Operationalizing the Biological Rubin Observatory: URM Parameters for Detecting Biological Movement Over Time Conceptual Note — URM / Dynamic Medicine Series

This conceptual note develops the next step in the Biological Rubin Observatory framework by proposing how the Universal Resonance Model (URM) could begin to operationalize biological movement over time. Where the first Biological Rubin paper argued that theory must precede pattern detection, this paper asks what candidate variables might describe disease as dynamic change. It introduces several provisional URM parameters: λ₁ as dominant system stability or instability; σ² as biological variance or fluctuation; ρ(τ) as delayed correlation or system memory; Δτ as temporal displacement between signals; κ as coupling strength between biological subsystems; RI as a composite resonance or risk-instability index; PRC as the rate of change of RI; and RWP as reset window potential. The paper emphasizes that these parameters are conceptual and not yet validated clinical measures. Their purpose is to provide a possible grammar for organizing longitudinal biological observations into dynamic signatures, such as stability, drift, amplification, compensation, reset-window states, recovery, and pathological locking. This work is intended as a conceptual note and preprint within the URM / Dynamic Medicine Series. It does not present prospective clinical data or a finished mathematical model, but proposes a parameter language for future theory-guided observation, hypothesis generation, and empirical testing.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-07-02
DOI
https://doi.org/10.5281/zenodo.21125450
Primary Topic
Gene Regulatory Network Analysis
Type
preprint
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preprint

Operationalizing the Biological Rubin Observatory: URM Parameters for Detecting Biological Movement Over Time Conceptual Note — URM / Dynamic Medicine Series

Anita Domargård
Zenodo (CERN European Organization for Nuclear Research)
Gene Regulatory Network Analysis
preprint

Operationalizing the Biological Rubin Observatory: URM Parameters for Detecting Biological Movement Over Time Conceptual Note — URM / Dynamic Medicine Series

Anita Domargård
preprint en

Abstract

This conceptual note develops the next step in the Biological Rubin Observatory framework by proposing how the Universal Resonance Model (URM) could begin to operationalize biological movement over time. Where the first Biological Rubin paper argued that theory must precede pattern detection, this paper asks what candidate variables might describe disease as dynamic change. It introduces several provisional URM parameters: λ₁ as dominant system stability or instability; σ² as biological variance or fluctuation; ρ(τ) as delayed correlation or system memory; Δτ as temporal displacement between signals; κ as coupling strength between biological subsystems; RI as a composite resonance or risk-instability index; PRC as the rate of change of RI; and RWP as reset window potential. The paper emphasizes that these parameters are conceptual and not yet validated clinical measures. Their purpose is to provide a possible grammar for organizing longitudinal biological observations into dynamic signatures, such as stability, drift, amplification, compensation, reset-window states, recovery, and pathological locking. This work is intended as a conceptual note and preprint within the URM / Dynamic Medicine Series. It does not present prospective clinical data or a finished mathematical model, but proposes a parameter language for future theory-guided observation, hypothesis generation, and empirical testing.

Zenodo (CERN European Organization for Nuclear Research)
Swedish Rheumatism Association (SE)
Gene Regulatory Network Analysis
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