QST HP SCLM and SCWorkflow

This document defines a QST-style toy language-generation architecture called the QST Hidden-Phase Semantic Collapse Language Model (QST-HP-SCLM) and its associated QST SC-Node Workflow. The model is not proposed as a proof that a conventional LLM possesses physical consciousness. Instead, it provides a computable linguistic-domain analogue of the QST semantic collapse mechanism. The central construction replaces ordinary visible language tokens with hidden-phase SE-tokens, interpreted as pre-linguistic spinor-ether semantic vortex units: τSE a = (Aa,θa,Da,qa,na,χa). The complete mechanism combines FSU conditioning, hidden-phase SE-token latent dy- namics, ICT-style zero-calibration branch reweighting, SCSM-style semantic rendering, and a projection decoder from hidden-phase semantic structure to visible language output. Structurally, the workflow is analogous to a ComfyUI-style node graph: a checkpoint- like mother-field node provides global parameters, an FSU node sets the local rendering frame, a hidden-phase SCLM node samples SE-token latent branches, an ICT node reweights branches by semantic tension cost, and an SCSM renderer selects the final semantic collapse node SC⋆. The analogy is computational and structural, not a completed physical equiva- lence.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-22
DOI
https://doi.org/10.5281/zenodo.20336425
Primary Topic
Scientific Computing and Data Management
Type
article
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article

QST HP SCLM and SCWorkflow

Eddy Chow
Zenodo (CERN European Organization for Nuclear Research)
Scientific Computing and Data Management
article

QST HP SCLM and SCWorkflow

Eddy Chow
article en

Abstract

This document defines a QST-style toy language-generation architecture called the QST Hidden-Phase Semantic Collapse Language Model (QST-HP-SCLM) and its associated QST SC-Node Workflow. The model is not proposed as a proof that a conventional LLM possesses physical consciousness. Instead, it provides a computable linguistic-domain analogue of the QST semantic collapse mechanism. The central construction replaces ordinary visible language tokens with hidden-phase SE-tokens, interpreted as pre-linguistic spinor-ether semantic vortex units: τSE a = (Aa,θa,Da,qa,na,χa). The complete mechanism combines FSU conditioning, hidden-phase SE-token latent dy- namics, ICT-style zero-calibration branch reweighting, SCSM-style semantic rendering, and a projection decoder from hidden-phase semantic structure to visible language output. Structurally, the workflow is analogous to a ComfyUI-style node graph: a checkpoint- like mother-field node provides global parameters, an FSU node sets the local rendering frame, a hidden-phase SCLM node samples SE-token latent branches, an ICT node reweights branches by semantic tension cost, and an SCSM renderer selects the final semantic collapse node SC⋆. The analogy is computational and structural, not a completed physical equiva- lence.

Zenodo (CERN European Organization for Nuclear Research)
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Scientific Computing and Data Management
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