:M4)(ij:Fin4),k∑(P−1)ik(x)⋅Pkj(x)=δij)→(∀(x:M4)(ij:Fin4),gij(x)=k∑l∑Pki(x)⋅ηkl⋅Plj(x))→∀(SfKEA:M4→(Fin4→R)→R→R)(sd:M4→(Fin4→R)→R)(W:M4→(Fin4→R)→M4→Fin4→R),(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→Wxvx=v)→(∀(x:M4)(v:Fin4→R)(μ:Fin4),(λy↦Wxvyμ)∈C∞)→(∀(x:M4)(v:Fin4→R)(y:M4)(μ:Fin4),ν∑Wxvyν⋅(∇Wxv)νμ(y)=0)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→μ∑ν∑(∇Wxv)μν(x)⋅(∇Wxv)νμ(x)=0)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(Sfxv)′(0)=S˙(x,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(KExv)′(0)=2⋅π/ℏ⋅(T(x))(v,v))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→(Axv)′(0)=−ν∑Wxvxν⋅∂ν(λy↦θ(y))(x))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→for t near 0,Sfxvt≤η⋅A(x,v,t))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→Sfxv0=η⋅A(x,v,0))→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→∀(t:R),0≤KE(x,v,t)−Sfxvt)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→KE(x,v,0)−Sfxv0=0)→∀(mw:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R),0<mwxv)→∀(ffff′:M4→(Fin4→R)→R→C),(∀(x:M4)(v:Fin4→R),MemLp(ffxv)2vol)→(∀(x:M4)(v:Fin4→R),Integrable(ffxv)vol)→(∀(x:M4)(v:Fin4→R)(θ:R),(ffxv)′(θ)=ff′xvθ)→(∀(x:M4)(v:Fin4→R),AEStronglyMeasurable(ff′xv)vol)→∀(Bd:M4→(Fin4→R)→R),(∀(x:M4)(v:Fin4→R)(θ:R),∥ff′xvθ∥≤Bdxv)→(∀(x:M4)(v:Fin4→R),(gx)(v,v)=0→2⋅π/ℏ⋅(b∑vb⋅∂b(φ)(x))2=(−(2⋅π⋅∫(θ:R),(starRingEndC)(ffxvθ)⋅ff′xvθ)).im)→∃Λ,∀(x:M4)(μν:Fin4),a⋅T(x)μν=Gμν(x)+Λ⋅gμν(x)
Proof. By qiqt_gr_freefield_nullEnergy. □
Used by qiqt_gr_freefield_thermo.
← all sections · ← QiqtGrExplicitKG · QiqtGrGaussian →