Open Science.
Difficult Questions.
An independent open-science research program investigating phase geometry, information theory, time, gravity, consciousness, and the mathematical structure underlying physical reality.
All work is designed to be testable, replicable, correctable, and improvable by anyone.
How the Work Is Done
Testable
Every claim should produce predictions that can be tested, measured, and potentially falsified.
Replicable
Experiments and derivations should be reproducible by independent researchers with access to the same tools.
Correctable
The framework must be open to revision when evidence demands it. No theory is sacred.
Improvable
Other researchers should be able to extend, refine, and build upon the work without restriction.
Active Investigations
Phase Geometry and the Metatron Framework
A mathematical framework describing information, time, and physical constants through phase relationships and geometric invariants. The central claim: phase is the fundamental substrate of physical reality.
- Invariant signal processing through phase-locked geometric transformations
- Derivation of physical constants from phase ratios and geometric relationships
- The Φ-state model: four computational and physical states beyond binary zero/one
- Phase as the unifying substrate of time, gravity, information, and consciousness
Information Geometry and Compression
Investigation into the geometric structure of information spaces, with applications to lossless compression, signal encoding, and the relationship between information density and physical entropy.
- Geometric manifolds as information containers
- Phase-based lossless compression algorithms
- Entropy, information density, and physical mass equivalence
- Topological invariants in signal encoding
Time, Gravity, and Phase Coupling
Theoretical investigation into the relationship between gravitational fields, temporal flow, and phase coherence. Proposes that gravity and time are emergent properties of phase geometry rather than fundamental forces.
- Phase coherence as the mechanism of gravitational attraction
- Temporal flow as a phase gradient across information geometry
- Predictions for gravitational anomalies in high-phase-density regions
- Experimental design for phase-gravity coupling detection
Multi-Sensor Phase Detection Array
Physical experimental apparatus: a six-pillar sensor array covering magnetic, thermal, LiDAR, RF, audio, and environmental channels. Designed to detect and record phase anomalies in physical environments.
- Six independent sensor pillars with synchronized acquisition
- Magnetic field mapping at sub-milligauss resolution
- Thermal gradient imaging with phase-locked sampling
- LiDAR spatial mapping correlated with RF and audio channels
- Custom acquisition firmware with phase-coherent timestamping
Metatron Harmonics Platform
Software platform for multi-sensor data acquisition, real-time phase analysis, and visualization. Built with Godot and C#, designed to interface directly with the physical sensor array.
- Real-time multi-channel phase analysis engine
- Godot-based visualization and data exploration interface
- C# signal processing pipeline with phase-coherent filtering
- Export to research-grade data formats for external analysis
Consciousness and Information Integration
Theoretical work exploring consciousness as an emergent property of phase-coherent information integration. Draws on the Metatron Framework to propose testable predictions about awareness, perception, and subjective experience.
- Phase coherence as the substrate of conscious experience
- Information integration theory extended through phase geometry
- Predictions for neural correlates of phase-coherent states
- Relationship between meditation, prayer, and phase coherence
The Published Work
The Careaga Discovery: Invariant Processing of Information
The primary research publication. Presents the Metatron Framework, phase geometry, invariant signal processing, and the derivation of physical constants from geometric phase relationships.
The Metatron Chronicles: Journey of Visions Mathematical
Documents the origin of the research — an extraordinary visionary experience and the mathematical investigation that followed.
Collaborate on the Research
I welcome collaboration from physicists, mathematicians, engineers, signal processing researchers, and independent thinkers willing to engage seriously with unconventional frameworks.