Beyond the Periodic Table - A Taxonomy of Elemental, Collective, Non-Atomic, Living, and Dark Matter

Elementhood is a subset of matterhood. The periodic table is one of the greatest achievements of scientific classification. It organizes elemental identity through nuclear charge, electronic structure, and chemical periodicity. This monograph preserves that achievement while situating it inside a broader material landscape that includes collective phases, non-atomic regimes, exotic bound systems, field and topological structures, living organization, dark matter, and carefully marked speculative possibilities. The periodic table classifies chemical elements by atomic number and recurring electronic structure. Its success can encourage an implicit identification of matter with elemental atomic composition, yet modern physics, chemistry, materials science, astrophysics, and biology disclose a much wider landscape. Matter may be organized as nuclei, hadrons, deconfined quark–gluon media, exotic atomic bound states, engineered atom analogues, condensates, quasiparticle systems, topological phases, localized field structures, compact-star matter, living systems, and gravitationally inferred dark matter. This monograph develops a five-coordinate taxonomy: 𝕸𝑿 : = (𝓚𝑿,𝓞𝑿, 𝓒𝑿, 𝓓𝑿, 𝓔𝑿), where 𝒦𝑋 denotes constituent basis, 𝒪𝑋 organizational regime, 𝒞𝑋 closure mode, 𝒟𝑋 disclosure profile, and ℰ𝑋 epistemic status. The taxonomy distinguishes elemental matter from regimes that are extra-periodic by state, architecture, constituent level, topology, interaction sector, recursive maintenance, or formation accessibility. It also distinguishes isolated bound states from bulk phases, autonomous fields from substrate-supported excitations, dark matter from dark energy, and observed regimes from theoretical or speculative extensions. Matterhood is interpreted as physically admissible residence: a regime persists through binding, localization, topology, collective organization, gravitational confinement, or recursive self-maintenance while remaining externally disclosed through one or more interaction channels. This interpretation is presented as an ontological and formal research proposal rather than as an established physical law. The monograph concludes that 𝔈 ⊂ 𝔐 and that a mature taxonomy of matter must extend from atomic identity to the full landscape of material organization. Keywords: periodic table; elementhood; matterhood; extra-periodic matter; atomic identity; exotic atoms; nuclear matter; quark–gluon plasma; compact-star matter; topological matter; field-structured matter; dark matter; living matter; recursive closure; disclosure

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-07-16
DOI
https://doi.org/10.5281/zenodo.21400015
Primary Topic
Cold Fusion and Nuclear Reactions
Type
preprint
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preprint

Beyond the Periodic Table - A Taxonomy of Elemental, Collective, Non-Atomic, Living, and Dark Matter

Philip Lilien
Zenodo (CERN European Organization for Nuclear Research)
Cold Fusion and Nuclear Reactions
preprint

Beyond the Periodic Table - A Taxonomy of Elemental, Collective, Non-Atomic, Living, and Dark Matter

Philip Lilien
preprint en

Abstract

Elementhood is a subset of matterhood. The periodic table is one of the greatest achievements of scientific classification. It organizes elemental identity through nuclear charge, electronic structure, and chemical periodicity. This monograph preserves that achievement while situating it inside a broader material landscape that includes collective phases, non-atomic regimes, exotic bound systems, field and topological structures, living organization, dark matter, and carefully marked speculative possibilities. The periodic table classifies chemical elements by atomic number and recurring electronic structure. Its success can encourage an implicit identification of matter with elemental atomic composition, yet modern physics, chemistry, materials science, astrophysics, and biology disclose a much wider landscape. Matter may be organized as nuclei, hadrons, deconfined quark–gluon media, exotic atomic bound states, engineered atom analogues, condensates, quasiparticle systems, topological phases, localized field structures, compact-star matter, living systems, and gravitationally inferred dark matter. This monograph develops a five-coordinate taxonomy: 𝕸𝑿 : = (𝓚𝑿,𝓞𝑿, 𝓒𝑿, 𝓓𝑿, 𝓔𝑿), where 𝒦𝑋 denotes constituent basis, 𝒪𝑋 organizational regime, 𝒞𝑋 closure mode, 𝒟𝑋 disclosure profile, and ℰ𝑋 epistemic status. The taxonomy distinguishes elemental matter from regimes that are extra-periodic by state, architecture, constituent level, topology, interaction sector, recursive maintenance, or formation accessibility. It also distinguishes isolated bound states from bulk phases, autonomous fields from substrate-supported excitations, dark matter from dark energy, and observed regimes from theoretical or speculative extensions. Matterhood is interpreted as physically admissible residence: a regime persists through binding, localization, topology, collective organization, gravitational confinement, or recursive self-maintenance while remaining externally disclosed through one or more interaction channels. This interpretation is presented as an ontological and formal research proposal rather than as an established physical law. The monograph concludes that 𝔈 ⊂ 𝔐 and that a mature taxonomy of matter must extend from atomic identity to the full landscape of material organization. Keywords: periodic table; elementhood; matterhood; extra-periodic matter; atomic identity; exotic atoms; nuclear matter; quark–gluon plasma; compact-star matter; topological matter; field-structured matter; dark matter; living matter; recursive closure; disclosure

Zenodo (CERN European Organization for Nuclear Research)
University Foundation (BE)
Cold Fusion and Nuclear Reactions
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