Codex Alpha Research develops a theoretical and computational programme exploring whether spacetime, gravity and quantum phenomena can be understood as effective manifestations of deeper informational coherence structures governed by the gradient ∇𝒦.
Codex Alpha is organized as an open research stack: a complete theoretical architecture, a minimal variational foundations manuscript, and a computational framework for exploratory validation.
A formal manuscript deriving the minimal effective continuous sector of Codex Alpha from an explicit variational principle. The work focuses on logical derivability, dimensional consistency, GR recovery, absence of Ostrogradsky ghosts in the minimal sector, and falsifiability through possible deviations in cosmological, lensing, gravitational-wave and post-Newtonian regimes.
The full theoretical architecture of Codex Alpha, including Telascura, nodal structures, informational curvature, retrocausal operators and the extended ontology of the theory.
AI-assisted computational infrastructure for cosmological structure analysis, anomaly detection, graph-oriented modeling, ranking, interpretability and future data-driven workflows.
Earlier complete Italian formulation of the Codex Alpha theory, preceding the expanded Iconoclast structure and the later Foundations manuscript.
The research manuscripts remain openly accessible through DOI releases. Paperback editions are offered for readers who prefer a physical study format and wish to support independent research.
A compact technical manuscript deriving the minimal variational structure of the effective continuous Codex Alpha dynamics.
Research DOI:
10.5281/zenodo.20355167
The full theoretical monograph of the Codex Alpha framework, available in Kindle and Paperback formats.
Research DOI:
10.5281/zenodo.17074972
May 2026: Published Foundations of Codex Alpha Dynamics: A Variational Derivation of an Informational Extension of Einstein Field Equations. DOI: 10.5281/zenodo.20355167 . The paperback edition is now available on Amazon.
May 2026: Released the Codex Alpha Computational Framework, an AI-assisted infrastructure for exploratory cosmological analysis, anomaly detection, graph-based modeling, ranking and interpretability. DOI: 10.5281/zenodo.20335018 .
September 2025: Published Codex Alpha 3.0 — Iconoclast Edition in English. DOI: 10.5281/zenodo.17074972 . The book edition is available on Amazon in Kindle and Paperback formats.
July 2025: Major site update: redesigned News, About and Research sections with enhanced structure and aesthetic.
April 2020: Origin of the Codex Alpha theoretical research project during the first COVID-19 lockdown. Initial investigations included quantum coherence, negative-mass models and ESA/LIGO/GAIA public datasets.
An AI-assisted infrastructure for exploratory analysis of cosmological structures, anomaly detection, graph-based modeling, ranking, interpretability and future observational workflows connected to Codex Alpha.
The framework is not a replacement for theoretical derivation. It is the computational and exploratory layer of the project, designed to help move from formal predictions toward testable data-driven workflows.
Early-stage modular research infrastructure. Current work focuses on architecture design, dataset structure, anomaly scoring, graph-oriented organization, ranking logic and interpretability modules.
Future development includes graph anomaly detection, link prediction, candidate ranking, interpretable embeddings, crossmatching workflows and physics-informed constraints where appropriate.
Codex Alpha Research is open to technically serious collaborations in mathematical physics, computational cosmology, AI-assisted analysis, graph modeling, simulation design and observational validation.
The project is especially interested in collaborators able to contribute to rigorous theoretical review, numerical prototyping, simulation design, dataset integration, graph-based modeling, anomaly detection, interpretability and reproducible research infrastructure.
Suitable profiles include independent researchers, physicists, mathematicians, ML engineers, computational scientists, data analysts, visualization specialists and research-oriented developers.
Submissions are intended for research collaboration only. Please include a concise technical contribution, not a generic promotional message.
A visual outreach project created to help younger audiences, students and curious viewers approach physics, mathematics and scientific imagination through cinematic storytelling and symbolic visual metaphors.
Davide Cadelano is an independent theoretical physicist and founder of Codex Alpha Research. His work focuses on gravitational models, quantum frameworks, emergent spacetime, informational curvature and the possible unification of physical laws through coherence-gradient dynamics.
Codex Alpha introduces the concept of the Telascura: a coherent quantum-informational structure from which spacetime is treated as an effective emergent geometry. The theory is developed through explicit assumptions, variational principles, perturbative limits, computational workflows and falsifiable observational directions.
The current research programme includes the full Codex Alpha 3.0 — Iconoclast Edition, the Foundations manuscript, and the Codex Alpha Computational Framework.
Email:
davide.cadelano@codexalpha.org
ORCID:
0009-0008-2253-7008
GitHub:
github.com/Miriadenera
LinkedIn:
linkedin.com/in/davide-cadelano-5b68a936a
X:
@QIM_METATRON
Instagram:
@codexalpharesearch
Development of coherence-weighted gravitational dynamics, where effective energy-momentum response is controlled by the local coherence gradient ∇𝒦.
Study of spacetime geometry as an effective continuous approximation emerging from a deeper informational network structure.
Investigation of possible deviations in post-Newtonian regimes, gravitational lensing, perturbations and gravitational-wave propagation.
Data-oriented workflows for anomaly detection, crossmatching, candidate ranking, graph modeling and interpretable exploratory analysis.
Variational methods, ADM decomposition, small-gradient expansions, stability analysis and recovery of General Relativity in the uniform-coherence limit.
Open theoretical and computational collaborations, including geometric, fractal, torsional and inference-based approaches relevant to fundamental physics.
Selected collaborative and exploratory works connected to high-dimensional geometry, torsion, fractal dimensionality, field theory and complex physical systems.
Proposal of Unified Resolution of the Yang-Mills Mass Gap via 5D Higgs-Torsion Geometry and Fractal Control.
Unified treatment of Navier–Stokes equations, N-body dynamics and cosmology via 5D Higgs-Torsion geometry.
Proposal of Complete Solution of the Navier-Stokes Equations via 5D Higgs-Torsion Geometry and Information Dimension.
Proposal of Resolution of the Gravitational N-Body Problem in 5D via Higgs Torsion Gradient and Information Dimension.
Unified synthesis of Yang–Mills Mass Gap, Navier–Stokes, N-Body Problem and cosmology through geometric-fractal methods.
The operational entry point for publications, repositories, computational resources, collaboration channels and open research outputs connected to Codex Alpha.
All major theoretical outputs are archived with persistent DOI identifiers for citation and long-term accessibility.
Public GitHub repositories host manuscripts, metadata, computational tools, citation files and development resources.
Media references, interviews and public-facing summaries are collected to support outreach and external communication.