● Independent research

Bold questions across the sciences

Honest answers, or none. Occam Research is the independent practice of Oleg Dolgikh — chasing decidable questions across disciplines and holding every claim to evidence. Peer-reviewed work, open data, and, when a claim deserves a fight, a public duel.

Current research

Transport and computation

CRN studies how topology, disorder and readout shape transport on biological connectomes. The Frontiers article is peer-reviewed; supporting preprints and datasets are identified separately.

Journal article

Structural safety of learning

When can local physical learning preserve the conducting structure required by its own task? VCS gives sufficient certificates within a stated resistor-network model.

VCS preprint v0.2.1

Learning and learnability

Recent work gives sufficient certificates for joint voltage training and preservation of learnability. Assumptions, admissible targets and limitations are stated explicitly.

SCI-006B preprint v0.3

How the work goes

I

Scout

Range across fields for questions sharp enough to be decided — where an independent researcher can still land a real result.

II

Test

Attack the question with computation, real data, and explicit null models. No claim survives without evidence — and the nulls have to fail honestly.

III

Duel

Put the strongest version of a claim against its strongest objection, in the open, to a verdict. One of several formats — see Duellum Veritatis.

Duellum Veritatis

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CRN — the founding trophy

Coherent Resonant Netting is, as an active program, closed. But it is the trophy that forged everything here: it set the method — falsifiable claims, real connectome data, honest null models — and it still shapes what I scout and how I fight. Peer-reviewed in Frontiers in Computational Neuroscience; below, the interactive companion across organisms.

The CRN hypothesis, in brief

Biological agents face an energy–information bottleneck: inference needs rapid exploration of large hypothesis spaces, yet high-gain spiking is metabolically expensive. CRN proposes a two-regime decision architecture. Stage-I (netting) — low-cost wave-like filtering via GKSL/Lindblad dynamics, with tunable dephasing κ and disorder ε on the structural connectome, concentrating probability on target hypotheses. Stage-II (fixation) — expensive spiking commitment that broadcasts the winner. By filtering before firing, the system cuts costly O(N) broadcast events to O(1). The testable signature is Disorder-Enhanced Selectivity: moderate disorder improves target selectivity on real connectomes and depends on native topology — degree-preserving rewiring destroys it, and classical random walks cannot reproduce it.

Note on scope. CRN is a testable computational hypothesis, not a claim of microscopic quantum coherence in neural tissue. The GKSL formalism is used as a functional proxy for wave-like dynamics with tunable damping.

Historical CRN scorecard

This is the March 2026 working assessment, preserved for provenance. Its scores are internal assessments, not probabilities, independent peer-review ratings, or the current status of every research claim. Consult the dated publications for their stated findings and limitations.

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Publications & Data

Recent preprints: Structural Safety · Joint Training and Learnability Preservation

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Defensive Publications

software · disclosure · 2026
Universal CRTC: Context Re-validation at Turn Completion for Conversational Gateways
Oleg Dolgikh · Occam Research · v0.1.0 · DOI 10.5281/zenodo.21193362

Host-agnostic pre-delivery gate for conversational agents: after a backend computes a candidate response but before delivery, CRTC revalidates the durable inbound queue, suppresses stale answers, persists supersede/merge state, and redispatches a bounded merged turn.

Defensive disclosure archived on Zenodo. Release archive SHA256: effbd3af8be61fc78dfb073722b19a2eb955fe0984c0e202612e8b465c162309.

Technical note · 2026
Verace: A Deterministic Conflict Detection Pipeline Architecture for Enterprise Knowledge Bases
Oleg Dolgikh · v1.1 · DOI 10.5281/zenodo.19402813

Open Resources

The researcher

Oleg Dolgikh

Independent Researcher · Occam Research

Oleg Dolgikh is an independent researcher working on computation, transport, and learning in networks. His research spans computational neuroscience, open-system models of biological connectomes, and mathematical guarantees for local physical learning. Through Occam Research, he shares research with explicit assumptions, reproducible materials, and clear limits on each claim.

Location
Sant Cugat del Vallès, Barcelona
Affiliation
Occam Research