Distributed Nucleosynthesis at the Contract Ceiling — Element Formation in TR-Mediated Cord-Rotation Outflows

Paper Z develops a Light Frame Cadence Theory (LFCT) candidate mechanism for distributed light-element formation in the absence of a classical Big Bang singularity or synchronized primordial thermal bath. Building on the LFCT no-singularity theorem and the cord-rotation evaporation mechanism, the paper proposes that light elements form in high-energy, non-thermal outflows from TD-capped compression regimes throughout the breathing fabric, rather than in a single global nucleosynthesis epoch.

The paper distinguishes mechanism-side and binding-side content. The cord-rotation outflow supplies the proposed nucleosynthesis environment: a non-thermal, high-energy, TR-mediated escape channel from contract-ceiling regimes. The nuclear-binding values used by the argument are absorbed from LFIS-31, including the He-4 anchor, the alpha-chain backbone, pre-scaffold D and He-3 structure, and the Li/Be light-frustration regime. Broader nuclear-binding architecture, including the iron peak, magic numbers, Coulomb-vs-asymmetry structure, and staged-release framework, is reserved for the companion Paper Za.

The central claim is candidate-tier but sharply framed: if LFCT removes the standard global thermal bath, it must supply an alternative light-element formation mechanism, and cord-rotation outflows provide the natural structural candidate. The paper identifies the remaining abundance-side gates explicitly, including the He-4 mass fraction, lithium suppression, the D-Li tradeoff surface, spatial uniformity of fabric-integrated yield, and the LFCT-native analogue of the baryon-to-photon ratio.

Paper Z therefore serves as LFCT’s nucleosynthesis mechanism paper: it connects no-singularity cosmology, compact-object cord-rotation outflows, contract-ceiling energetics, and light-element formation into a single candidate framework while preserving clear tier discipline between derived binding structure and still-open abundance calculations.