A Hypercomplex Framework for Molecular Geometry: Modeling Carbon-Based Spacetime Trajectories in Biochemistry - Richard L. Lewis - July 12, 2026

 Table of Contents

1. A Hypercomplex Framework for Molecular Geometry: Modeling Carbon-Based Spacetime Trajectories in Biochemistry

2. The Quaternionic Schrödinger Equation: Modeling Variational Stability and Least Action in Helium Systems

3. A Hypercomplex Framework for Asymmetric Molecular Systems: Modeling the Valence Dynamics and Geometric Equilibrium of H2O

4. From Quaternions to Non-Associative Octonionic Fields: Modeling Dynamic Chemical Transformations and Thermodynamic Phase Shifts

5. Applying the Hypercomplex Model to Macromolecules, Catalysis and Metabolism

6. Integrated Sedenionic Systems in Prebiotic and Early Cellular Architecture

7. Hypercomplex view of Life Moving From LUCA to the Ocean

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