What does this research mean for the field?

Generative transitions, including the origin of life, form a universality class governed by a specific contact-geometric operator sequence whose directionality is an inherent property of the phase space rather than the systems themselves. Novelty: ClaimNovelty.NOVEL_FINDING. Consensus alignment: ConsensusAlignment.ESTABLISHES_NEW_DIRECTION.

What question did this study set out to answer?

The paper aims to define and formalize the concept of topological orthogenesis through generative transitions and their relation to the origin of life.

June 27, 2026Open Access

Topological Orthogenesis and the Universality Class of Generative Transitions Principia Orthogona Series — Conceptual Hub Paper

Key Points

The paper aims to define and formalize the concept of topological orthogenesis through generative transitions and their relation to the origin of life.
Isolates the conceptual framework of the Principia Orthogona series.
Analyzes three physical instances demonstrating the same operator algebra.
Establishes falsifiability conditions common to the instances.
Identifies generative transitions as a universality class governed by the contact-geometric operator sequence.
Demonstrates that the directionality of this sequence is a property of the phase space, not the systems.
Establishes connections with dissipative-structure thermodynamics and directed algebraic topology.

Abstract

Abstract This paper isolates the conceptual spine of the Principia Orthogona series: the claim that generative transitions, including the origin of life, form a universality class defined by the contactgeometric operator sequence 𝐺 = 𝑈 ∘ 𝐹 ∘ 𝐾 ∘ 𝐶 ∘ 𝐸. We show that the directionality of this sequence — previously misread as orthogenetic in the discredited biological sense (Eimer, Teilhard, Berg) — is in fact a property of the phase space, not of the systems within it. We formalise this as topological orthogenesis (Definition 2.1), grounding the notion in directed algebraic topology (Grandis 8) and dissipative-structure thermodynamics (Prigogine 10, England 11). Three independent physical instances are shown to realise the same operator algebra: (I) the Enceladus cryovolcanic plume 6, 7, (II) terrestrial alkaline hydrothermal vents 12, 13, and (III) RNA-world ribozyme self-replication 14. The Kalpataru tree is identified with the Hasse diagram of the partial order on reachable states induced by topological orthogenesis. Falsifiability conditions, common across all three instances, are tabulated in §7. MSC 2020: 53D10 (contact manifolds), 37C75 (stability), 58K05 (Whitney singularities), 92B05 (general biology), 82C70 (transport in non-equilibrium statistical mechanics), 80A05 (thermodynamics). Keywords: topological orthogenesis, directed topology, contact geometry, dissipative structures, universality class, abiogenesis, Kalpataru, generative transitions, Whitney singularity, Reeb flow, Theorem T1, alkaline hydrothermal vents, RNA world, Enceladus, dm3 framework, Principia Orthogona.

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