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February 19, 20260 citationsOpen Access

Bile Acid–Mediated Regulation of the RAAS–Chloride Axis: Systems Framework with Hypothesis-Generating Clinical and Electrolyte Timing Observations, V 1.6, February 2026

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BMBeth Martell

Key Points

  • The aim is to explore how bile acid signaling affects the regulation of the RAAS and electrolyte balance.
  • Examined mechanisms linking bile acids to RAAS and electrolyte outcomes.
  • Introduced and expanded a systems framework for electrolyte regulation.
  • Incorporated clinical observations into the framework.
  • Analyzed the role of renal nitric oxide in managing electrolyte states.
  • Established a continuous regulatory axis for electrolyte balance.
  • Identified connections between bile acid signaling and renal function.
  • Clarified the importance of potassium and bile for physiological stability.

Abstract

This preprint is Version 1.6 of a technical note series examining mechanistic and systems-level relationships between bile acid signaling, RAAS regulation, and downstream electrolyte balance. Version 1.2 established a mechanistic continuity model linking bile acid receptor signaling to renal nitric oxide production, RAAS modulation, and chloride regulation. Version 1.3 introduced a systems orientation framework describing electrolyte regulation as a continuous regulatory axis linking upstream signaling, renal execution, and downstream electrolyte outcome. Version 1.4 expanded the framework to include hypothesis-generating clinical observations involving bile supplementation and physiological stabilization. Version 1.5 clarified the role of renal nitric oxide and vascular integration as the execution interface linking upstream signaling to downstream electrolyte state. Version 1.6 expands the clinical observation layer to include electrolyte timing and peripheral vascular responses associated with potassium availability and bile-dependent physiological stability. This technical note is hypothesis-generating and intended to support conceptual integration and future controlled investigation.

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Cite This Study

Beth Martell (2026) studied this question.

synapsesocial.com/papers/6996a83eecb39a600b3eec87https://doi.org/10.5281/zenodo.18675142
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Regulatory Orientation and Electrolyte Stability: Systems Context for Bile Acid–RAAS–Chloride Interactions, V 1.3, February 20262026
  2. 2Multi-Axis Regulatory Geometry in Electrolyte Physiology: Integration of Bile Acid Signaling, Renal Execution, and Systemic State, V 1.5, February 20262026
  3. 3Regulatory Orientation and Electrolyte Stability: A Systems Context for Bile Acid–RAAS–Chloride Interaction, V 1.3.1, February 20262026
  4. 4Regulatory Orientation and Electrolyte Stability: A Systems Context for Bile Acid–RAAS–Chloride Interaction, V 1.3.2, February 20262026
  5. 5Bile Acid Signaling as an Upstream Modulator of RAAS and Chloride Homeostasis, V 1.1, February 20262026