TFPT scientific source excerpt Original repository path: documents/archive--tfpt-45--source_extracts--01_boundary_kernel_source/sections/002-section-intrinsic-closed-branch-and-canonical-rigid-obje.tex Original file SHA-256: 1de90a4a7379bef804cc7815d72c0f86bb398a5771e9b00997c4bb15e8815f9e Inclusive original lines: 33-84 Line numbers below refer to the original source. This bounded excerpt is source evidence; it is not a new proof/checker run. Conversation metadata and personal execution details are omitted where indicated. 000033 | \begin{remark}[APS roles on the admissible branch] 000034 | \label{rem:aps-roles} 000035 | At the primitive level $\APSdomprov$ is the provisional elliptic boundary choice for the 000036 | geometric anchor: an analytic starting representative chosen so that 000037 | \TFPTxref{thm:well-posed-primitive-dynamics} applies. After the carrier theorem and the master 000038 | closure roadmap of \TFPTxref{sec:closure-theorems} the Calder\'on projector of the doubled operator 000039 | $D_b$ canonically promotes $\APSdomprov$ to the closed-branch boundary domain $\APSdom$ in the 000040 | same admissible class. The family-pairing data $\APSfam$ are then induced canonically and remain 000041 | a derived consequence rather than a second primitive input package. The explicit upgrade 000042 | statement is recorded as \TFPTxref{thm:apsdom-upgrade} in \TFPTxref{sec:closure-theorems}. 000043 | \end{remark} 000044 | 000045 | \begin{figure}[t] 000046 | \centering 000047 | \scriptsize 000048 | \begin{tikzpicture}[ 000049 | root/.style={draw=black!65, fill=gray!10, rounded corners, text width=3.3cm, minimum height=0.9cm, align=center}, 000050 | prov/.style={draw=blue!60!black, fill=blue!6, rounded corners, text width=3.15cm, minimum height=1.45cm, align=center}, 000051 | dom/.style={draw=blue!70!black, fill=blue!10, rounded corners, very thick, text width=3.15cm, minimum height=1.45cm, align=center}, 000052 | fam/.style={draw=orange!75!black, fill=orange!8, rounded corners, text width=3.15cm, minimum height=1.45cm, align=center}, 000053 | note/.style={font=\footnotesize\itshape, text=black!70, align=center} 000054 | ] 000055 | \node[root] (aps) at (0,0.45) {APS roles in the present manuscript}; 000056 | \node[prov] (prov) at (-4.05,-1.95) {\textbf{$\APSdomprov$}\\provisional APS realization\\(analytic starting choice)}; 000057 | \node[dom] (dom) at (0,-1.95) {\textbf{$\APSdom$}\\closed-branch APS domain\\via Calder\'on upgrade}; 000058 | \node[fam] (fam) at (4.05,-1.95) {\textbf{$\APSfam$}\\family pairing induced\\by canonical doubling}; 000059 | \draw[->, thick] (aps.south west) -- ($(prov.north)+(0,0.05)$); 000060 | \draw[->, thick] (aps.south) -- ($(dom.north)+(0,0.05)$); 000061 | \draw[->, thick] (aps.south east) -- ($(fam.north)+(0,0.05)$); 000062 | \draw[->, thick, blue!70!black] ($(prov.north east)+(0.08,0.16)$) 000063 | .. controls +(0.7,0.75) and +(-0.7,0.75) .. 000064 | node[above, fill=white, inner sep=1.5pt, font=\scriptsize\itshape, text=blue!70!black] 000065 | {Calder\'on upgrade} 000066 | ($(dom.north west)+(-0.08,0.16)$); 000067 | \draw[->, dashed, black!45, line width=0.8pt] ($(dom.north east)+(0.08,0.14)$) 000068 | .. controls +(0.7,0.65) and +(-0.7,0.65) .. 000069 | node[above, fill=white, inner sep=1.5pt, font=\scriptsize\itshape, text=black!65] 000070 | {induced} 000071 | ($(fam.north west)+(-0.08,0.14)$); 000072 | \node[note] at (0,-3.2) {Provisional choice $\to$ Calder\'on upgrade $\to$ derived family pairing.}; 000073 | \end{tikzpicture} 000074 | \caption{APS organization with Calder\'on upgrade and induced family pairing.} 000075 | \label{fig:aps-split} 000076 | \end{figure} 000077 | 000078 | \begin{corollary}[Carrier-compatible Lorentzian dynamics after closure] 000079 | Once the later carrier-compatible fluctuation package and the admissibility closure hypotheses of \TFPTxref{sec:closure-theorems} are imposed, the resulting admissible Euclidean theory reconstructs a self-adjoint Lorentzian Hamiltonian $H_{\mathrm{adm}}$ and a one-parameter automorphism group 000080 | \[ 000081 | \alpha_t(O)=e^{itH_{\mathrm{adm}}}Oe^{-itH_{\mathrm{adm}}}. 000082 | \] 000083 | \end{corollary} 000084 |