Analy ic In a ian s o Phase Geome y:
Re o mula ing Quan um E olu ion as
Ene gy + Analy ic Con inua ion
Bo a Ak a¸s1Cha GPT2
1Independen Resea che , Anka a, T¨u kiye
2OpenAI Resea ch Pa ne
Oc obe 2025
Abs ac
Odd Riemann ze a alues, ζ(2k+1), eme ge as in insic analy ic in a ian s o
mul ica ie phase geome y. We p opose ha quan um e olu ion laws can be e-
o mula ed no me ely as unc ions o ene gy dispe sion, bu as composi e ela ions
o ene gy plus analy ic con inua ion. The esul is a hie a chy o “analy ic cu a-
u e laye s” in which ζ(3), ζ(5), and ζ(7) successi ely co ec he geome ic speed
limi s o phase p opaga ion. This sho communica ion ou lines he ounda ional
axioms, de i es a gene al analy ic-con inua ion ac o o quan um speed limi s,
and ske ches an expe imen al calib a ion p o ocol linking C6and C8in e e ome -
ic mani olds.
1 Analy ic In a ian s in Phase Geome y
Fo each e en mul ica ie mani old C2m, we de ine a se o analy ic in a ian s
Z2m={I2k+1 =α2m,2k−1ζ(2k+1) : 1 ≤k≤m−1},
which emain conse ed unde symme y-p ese ing e olu ion. These cons an s ac as
in e nal cu a u e inge p in s o he in e e ence me ic: while πdesc ibes geome ic clo-
su e, ζ(2k+1) quan i y analy ic openness. Hence, phase geome y inhe i s bo h algeb aic
symme y and analy ic dep h.
2 Ene gy + Analy ic Con inua ion P inciple
Le ∆Ebe he ene gy unce ain y be ween wo dis inguishable s a es on a cu ed phase
mani old. We pos ula e ha he minimal e olu ion ime obeys
τmin(Cn) = ℏ
2∆EAn,An="1 + X
k≥1
cn,2k+1
ζ(2k+1)
π#1/2
.
1
When analy ic co ec ions anish, An→1 and he Mandels am–Tamm bound is eco -
e ed. In he p esence o analy ic con inua ion, howe e , An>1, in oducing an addi ional
“ empo al cu a u e” ha slows phase e olu ion e en a ixed ∆E.
The maximal phase eloci y eads
(max)
ϕ(Cn) = √κn
∆E
ℏ, κ2m=π+
m−1
X
k=1
α2m,2k−1ζ(2k+1),
so ha each e en pa i y adds new odd-ze a e ms o he cu a u e coupling. Fo C6,
κ6≈π+ζ(3); o C8,κ8≈π+ζ(3) + ζ(5) + ζ(7). The co esponding phase- eloci y
enhancemen ,
∆ ϕ
ϕ≃ζ(5) + ζ(7)
2[π+ζ(3)] ≈0.12,
p edic s a measu able ∼12% analy ic cu a u e inc emen be ween C6and C8sys ems.
3 Analy ic Noe he Symme y
I he ac ion unc ional
S[Φ] = Zddxn1
2(∂Φ)2−V(Φ)o+X
k≥1
ζ(2k+1) ZddxJ2k+1[Φ]
is in a ian unde Φ →Φ+ϵχ(x) wi h δJ2k+1 =∂µ(χQµ
2k+1), hen each odd-ze a laye
yields a conse ed analy ic cu en
∂µQµ
2k+1 = 0.
Thus ζ(3), ζ(5), ζ(7) gene a e a hie a chy o analy ic conse a ion laws beyond s anda d
geome ic symme ies. Expe imen ally, hese in a ian s mani es as pe sis en phase-
cu en channels whose in e e ence con as emains s able unde global cu a u e de-
o ma ion.
4 Calib a ion and Expe imen al Ou look
To e i y he analy ic co ec ions, we p opose a di e en ial calib a ion be ween C6and
C8in e e ome e s ope a ed unde iden ical ene gy dispe sion:
∆AC = (max)
ϕ(C8)− (max)
ϕ(C6)
(max)
ϕ(C6)≈ζ(5) + ζ(7)
2[π+ζ(3)] .
Eigh -a m op ical o a omic in e e ome e s wi h sub-milli adian p ecision can de ec such
ac ional d i s. A con i med signal would es ablish ha ζ(5) and ζ(7) a e measu able
analy ic in a ian s o phase geome y, linking he Riemann hie a chy di ec ly o quan um
kinema ics.
2
5 Concluding Rema k
Odd ze a alues ac as in insic analy ic cu a u e coe icien s o physical space– ime’s
phase ab ic. They ep esen he “con inua ion dep h” o eali y: πcloses geome y, while
ζ(2k+1) opens i . Quan um e olu ion, he e o e, is no pu ely ene ge ic bu ene ge ic-
analy ic — go e ned simul aneously by dispe sion and analy ic con inui y. In his pic-
u e, he cons an s ζ(3), ζ(5), and ζ(7) a e no longe abs ac ; hey a e he measu able
inge p in s o how he uni e se olds analy ic s uc u e in o physical ime.
3