Tellurium as a Chiral THz Anchor in the GTSFC-USC-GTCW Framework This record presents a research article on tellurium as a material anchor for chiral terahertz dynamics within the GTSFC-USC-GTCW framework. The study develops a mathematically explicit and experimentally auditable description of magneto-chiral THz response in tellurium and uses this material system as a falsifiable bridge between laboratory observables and an effective structural-code formalism. The article is organized around a strict separation of layers: direct observables, effective-model quantities, and hypothesis-level code-mapping parameters. The analysis introduces modal estimators for growth, frequency, and odd-in-field response, together with a PASS/FAIL protocol, an uncertainty budget, a comparative material map, and transfer criteria for trigonal selenium and alpha-quartz. The record also documents the role of publicly available experimental resources and provides a transparent path from time-domain data to effective descriptors and testable predictions. The scope of the work is deliberately constrained. The article does not claim a direct measurement of code-layer parameters. Instead, it formulates a controlled and falsifiable mapping from experimentally accessible THz observables to the effective and hypothesis layers of the framework. In this sense, tellurium is treated as a chiral anchor material that enables rigorous testing of the formalism rather than as a standalone proof of the full theory. This Zenodo release is intended as the archival and citable scientific version of the work. It includes the full article, source files, structured metadata, and supporting publication material prepared for journal-style dissemination.
Robert Kupski (Sun,) studied this question.