A computational framework implementing circulation-based transaction networks, harmonic pattern analysis, and multi-modal financial representation. The system integrates graph-theoretic optimization, spectral analysis, and S-entropy navigation to provide efficient economic coordination mechanisms.
This framework implements several interconnected systems:
-
Circulation Transaction Networks (CTN): Batch settlement systems that reduce transaction verification complexity through deferred processing and graph reduction algorithms.
-
Shadow Transaction Networks (STN): Harmonic coincidence detection for identifying latent correlations in transaction patterns through spectral decomposition and frequency analysis.
-
Graph Completion Finance (GCF): Topology-based lending mechanisms that leverage network flow patterns to optimize capital allocation.
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Multi-Modal Representation: Transformation system enabling circuit, sequence, and gas molecular representations of financial networks with proven information preservation properties.
-
Temporal Arbitrage Framework: Intraday capital optimization leveraging circulation certainty and shadow network intelligence.
The framework is grounded in formal mathematical economics and network theory, with publications documenting:
- Complexity reduction from
$O(N)$ to$O(n \log n)$ for settlement operations - Harmonic coincidence detection with computational complexity
$O(NH)$ - Information preservation across representational transformations (>95%)
- Graph completion lending with provable repayment bounds
Detailed theoretical foundations are available in docs/publication/.
- Python 3.9 or higher
- pip package manager
# Clone the repository
git clone https://github.com/yourusername/fourth-stomach.git
cd fourth-stomach
# Install the package
pip install -e .For development with testing and linting tools:
pip install -e ".[dev]"# Install core dependencies
make install
# Install with development tools
make install-devfrom ctn import CirculationTransactionNetwork, Transaction
# Initialize network
ctn = CirculationTransactionNetwork()
# Add entities
ctn.add_node("Alice")
ctn.add_node("Bob")
ctn.add_node("Charlie")
# Process transactions
ctn.process_transaction(Transaction("Alice", "Bob", 1500.0, timestamp=1.0))
ctn.process_transaction(Transaction("Bob", "Charlie", 800.0, timestamp=2.0))
ctn.process_transaction(Transaction("Charlie", "Alice", 2000.0, timestamp=3.0))
# End-of-day settlement
settlement = ctn.settle_end_of_day()
print(f"Settlements required: {len(settlement)}")from ctn import ShadowTransactionNetwork
# Initialize shadow network
shadow = ShadowTransactionNetwork()
# Extract transaction patterns (requires historical data)
patterns = shadow.extract_patterns(transactions, window_size=30)
# Detect harmonic coincidences
coincidences = shadow.detect_harmonics(patterns, epsilon_tol=0.05)
# Build correlation network
correlation_graph = shadow.build_shadow_graph(coincidences)from representation import FinancialCircuit, RepresentationTransformer
# Create circuit representation
circuit = FinancialCircuit()
circuit.add_node("Alice", net_worth=10000, credit_capacity=5000)
circuit.add_resistor("Alice", "Bob", resistance=0.05)
# Transform to other representations
transformer = RepresentationTransformer()
results = transformer.full_cycle_transform(transactions)
print(f"Information preservation: {results['information_preservation']:.1%}")The framework includes several demonstration scripts:
# Circulation network demonstration
python src/ctn/demo_circulation.py
# Shadow network analysis
python src/ctn/demo_shadow_network.py
# Graph completion finance
python src/ctn/demo_graph_completion_finance.py
# Multi-modal representations
python src/representation/demo_representations.pyOr using Make:
make demo-ctn # Circulation network
make demo-shadow # Shadow network
make demo-gcf # Graph completion
make demo-rep # Representationsfourth-stomach/
├── src/
│ ├── ctn/ # Circulation transaction networks
│ │ ├── transaction_graph.py
│ │ ├── shadow_network.py
│ │ ├── graph_completion_finance.py
│ │ └── visualization.py
│ ├── representation/ # Multi-modal representations
│ │ ├── circuit.py
│ │ ├── sequence.py
│ │ ├── gas_molecules.py
│ │ ├── semantic.py
│ │ ├── shadow.py
│ │ └── moon_landing.py
│ ├── harmonic/ # Harmonic analysis (planned)
│ ├── jangara/ # Remittance optimization (planned)
│ ├── laboratory/ # Financial simulation (planned)
│ └── reality/ # Reality-state currency (planned)
├── tests/ # Test suite
├── docs/
│ ├── publication/ # Academic papers (LaTeX)
│ ├── philosophy/ # Theoretical foundations
│ ├── economics/ # Economic theory
│ └── algorithms/ # Algorithm specifications
├── pyproject.toml # Package configuration
├── requirements.txt # Dependencies
└── Makefile # Development commands
Run the test suite:
# Run all tests
pytest tests/ -v
# Run with coverage
pytest tests/ --cov=src --cov-report=html
# Or using Make
make test
make test-cov- Installation & Setup: This README
- Theoretical Foundation:
docs/publication/(LaTeX sources) - API Documentation: Inline docstrings (PEP 257 compliant)
- Implementation Details:
docs/PROJECT_OVERVIEW.md
The framework is based on peer-review-ready research:
-
Harmonic Coincidence Networks (
docs/publication/harmonic-network-graph.tex)- Spectral decomposition of transaction time series
- Correlation network construction via harmonic coincidence
- Computational complexity:
$O(NH)$
-
Graph Completion Lending (
docs/publication/credit-graph-network.tex)- Topology-based credit allocation
- Flow gap identification and completion
- Provable repayment bounds
-
Circulation Transaction Networks (
docs/publication/circulation-transactions-network.tex)- Batch verification and deferred settlement
- Complexity reduction to
$O(n \log n)$ - Kirchhoff's law interpretation
-
Temporal Arbitrage (
docs/publication/temporal-arbitrage-in-circulation-networks.tex)- Intraday liquidity optimization
- Settlement certainty quantification
- Risk-adjusted return analysis
-
Multi-Modal Representation (
docs/publication/financial-representation.tex)- Circuit, sequence, and gas molecular models
- Information-preserving transformations
- Semantic distance amplification
-
Fourth Stomach Framework (
docs/publication/fourth-stomach.tex)- Unified circulatory processing system
- Flux-based equilibrium convergence
- Four-chamber architecture
-
Validation Framework (
docs/publication/validation-framework.tex)- Experimental protocols for all publications
- Statistical validation methods
- Progressive deployment roadmap
Current implementation performance (on standard hardware):
- Transaction processing: 10,000+ transactions/second
-
Settlement complexity:
$O(n \log n)$ where$n \ll N$ -
Pattern extraction:
$O(NH)$ via FFT -
Memory footprint:
$O(n + m)$ for$n$ nodes,$m$ edges
Scalability targets:
| Phase | Nodes | Daily Transactions | Throughput |
|---|---|---|---|
| 1 | 1,000 | 10,000 | 100 TPS |
| 2 | 100,000 | 10,000,000 | 10,000 TPS |
| 3 | 10,000,000+ | 1,000,000,000+ | 1,000,000 TPS |
# Format code
make format
# Run linters
make lint
# Type checking with mypy
mypy src/Contributions should:
- Include tests for new functionality
- Maintain >90% code coverage
- Follow PEP 8 style guidelines (enforced by Black)
- Include type hints (PEP 484)
- Update documentation as needed
Comprehensive experimental validation protocols are documented in docs/publication/validation-framework.tex, including:
- Synthetic data generation
- Historical backtesting
- Statistical validation (p < 0.001, Cohen's d > 2.0)
- Progressive deployment roadmap
MIT License - See LICENSE file for details.
If you use this framework in academic work, please cite:
@software{fourth_stomach,
title = {Fourth Stomach: Unified Economic Coordination Framework},
author = {Sachikonye, Kundai Farai},
year = {2024},
url = {https://github.com/yourusername/fourth-stomach}
}Individual papers in docs/publication/ have their own citation formats documented within.
For questions, issues, or collaboration inquiries:
- GitHub Issues: github.com/yourusername/fourth-stomach/issues
- Email: your.email@example.com
This work builds on theoretical foundations documented in docs/philosophy/, docs/economics/, and docs/time/, integrating concepts from:
- Network theory and graph algorithms
- Spectral analysis and harmonic decomposition
- Thermodynamic optimization principles
- S-entropy navigation frameworks
See individual publications in docs/publication/ for detailed bibliographies and mathematical derivations.
