← Back to Roadmap Index

Partial Observability Amplification of Misalignment

Project: corpora-roadmap-1778795217020-0c7ed6fd | Development Roadmap
Chapter 5 Development Roadmap

Partial Observability Amplification of Misalignment

The BAAC framework transforms partial observability into an explicit misalignment signal by combining hierarchical belief abstraction, dynamic belief‑driven communication, joint belief‑world modeling, and misalignment‑aware reward decomposition. The roadmap delivers a production‑ready MARL system that detects, communicates, and corrects misalignment in real time, enabling robust, scalable coordination in adversarial environments.
Complexity: Very High
Duration: 24 months
TRL 3 → 6

Phase 1: Research & Feasibility

3 months

Validate core concepts, establish baselines, and define technical requirements.

Steps
  • Literature & Benchmark Survey(4 wks)
    Map state‑of‑the‑art credit‑assignment, belief‑based communication, and adversarial detection techniques.
  • Formal Problem Definition(3 wks)
    Specify the Dec‑POMDP formulation, belief hierarchy, and misalignment metrics.
  • Proof‑of‑Concept Simulations(4 wks)
    Implement lightweight agents in OpenAI Gym/SMAC to test belief‑divergence signals and reward decomposition.
  • Feasibility Report & Technical Spec(2 wks)
    Document assumptions, risk assessment, and system architecture.
Milestones
Feasibility Report (GATE)
Clear technical spec, risk matrix, and validated proof‑of‑concept results.
Team Requirement
4 full-time
2 part-time
  • ML Researcher: formalize belief models
  • RL Engineer: prototype credit‑assignment
  • Systems Engineer: benchmark environment setup
  • Project Manager: documentation & risk tracking
  • Safety Advisor (part‑time): alignment review
  • Domain Expert (part‑time): scenario validation
Risks
  • Inadequate benchmark coverage leading to blind spots
  • Mis‑estimation of belief‑divergence impact on credit assignment

Phase 2: Prototype Development

6 months

Build a modular BAAC prototype with core modules: belief hierarchy, dynamic communication, joint world model, and reward decomposition.

Steps
  • Belief‑Aware Variational Encoder(6 wks)
    Implement multi‑scale belief encoder with KL‑regularized bottleneck.
  • Dynamic Belief‑Driven Communication(6 wks)
    Design attention‑based token generator and decoder for belief divergence messages.
  • Joint Belief‑World Model(8 wks)
    Train autoregressive transformer to predict next observation and belief vector.
  • Misalignment‑Aware Reward Engine(4 wks)
    Integrate belief‑divergence penalty into PPO/COMA training loop.
  • Adversarial Alignment Discriminator(4 wks)
    Train a lightweight LSTM‑CNN discriminator to flag abnormal belief trajectories.
Milestones
Core BAAC Prototype (GATE)
All modules integrated, end‑to‑end training runs on SMAC with >10% performance gain over baseline.
Team Requirement
6 full-time
2 part-time
  • ML Engineer: implement belief encoder and world model
  • RL Engineer: reward decomposition and training
  • Systems Engineer: communication protocol design
  • Data Engineer: dataset curation and preprocessing
  • Safety & Alignment Specialist: adversarial detection
  • Project Manager: sprint coordination
  • Safety Advisor (part‑time): review discriminator outputs
  • Domain Expert (part‑time): scenario tuning
Risks
  • Bottleneck capacity too low causing loss of task‑relevant info
  • Communication latency exceeding real‑time constraints
  • Adversarial discriminator over‑fitting to synthetic data
Dependencies
  • Phase 1 Feasibility Report

Phase 3: Integration & Scalability

6 months

Scale the prototype to heterogeneous agent teams, optimize communication bandwidth, and integrate with a distributed training framework.

Steps
  • Hierarchical Policy Graph Construction(6 wks)
    Extend belief hierarchy to support macro‑actions and option discovery.
  • Bandwidth‑Aware Message Scheduler(4 wks)
    Implement event‑triggered communication and adaptive compression.
  • Distributed Training Pipeline(6 wks)
    Deploy on Ray/RLlib or Unity ML‑Agents for multi‑node scaling.
  • Cross‑Domain Generalization Tests(4 wks)
    Validate performance on unseen SMAC maps and real‑world simulation environments.
  • Safety & Compliance Review(2 wks)
    Conduct formal verification of misalignment detection logic and communication safety.
Milestones
Scalable Multi‑Agent System (GATE)
10‑agent team achieves >15% coordination improvement with <20% bandwidth overhead.
Team Requirement
7 full-time
2 part-time
  • ML Engineer: macro‑action integration
  • RL Engineer: distributed training
  • Systems Engineer: scheduler and networking
  • Data Engineer: cross‑domain dataset management
  • DevOps Engineer: CI/CD for distributed rollout
  • Safety & Alignment Specialist: formal verification
  • Project Manager: integration roadmap
  • Safety Advisor (part‑time): audit communication protocols
  • Domain Expert (part‑time): scenario validation
Risks
  • Scalability bottlenecks in belief aggregation
  • Network congestion under high agent counts
  • Distribution shift causing misalignment detector drift
Dependencies
  • Phase 2 Core BAAC Prototype

Phase 4: Pilot & Real‑World Validation

6 months

Deploy the system in a controlled real‑world environment (e.g., UAV swarm or warehouse robots) and evaluate safety, robustness, and human‑in‑the‑loop oversight.

Steps
  • Hardware‑Software Integration(6 wks)
    Map belief encoder to onboard sensors (LiDAR, camera, IMU) and integrate communication stack.
  • Pilot Scenario Design(4 wks)
    Define mission profiles, safety constraints, and evaluation metrics.
  • Field Trials(8 wks)
    Run 20+ mission cycles, collect telemetry, and monitor misalignment events.
  • Human‑in‑the‑Loop Evaluation(4 wks)
    Provide interpretable belief divergence dashboards to operators and capture feedback.
  • Compliance & Certification(2 wks)
    Prepare safety case and obtain relevant regulatory approvals.
Milestones
Real‑World Pilot Success (GATE)
Mission success rate >90%, misalignment incidents <5% of total actions, operator satisfaction >80%.
Team Requirement
8 full-time
3 part-time
  • Systems Engineer: hardware integration
  • RL Engineer: real‑time tuning
  • Data Engineer: telemetry ingestion
  • DevOps Engineer: deployment automation
  • Safety & Alignment Specialist: incident analysis
  • Project Manager: pilot coordination
  • Human Factors Engineer: dashboard design
  • Safety Advisor (part‑time): regulatory compliance
  • Domain Expert (part‑time): mission design
Risks
  • Unforeseen sensor noise degrading belief estimates
  • Communication latency spikes in real‑world networks
  • Operator overload due to complex dashboards
Dependencies
  • Phase 3 Scalable Multi‑Agent System

Phase 5: Production Rollout & Deployment

3 months

Finalize production‑grade codebase, automate scaling, and establish monitoring & maintenance pipelines.

Steps
  • Codebase Refactoring & Documentation(4 wks)
    Ensure modularity, unit tests, and API stability for production use.
  • Auto‑Scaling & Load Balancing(4 wks)
    Configure Kubernetes/Cloud Run for dynamic agent deployment.
  • Continuous Monitoring & Alerting(2 wks)
    Implement dashboards for belief divergence, communication health, and safety events.
  • Customer Onboarding & Training(2 wks)
    Create user guides, training modules, and support channels.
Milestones
Production‑Ready BAAC System
Zero critical bugs in release candidate, automated CI/CD pipeline, and 24/7 monitoring in place.
Team Requirement
5 full-time
1 part-time
  • ML Engineer: final model tuning
  • Systems Engineer: infrastructure setup
  • DevOps Engineer: CI/CD and monitoring
  • Project Manager: release coordination
  • Support Engineer: customer onboarding
  • Safety Advisor (part‑time): post‑deployment audit
Risks
  • Deployment drift causing misalignment spikes
  • Scaling limits under peak load
  • Insufficient support documentation leading to user errors
Dependencies
  • Phase 4 Real‑World Pilot Success
Peak Team Requirement (Across All Phases)
8 full-time
3 part-time
  • ML Engineer: 4
  • RL Engineer: 3
  • Systems Engineer: 3
  • Data Engineer: 2
  • DevOps Engineer: 2
  • Safety & Alignment Specialist: 2
  • Project Manager: 2
  • Human Factors Engineer: 1
  • Support Engineer: 1
  • Safety Advisor (part‑time): 1
  • Domain Expert (part‑time): 2
Critical Path
  1. Phase 1 Feasibility Report (Gate)
  2. Phase 2 Core BAAC Prototype (Gate)
  3. Phase 4 Real‑World Pilot Success (Gate)