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Own-law outer acquisition under the harmonic alternative

This owner addresses the source dependency declared at 99bf595c in the execution plan. The question is whether the retained endpoint alternative forms and keeps the five-child outer-one identity from the original preparation. The sine proof supplies the product geometry and an analytical method. Its source certificate, carrier endpoint and storage margins are not evidence for the alternative law.

1. Complete law, identity and retained preparation

Use the existing constitutive law at deformation one:

\[ W(a)=\frac{(1-\cos9a)^2}{6\,9^4},\quad V_1(a)=1-\cos a+W(a),\quad j_1(a)=\sin a+\frac{\sin9a-\tfrac12\sin18a}{2187}. \tag{1} \]

The full state consists of 45 signed forms and 45 primitive circular phases; continuous phase lifts are retained for means and transport. Node order is 9*c+j, with five unit C9 cycles and 45 unit same-slot outer edges on C5. All 90 edges remain present after the supplied attachment. With their unnormalized Laplacian \(L=I_5\otimes L_9+L_5\otimes I_9\), put \(S_{1,i}(\theta)=\sum_{k\sim i}j_1(\theta_k-\theta_i)\). Both rows are

\[ x_\tau=\tfrac14(-Lx+\gamma S_1(\theta)),\qquad \theta_\tau=\tfrac\gamma4Lx,\qquad \gamma=\frac1{1023\pi},\quad \tau=\frac{1023}{1024}t. \tag{2} \]

Capacities are held at one, the phase domain is the full circle, and there is no continuous input or later event. Equation (2) specifies pressure for the nodal form row; it does not reconstruct pressure from an observed response. This is a detached smooth-law proof, not a native relational step or a registered operator word. Original-time conversion multiplies both rows by 1023/1024, preserving the declared structural units. No laboratory clock is identified.

The preparation, source errors, support, observation and budgets remain those of the original declaration:

  • Rebuild five independent class-one C9 ramp preparations with separate zero-sum form and phase errors bounded componentwise by 1e-10, retaining all 80 relative directions. Each child has primitive common form shift \(M_c=4092(c-2)\), and common zero phase origin.
  • Re-admit their own-law formation and uninterrupted recovery with deformation one. The quarter-factor clock gives formation duration 200 and recovery dwell \(2\cdot10^{13}\). The carried norm allowance remains \(q=10^{-70}\); no reached state is reset to its target.
  • Supply the 45 outer edges without changing coordinates. Account for their actual \(V_1\) storage jump and the complete joined initial storage, each against its separate ceiling \(2\cdot10^9\).
  • Keep all five internal winding-one identities through the fixed post-attachment interval \(0\le\tau\le200\). Assess all nine outer slot cycles at 200, and prove retention separately. The paired control removes only the supplied primitive common form shifts.

The retained identity is the fourteen marked winding observations, not an unproved autonomous reduction to child means. Common form/phase translations, graph relabelings with their marked associations and phase periodicity retain their usual complete-law meanings. A support-only attachment has prescribed timing and work; neither event occurrence nor its realization as a registered collective operator is derived.

For this actual law,

\[ H_1=\tfrac12x^TLx+\sum_eV_1(\theta_b-\theta_a),\quad (H_1)_\tau=-\tfrac14\|Lx\|_2^2,\quad (\mathbf1^Tx)_\tau=(\mathbf1^T\theta)_\tau=0. \tag{3} \]

Odd current, even potential and the same incidence prove these identities directly. The global bounds \(J=1+1/1458\) on \(|j_1|\), and \(K=1+2/243\) on \(|j_1'|\), give a globally Lipschitz field on finite real lifts. Complete solutions therefore exist through the nonacute transit. Matching the C9 target tangent is not used to bound the nonlinear flow.

2. Actual-law carrier and finite source transport

Write \(\alpha=2\pi/9\), \(\psi_j=\alpha(j-4)\), and \(\beta=2\pi/5\). Opposite internal currents cancel on \(x_{c,j}=X_c\), \(\theta_{c,j}=\psi_j+\Phi_c\). Both rows restrict to the five-node version of (2), with current \(j_1\), and uniqueness preserves this carrier. The half-factor carrier clock is \(\sigma=\tau/2\). Its initial data are \(X_c=M_c\), \(\Phi_c=0\), and \(v=\gamma M=(-8,-4,0,4,8)/\pi\).

In that clock, \(a=\gamma X\) satisfies \(a_\sigma=-Aa+\gamma^2 f_1(\Phi)\), \(\Phi_\sigma=Aa\), where \(A=L_5/2\), \(f_1=S_1/2\). The weighted norm is \(\|\cdot\|_{2I}\). The C5 gap is at least 1/2, \(\|f_1\|_{2I}\le F=\sqrt{10}J\), and \(\|v\|_{2I}=\sqrt{320}/\pi\). Fix the same coarse heat bound before assessment:

\[ \begin{split} \rho&=(1+50/16)^{-16}\ge e^{-50},\\ A_*&=\rho\sqrt{320}/\pi+2\gamma^2F,\\ P_*&=A_*+100\gamma^2F,\\ f_x&=A_* /(\gamma\sqrt2),\qquad f_\theta=P_*/\sqrt2. \end{split}\tag{4} \]

The shared prepared-flow estimate gives \(\|\gamma X(200)\|_{2I}\le A_*\) and \(\|\Phi(200)-v\|_{2I}\le P_*\). These are own-law feedback bounds, not sine endpoint values. A coordinate has norm functional 1/sqrt(2), whereas an edge difference has norm functional one. Thus carrier node form and phase errors are bounded by \(f_x,f_\theta\), and carrier edge errors by \(A_*/\gamma,P_*\), respectively.

Use the direct edge functionals, fixed before evaluating the certificate, for the carrier storage bound. If \(\mathcal V(I)\) denotes an outward upper bound on \(V_1\) over an interval \(I\), then

\[ \begin{split} I_r&=4/\pi+[-P_*,P_*],\\ I_c&=2\pi-16/\pi+[-P_*,P_*],\\ U_5&=\tfrac52(A_*/\gamma)^2+4\mathcal V(I_r)+\mathcal V(I_c). \end{split}\tag{5} \]

The fifth interval includes the declared closing-edge turn. This is a sufficient enclosure of the actual five-node solution, not a replacement source. All interval constants use the existing outward dyadic128 arithmetic; the exact rational residual \(q\) is retained below its grid.

Each own-law isolated recovery supplies attachment data \(x_{c,j}=M_c+r_{c,j}\), \(\theta_{c,j}=\psi_j+z_{c,j}\), with \(\|r_c\|_2,\|z_c\|_2\le q\) and both childwise sums zero. Isolated constant form translation is an exact symmetry, so these are the reached states of the shifted primitive preparations. All initial outer raw gaps have magnitude at most \(2q\), telescope, and have winding zero.

Subtract the actual-law carrier from the full solution. The same heat identity as in the sine proof now uses \(\|S_1(\theta)-S_1(\bar\theta)\|_2\le8K\|z\|_2\), with \(\lambda_2(L)>1/3\). Its whole-interval Gronwall factor is \(\exp(2K\gamma^2\tau)<2\) when the outward check \(400K\bar\gamma^2<1/2\) holds. The shared heat-error kernel then gives

\[ Z=6q(1+\bar\gamma),\qquad R=3q+24K\bar\gamma Z,\qquad \|z(\tau)\|_2\le Z,\quad\|r(\tau)\|_2\le R. \tag{6} \]

All internal gaps remain in \(\alpha+[-2Z,2Z]\). At the deadline the four regular outer gaps on every slot cycle lie in \(I_r+[-2Z,2Z]\), and its closing gap in \(I_c+[-2Z,2Z]\). Strict inclusion in the acute cell and their exact sum \(2\pi\) certify outer winding one on every fine slot cycle. No childwise residual mean is assumed to remain conserved after attachment.

3. Event work and complete endpoint storage

The nominal attachment work remains exactly \(W_0=1507001760\). Initial childwise zero sums cancel its form cross term. The outer Laplacian norm is at most four, and \(V_1(0)=V_1'(0)=0\), \(|V_1''|\le K\). Consequently

\[ \begin{split} W_0&\le W_{\rm attach}\le W_0+10(1+K)q^2,\\ H_1(0)&\le5V_9+W_0+20(1+K)q^2,\\ V_9&=9V_1(\alpha)=9(1-\cos\alpha),\qquad V_5=5V_1(\beta). \end{split}\tag{7} \]

The internal phase first variation cancels at each C9 target; its Hessian bound supplies the internal half of the last residual allowance. Initial costs of all five own-law primitive preparations remain separate from these event and joined-state costs. Past dissipation funds neither quantity.

The full product target is \(x^*_{c,j}=0\), \(\theta^*_{c,j}=\psi_j+\beta(c-2)\), with \(H_*=5V_9+9V_5\). Opposite internal and outer currents separately cancel, so it is an equilibrium of every fine row. On the carrier, \(H_1=5V_9+9H_{5,1}\). At the actual endpoint, use \(\|\bar x\|_2\le\sqrt{45}f_x\), \(\|S_1(\bar\theta)\|_2\le2\sqrt{45}J<14J\), and the global Hessian norm bound \(8K\). The retained nonstationary linear terms give

\[ H_1(200)-H_*\le U:=9(U_5-\underline V_5) +8\sqrt{45}f_xR+4R^2+14JZ+4KZ^2. \tag{8} \]

Here \(\underline V_5\) is a fresh outward lower bound. In particular, the phase linear term cannot be discarded by the carrier's exact internal cancellation or the sources' initial childwise correlations.

4. Own-law convexity and every product boundary

The rough global lower bound \(V_1''(a)\ge\cos a-2/243\) does not prove convexity near an acute boundary. The actual current resolves this issue. For \(c=\cos9a\),

\[ V_1''(a)=\cos a+\frac{c-\cos18a}{243} =\cos a+\frac{(1-c)(2c+1)}{243}. \tag{9} \]

The expression is even. For \(0\le a\le4\pi/9\), the global correction bound gives \(V_1''\ge\cos(4\pi/9)-2/243>0\). For \(4\pi/9\le a\le\pi/2\), one has \(9a\in[4\pi,9\pi/2]\) and \(c\in[0,1]\), so the correction is nonnegative. The cosine term is positive before the endpoint; at \(a=\pi/2\) the correction is 1/243. Thus \(V_1\) is strictly convex on the entire closed acute interval. This is an actual-law property, not inherited outer C5 stiffness.

The five internal and nine outer cycles partition all edges. Jensen's inequality now uses \(V_1\) itself. Their minima are \(V_9,V_5\); define

\[ \begin{split} b_9^+&=V_1(\pi/2)+8V_1(3\pi/16),\\ b_9^-&=V_1(\pi/2)+8V_1(5\pi/16),\\ b_5^+&=V_1(\pi/2)+4V_1(3\pi/8),\\ B&=\min\{b_9^+-V_9,\ b_5^+-V_5\}. \end{split}\tag{10} \]

The positive internal face leaves eight angles summing to \(3\pi/2\); the negative face leaves \(5\pi/2\). Even strict convexity and \(V_1'(0)=0\) make the latter bound larger. Each positive outer face leaves four angles summing to \(3\pi/2\). Every negative outer face is empty: four other acute angles cannot compensate a gap \(-\pi/2\) to sum to \(2\pi\). These arguments cover all 180 signed faces, including the 45 empty faces. They do not assert that independent cycle minimizers are jointly attainable on the full product.

If the fresh bounds establish \(B-U>0\) and the endpoint cell inclusions, storage cannot reach a boundary after time 200. On the fixed zero global mean leaf the trapped sublevel is compact: connectedness controls form coordinates by \(x^TLx\), and bounded fixed-branch edge gaps control the phase lifts. The actual-law phase Hessian is positive definite on the zero-mean tangent space, making the displayed equilibrium the unique stationary phase point in the cell. In the largest invariant zero-loss set, \(Lx=0\) forces \(x=0\), and invariance of the form row then requires \(S_1(\theta)=0\). The invariance principle gives convergence of the complete state to that equilibrium and retention of all fourteen windings. No finite convergence deadline is inferred.

5. Paired control and evidence boundary

For the paired source retain every actual relative residual and set only the primitive common shifts \(M_c\) to zero. Its nominal target is \(x^0=0\), \(\theta^0_{c,j}=\psi_j\), and its initial excess is bounded by \(20(1+K)q^2\). Internal winding is one and all outer windings are zero. Internal boundary faces cost at least \(b_9^+-V_9\); any outer boundary has one edge with cost \(V_1(\pi/2)\). Thus the control barrier is

\[ B_0=\min\{b_9^+-V_9,\ V_1(\pi/2)\}. \tag{11} \]

When its strict margin over the actual residual allowance is positive, the same complete-state argument preserves those windings and gives convergence to \(\theta^0\). Nonzero residual controls generally move; they are not treated as exactly stationary.

The conditional implications above separate source recovery, event budgets, finite entry and subsequent trapping. A positive assessment would establish robustness of this supplied organizational acquisition under the retained alternative; an unavailable sufficient margin would not prove failed formation. Neither outcome selects a unique constitutive law. The later observation word, donor/contact history and external response still require their own-law admission. No source reset, trajectory, frozen producer replay, physical response, support selector or new operator occurrence is supplied by this argument.

6. Implementation and prospective assessment

The private own-law owner reuses the product incidence, shared exact coordinate admission, canonical constitutive current/potential, prepared-flow and heat-error kernels, and the five freshly admitted isolated recoveries. It does not call the old sine outer-acquisition assessor or consume its entry/capture verdict. Its detached observer evaluates both rows and the storage balance on supplied fine states. Its resource report is conditional on the separately checked source; neither report installs a law or advances the engine.

The contract controls check independent field and bound calculations, source admission, exact tiny residuals, signed faces and explicit unavailability with synthetic failures. These do not evaluate the complete original source. The single assessment instrument fixes all ten original error allowances at 1e-10, requires the complete source and proof to be committed before assessment, and uses the shared exclusive evidence lifecycle to retain the attempt, exact report and source inventory. A failed or partial attempt remains recorded; no retuned or unrecorded retry is part of this gate. No seed, trajectory, parameter scan or physical record is used. The instrument wiring controls use a fake assessor. Later audits read the retained complete-source result without regenerating it.

7. Retained original-source decision

The method and complete source were committed as b220012f before the single assessment. The attempt retains the Git source inventory, arithmetic and fixed scientific protocol; the exact result is alternative_outer_acquisition_certified, with no unresolved condition. All five own-law recoveries, source transport, entry, work/storage budgets, full product trapping and paired-control conditions pass together.

The following strict rational summaries are checked against that retained record; they are not another run or rounded inputs to the proof:

Quantity Retained bound
Carrier node form magnitude at tau=200 Below 0.001395
Carrier node phase departure from v at tau=200 Below 0.00002210
Actual full-fine form / phase departure from its own carrier through transit Below 3.046e-70 / 6.002e-70
Complete product-cell boundary excess B Above 0.01451
Complete actual endpoint excess U Below 0.009588
Strict full-state capture margin B-U Above 0.004922
Paired outer-zero control capture margin Above 0.2427
Supplied outer attachment work At least 1,507,001,760 and below 1,507,001,761
Complete joined initial storage Below 1,507,001,771, within the separate 2,000,000,000 ceiling

Every original source member retains all five internal winding-one cycles through transit and has winding one on all nine outer slot cycles at the unchanged deadline. Its complete state then remains in the admitted cell and converges to the displayed product target. The paired actual-residual control retains outer winding zero and converges to its own target.

Together with the retained sine theorem, this establishes the same conditional formation and retained identity for the two endpoint laws. It does not equate their finite reached states, trajectories, stiffness or interaction responses, nor establish acquisition for every intermediate or compatible law. No later observation word or external-contact certificate has been transferred. Source/support preparation and substantial positive work remain supplied; autonomous selection and physical identification remain open.

The read-only evidence audit checks source receipts, actual-law recovery, clock maps, exact residual bounds, all signed faces and the joint inequalities without invoking this assessor or the earlier producers. A receipt associates bytes and source; it does not authenticate an experiment or independently prove the theorem.