Chemistry as Field Behavior

Conventional chemistry is extraordinarily good at describing what atoms and molecules do. It predicts reaction outcomes, bond lengths, equilibrium constants, and thermodynamic favorability with impressive precision. What it rarely does is explain why any of it happens at the level of the actual physical mechanism, the field-level cause underneath the equations. Orbital theory gives us mathematical descriptions of electron probability distributions, but it does not tell us what an electron actually is or why it organizes the way it does. Thermodynamics gives us the rules of energy accounting but largely treats heat and entropy as macroscopic concepts disconnected from the underlying field reality. The Unified Substrate Theory (UST) and its biological extension, Field-Structured Biology (FSB), offer a different starting point: the substrate. In UST, the universe is a continuous electromagnetic medium, and everything we call matter, atoms, molecules, bonds, is a structured pattern in that medium. From that foundation, all chemical phenomena fall out naturally. Bonding is electromagnetic geometry, two field patterns finding a lower-tension shared configuration. Reaction dynamics is field-guided energy routing, the substrate transitioning between stable topological configurations along gradient paths. Thermodynamics is the energy accounting of those transitions, where heat is incoherent EM agitation, entropy is coherence entropy, and free energy is net field drive. This paper walks through all three domains and shows how they unify into a single, coherent picture. Chemistry is not a collection of isolated rules. It is a single substrate doing different things at different scales, and once you see that, the whole thing clicks into place. This work is part of a larger collection of UST documents. The other versions available in the DOI record are not revisions of this document. They are separate papers written for different purposes. Some versions present the full mathematical proofs behind the update rules, others provide a technical physical description of substrate behavior, and others are formal proof papers built around the Universal Balance Laws. Together, these documents form a complete set: a plain‑language booklet, a physical description paper, and full mathematical proof papers, each offering a different perspective on the same underlying theory. If you have questions or want to discuss the work, you can contact me directly at [email protected] Don't be shy. I want to discuss science. It is fun and should be. Reachout and lets get started on new discoveries.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-28
DOI
https://doi.org/10.5281/zenodo.22137081
Primary Topic
Advanced Physical and Chemical Molecular Interactions
Type
preprint
Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
preprint

Chemistry as Field Behavior

Dustin Lee
Zenodo (CERN European Organization for Nuclear Research)
Advanced Physical and Chemical Molecular Interactions
preprint

Chemistry as Field Behavior

Dustin Lee
preprint en

Abstract

Conventional chemistry is extraordinarily good at describing what atoms and molecules do. It predicts reaction outcomes, bond lengths, equilibrium constants, and thermodynamic favorability with impressive precision. What it rarely does is explain why any of it happens at the level of the actual physical mechanism, the field-level cause underneath the equations. Orbital theory gives us mathematical descriptions of electron probability distributions, but it does not tell us what an electron actually is or why it organizes the way it does. Thermodynamics gives us the rules of energy accounting but largely treats heat and entropy as macroscopic concepts disconnected from the underlying field reality. The Unified Substrate Theory (UST) and its biological extension, Field-Structured Biology (FSB), offer a different starting point: the substrate. In UST, the universe is a continuous electromagnetic medium, and everything we call matter, atoms, molecules, bonds, is a structured pattern in that medium. From that foundation, all chemical phenomena fall out naturally. Bonding is electromagnetic geometry, two field patterns finding a lower-tension shared configuration. Reaction dynamics is field-guided energy routing, the substrate transitioning between stable topological configurations along gradient paths. Thermodynamics is the energy accounting of those transitions, where heat is incoherent EM agitation, entropy is coherence entropy, and free energy is net field drive. This paper walks through all three domains and shows how they unify into a single, coherent picture. Chemistry is not a collection of isolated rules. It is a single substrate doing different things at different scales, and once you see that, the whole thing clicks into place. This work is part of a larger collection of UST documents. The other versions available in the DOI record are not revisions of this document. They are separate papers written for different purposes. Some versions present the full mathematical proofs behind the update rules, others provide a technical physical description of substrate behavior, and others are formal proof papers built around the Universal Balance Laws. Together, these documents form a complete set: a plain‑language booklet, a physical description paper, and full mathematical proof papers, each offering a different perspective on the same underlying theory. If you have questions or want to discuss the work, you can contact me directly at [email protected] Don't be shy. I want to discuss science. It is fun and should be. Reachout and lets get started on new discoveries.

Zenodo (CERN European Organization for Nuclear Research)
Advanced Physical and Chemical Molecular Interactions
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.