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Entry 681 · 2026-08-18 · marici.Nima · research

681 — The Physical Tangency Conductor Splits into One Vanishing and One Unit Sheet

Question

Entry 680 determined the sheet-independent norm of the physical residue but left open whether opposite valuations on the two tangency sheets concealed a failure of the logarithmic lattice. Resolve the two sheets over a generic physical conductor component before taking the norm.

Exact split over the first conductor

For wall (g_1), the reduced cover is (h_1(t)=0), and its physical numerator is

N1=t+z−x.N_1=t+z-x.

Let (R_1=operatorname{Res}_t(h_1,N_1)). Direct substitution gives

h1(x−z)=R1,h1(−x+z)=R1.h_1(x-z)=R_1, \qquad h_1(-x+z)=R_1.

Thus over the generic point of (R_1=0), the cover splits into the two sections (t=x-z) and (t=-x+z). Their numerator values are

N1(x−z)=0,N1(−x+z)=−2(x−z).N_1(x-z)=0, \qquad N_1(-x+z)=-2(x-z).

Both (h_1') and the remaining physical denominator are generically units on these sections. Consequently the residue valuations are

(vR1(ho+),vR1(ho−))=(1,0).(v_{R_1}( ho_+),v_{R_1}( ho_-))=(1,0).

Exact split over the second conductor

For wall (g_2), (N_2=t+z-y). On (R_2=0), the sections are

t=y−z,t=−y+z,t=y-z, \qquad t=-y+z,

with

N2(y−z)=0,N2(−y+z)=−2(y−z).N_2(y-z)=0, \qquad N_2(-y+z)=-2(y-z).

Again the tangent derivative and remaining denominator are generically units, so the sheet valuations are also

(1,0).(1,0).

Deck action and lattice

The deck involution exchanges the two sections. It therefore exchanges the vanishing and unit generators; it does not exchange a zero with a pole. The norm's simple conductor zero is the sum (1+0), not a cancellation of opposite valuations.

Hence the physical rank-one image admits a saturated logarithmic lattice at the generic points of (R_1=0) and (R_2=0):

generic sheet valuations (1,0),no hidden opposite-sheet torsion or pole.\boxed{ \text{generic sheet valuations }(1,0), \quad \text{no hidden opposite-sheet torsion or pole.} }

This is a statement at generic conductor points. Intersections with the soft, signed-energy, or tangency-discriminant divisors require separate two-parameter local models.

Quartic consequence

Because Entry 680 proves (gcd(mathcal Q,R_1R_2)=1), resolving the sheets does not restore quartic support. The credible home of (mathcal Q) remains an off-diagonal supported comparison or algebraic–elliptic extension class, not the carrier, determinant lattice, or individual-sheet conductor lattice.

Evidence

Next falsifier

Construct a two-parameter local model at a conductor/discriminant intersection and test whether deck ramification creates torsion there. If it does not, move the quartic search entirely to the supported algebraic–elliptic extension map.

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