MATL: 12-Month Execution Plan¶
From Research Prototype → Production Middleware
🎯 Goal¶
Transform MATL from academic concept into: 1. Published research (IEEE S&P / USENIX Security) 2. Open-source middleware (licensable SDK) 3. Reference deployment (1000+ node testnet)
Q4 2025 (Nov-Dec): Research Validation¶
Milestone 1: Finalize Experimental Pipeline¶
Goal: Reproducible results showing >35% BFT tolerance
Week 1-2: Clean Up 0TML Codebase¶
0TML/
├── experiments/
│ ├── mode0_peer_comparison.py
│ ├── mode1_pogq_oracle.py
│ ├── mode2_pogq_tee.py
│ └── mode3_vsv_prototype.py (research track)
├── attacks/
│ ├── sign_flip.py
│ ├── gaussian_noise.py
│ ├── model_poisoning.py
│ └── sleeper_agent.py
├── metrics/
│ ├── detection_rate.py
│ ├── false_positive_rate.py
│ └── convergence_analysis.py
├── datasets/
│ ├── mnist.py
│ ├── cifar10.py
│ └── synthetic.py
└── tests/
├── test_mode0.py
├── test_mode1.py
└── test_integration.py
Deliverables: - [ ] 95%+ test coverage - [ ] Reproducible results (seed-controlled) - [ ] Docker container for experiments - [ ] README with one-command setup
Week 3-4: Run Comprehensive Attack Matrix¶
| Attack Type | Byzantine % | Expected Detection | Measured | Status |
|---|---|---|---|---|
| Sign Flip | 20% | >95% | TBD | ⏳ |
| Sign Flip | 33% | >90% | TBD | ⏳ |
| Sign Flip | 40% | >85% | TBD | ⏳ |
| Gaussian Noise | 20% | >90% | TBD | ⏳ |
| Model Poisoning | 20% | >80% | TBD | ⏳ |
| Sleeper Agent | 20% | >70% | TBD | ⏳ |
| Collusion | 20% | >85% | TBD | ⏳ |
Success Criteria: - Mode 0: Works ≤33% Byzantine - Mode 1: Works ≤45% Byzantine - Mode 1 outperforms FedAvg, Krum, FLTrust by 10%+
Week 5-6: Performance Benchmarking¶
# Measure overhead vs. centralized FL
Metric Centralized Mode 0 Mode 1 Mode 2
Round Time 1.0× 1.1× 1.5× 2.0×
Convergence Epochs 100 105 110 120
Detection Latency N/A <1s <5s <10s
Memory Overhead 0% 5% 15% 25%
Deliverables: - [ ] Performance report - [ ] Scalability analysis (10 → 100 → 1000 nodes) - [ ] Cost analysis per node
Week 7-8: Paper Draft v1.0¶
Title: "Byzantine-Robust Federated Learning Beyond 33%: A Decentralized Approach"
Sections: 1. Introduction (problem statement) 2. Related Work (FedAvg, Krum, FLTrust comparison) 3. MATL Architecture (3 modes) 4. Experimental Setup 5. Results (attack matrix + performance) 6. Discussion (limitations, future work) 7. Conclusion
Target: Submit to IEEE S&P or USENIX Security
Q1 2026 (Jan-Mar): Open Source Release¶
Milestone 2: MATL SDK v0.1¶
Goal: Developers can integrate MATL in 1 hour
Week 9-12: Core SDK Implementation¶
# matl/__init__.py
from .client import MATLClient
from .validator import MATLValidator
from .protocols import Mode0, Mode1, Mode2
# Example usage
client = MATLClient(mode=Mode1, oracle_endpoint="https://oracle.example.com")
client.submit_gradient(gradient, metadata)
validation_result = client.verify_gradient(gradient_hash)
Features: - [ ] Clean Python API - [ ] Async support (asyncio) - [ ] Pluggable backends (HTTP, gRPC, WebSocket) - [ ] Type hints + docstrings - [ ] Example notebooks
Week 13-14: Holochain Integration¶
// matl-holochain/zomes/matl/src/lib.rs
#[hdk_extern]
pub fn submit_gradient_mode1(
gradient_hash: Hash,
pogq_score: f64,
oracle_signature: Signature
) -> ExternResult<ActionHash> {
// Validate oracle signature
let oracle_pubkey = get_oracle_pubkey()?;
verify_signature(&gradient_hash, &oracle_signature, &oracle_pubkey)?;
// Store gradient with PoGQ score
let entry = GradientEntry {
gradient_hash,
pogq_score,
timestamp: sys_time()?,
submitter: agent_info()?.agent_pubkey,
};
create_entry(EntryTypes::Gradient(entry))
}
#[hdk_extern]
pub fn get_gradient_trust_score(gradient_hash: Hash) -> ExternResult<f64> {
// Retrieve and aggregate trust scores from DHT
let entry = get(gradient_hash, GetOptions::default())?;
Ok(entry.pogq_score)
}
Integration Pattern:
FL Client (PyTorch/TF)
↓ gradient
MATL SDK (Python)
↓ HTTP/gRPC
Holochain Node (Rust)
↓ DHT gossip
Network Validation
Week 15-16: Documentation & Examples¶
# MATL Documentation
## Quick Start
pip install matl
## Examples
- [MNIST with Mode 1](examples/mnist_mode1.py)
- [CIFAR-10 with Holochain](examples/cifar10_holochain.py)
- [Custom Attack Detection](examples/custom_attack.py)
## API Reference
- [Client API](docs/api/client.md)
- [Validator API](docs/api/validator.md)
- [Protocol Modes](docs/protocols.md)
## Architecture
- [System Design](docs/architecture.md)
- [Holochain Integration](docs/holochain.md)
- [Performance Tuning](docs/performance.md)
Deliverables: - [ ] Documentation website (MkDocs) - [ ] 5+ tutorial notebooks - [ ] Video walkthrough (10 min) - [ ] Blog post announcement
Q2 2026 (Apr-Jun): Whitepaper & Partnerships¶
Milestone 3: MATL Whitepaper v1.0¶
Goal: Technical foundation for licensing & partnerships
Week 17-20: Whitepaper Drafting¶
Title: "MATL: Adaptive Trust Middleware for Decentralized Machine Learning"
Sections: 1. Abstract (1 page) - Problem: FL needs >33% BFT + decentralized validation - Solution: MATL's 3-mode architecture - Results: 45% tolerance demonstrated
- Introduction (3 pages)
- FL threat model
- Limitations of existing work
-
MATL's contributions
-
Architecture (8 pages)
- Mode 0: Peer comparison
- Mode 1: PoGQ oracle
- Mode 2: PoGQ + TEE
- Mode 3: VSV (research preview)
-
Holochain + libp2p hybrid
-
Composite Trust Scoring (5 pages)
- PoGQ: Validation accuracy
- TCDM: Temporal/community diversity
- Entropy: Behavioral randomness
-
Formula:
Score = (PoGQ × 0.4) + (TCDM × 0.3) + (Entropy × 0.3) -
RB-BFT Integration (4 pages)
- Reputation-weighted voting
- Mathematical proof of 45% tolerance
-
Cartel detection algorithms
-
Implementation (5 pages)
- Python SDK
- Holochain zomes
- Performance benchmarks
-
Deployment patterns
-
Security Analysis (6 pages)
- Attack scenarios
- Detection rates
- Failure modes
-
Mitigation strategies
-
Use Cases (4 pages)
- Healthcare (privacy-preserving diagnostics)
- Finance (fraud detection)
- Defense (edge intelligence)
-
Research (academic collaborations)
-
Economic Model (3 pages)
- Licensing tiers (Research / Non-Profit / Commercial)
- Revenue projections
-
Open-source vs. proprietary components
-
Roadmap (2 pages)
- Phase 1: SDK + testnet (2026)
- Phase 2: Production deployments (2027)
- Phase 3: Mycelix integration (2028+)
-
Conclusion (1 page)
Total: ~40 pages
Week 21-22: Design Assets¶
- System architecture diagrams (Figma)
- Trust flow visualizations
- Performance charts
- Comparison tables (MATL vs. competitors)
Week 23-24: Community Launch¶
Targets: - Hacker News / Reddit (r/MachineLearning) - Academic Twitter - ArXiv preprint - GitHub trending
Metrics: - 1000+ GitHub stars (month 1) - 10+ companies testing SDK - 3+ academic citations - 5+ blog post mentions
Q3 2026 (Jul-Sep): Testnet Deployment¶
Milestone 4: 1000-Node Reference Network¶
Goal: Prove MATL scales in production
Week 25-28: Testnet Infrastructure¶
# k8s/matl-testnet.yaml
apiVersion: apps/v1
kind: StatefulSet
metadata:
name: matl-node
spec:
replicas: 1000
template:
spec:
containers:
- name: holochain
image: matl/holochain-node:v1.0
resources:
requests:
cpu: 500m
memory: 1Gi
- name: fl-client
image: matl/fl-client:v1.0
env:
- name: MODE
value: "mode1"
- name: ORACLE_ENDPOINT
value: "https://oracle.matl-testnet.org"
Deployment: - 1000 nodes (AWS / GCP / Azure mix) - Geographic distribution (5 continents) - Heterogeneous hardware (CPU / GPU mix)
Week 29-32: Training Campaigns¶
| Campaign | Dataset | Nodes | Byzantine % | Duration | Success Metric |
|---|---|---|---|---|---|
| Campaign 1 | MNIST | 100 | 0% | 1 week | Baseline convergence |
| Campaign 2 | MNIST | 100 | 20% | 1 week | >95% detection |
| Campaign 3 | MNIST | 100 | 40% | 1 week | >85% detection |
| Campaign 4 | CIFAR-10 | 500 | 20% | 2 weeks | >90% detection |
| Campaign 5 | CIFAR-10 | 1000 | 30% | 2 weeks | >85% detection |
Metrics Dashboard:
Real-time monitoring:
- Active nodes: 987 / 1000
- Current epoch: 45 / 100
- Detected Byzantine nodes: 23 (23%)
- Network accuracy: 94.3%
- Average round time: 12.4s
Week 33-36: Testnet Report¶
Deliverables: - [ ] Technical report (20 pages) - [ ] Performance data (CSV exports) - [ ] Lessons learned - [ ] Production readiness assessment
Q4 2026 (Oct-Dec): Commercialization¶
Milestone 5: First Licensing Deals¶
Goal: $100K ARR from MATL licensing
Week 37-40: Licensing Framework¶
# MATL Licensing Tiers
## Research License (Free)
- Academic use only
- Public datasets
- Publications require citation
- Community support
## Non-Profit License ($25K/year)
- NGOs, foundations, research institutions
- Private datasets allowed
- Email support
- No commercial deployment
## Commercial License ($100K+/year)
- Unlimited production use
- Custom SLAs
- Priority support
- Optional on-premise deployment
- Optional custom features
## Enterprise License (Custom)
- Dedicated engineering support
- Custom integrations
- Shared IP agreements
- Co-marketing opportunities
Week 41-44: Sales Pipeline¶
Target Industries: 1. Healthcare (Epic, Cerner, Philips) 2. Finance (JPMorgan, Goldman, Stripe) 3. Defense (Palantir, Booz Allen, MITRE) 4. Big Tech (Google FL, Meta, Microsoft)
Pitch Deck (15 slides): 1. Problem: FL is broken at scale 2. Market size: $2B+ by 2027 3. Solution: MATL middleware 4. Demo: Live testnet 5. Technology: Holochain + libp2p 6. Team & advisors 7. Traction: GitHub stars, testnet nodes, papers 8. Competition: FedAvg, Krum, FLTrust (comparison) 9. Business model: Licensing tiers 10. Use cases: Healthcare, finance, defense 11. Roadmap: SDK → Testnet → Production 12. Integration: 1 hour to deploy 13. Security: >45% BFT proven 14. Pricing: $100K/year enterprise 15. Ask: $500K seed round or first customer deal
Week 45-48: First Customer Onboarding¶
Ideal First Customer Profile: - Has existing FL deployment (pain point) - Willing to pilot new tech (innovation budget) - Can provide reference testimonial - $100K+ annual budget
Onboarding Plan: - Week 1: Architecture review - Week 2: SDK integration - Week 3-4: Pilot deployment (10-100 nodes) - Week 5-8: Production rollout - Week 9+: Ongoing support
Success Metrics by Quarter¶
| Quarter | Paper | SDK | Testnet | Revenue |
|---|---|---|---|---|
| Q4 2025 | ✅ Submitted | ⏳ In Dev | ❌ Not Started | $0 |
| Q1 2026 | ⏳ Under Review | ✅ v0.1 Released | ⏳ Planning | $0 |
| Q2 2026 | ✅ Accepted | ✅ v0.5 Stable | ⏳ Building | $0 |
| Q3 2026 | ✅ Published | ✅ v1.0 | ✅ 1000 nodes | $0 |
| Q4 2026 | ✅ Cited | ✅ v1.2 | ✅ Production | $100K ARR |
Risk Mitigation¶
Risk 1: Paper Rejection¶
Probability: 30-40% (competitive venues)
Mitigation: - Submit to 2-3 venues in parallel - Have fallback venues (workshops, arxiv) - Use rejection feedback to improve
Fallback Plan: - Tech report + blog series - Focus on SDK adoption instead - Academic credibility via testnet
Risk 2: SDK Adoption Slow¶
Probability: 40-50% (new paradigm)
Mitigation: - Focus on documentation quality - Offer free consulting (first 10 users) - Create video tutorials - Build integrations (PyTorch, TensorFlow)
Fallback Plan: - Deploy own FL service (SaaS model) - Partner with existing FL platforms - Focus on one vertical (healthcare)
Risk 3: Testnet Performance Issues¶
Probability: 20-30% (infrastructure complexity)
Mitigation: - Start small (100 nodes) and scale gradually - Use cloud providers (AWS, GCP) - Monitor aggressively (Prometheus + Grafana) - Have expert devops support
Fallback Plan: - Reduce node count (500 nodes) - Use simulated network - Defer to Q1 2027
Risk 4: No Licensing Revenue¶
Probability: 60-70% (typical for new tech)
Mitigation: - Pursue grants (NSF, DARPA, EU Horizon) - Offer consulting services - Build reference customers (free pilots) - Create content (blog, videos, talks)
Fallback Plan: - Focus on open-source growth - Build community traction - Revenue deferred to 2027
Resource Requirements¶
Team (Minimum)¶
- 1 Research Engineer (FL expert)
- 1 Backend Engineer (Holochain/Rust)
- 1 DevOps Engineer (K8s, cloud)
- 1 Technical Writer (docs, blog)
- 1 Business Development (partnerships)
Budget: ~$500K/year (5 people × $100K)
Infrastructure¶
- Testnet: $10K/month (1000 nodes)
- Oracle services: $5K/month
- CI/CD: $2K/month
- Documentation hosting: $1K/month
Budget: ~$20K/month = $240K/year
Marketing¶
- Conference travel: $20K
- Content creation: $10K
- Sponsorships: $10K
Budget: ~$40K/year
Total Year 1: ~$780K
Funding Strategy¶
Phase 1: Bootstrap (Q4 2025)¶
- Self-funded or small grants ($50K)
- Focus on paper + MVP SDK
Phase 2: Seed Round (Q1-Q2 2026)¶
- Target: \(500K-\)1M
- Investors: Technical angels, research-focused VCs
- Use: Team + testnet + sales
Phase 3: Series A (Q4 2026 - Q1 2027)¶
- Target: \(3M-\)5M
- After: Published paper + testnet + first customers
- Use: Scale team + production deployments
Connection to Mycelix¶
Year 1 (2026): MATL as standalone middleware - Prove the tech works - Build credibility - Generate revenue
Year 2 (2027): Mycelix integration begins - MATL becomes Layer 6 - Add governance layers - Expand to full vision
Year 3+ (2028+): Full Mycelix Protocol - Constitutional governance - Collective intelligence - Civilization OS
Strategy: Use MATL success to fund and validate Mycelix vision.