Last Updated: August 21, 2026
Maintainer: Robert Vannrox
Canonical Release: v13.0

Overview

This roadmap outlines the planned development and expansion of the Ψ-Ontic Reality Model (ΨORM). It is intended to guide contributors, researchers, and curious minds toward areas where the framework can be refined, tested, and extended.

The roadmap is divided into three phases:

  1. Completed — What has been achieved in v13.0
  2. Short-Term (Next 12 Months) — Immediate next steps
  3. Medium-Term (2–5 Years) — Substantive expansions
  4. Long-Term (5+ Years) — Visionary goals

1. Completed (v13.0)

The following elements are complete and archived in the v13.0 release:

Element Status
Complete ontological hierarchy (Quanta → Garbons → Soul → Consciousness → Vector → Receiver) ✅ Done
All 26 sections drafted and uploaded ✅ Done
Falsifiable predictions (5 core predictions) ✅ Done
Mathematical formalization (qubit toy model, interaction Hamiltonian) ✅ Done
Master index with working links ✅ Done
DOI archiving (10.5281/zenodo.22036494) ✅ Done
AI Policy Statement in CONTRIBUTING.md ✅ Done

2. Short-Term (Next 12 Months)

These are the most immediate and actionable next steps. They require experimental design, data collection, and methodological refinement.

2.1 Experimental Protocols

Task Description Priority
EEG frequency shift protocol Design a standardized protocol for measuring frequency shifts (PLV) during intentional thought. High
Hyperscanning shared experience protocol Design a protocol for measuring inter-brain coherence during shared experiences (e.g., meditation, storytelling). High
Memory retrieval under neural compromise Design a protocol for studying memory retrieval during anesthesia, cardiac arrest, or brain injury. High
Neurofeedback frequency modulation protocol Design a protocol for training participants to modulate frequency through neurofeedback, and measuring perceptual shifts. Medium

2.2 Theoretical Refinements

Task Description Priority
Refine the qubit toy model Expand the 2-state model to multi-dimensional configuration space. High
Formalize the topography model Develop the 3D topographic map (X, Y, Z axes) into a quantitative tool. High
Integrate with existing MWI formalism Map ΨORM operators onto standard MWI mathematics. Medium
Derive coupling constants from data Use experimental data to estimate the coupling constants (g0, Γ) in the interaction Hamiltonian. Medium

2.3 Documentation and Accessibility

Task Description Priority
Create a glossary of terms Ensure all key terms are defined and accessible. High
Create a "Getting Started" guide A brief, accessible introduction for new readers. Medium
Translate into other languages Make the framework accessible to non-English speakers. Low

2.4 Memory Research Pathway (Collaborative)

Task Description Priority
Test anomalous memory retrieval Partner with labs studying NDEs or anesthesia awareness to test whether veridical perception during cardiac arrest occurs at rates above chance, controlling for sensory leakage. High
Quantify neural storage capacity Collaborate with computational neuroscientists to model theoretical neural storage limits vs. reported recall fidelity. High
Pre-register replication attempts Pre-register studies to ensure transparency and reproducibility. Medium
Rule out alternative explanations Design experiments to control for distributed coding, neuroplasticity, reconstructive memory, and sensory leakage. High

3. Medium-Term (2–5 Years)

These are substantive expansions that require collaboration, funding, and institutional engagement.

3.1 Experimental Validation

Task Description
Run frequency shift experiments Conduct controlled studies measuring PLV shifts during intentional thought.
Run hyperscanning studies Conduct inter-brain coherence studies during shared experiences.
Run memory retrieval studies Study memory persistence under neural compromise (anesthesia, brain injury).
Run neurofeedback studies Train participants to modulate frequency and measure perceptual shifts.

3.2 Mathematical Development

Task Description
Full multi-dimensional model Expand the formalism to full configuration space.
Topography quantification Develop a quantitative model of the topography (X, Y, Z axes).
Integration with quantum field theory Explore connections with QFT and emergent spacetime.

3.3 Cross-Disciplinary Integration

Task Description
Neuroscience integration Map ΨORM concepts onto neural correlates of consciousness.
Physics integration Explore connections with GR, QM, and non-locality.
Philosophy integration Address the Hard Problem and other philosophical challenges.
Psychology integration Explore implications for mental health, trauma, and well-being.

4. Long-Term (5+ Years)

These are visionary goals that extend beyond the current framework.

4.1 Full Experimental Validation

  • All five core predictions are tested and validated (or falsified) through multiple independent studies.
  • The model is refined based on experimental data.

4.2 Educational Materials

  • A complete curriculum for teaching ΨORM at the university level.
  • Accessible materials for the general public.
  • Training programs for practitioners.

4.3 Applications

  • Mental health: Using frequency modulation for trauma recovery and well-being.
  • Performance optimization: Using frequency alignment for peak performance.
  • Consciousness exploration: Using the framework to explore non-ordinary states.
  • Technology: Developing devices for intentional frequency modulation (e.g., neurofeedback systems).

4.4 Community and Governance

  • A community of researchers and practitioners.
  • A formal governance structure for the framework.
  • A peer-reviewed journal dedicated to ΨORM research.

How to Contribute

Contributions are welcome in all areas. See CONTRIBUTING.md for full details.

Area How to Contribute
Experimental design Submit a proposal via Issues or Pull Request.
Mathematical refinement Submit a Pull Request with formal derivations.
Documentation Submit a Pull Request with improvements or translations.
Funding and resources Contact the maintainer directly.

Version History

Version Date Key Changes
v13.0 August 21, 2026 Canonical complete release
v12.3 August 20, 2026 Added new sections and proposed integrations
v12.2 August 20, 2026 Added master index
v12.1 August 19, 2026 Initial release with DOI

This roadmap is a living document. It will evolve as the framework grows.