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PreprintCC BY 4.0Zenodo

Common State and Unified Field: The PCS Observational Calibration Framework Additional title/可共同狀態與統一場:PCS 觀測校正框架

  1. 1Planetary Common State (PCS)

Abstract

Description / Abstract

Common State and Unified Field: The PCS Observational Calibration Framework develops a common-state approach to the unified-field problem by distinguishing physical reality, observation, and reconstructed state.

The framework begins from a methodological requirement: heterogeneous observations should not be used to infer a common physical structure until their propagation delays, reference frames, measurement conditions, uncertainties, and reconstruction dependencies have been explicitly aligned to a declared common reference state.

The central reconstruction is expressed as

O → K_T → Û(T) → E_U → R_U(T),

where O denotes the observational set, K_T the PCS calibration/reconstruction operator, Û(T) the reconstructed common state, E_U a candidate physical closure operator, and R_U(T) the resulting closure residual.

This version extends the framework across physical scale. In addition to astronomical and cosmological observations, it considers the correspondence between microscopic/quantum, atomic and molecular, statistical-mechanical, thermodynamic, macroscopic, planetary, and cosmological descriptions. Cross-scale agreement is treated as a test rather than an assumption.

PCS therefore does not claim a completed unified-field equation. Its unresolved core is narrower: after common-state reconstruction, known-physics closure, and explicit cross-scale correspondence, does a reproducible physical residual remain?

The framework preserves the established domains of Newtonian mechanics, general relativity, electromagnetism, quantum physics, statistical mechanics, and thermodynamics while introducing an explicit observational-reconstruction layer for testing whether apparently different physical descriptions can be compared within a mutually consistent state.

Project websites:

PCS Research: alvin-lin-pcs.uranusastudio.chatgpt.site

PCS Observatory: planetarycommonstate.org/PCS_OBSERVATORY/

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BibTeX
@misc{hung2026common,
  title = {{Common State and Unified Field: The PCS Observational Calibration Framework Additional title/可共同狀態與統一場:PCS 觀測校正框架}},
  author = {CHUN HUNG LIN},
  howpublished = {Zenodo},
  year = {2026},
  month = oct,
  doi = {10.5281/zenodo.23667526},
  url = {https://zenodo.org/records/23667526},
  note = {CC BY 4.0},
}
RIS
TY  - UNPB
TI  - Common State and Unified Field: The PCS Observational Calibration Framework Additional title/可共同狀態與統一場:PCS 觀測校正框架
AU  - CHUN HUNG LIN
PY  - 2026
DA  - 2026/10/26
PB  - Zenodo
DO  - 10.5281/zenodo.23667526
UR  - https://zenodo.org/records/23667526
AB  - Description / Abstract  Common State and Unified Field: The PCS Observational Calibration Framework develops a common-state approach to the unified-field problem by distinguishing physical reality, observation, and reconstructed state.  The framework begins from a methodological requirement: heterogeneous observations should not be used to infer a common physical structure until their propagation delays, reference frames, measurement conditions, uncertainties, and reconstruction dependencies have been explicitly aligned to a declared common reference state.  The central reconstruction is expressed as  O → K_T → Û(T) → E_U → R_U(T),  where O denotes the observational set, K_T the PCS calibration/reconstruction operator, Û(T) the reconstructed common state, E_U a candidate physical closure operator, and R_U(T) the resulting closure residual.  This version extends the framework across physical scale. In addition to astronomical and cosmological observations, it considers the correspondence between microscopic/quantum, atomic and molecular, statistical-mechanical, thermodynamic, macroscopic, planetary, and cosmological descriptions. Cross-scale agreement is treated as a test rather than an assumption.  PCS therefore does not claim a completed unified-field equation. Its unresolved core is narrower: after common-state reconstruction, known-physics closure, and explicit cross-scale correspondence, does a reproducible physical residual remain?  The framework preserves the established domains of Newtonian mechanics, general relativity, electromagnetism, quantum physics, statistical mechanics, and thermodynamics while introducing an explicit observational-reconstruction layer for testing whether apparently different physical descriptions can be compared within a mutually consistent state.  Project websites:  PCS Research: alvin-lin-pcs.uranusastudio.chatgpt.site  PCS Observatory: planetarycommonstate.org/PCS_OBSERVATORY/
ER  -