Document Status: Living Document
Last Updated: April 6, 2026
Purpose: Strategic roadmap for OHM development as the project transitions from solo development to collaborative team development.
This roadmap focuses on maturing OHM from a working prototype to a production-grade distributed system suitable for real-world deployment. The core features are functional and the architecture is solid, so the emphasis shifts to:
- Quality & Reliability: End-to-end testing with real-world workflows
- Output Excellence: Improving the quality and usability of generated results
- Human-Centered Design: Making OHM data legible and actionable for humans
- Architectural Separation: Extracting business logic into a dedicated service
- Federated Network: Enabling distributed, eventually-consistent design synchronization
- Phase 1: Complete (quality baseline and core e2e coverage established).
- Phase 2: Complete for demo-readiness scope (prompt tuning, confidence metadata, matching enhancements, hardening, integration/regression pass).
- Phase 3.1: In progress with major API/CLI slices implemented:
- Multi-level human summaries (
executive,technical,detailed) for match responses - API request/response controls for summary inclusion
- Suggestion and suggestion-code response fields for actionable guidance
- Multi-level human summaries (
- Phase 3.3: In progress (API formatting and CLI readability/disclosure improvements underway).
- Phase 3.2: Not started (visualization work deferred until 3.1/3.3 closeout).
- Phase 4+: Not started.
Goal: Ensure OHM reliably handles real-world workflows with confidence
Goal: Make OHM outputs accurate, complete, and trustworthy
Goal: Transform technical data into actionable insights for human users
Goal: Architect and implement Open Business Manager (OBM) as a separate service
Goal: Transform OHM into a distributed network of nodes with lazy synchronization, trust management, and security
Core features work but lack comprehensive real-world validation. This phase establishes confidence through systematic testing of complete workflows.
Objective: Create test suites based on actual use cases
-
Define canonical test workflows
- Design-to-manufacturer matching (complete pipeline)
- OKH manifest generation from repository URL
- Multi-facility distributed manufacturing scenarios
- Quality validation across different contexts (hobby, professional, medical)
-
Build test data sets
- Real hardware designs (OKH manifests)
- Diverse facility profiles (OKW manifests)
- Edge cases and boundary conditions
- Invalid/malformed input scenarios
-
Create end-to-end test framework
- Automated test harness for complete workflows
- Performance benchmarks and regression detection
- Success criteria and acceptance thresholds
- Test result visualization and reporting
- Test suite with 20+ real-world scenarios
- Automated CI/CD test pipeline
- Test coverage report and baseline metrics
- Define canonical test workflows for design-to-manufacturing
- Create diverse OKH/OKW test dataset
- Build end-to-end test framework with automation
- Establish performance benchmarks and regression tests
Objective: Enhance matching accuracy, reliability, and transparency
-
Matching accuracy assessment
- Baseline accuracy metrics for each matching layer (Direct, Heuristic, NLP, LLM)
- False positive/negative analysis
- Confidence score calibration
- Layer performance comparison
-
Matching algorithm refinement
- Optimize heuristic rules based on test results
- Improve NLP semantic similarity thresholds
- Fine-tune LLM prompts for better reasoning
- Enhance scoring and ranking algorithms
-
Matching transparency
- Detailed match explanations (why facilities matched/didn't match)
- Confidence score breakdowns by layer
- Alternative match suggestions
- Match quality indicators
- Matching accuracy report with improvement targets
- Refined matching algorithms with documented changes
- Transparency features in match results
- Establish matching accuracy baseline metrics
- Analyze and reduce false positives/negatives
- Refine heuristic rules based on test data
- Add match explanation and transparency features
Objective: Improve quality and reliability of OKH manifest generation from repository URLs
-
Generation accuracy assessment
- Test against diverse repository types (GitHub, GitLab, various project structures)
- Completeness analysis (required fields, optional fields, metadata)
- Correctness validation (extracted data matches reality)
- Edge case handling (mono-repos, minimal documentation, multi-language projects)
-
LLM prompt optimization
- Refine prompts for better extraction accuracy
- Add explicit validation instructions
- Improve handling of ambiguous or missing information
- Test across different LLM providers for consistency
-
Generation result validation
- Automated quality checks on generated manifests
- Confidence indicators for extracted fields
- Suggestion system for incomplete data
- User feedback loop for improvements
- OKH generation quality report
- Optimized LLM prompts with version control
- Automated validation and quality scoring
- Test OKH generation across diverse repository types
- Optimize LLM prompts for extraction accuracy
- Implement automated quality checks for generated manifests
- Add confidence indicators and suggestions for incomplete data
Status (April 2026): Completed for summit demo scope; post-demo maintenance only.
Phase 2 is scoped around the May 23, 2026 Open Hardware Summit talk (Building Supply Chain Mesh Networks). The talk demonstrates how OKH/OKW standards, automated matching, and supply tree generation enable resilient supply chain mesh networks — directly addressing the coordination failures exposed by the COVID-19 crisis.
The demo flow: take a real COVID-era open hardware repo → generate a complete OKH manifest → match against available facilities → display the supply tree. The audience is the OSHWA community: hardware-literate makers, open-source advocates, and disaster-response practitioners who will evaluate whether this is credible, real infrastructure.
Feature freeze: May 8, 2026. Only stability fixes after that date.
Detail: See notes/phase2-plan.md for timeline, target demo repositories, and per-item acceptance criteria.
Objective: Manifests generated live on stage must be complete and credible to a hardware-literate audience.
- Tune extraction prompts for hardware-specific fields:
bom,manufacturing-files,license,documentation-language,standards-used - Improve handling of sparse or minimally-documented repos (common in crisis hardware projects)
- Verify consistent output across providers (Anthropic, OpenAI, local Ollama)
- Batch evaluation against canary corpus; gate on no regression vs. Phase 1 baseline
- Tuned prompt templates with version history
- Evaluation report showing field-level completeness vs. baseline
Objective: A technical audience trusts a system more when it honestly signals uncertainty.
- Surface per-field confidence scores in manifest JSON output
- Add top-level
generation_confidencesummary andlow_confidence_fieldslist - CLI: display confidence alongside field values in
--verbosemode - API: include confidence metadata in the manifest response envelope
- Confidence visible in JSON output, CLI, and API response
- No regression in generation accuracy
Objective: The match output is one of the two core things being demonstrated — it must be readable, complete, and credible.
- Ensure all relevant facility details are included in match results (capabilities, location, certifications)
- Improve result ranking: sort by confidence + capability coverage
- Add a human-readable match summary per result (what matched, what was missing, overall fit)
- API: add
match_summaryandcoverage_gapsfields to match result schema - CLI: make
--explainoutput the default in verbose mode
- Enhanced match result schema with ranking and summaries
- Updated CLI verbose output
Objective: The full repo URL to manifest to match to supply tree flow must work without errors on stage.
- Run the full pipeline on 5 COVID-era hardware repos; document and fix any failures
- Ensure graceful error handling at each stage (no uncaught exceptions, clear fallback messaging)
- Verify pipeline works with both Anthropic and local Ollama model
- Time the end-to-end flow; target under 90 seconds for live generation
- Zero crashes on 5 target repos
- Graceful degradation when fields cannot be extracted
Objective: Maps directly to the disaster-response narrative. "In a crisis, you run Minimal mode — coverage and dependency checks only — because a partial supply tree in 10 seconds beats a perfect one in 10 minutes."
- Define centralized
SystemModeconfig with preset modes:minimal,standard,strict -
minimal: coverage + dependency checks only; relaxed thresholds; designed for low-data, off-grid, crisis contexts -
standard: adds quality and completeness checks (current default behavior) -
strict: all validations and thresholds enforced - CLI:
--mode minimal|standard|strictflag - Apply mode to supply tree validation, matching thresholds, and manifest quality checks
- Documentation with humanitarian use-case framing
- System Mode schema and config integration
- Preset modes with CLI flag
- Validation framework updated to honor System Mode
Objective: Prevent regressions in the weeks before the talk.
- Parametrized e2e tests for generation pipeline (ground-truth repos)
- Regression flag if required-field completeness drops below Phase 1 baseline
- CI gate on the chunked canary evaluation script
- CI runs clean on main branch
- Automated regression detection for generation quality
The following items from the original Phase 2 roadmap are deferred. They have lower demo impact relative to effort, or require more than 6 weeks to execute well.
| Item | Notes |
|---|---|
| 1.3.1 Phase B2 — ground truth expansion | Internal quality tooling; not visible in demo |
| 1.3.3 — Automated quality checks on manifests | Internal; low demo value |
| OKH manifest quality scoring and suggestions | Useful but not critical for demo narrative |
| Supply tree quality optimization | Complex; current supply tree sufficient for demo |
| Phase 3 — Visualization | High demo value but needs more than 6 weeks |
OHM generates highly technical data that is difficult for humans to parse and understand. This phase focuses on making data accessible, interpretable, and actionable.
Status (April 2026): Active. 3.1 and 3.3 are closed out; 3.2 visualization implementation is in progress.
Objective: Transform technical data into human-understandable summaries
Status (April 2026): Complete for current scope. Deterministic key insights, role-oriented summary profiles, and API/CLI summary disclosure are implemented and validated.
-
LLM-powered summarization (future enhancement)
- Natural language explanations of matching results
- Executive summaries of supply trees
- Plain language facility descriptions
- Requirement/capability comparison narratives
-
Key insight extraction
- Identify critical information automatically
- Highlight risks and opportunities
- Surface actionable recommendations
- Provide decision-support summaries
-
Multi-level abstraction
- Executive overview (non-technical)
- Technical summary (for practitioners)
- Detailed data (for deep analysis)
- Customizable detail levels per user role
- LLM summarization service
- Multi-level abstraction framework
- User role-based view system
- Implement LLM-powered data summarization
- Create key insight extraction algorithms
- Design multi-level abstraction system
- Build role-based view customization
Objective: Create visual representations of OHM data
Status (April 2026): In progress. API/CLI-first visualization artifacts and contracts are now being implemented.
-
[~] Matching visualization
- Facility map with match quality indicators
- Capability coverage heat maps
- Match confidence visualizations
- Timeline and capacity charts
-
[~] Supply tree visualization
- Interactive tree diagrams
- Process flow charts
- Dependency graphs
- Resource allocation views
-
[~] Network visualization
- Geographic facility distribution
- Capability network graphs
- Production capacity maps
- Route optimization displays
-
[~] Dashboard & reporting
- Project overview dashboards
- KPI tracking and metrics
- Trend analysis and forecasting
- Exportable reports (PDF, HTML)
- Visualization library and components
- Interactive dashboard framework
- Export and reporting system
- Create matching result visualization components
- Build interactive supply tree diagrams
- Implement network and geographic visualizations
- Design project dashboard and reporting system
Objective: Make OHM more accessible through improved interfaces
Status (April 2026): Complete for current scope. API and CLI formatting/disclosure improvements are complete; web UI remains optional/future.
-
API response formatting
- Human-readable response structure
- Consistent formatting across endpoints
- Helpful error messages and suggestions
- Progressive disclosure of detail
-
CLI output improvements
- Improved table formatting
- Color-coded indicators
- Progress bars and status updates
- Interactive prompts and wizards
-
Web UI exploration (Optional/Future)
- Consider web-based interface for non-technical users
- Visual query builder
- Interactive result exploration
- Collaborative project management
- Enhanced API response schemas
- Improved CLI formatting utilities
- Web UI prototype (if pursued)
- Enhance API response formatting for readability
- Improve CLI output with better formatting and color
- Add progress indicators and status updates
- Design web UI prototype and gather user feedback
Phase 3 is complete for current scope (3.1, 3.2, 3.3). Execution focus has shifted to Phase 4, starting with a lightweight demo frontend that remains API-first and presentation-oriented.
Active execution checklist:
notes/phase4-demo-frontend-execution-checklist.md
OHM currently contains or plans to contain business logic (RFQ generation, pricing, contracts) that should be separated into a dedicated service. This phase architects and implements Open Business Manager (OBM).
Objective: Define what OBM does and how it integrates with OHM
-
Scope definition
- Identify all business logic features (current and planned)
- Define OBM boundaries and responsibilities
- Clarify OHM/OBM separation of concerns
- Identify shared data and interfaces
-
Containerization and deployment compatibility
- Define containerization standards for OHM and OBM
- Support co-located deployment (same network)
- Support distributed deployment (separate networks)
- Support fully independent operation
- Align with industry best practices (12-factor, health checks, readiness probes)
-
Feature inventory
- Request for Quote (RFQ) generation
- Pricing and cost estimation
- Contract management
- Order tracking and fulfillment
- Invoice and payment processing
- Supplier relationship management
- Business analytics and reporting
-
Architecture design
- Service communication protocol (REST API, gRPC, message queue)
- Data models and schemas
- Authentication and authorization
- Deployment and scaling strategy
- Dependency management
- OBM scope document
- Feature specification
- Architecture decision records (ADRs)
- Define OBM scope and responsibilities
- Create feature inventory for business logic
- Design OBM/OHM integration architecture
- Document service communication patterns
Objective: Implement essential business logic features in OBM
-
RFQ generation
- Automatic RFQ creation from match results
- Customizable RFQ templates
- Multi-facility RFQ distribution
- RFQ tracking and status
-
Cost estimation
- Facility pricing integration
- Material cost calculation
- Lead time and scheduling
- Multi-scenario cost comparison
-
Contract & order management
- Contract generation and tracking
- Order placement and confirmation
- Status updates and notifications
- Fulfillment tracking
-
Financial operations
- Invoice generation
- Payment tracking
- Currency handling
- Tax and compliance
- OBM service implementation
- API endpoints for business operations
- Integration points with OHM
- Implement RFQ generation service
- Build cost estimation module
- Create contract and order management system
- Add financial operations features
Objective: Seamless integration between technical matching (OHM) and business operations (OBM)
-
Data exchange
- Define data contracts between services
- Implement data transformation layers
- Handle versioning and compatibility
- Error handling and retry logic
-
Workflow orchestration
- End-to-end workflows spanning both services
- Transaction coordination
- Event-driven updates
- State management
-
User experience
- Unified API gateway (optional)
- Consistent authentication
- Coordinated error handling
- Integrated documentation
- Integration layer
- Workflow orchestration system
- Combined API documentation
- Define data contracts between OHM and OBM
- Implement data transformation and exchange layer
- Create end-to-end workflow orchestration
- Build unified API gateway (optional)
Transform OHM from a centralized architecture to a federated network of nodes. This enables regional OHM deployments to lazily synchronize OKH designs across a distributed network, forming an eventually consistent global pool of open hardware designs while maintaining regional autonomy.
Objective: Design and implement the foundational distributed network architecture
-
Network topology design
- Define node types (full nodes, lightweight nodes, archive nodes)
- Design peer discovery mechanisms
- Define network roles and responsibilities
- Document federation architecture patterns
-
Gossip protocol implementation
- Implement efficient gossip propagation algorithm
- Design message prioritization and routing
- Add network partition tolerance
- Optimize bandwidth usage
-
Merkle tree synchronization
- Design OKH manifest content addressing
- Implement Merkle tree structure for design collections
- Create efficient diff and sync algorithms
- Add incremental update mechanisms
-
Node discovery and bootstrap
- Implement bootstrap node system
- Design peer discovery protocols (DHT, DNS, manual)
- Add dynamic peer management
- Create node health monitoring
- Federated network architecture document
- Gossip protocol implementation
- Merkle tree sync library
- Node discovery service
- Design federated network topology and node types
- Implement gossip protocol for design propagation
- Build Merkle tree synchronization system
- Create node discovery and bootstrap mechanism
Objective: Establish trust relationships and security measures for federated network
-
Identity and authentication
- Implement node identity system (public key infrastructure)
- Design node authentication protocols
- Create identity verification mechanisms
- Add key rotation and revocation
-
Trust relationship management
- Design trust scoring system for nodes
- Implement reputation tracking
- Create trust policy configuration
- Add trust relationship visualization
-
Content verification
- Implement cryptographic signing of OKH manifests
- Design content integrity verification
- Add provenance tracking (design lineage)
- Create signature validation system
-
Access control and permissions
- Design node-level access control
- Implement content filtering policies
- Add permission delegation mechanisms
- Create audit logging system
- Node identity and authentication system
- Trust management framework
- Content signing and verification system
- Access control policies
- Implement PKI-based node identity system
- Build trust scoring and reputation tracking
- Create cryptographic signing for OKH manifests
- Design and implement access control framework
Objective: Protect the federated network against malicious actors and malware distribution
-
Malware detection
- Design OKH manifest static analysis
- Implement suspicious pattern detection
- Add automated security scanning
- Create malware signature database
-
Sandboxing and isolation
- Implement safe manifest parsing
- Design isolated validation environments
- Add resource limits and quotas
- Create execution sandboxes for untrusted content
-
Rate limiting and abuse prevention
- Implement node-level rate limiting
- Design anti-spam mechanisms
- Add DDoS protection
- Create resource exhaustion prevention
-
Adversarial behavior detection
- Design anomaly detection algorithms
- Implement behavioral analysis
- Add automated threat response
- Create incident reporting system
-
Network security
- Implement encrypted node communication (TLS)
- Design secure key exchange
- Add network traffic monitoring
- Create intrusion detection system
- Malware detection service
- Sandboxing infrastructure
- Rate limiting and abuse prevention system
- Security monitoring dashboard
- Build OKH manifest static analysis and malware detection
- Implement sandboxing for untrusted content
- Create rate limiting and anti-abuse mechanisms
- Design anomaly detection and threat response system
Objective: Ensure efficient and reliable data synchronization across the federated network
-
Sync protocols
- Implement lazy synchronization algorithms
- Design conflict resolution strategies
- Add version vector management
- Create sync scheduling and prioritization
-
Eventual consistency guarantees
- Define consistency models
- Implement convergence verification
- Add consistency monitoring
- Create consistency repair mechanisms
-
Bandwidth optimization
- Implement delta synchronization
- Design compression for network transfers
- Add deduplication mechanisms
- Create adaptive sync strategies based on network conditions
-
Partial replication
- Design selective sync policies (regional, topical)
- Implement interest-based filtering
- Add storage quota management
- Create pruning and garbage collection
- Lazy sync protocol implementation
- Conflict resolution system
- Bandwidth optimization suite
- Partial replication framework
- Implement lazy synchronization algorithms
- Build conflict resolution and version management
- Create bandwidth optimization and compression
- Design partial replication and filtering system
Objective: Provide tools for managing and monitoring federated nodes
-
Node management
- Design node configuration system
- Implement node lifecycle management
- Add federation policy management
- Create node upgrade mechanisms
-
Monitoring and observability
- Implement network health monitoring
- Design sync status dashboards
- Add performance metrics collection
- Create alerting for network issues
-
Network analytics
- Track design propagation patterns
- Analyze network topology
- Monitor trust relationships
- Create network health reports
-
Administration tools
- Build CLI for federation management
- Design API for programmatic control
- Add troubleshooting utilities
- Create federation documentation
- Node management system
- Monitoring dashboard
- Network analytics platform
- Administration tooling
- Build node management and configuration system
- Create network monitoring and observability tools
- Implement network analytics and reporting
- Design CLI and API for federation administration
Objective: Enable smooth transition from centralized to federated architecture
-
Backward compatibility
- Maintain existing API compatibility
- Design hybrid mode (centralized + federated)
- Add graceful degradation
- Create migration documentation
-
Data migration tools
- Build tools to export from centralized storage
- Design import to federated nodes
- Add migration validation
- Create rollback mechanisms
-
Gradual rollout
- Design phased deployment strategy
- Implement feature flags for federation
- Add A/B testing capabilities
- Create rollback procedures
-
Testing and validation
- Build federation test environment
- Design chaos engineering tests
- Add network partition simulation
- Create performance benchmarks
- Backward compatibility layer
- Migration toolkit
- Deployment strategy documentation
- Federation test suite
- Ensure backward compatibility with centralized mode
- Build data migration tools and validation
- Design phased deployment and rollout strategy
- Create federation testing and simulation environment
Design versioning ensures end users can discover, validate, and pull specific vetted versions of a full design package (manifest + linked files). This builds on existing package and storage systems while adding version metadata, certification states, and version-aware retrieval.
Objective: Enable version-aware discovery, validation, and retrieval of complete design packages
-
Define design version model and metadata
- Version identifiers (semantic or content-addressed)
- Status states (draft, tested, certified, deprecated)
- Link version metadata to OKH manifests and file bundles
-
Extend package and storage systems for versioned designs
- Store versioned bundles (manifest + all referenced files)
- Enable retrieval by version, latest, and certified
- Add integrity checks (checksums for all files)
-
Version discovery and validation
- Search and filter by version status and certification
- Surface test/certification metadata in results
- Validate completeness of versioned bundles
-
API/CLI integration and documentation
- Add CLI commands to list and pull versions
- Add API endpoints for versioned retrieval
- Document versioning workflows and certification signals
- Design version metadata schema and status model
- Versioned bundle storage and retrieval layer
- Version-aware discovery and validation endpoints
- CLI commands and documentation for version management
- Define design version model and OKH metadata extensions
- Implement versioned bundle storage and retrieval
- Add version discovery and certification filtering
- Build version validation and integrity checks
Ongoing throughout all phases
- Maintain comprehensive API documentation
- Create user guides for each feature
- Document architectural decisions
- Provide runnable examples and tutorials
- Keep roadmap document updated
- Automate publishing canonical OKH schema to external repositories
Ongoing throughout all phases
- Unit tests for all new features
- Integration tests for service interactions
- End-to-end tests for complete workflows
- Performance and load testing
- Security testing and validation
Ongoing throughout all phases
- CI/CD pipeline maintenance
- Container and deployment optimization
- Monitoring and alerting
- Backup and disaster recovery
- Cost optimization
- Match accuracy: >90% for direct and heuristic layers
- OKH generation completeness: >85% for well-documented repos
- Supply tree validation pass rate: >95%
- User-reported error rate: <5%
- Time to first successful match: <5 minutes (new users)
- API response clarity score: >4/5 (user surveys)
- CLI usability score: >4/5 (user surveys)
- Documentation completeness: 100% of features documented
- API response time: p95 <2s for matching operations
- OKH generation: <30s for typical repository
- Uptime: >99.5%
- Test coverage: >80%
- Sync latency: p95 <5 minutes for design propagation across network
- Network availability: >99% node uptime
- Trust score accuracy: <2% false positives for malicious content
- Bandwidth efficiency: <10MB/hour average per node
- Conflict resolution success rate: >98%
- Network partition recovery: <1 hour to full consistency
- Focus: Quality & Testing
- Milestones:
- Real-world test suite complete
- Matching service quality baseline established (F1 0.807 to 0.992)
- LLM chunking architecture implemented; all canary quality gates passing
- Focus: Demo closeout and transition into human-readable API/CLI output
- Hard deadline: May 23, 2026 — Open Hardware Summit talk
- Feature freeze: May 8, 2026
- Milestones:
- LLM prompt tuning complete; generation quality improved
- Confidence indicators visible in manifest output
- Matching result enhancement with ranking and summaries
- End-to-end pipeline reliability validated on target COVID-era repos
- Phase 3.1/3.3 implementation started (API/CLI summary and formatting slices)
- Focus: OBM Implementation, OHM/OBM Integration
- Milestones:
- OBM core features implemented
- OHM/OBM integration complete
- End-to-end business workflows functional
- Focus: Refinement, Documentation, Production Hardening
- Milestones:
- All features production-ready
- Comprehensive documentation complete
- Performance and reliability targets met
- Focus: Federated Network Architecture (Phase 5)
- Milestones:
- Gossip protocol and Merkle sync implemented
- Trust and security framework deployed
- Malware defense system operational
- Focus: Federation Rollout and Stabilization
- Milestones:
- Multi-node testing complete
- Production federation network launched
- Network monitoring and management tools deployed
This roadmap is a living document. As development progresses and priorities shift, it will be updated to reflect the current strategic direction.
- For Contributors: Choose tasks aligned with your interests and skills
- For Planning: Break down tasks into GitHub issues with appropriate labels
- For Prioritization: Use phase ordering and dependencies to sequence work
- For Tracking: Update task completion status and add notes/learnings
When decomposing this roadmap into issues, use these labels:
priority-1: Critical for next releasepriority-2: Important but not urgentpriority-3: Nice to have
phase-1: Quality & Testingphase-2: Output Qualityphase-3: Human-Readable Dataphase-4: OBM Separationphase-5: Federated Network
component-matching: Matching servicecomponent-okh: OKH generation/managementcomponent-visualization: Data visualizationcomponent-obm: Business logiccomponent-federation: Federated network featurescomponent-security: Security and trust frameworkcomponent-sync: Synchronization and consistency
testing: Test-related tasksdocumentation: Documentation taskssecurity: Security-related tasksinfrastructure: Infrastructure and networkinggood-first-issue: Suitable for new contributors
- OBM Deployment: Should OBM be containerized separately or as part of a multi-service deployment?
- Visualization Technology: What library/framework for data visualization? (D3.js, Plotly, custom?)
- Web UI: Is a web UI a priority, or should we focus on API/CLI improvements?
- LLM Usage: How do we balance LLM power vs. cost for summarization features?
- Multi-tenancy: Do we need to support multiple organizations/users with data isolation?
- Gossip Protocol: Which gossip protocol variant? (Epidemic, anti-entropy, rumor-mongering?)
- Identity System: PKI-based or alternative identity system (DIDs, blockchain-based)?
- Content Addressing: IPFS-style content addressing or custom Merkle DAG?
- Bootstrap Nodes: Who operates bootstrap nodes? Centralized trust or distributed?
- Malware Detection: Static analysis only, or sandboxed execution for validation?
- Network Incentives: Should there be incentives for running nodes? Token-based or reputation-only?
- Storage Limits: How much storage should a node be expected to maintain?
- Backwards Compatibility: How long should we maintain hybrid centralized/federated mode?
- OBM Scope: What business features are essential vs. nice-to-have?
- Data Privacy: How do we handle sensitive business data (pricing, contracts)?
- Integration Patterns: Event-driven vs. request-response for OHM/OBM communication?
- Extensibility: Plugin architecture for custom business logic?
- Federation Governance: How are network-wide decisions made? Consensus mechanisms?
- Trust Models: Web of trust, certificate authorities, or hybrid approach?
- Conflict Resolution: CRDT-based, last-write-wins, or manual resolution?
- Network Topology: Fully decentralized, super-nodes/hub architecture, or regional hierarchies?
- Legal Compliance: How do we handle regulatory requirements across jurisdictions?
- Malicious Node Response: Automatic blacklisting, manual review, or community voting?
- Design Licensing: How do we ensure license compliance in federated sync?
- Version Conflicts: How do nodes handle incompatible OHM versions?