Foundation + MABEAM: Multi-Agent ML Platform Architecture
Executive Summary
This is a production-grade multi-agent machine learning platform built on the BEAM virtual machine. The system provides fault-tolerant infrastructure for running distributed ML workflows with intelligent agent coordination, hyperparameter optimization, and enterprise-grade reliability.
System Overview
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β External Interfaces β
β HTTP APIs β Python Bridge β LLM Services β BEAM Cluster β
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β MABEAM Layer β
β Multi-Agent ML Orchestration & Coordination β
β β
β βββββββββββββββ βββββββββββββββ βββββββββββββββ β
β β Agents β β Coordinationβ β Variables β β
β β (ML Tasks) β β (Consensus) β β(Parameters) β β
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β Foundation Layer β
β Enterprise Infrastructure & Distributed Services β
β β
β βββββββββββββββ βββββββββββββββ βββββββββββββββ β
β β Services β βCoordination β β Monitoring β β
β β (Config, β β(Distributed β β(Telemetry, β β
β β Events) β β Primitives) β β Health) β β
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β BEAM/OTP β
β Process Management β Fault Tolerance β Distribution β
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Core Architectural Principles
1. Two-Layer Architecture
- Foundation Layer: Enterprise infrastructure services (configuration, events, coordination primitives)
- MABEAM Layer: Multi-agent ML orchestration built on Foundation services
2. Process-Per-Agent Model
- Each ML agent runs as an OTP process with individual supervision
- Agents can be dynamically spawned/terminated based on workload
- Fault isolation: Agent failures don’t cascade to coordination system
3. Distribution-First Design
- Built for BEAM cluster deployment from day one
- Node-aware coordination primitives
- Vector clocks for distributed causality
- Global locks for distributed mutual exclusion
4. ML-Native Type System
- First-class support for ML data types (embeddings, probabilities, tensors)
- Universal Variable System for hyperparameter optimization
- Schema engine with compile-time optimization
5. Fault Tolerance & Observability
- Comprehensive OTP supervision trees
- Graceful degradation with fallback mechanisms
- Real-time telemetry and health monitoring
- Circuit breakers for external service resilience
Major System Components
Foundation Layer Components
Core Infrastructure
- ProcessRegistry: Namespace-isolated process discovery with production/test separation
- ServiceRegistry: High-level service management and dependency coordination
- TelemetryService: Real-time metrics collection and system observability
Distributed Services
- ConfigServer: Centralized configuration with change notifications
- EventStore: Event sourcing with persistent storage and querying
- ConnectionManager: Network topology management for distributed deployment
Coordination Primitives
- Distributed Locks: Global mutual exclusion using
:global.trans
- Leader Election: Raft-like consensus for coordinator selection
- Barrier Synchronization: Multi-process coordination points
- Rate Limiting: Traffic control and resource protection
MABEAM Layer Components
Agent Management
- AgentRegistry: Agent metadata and lifecycle tracking
- AgentSupervisor: Dynamic process supervision for agent lifecycles
- Agent Types: CoderAgent, ReviewerAgent, OptimizerAgent with specialized capabilities
Multi-Agent Coordination
- MABEAM.Core: Universal Variable Orchestrator managing parameter spaces
- Coordination: Consensus protocols for multi-agent decision making
- LoadBalancer: Workload distribution across agent networks
- Economics: Resource allocation and cost optimization
ML Optimization
- Variable System: Universal parameter optimization framework
- Schema Engine: ML-native data validation with compile-time optimization
- Performance Monitoring: Agent efficiency tracking and optimization
Data Flow Architecture
Service Request Flow
Client Request β ServiceRegistry β ProcessRegistry β GenServer β Response
β (if service unavailable)
ConfigServer (fallback) β ETS Cache β Pending Updates
Agent Coordination Flow
Variable Update β MABEAM.Core β Coordination Protocol β Agent Network β
Consensus Decision β Parameter Optimization β System State Update
Event-Driven Flow
System Event β EventStore β Event Processing β Telemetry Emission β
Monitoring Dashboard β Alert/Notification β Operational Response
Process Supervision Hierarchy
Foundation Supervision Tree
Foundation.Application (Supervisor - one_for_one)
βββ ProcessRegistry (GenServer)
βββ ServiceRegistry (GenServer)
βββ TelemetryService (GenServer)
βββ ConfigServer (GenServer)
βββ EventStore (GenServer)
βββ ConnectionManager (GenServer)
βββ RateLimiter (GenServer)
βββ TaskSupervisor (DynamicSupervisor)
βββ HealthMonitor (GenServer)
βββ ServiceMonitor (GenServer)
MABEAM Supervision Tree
MABEAM.Application (Supervisor - one_for_one)
βββ MABEAM.Core (GenServer)
βββ MABEAM.AgentRegistry (GenServer)
βββ MABEAM.AgentSupervisor (DynamicSupervisor)
βββ MABEAM.CoordinationSupervisor (Supervisor)
β βββ MABEAM.Coordination (GenServer)
β βββ MABEAM.Economics (GenServer)
β βββ MABEAM.LoadBalancer (GenServer)
βββ MABEAM.PerformanceMonitor (GenServer)
Integration Boundaries
Foundation β MABEAM
- Clean separation via ProcessRegistry service discovery
- MABEAM uses Foundation services for configuration, events, telemetry
- No direct module dependencies - all communication via registered processes
Internal Service Boundaries
- Validation Layer: Centralized data contracts and type checking
- Service Layer: Business logic separated from infrastructure concerns
- Coordination Layer: Distributed algorithms isolated from application logic
- Telemetry Layer: Cross-cutting observability without coupling
External Integration Points
- HTTP APIs: Phoenix/Plug integration for REST/GraphQL interfaces
- Python Bridge: Bidirectional communication for ML library integration
- LLM Services: Adapter pattern for multiple AI service providers
- BEAM Cluster: Distribution-ready for horizontal scaling
Scalability & Performance
Horizontal Scaling
- Process-per-agent model scales with BEAM efficiency (millions of processes)
- Distribution across BEAM cluster nodes with automatic load balancing
- Stateless service design enables easy horizontal replication
Performance Optimizations
- Compile-time schema optimization for ML data validation
- ETS caching layers for high-frequency lookups
- Asynchronous coordination protocols minimize blocking operations
- Telemetry batching reduces observability overhead
Resource Management
- Memory tracking per agent process with automatic cleanup
- CPU quota management for resource-intensive ML operations
- Rate limiting prevents resource exhaustion from runaway processes
Security & Reliability
Fault Tolerance
- OTP supervision with restart strategies and backoff algorithms
- Circuit breakers for external service calls with automatic recovery
- Graceful degradation maintains core functionality during partial failures
- Process isolation prevents cascading failures
Data Consistency
- Event sourcing provides audit trail and point-in-time recovery
- Vector clocks handle distributed causality without central coordination
- Eventual consistency with conflict resolution for distributed state
Operational Security
- Namespace isolation prevents test/production cross-contamination
- Service authentication via process registration verification
- Resource limits prevent denial of service from malicious agents
- Comprehensive audit logging for security monitoring
Deployment Architecture
Single Node Deployment
- All services run on single BEAM node with full supervision
- Suitable for development, testing, and small-scale production
- Local coordination primitives for maximum performance
Multi-Node Cluster
- Foundation services distributed across cluster with leader election
- Agent processes balanced across nodes with automatic failover
- Coordination protocols handle network partitions gracefully
- Distributed telemetry aggregation and monitoring
Hybrid Cloud Deployment
- BEAM nodes distributed across availability zones/regions
- Foundation services provide cluster topology management
- Data locality optimization for ML workloads
- Disaster recovery with cross-region replication
Development & Operations
Testing Strategy
- Namespace isolation enables safe concurrent testing
- Property-based testing for coordination protocols
- Integration testing with real BEAM cluster simulation
- Load testing for agent scaling characteristics
Monitoring & Observability
- Real-time telemetry with configurable metrics collection
- Health monitoring with automatic alerting
- Performance profiling for agent optimization
- Distributed tracing for multi-agent workflows
Configuration Management
- Centralized configuration with environment-specific overrides
- Runtime configuration updates with change notifications
- Schema validation for configuration consistency
- Rollback capabilities for configuration errors
Future Architecture Evolution
Planned Enhancements
- Phoenix LiveView Dashboard: Real-time agent coordination monitoring
- Vector Database Integration: RAG-enabled agents with persistent memory
- Advanced Economics: Market-based resource allocation between agents
- ML Pipeline Integration: Direct integration with popular ML frameworks
Scalability Roadmap
- Multi-Region Deployment: Global distribution with regional coordination
- Edge Computing: Lightweight agent deployment on edge devices
- Serverless Integration: Function-as-a-Service agent deployment model
- GPU Cluster Management: Specialized resource allocation for ML workloads
Conclusion
This architecture represents a revolutionary approach to ML system design, combining:
- Enterprise-grade reliability through BEAM/OTP foundations
- Cutting-edge multi-agent coordination for complex ML workflows
- Universal optimization framework enabling any parameter to be optimized
- Distribution-first design for modern cloud-native deployment
The modular, fault-tolerant design provides a solid foundation for building sophisticated ML applications that require coordination, optimization, and enterprise-grade reliability.