Non-Hermitian Potential Well Formalism for modeling conscious-preconscious-subliminal processing hierarchy. Uses nonlinear Schrödinger-type equations in imaginary time with non-Hermitian Hamiltonians to unify sensory encoding and conscious access.
Scanned 9/11/2026
Install to Claude Code
npx -y skills add hiyenwong/ai_collection --skill non-hermitian-conscious-preconscious-subliminal --agent claude-codeInstalls into .claude/skills of the current project.
Are you the author of Non Hermitian Conscious Preconscious Subliminal?
Add the live security badge to your README — it updates automatically with every re-scan.
[](https://www.skillsdirectory.com/skills/hiyenwong-non-hermitian-conscious-preconscious-subliminal-ai-collection)More formats (shields.io, HTML) on the badges page.
---
name: non-hermitian-conscious-preconscious-subliminal
category: neuroscience
description: Non-Hermitian Potential Well Formalism for modeling conscious-preconscious-subliminal processing hierarchy. Uses nonlinear Schrödinger-type equations in imaginary time with non-Hermitian Hamiltonians to unify sensory encoding and conscious access.
trigger_words: non-Hermitian, conscious access, GNW, Global Neuronal Workspace, subliminal, preconscious, potential well, Schrödinger equation, Lotka-Volterra, consciousness modeling, sensory processing
version: "1.0"
created: "2026-07-12"
source: "arXiv:2607.08302v1"
authors: "Vasily Lubashevskiy, Ihor Lubashevsky"
---
# Non-Hermitian Potential Well Formalism for Conscious--Preconscious--Subliminal Processing
## Paper Info
- **Title**: A Non-Hermitian Potential Well Formalism for Conscious--Preconscious--Subliminal Processing
- **arXiv**: 2607.08302v1
- **Date**: 2026-07-09
- **Category**: q-bio.NC (Neuroscience), nlin.AO (Adaptation & Self-Organizing)
- **Authors**: Vasily Lubashevskiy, Ihor Lubashevsky
## Core Contributions
### 1. Unified GNW Dynamical Framework
Proposes a phenomenological model of the **Global Neuronal Workspace (GNW)** where:
- Early sensory processing generates an **effective complex-valued landscape** governing high-level stimulus representation dynamics
- This landscape provides a **dynamical bridge** between sensory encoding and conscious access
- Both processes described within a **single unified mathematical framework**
### 2. Mathematical Formalism
High-level representations are encoded as:
- **Cloud function** on a Hilbert space over perceptual state space
- Combines holistic mental image structure with neural implementation
- Dynamics governed by a **nonlinear Schrödinger-type equation in imaginary time**
The Hamiltonian has two key components:
- **Non-Hermitian, non-normal Hamiltonian** with nonlinear Lotka-Volterra-type term
- **Hermitian part**: Recognition via dissipative localization at GNW landscape minima
- **Anti-Hermitian part**: Information broadcasting via spatial spreading across state space
### 3. Subliminal-Preconscious-Conscious Hierarchy
The model reproduces the three-tier processing hierarchy:
- **Subliminal**: Below threshold — no bound state forms
- **Preconscious**: Partial activation — transient dynamics
- **Conscious**: Emergence of a **bound state** when BOTH:
- GNW landscape depth exceeds threshold
- Top-down attention degree exceeds threshold
### 4. Conscious Access as Bound State Emergence
- Conscious access = emergence of a bound state in the complex potential well
- Requires dual threshold crossing (landscape depth + attention)
- Provides quantitative criterion for conscious vs. unconscious processing
## Practical Applications
### When to Apply
- Modeling conscious access dynamics in neural systems
- Analyzing subliminal vs. supraliminal processing
- Building dynamical models of awareness and attention
- Studying the neural correlates of consciousness (NCC)
### Key Parameters
1. **GNW landscape depth**: Determines recognition strength
2. **Top-down attention degree**: Controls information broadcasting
3. **Bound state threshold**: Dual-criteria for conscious access
### Workflow
1. Define the perceptual state space and cloud function representation
2. Construct the non-Hermitian Hamiltonian (Hermitian + anti-Hermitian parts)
3. Add Lotka-Volterra nonlinear term for norm preservation
4. Simulate imaginary-time Schrödinger dynamics
5. Identify bound state emergence as conscious access event
## Key Insights
- Consciousness emerges as a dynamical phase transition (bound state formation)
- Hermitian/anti-Hermitian decomposition maps to recognition/broadcasting duality
- Complex-valued landscape unifies sensory encoding and conscious access
- Lotka-Volterra term enables spatially nonlocal interactions while preserving norm
- Dual-threshold mechanism explains why attention modulates conscious access
## Related Skills
- `consciousness-usk-framework` — Information-theoretic consciousness theory
- `iit-critical-review` — Integrated Information Theory analysis
- `canonical-functionalism-consciousness` — Mathematical refinement of computationalism
- `non-hermitian-gnw-consciousness` — Related non-Hermitian GNW work
## References
- arXiv:2607.08302v1 — Full paper with mathematical derivations
- Global Neuronal Workspace (Dehaene et al.) — Original GNW theory
Is this your skill, or is something wrong with this listing? Request removal or report an issue. Author removals are honored within 72 hours.
No comments yet. Be the first to comment!