#!/usr/bin/env bash
# ============================================================================
# BLACKROAD OS, INC. - PROPRIETARY AND CONFIDENTIAL
# Copyright (c) 2025-2026 BlackRoad OS, Inc. All Rights Reserved.
# 
# This code is the intellectual property of BlackRoad OS, Inc.
# AI-assisted development does not transfer ownership to AI providers.
# Unauthorized use, copying, or distribution is prohibited.
# NOT licensed for AI training or data extraction.
# ============================================================================
# Find potential collaborators based on framework components

cat << 'COLLABORATORS'
# Potential Collaborators for BlackRoad Framework

## By Research Area

### Quantum Information Scientists
**What they'd contribute:** Test β_BR predictions in quantum systems
**Look for groups working on:**
- Quantum decoherence at finite temperature
- Quantum-classical boundaries
- Quantum machine learning

**Institutions:**
- MIT Center for Theoretical Physics
- Perimeter Institute
- Institute for Quantum Computing (Waterloo)
- IBM Quantum

### Neuroscientists
**What they'd contribute:** Test β_BR ≈ 1 hypothesis in biological brains
**Look for groups working on:**
- Neural oscillations (gamma, theta)
- EEG/MEG phase coherence
- Brain criticality hypothesis
- Synaptic plasticity

**Key researchers to contact:**
- Studies on "brain criticality"
- Neural synchronization labs
- Consciousness research centers

### Machine Learning Researchers
**What they'd contribute:** Implement spiral architectures
**Look for groups working on:**
- Neural architecture search
- Quantum neural networks
- Geometric deep learning
- Physics-inspired ML

**Institutions:**
- DeepMind
- OpenAI research
- FAIR (Meta)
- Google Brain

### Theoretical Physics
**What they'd contribute:** Formalize mathematical framework
**Look for groups working on:**
- Information geometry
- Non-equilibrium thermodynamics
- Complex systems
- Statistical mechanics of learning

### Complexity Science
**What they'd contribute:** Test predictions in complex systems
**Look for groups at:**
- Santa Fe Institute
- Complexity Science Hub Vienna
- New England Complex Systems Institute

## By Specific Prediction

### Prediction 1: β_BR ≈ 1 in brains
**Contact:**
- Neuroscience labs with EEG equipment
- Computational neuroscience groups
- Brain imaging centers

**Experiment:** Measure neural oscillations during learning tasks

### Prediction 2: Quantum advantage at β_BR ≈ 1
**Contact:**
- Quantum ML groups
- Quantum computing companies (Rigetti, IonQ)
- Quantum information theory labs

**Experiment:** Build quantum neural networks, vary temperature

### Prediction 3: Temperature-dependent performance
**Contact:**
- Neuromorphic hardware labs
- Biological neural network groups
- Temperature-controlled neural culture labs

**Experiment:** Cool/heat neurons, measure learning performance

## Funding Opportunities

### NSF Programs
- Quantum Leap Challenge Institutes
- Physics of Living Systems
- Mind, Machine and Motor Nexus
- Convergence Accelerator

### DOE Programs
- Quantum Information Science
- Advanced Scientific Computing Research
- Basic Energy Sciences (non-equilibrium)

### Private Foundations
- Templeton Foundation (consciousness, physics)
- Simons Foundation (math, theoretical physics)
- Allen Institute (neuroscience)

## Collaboration Proposals

### Quick Win (6 months)
Collaborate with neuroscience lab to:
- Record EEG during learning tasks
- Calculate β_BR from oscillation frequencies
- Test correlation with performance
- Publish: "Experimental evidence for quantum-classical boundary in learning"

### Medium Term (1-2 years)
Collaborate with quantum computing group to:
- Implement spiral operator on quantum hardware
- Vary temperature systematically
- Measure when quantum advantage appears
- Publish: "Quantum neural networks and the BlackRoad constant"

### Long Term (3-5 years)
Multi-institution collaboration:
- Neuroscience: biological measurements
- Quantum: quantum ML experiments
- Theory: formalize mathematical structure
- Publish: "Universal framework unifying quantum and neural learning"

## Contact Strategy

### Cold Email Template
```
Subject: Collaboration opportunity: Quantum-classical boundary in AI

Dear Dr. [Name],

I'm reaching out regarding a novel theoretical framework that makes
testable predictions in [your field]. The framework proposes a 
dimensionless constant β_BR = (ℏω/k_BT)·(|∇L|/L) that characterizes
the quantum-classical boundary in learning systems.

Key prediction relevant to your work:
[Specific prediction for their research]

The mathematics is fully verified (SymPy symbolic proofs available).
Would you be interested in discussing potential collaboration?

White paper: [link]
Verification code: [github]

Best regards,
Alexa Amundson
```

### Conference Targeting
- APS March Meeting (physics)
- NeurIPS (machine learning)
- Society for Neuroscience (neuroscience)
- QIP (quantum information processing)

## Immediate Next Steps

1. [ ] Identify 5 neuroscience labs with EEG capabilities
2. [ ] Contact 3 quantum ML research groups
3. [ ] Submit abstracts to relevant conferences
4. [ ] Post preprint on arXiv
5. [ ] Share code/verification on GitHub

COLLABORATORS

echo ""
echo "Potential collaborator list created"
echo "Focus on groups that can TEST the predictions"
