Paper 36 — Part 1: Two-State Pattern of Hydrogen: Five Disciplines, Five Names

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Autore principale: Jakovac, Irena
Natura: Recurso digital
Lingua:inglese
Pubblicazione: Zenodo 2026
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author Jakovac, Irena
author_facet Jakovac, Irena
contents <div class="relative group/copy bg-bg-000/50 border-0.5 border-border-400 rounded-lg focus:outline-none focus-visible:ring-2 focus-visible:ring-accent-100"> <div class="sticky opacity-0 group-hover/copy:opacity-100 group-focus-within/copy:opacity-100 top-2 py-2 h-12 w-0 float-right"> <div class="absolute right-0 h-8 px-2 items-center inline-flex z-10"> <div class="relative"> <div class="absolute inset-0 flex items-center justify-center">This paper is Part 1 of a two-part study of the two-state hydrogen pattern. Part 2 (Paper 37) extends the same pattern to nine scales of material organization; this paper presents it across five basic scientific disciplines that, each under its own name, document the same two-state pattern.</div> </div> </div> </div> <div class="overflow-x-auto"> <pre class="code-block__code !my-0 !rounded-lg !text-sm !leading-relaxed p-3.5"> </pre> <p>Five basic scientific disciplines — physics, chemistry, astrophysics, biology, and cosmology — independently document the same structural pattern: a hydrogen system around a center sustains itself through the equilibrium or coexistence of two states. Each discipline uses its own name for this pattern ("bound ground state", "two-state picture of water", "insulator-metal transition", "bound and free water" in the cell, "warm-hot intergalactic medium"), but the functional pattern is the same in every case.</p> <p>At the atomic scale, hydrogen exhibits a stable bound ground state arising from the Coulomb attractive potential and the quantum kinetic contribution of localization. At the molecular scale, supercooled water exhibits two coexistent liquid configurations (LDL, HDL) with an experimentally observed transition (Kim et al. 2020) and a critical point (You et al. 2026). At the astrophysical scale, Jupiter and Saturn contain molecular and metallic hydrogen in separated regions, while the Sun sustains a radiative and a convective zone within hydrogen-dominated plasma. At the biological scale, the cell contains intracellular water in two simultaneous regimes — bound water around macromolecules and free water in the cytoplasm — which together enable the function of the living cell (Persson and Halle 2008, Ball 2008, Watson et al. 2023). At the cosmological scale, intergalactic hydrogen exists in two coexistent phases: photoionized IGM and warm-hot WHIM.</p> <p>In every discipline the local mechanism differs, but the functional relation remains the same: the center establishes a gradient, the hydrogen system carries it in two regimes, and structure manifests as the result. One two-state pattern, five disciplines, five names. C₀ + γ → H → S.</p> <p>This paper is part of the Generative Dynamics series, Series II (Papers 32–37). The paper is published bilingually (English + Croatian) within a single Zenodo deposit.</p> <pre class="code-block__code !my-0 !rounded-lg !text-sm !leading-relaxed p-3.5"><code> </code></pre> </div> </div>
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language eng
publishDate 2026
publisher Zenodo
record_format zenodo
spellingShingle Paper 36 — Part 1: Two-State Pattern of Hydrogen: Five Disciplines, Five Names
Jakovac, Irena
hydrogen
two-state pattern
generative dynamics
center
gradient
intracellular water
bound water
free water
supercooled water
LLCP
C₀ + γ → H → S
structural organization
physics
bound ground state
two-state hydrogen pattern
hydrogen atom
Coulomb potential
quantum mechanics
chemistry
LDL
HDL
two-state picture of water
astrophysics
planetary hydrogen
metallic hydrogen
insulator-metal transition
solar plasma
Jupiter
Saturn
radiative zone
convective zone
helioseismology
biology
cell
cellular nucleus
hydration layer
cosmology
intergalactic medium
IGM
WHIM
warm-hot intergalactic medium
Lyman-alpha
BLA
missing baryons
cosmic web
<div class="relative group/copy bg-bg-000/50 border-0.5 border-border-400 rounded-lg focus:outline-none focus-visible:ring-2 focus-visible:ring-accent-100"> <div class="sticky opacity-0 group-hover/copy:opacity-100 group-focus-within/copy:opacity-100 top-2 py-2 h-12 w-0 float-right"> <div class="absolute right-0 h-8 px-2 items-center inline-flex z-10"> <div class="relative"> <div class="absolute inset-0 flex items-center justify-center">This paper is Part 1 of a two-part study of the two-state hydrogen pattern. Part 2 (Paper 37) extends the same pattern to nine scales of material organization; this paper presents it across five basic scientific disciplines that, each under its own name, document the same two-state pattern.</div> </div> </div> </div> <div class="overflow-x-auto"> <pre class="code-block__code !my-0 !rounded-lg !text-sm !leading-relaxed p-3.5"> </pre> <p>Five basic scientific disciplines — physics, chemistry, astrophysics, biology, and cosmology — independently document the same structural pattern: a hydrogen system around a center sustains itself through the equilibrium or coexistence of two states. Each discipline uses its own name for this pattern ("bound ground state", "two-state picture of water", "insulator-metal transition", "bound and free water" in the cell, "warm-hot intergalactic medium"), but the functional pattern is the same in every case.</p> <p>At the atomic scale, hydrogen exhibits a stable bound ground state arising from the Coulomb attractive potential and the quantum kinetic contribution of localization. At the molecular scale, supercooled water exhibits two coexistent liquid configurations (LDL, HDL) with an experimentally observed transition (Kim et al. 2020) and a critical point (You et al. 2026). At the astrophysical scale, Jupiter and Saturn contain molecular and metallic hydrogen in separated regions, while the Sun sustains a radiative and a convective zone within hydrogen-dominated plasma. At the biological scale, the cell contains intracellular water in two simultaneous regimes — bound water around macromolecules and free water in the cytoplasm — which together enable the function of the living cell (Persson and Halle 2008, Ball 2008, Watson et al. 2023). At the cosmological scale, intergalactic hydrogen exists in two coexistent phases: photoionized IGM and warm-hot WHIM.</p> <p>In every discipline the local mechanism differs, but the functional relation remains the same: the center establishes a gradient, the hydrogen system carries it in two regimes, and structure manifests as the result. One two-state pattern, five disciplines, five names. C₀ + γ → H → S.</p> <p>This paper is part of the Generative Dynamics series, Series II (Papers 32–37). The paper is published bilingually (English + Croatian) within a single Zenodo deposit.</p> <pre class="code-block__code !my-0 !rounded-lg !text-sm !leading-relaxed p-3.5"><code> </code></pre> </div> </div>
title Paper 36 — Part 1: Two-State Pattern of Hydrogen: Five Disciplines, Five Names
topic hydrogen
two-state pattern
generative dynamics
center
gradient
intracellular water
bound water
free water
supercooled water
LLCP
C₀ + γ → H → S
structural organization
physics
bound ground state
two-state hydrogen pattern
hydrogen atom
Coulomb potential
quantum mechanics
chemistry
LDL
HDL
two-state picture of water
astrophysics
planetary hydrogen
metallic hydrogen
insulator-metal transition
solar plasma
Jupiter
Saturn
radiative zone
convective zone
helioseismology
biology
cell
cellular nucleus
hydration layer
cosmology
intergalactic medium
IGM
WHIM
warm-hot intergalactic medium
Lyman-alpha
BLA
missing baryons
cosmic web
url https://doi.org/10.5281/zenodo.20310140