Design Discussion: DSPEx Multi-Agent Architecture with Jido Agent Framework
Status: Draft
Date: 2025-06-28
Authors: Claude Code
Scope: System-wide architectural design for DSPEx multi-agent ML platform using Foundation-Jido integration
Executive Summary
This document synthesizes insights from the DSPEx vision, Foundation infrastructure, Jido agent framework, and MABEAM coordination analysis to propose a revolutionary architecture for building the world’s first production-grade multi-agent ML platform on the BEAM. The core innovation is Variables as Universal Agent Coordinators - transforming the traditional parameter optimization paradigm into a distributed cognitive control plane that orchestrates entire Jido agent ecosystems through a sophisticated four-tier architecture.
Vision Synthesis
The Paradigm Shift
Traditional ML optimization treats parameters as local, program-specific concerns. DSPEx revolutionizes this by making Variables the orchestration layer for multi-agent Jido systems. Instead of a temperature variable controlling a single LLM call, it becomes the coordination mechanism for an entire team of specialized Jido agents - determining which agents are active, how they communicate via JidoSignal, what Foundation resources they consume, and how they adapt based on collective performance.
This leverages both the BEAM’s natural strengths (fault tolerance, hot code swapping, distributed coordination) and Jido’s proven agent abstraction (actions, signals, skills) to create a self-optimizing multi-agent framework where the system continuously reorganizes itself for optimal performance.
Core Architectural Insights
Foundation as Universal BEAM Infrastructure: Provides process registries, service management, telemetry, coordination primitives, and infrastructure protection that serve as the backbone for any BEAM application, including Jido agent operations.
Jido as Proven Agent Framework: Uses jido, jido_action, and jido_signal as the foundational agent framework, providing battle-tested agent lifecycle, action execution, and signal routing capabilities.
JidoFoundation as Critical Integration Bridge: The sophisticated integration layer that bridges Foundation infrastructure with Jido capabilities, enabling Jido agents to leverage Foundation services seamlessly.
MABEAM as Multi-Agent Coordination Layer: Rebuilt on Jido agents, implements sophisticated coordination protocols (auction, consensus, market mechanisms) using Foundation primitives and JidoSignal communication.
DSPEx as ML-Specific Intelligence Layer: Builds on the entire stack to provide ML-specific agents, teleprompters, schema validation, and program optimization.
Variables as Universal Agent Coordinators: Variables become the coordination mechanism that orchestrates entire Jido agent teams, managing lifecycle, resource allocation, and performance optimization through the four-tier architecture.
Proposed Four-Tier Architecture
Architecture Overview
┌─────────────────────────────────────────────────────────────┐
│ Tier 4: DSPEx (ML Intelligence) │
│ ┌─────────────────┐ ┌─────────────────┐ ┌─────────────────┐ │
│ │ ML Programs │ │ Teleprompters │ │ Schema Engine │ │
│ │ (DSPy Port) │ │ (SIMBA/BEACON) │ │ (ElixirML) │ │
│ └─────────────────┘ └─────────────────┘ └─────────────────┘ │
│ ┌─────────────────────────────────────────────────────────┐ │
│ │ DSPEx-Jido Integration │ │
│ │ (DSPEx Programs → Jido Agents Bridge) │ │
│ └─────────────────────────────────────────────────────────┘ │
└─────────────────────────────────────────────────────────────┘
┌─────────────────────────────────────────────────────────────┐
│ Tier 3: MABEAM (Agent Coordination) │
│ ┌─────────────────┐ ┌─────────────────┐ ┌─────────────────┐ │
│ │ Orchestration │ │ Economic │ │ Performance │ │
│ │ Coordinator │ │ Mechanisms │ │ Optimizer │ │
│ └─────────────────┘ └─────────────────┘ └─────────────────┘ │
│ ┌─────────────────────────────────────────────────────────┐ │
│ │ Coordination Actions & Agents │ │
│ │ (Built on Jido Agent Framework) │ │
│ └─────────────────────────────────────────────────────────┘ │
└─────────────────────────────────────────────────────────────┘
┌─────────────────────────────────────────────────────────────┐
│ Tier 2: JidoFoundation (Integration) │
│ ┌─────────────────┐ ┌─────────────────┐ ┌─────────────────┐ │
│ │ Agent Bridge │ │ Signal Bridge │ │ Error Bridge │ │
│ │ (Registry) │ │ (Dispatch) │ │ (Standards) │ │
│ └─────────────────┘ └─────────────────┘ └─────────────────┘ │
│ ┌─────────────────────────────────────────────────────────┐ │
│ │ Service Adapters & Middleware │ │
│ │ (Foundation Services ↔ Jido Framework) │ │
│ └─────────────────────────────────────────────────────────┘ │
└─────────────────────────────────────────────────────────────┘
┌─────────────────────────────────────────────────────────────┐
│ Tier 1: Foundation (BEAM Kernel) │
│ ┌─────────────────┐ ┌─────────────────┐ ┌─────────────────┐ │
│ │ Process/Service │ │ Infrastructure │ │ Telemetry │ │
│ │ Registries │ │ Protection │ │ & Events │ │
│ └─────────────────┘ └─────────────────┘ └─────────────────┘ │
│ ┌─────────────────────────────────────────────────────────┐ │
│ │ Coordination Primitives │ │
│ │ (Consensus, Barriers, Locks, Leader Election) │ │
│ └─────────────────────────────────────────────────────────┘ │
└─────────────────────────────────────────────────────────────┘
┌─────────────────────────────────────────────────────────────┐
│ Jido Agent Framework (External Hex Deps) │
│ jido • jido_action • jido_signal │
└─────────────────────────────────────────────────────────────┘
┌─────────────────────────────────────────────────────────────┐
│ BEAM Runtime │
│ OTP Supervision Trees • Actor Model │
│ Process Management • Fault Tolerance │
└─────────────────────────────────────────────────────────────┘
Component Architecture
Tier 1: Foundation (BEAM Kernel)
Foundation.ProcessRegistry # Agent-aware process management
Foundation.ServiceRegistry # Service discovery and management
Foundation.Infrastructure # Circuit breaker, rate limiter, resource manager
Foundation.Services # Config server, telemetry service, event store
Foundation.Coordination.Primitives # Consensus, barriers, locks, leader election
Foundation.Telemetry # Observability with agent-specific metrics
Foundation.Types.Error # Canonical error system across all tiers
Responsibilities:
- Core BEAM infrastructure services (domain-agnostic)
- Process and service registries with agent metadata support
- Infrastructure protection patterns (circuit breakers, rate limiting)
- Coordination primitives for multi-agent scenarios
- Telemetry and event collection with agent awareness
- Canonical error handling for the entire stack
Tier 2: JidoFoundation (Integration Bridge)
JidoFoundation.AgentBridge # Bridge Jido agents to Foundation.ProcessRegistry
JidoFoundation.SignalBridge # JidoSignal ↔ Foundation.Events integration
JidoFoundation.ErrorBridge # Convert all errors to Foundation.Types.Error
JidoFoundation.TelemetryBridge # Integrate Jido telemetry with Foundation
JidoFoundation.Adapters # Service adapters for Foundation infrastructure
Responsibilities:
- Bridge Jido agents with Foundation process registry
- Integrate JidoSignal with Foundation events and telemetry
- Provide Foundation-aware infrastructure for Jido agents
- Standardize error handling across Jido and Foundation
- Enable Jido agents to leverage Foundation services seamlessly
Tier 3: MABEAM (Agent Coordination)
MABEAM.Orchestration.Coordinator # Main coordination agent (Jido agent)
MABEAM.Economic.Auctioneer # Auction coordination agent
MABEAM.Economic.Marketplace # Market mechanism agent
MABEAM.Actions.CoordinateAgents # Multi-agent coordination actions
MABEAM.Actions.RunAuction # Auction execution actions
MABEAM.Actions.AllocateResources # Resource allocation actions
Responsibilities:
- Multi-agent coordination built as Jido agents
- Economic mechanisms (auctions, markets) using Foundation primitives
- Sophisticated coordination protocols via JidoSignal
- Resource allocation using Foundation infrastructure
- Performance optimization through Foundation telemetry
Tier 4: DSPEx (ML Intelligence)
DSPEx.Program # Core DSPEx program (DSPy port)
DSPEx.Teleprompter # SIMBA, BEACON, multi-agent optimization
DSPEx.Variable # ML variable system with Jido agent coordination
DSPEx.Schema # ML-native type system
DSPEx.Jido.ProgramAgent # DSPEx program as Jido agent
DSPEx.Jido.TeleprompterActions # Optimization as Jido actions
DSPEx.Jido.CoordinationBridge # Bridge DSPEx with MABEAM coordination
Responsibilities:
- ML-specific programs and optimization algorithms
- Variable-driven Jido agent coordination
- ML-native schema validation and type safety
- Bridge DSPEx programs to Jido agent framework
- Multi-agent teleprompters using MABEAM coordination
- Integration with the entire four-tier stack
Revolutionary Design Patterns
1. Variables as Universal Agent Coordinators
Traditional approach:
# Variables control program parameters
program = %{temperature: 0.7, max_tokens: 1000}
result = run_program(program, input)
DSPEx four-tier approach:
# Variables coordinate entire Jido agent teams through the stack
temperature_var = DSPEx.Variable.agent_coordination(:temperature_control,
jido_agents: [:creative_agent, :analytical_agent, :reviewer_agent],
coordination_fn: &temperature_based_agent_selection/3,
adaptation_fn: &performance_feedback_adaptation/3
)
# Coordination flows through all tiers:
# DSPEx → MABEAM → JidoFoundation → Foundation
{:ok, team_result} = MABEAM.Orchestration.Coordinator.coordinate_agents(
agent_space,
temperature_var,
task
)
2. Four-Tier Integration Flow
# DSPEx creates ML-specific optimization request
optimization_request = DSPEx.Teleprompter.create_optimization(
program: CoderProgram,
variables: [temperature_var, provider_var],
training_data: examples
)
# Request flows to MABEAM coordination layer
{:ok, coordination_id} = MABEAM.Orchestration.Coordinator.coordinate_optimization(
optimization_request
)
# MABEAM uses JidoFoundation to leverage Foundation services
auction_action = %Jido.Instruction{
action: MABEAM.Actions.RunAuction,
params: %{
resource_type: :computation,
agents: [:coder_agent, :reviewer_agent, :tester_agent],
foundation_circuit_breaker: true
}
}
# JidoFoundation ensures Foundation infrastructure protection
protected_result = JidoFoundation.Infrastructure.execute_with_protection(
auction_action,
agent_id: :auctioneer,
foundation_services: [:circuit_breaker, :rate_limiter, :telemetry]
)
# Foundation provides core infrastructure guarantees
Foundation.Telemetry.track_agent_coordination(
:auctioneer,
:auction,
[:coder_agent, :reviewer_agent, :tester_agent]
)
3. Emergent Intelligence Through Four-Tier Coordination
# Jido agents negotiate through MABEAM coordination
negotiation_result = MABEAM.Coordination.negotiate_configuration(
:reasoning_strategy,
[
{planner_jido_agent, :systematic, weight: 0.4},
{creative_jido_agent, :divergent, weight: 0.3},
{executor_jido_agent, :pragmatic, weight: 0.3}
],
strategy: :consensus_with_foundation_primitives
)
# System adapts using Foundation telemetry and JidoSignal communication
performance_signal = %JidoSignal{
type: "coordination.performance.update",
data: %{overall_performance: 0.92, resource_efficiency: 0.88}
}
# Signal flows through JidoFoundation to Foundation events
JidoFoundation.SignalBridge.publish_to_foundation(performance_signal)
# DSPEx adapts based on collective intelligence
{:ok, adapted_space} = DSPEx.Variable.adapt_agent_space(
jido_agent_space,
performance_signal.data
)
Technical Implementation Strategy
Phase 1: Foundation Enhancement & JidoFoundation Core (4-6 weeks)
Formal Specifications Required:
- Foundation.ProcessRegistry.AgentSupport.Specification.md
- Foundation.Coordination.Primitives.Specification.md
- JidoFoundation.AgentBridge.Specification.md
- JidoFoundation.SignalBridge.Specification.md
- JidoFoundation.ErrorBridge.Specification.md
Mathematical Models:
- Agent metadata integration with Foundation.ProcessRegistry
- JidoSignal ↔ Foundation.Events conversion semantics
- Error standardization consistency guarantees
- Foundation coordination primitives with Jido agent semantics
Implementation Focus:
- Enhance Foundation with agent-aware capabilities
- Build JidoFoundation integration bridge
- Implement error standardization across all systems
- Create Foundation-aware Jido agent infrastructure
Phase 2: MABEAM Reconstruction on Jido (4-5 weeks)
Formal Specifications Required:
- MABEAM.Orchestration.Coordinator.Specification.md
- MABEAM.Economic.Auctioneer.Specification.md
- MABEAM.Actions.CoordinateAgents.Specification.md
Mathematical Models:
- Multi-agent coordination using Jido agents and Foundation primitives
- Economic mechanism correctness with Foundation infrastructure protection
- Performance optimization convergence properties
Implementation Focus:
- Rebuild MABEAM coordination as Jido agents
- Implement economic mechanisms using Foundation services
- Create sophisticated coordination actions
- Build performance optimization through Foundation telemetry
Phase 3: DSPEx-Jido Integration (3-4 weeks)
Formal Specifications Required:
- DSPEx.Jido.ProgramAgent.Specification.md
- DSPEx.Variable.JidoIntegration.Specification.md
- DSPEx.Teleprompter.MultiAgent.Specification.md
Mathematical Models:
- DSPEx program to Jido agent transformation correctness
- Variable coordination through four-tier architecture
- Multi-agent optimization convergence with MABEAM coordination
Implementation Focus:
- Convert DSPEx programs into Jido agents
- Bridge DSPEx variables with MABEAM coordination
- Implement multi-agent teleprompters using the full stack
- Create ML-specific Jido actions and signals
Phase 4: Production Hardening (3-4 weeks)
Formal Specifications Required:
- FourTier.FaultTolerance.Specification.md
- FourTier.Performance.Specification.md
- FourTier.Security.Specification.md
Mathematical Models:
- Fault propagation and recovery across all tiers
- Performance guarantees with four-tier overhead analysis
- Security models for cross-tier communication
Implementation Focus:
- Comprehensive fault tolerance across all tiers
- Performance optimization using Foundation infrastructure
- Security hardening for JidoSignal and Foundation services
- Production monitoring through Foundation observability
Architectural Innovations
1. Four-Tier Agent Orchestration
Innovation: Clean separation of concerns across Foundation infrastructure, Jido integration, MABEAM coordination, and DSPEx intelligence.
Technical Approach:
- Foundation provides universal BEAM infrastructure
- JidoFoundation bridges Jido agents with Foundation services
- MABEAM implements coordination as Jido agents using Foundation primitives
- DSPEx provides ML intelligence using the entire stack
2. Variables as Four-Tier Coordination Primitives
Innovation: Variables become first-class coordination mechanisms that orchestrate Jido agent teams through sophisticated four-tier integration.
Technical Approach:
- Variable-driven Jido agent selection via MABEAM coordination
- Performance-based adaptation using Foundation telemetry
- Cross-agent negotiation via JidoSignal and Foundation events
- Hierarchical dependencies managed through all tiers
3. Emergent Intelligence Through Layered Coordination
Innovation: Agent teams develop emergent intelligence through sophisticated four-tier coordination, leveraging each layer’s strengths.
Technical Approach:
- Foundation provides coordination primitives and infrastructure protection
- JidoFoundation enables seamless Jido agent integration
- MABEAM implements sophisticated coordination protocols
- DSPEx provides ML-specific intelligence and optimization
4. Proven Framework Integration
Innovation: Leverages proven Jido agent framework with enhanced Foundation infrastructure rather than building from scratch.
Technical Approach:
- Standard Jido ecosystem benefits (community, tooling, patterns)
- Enhanced with Foundation’s production-grade infrastructure
- Clean integration through JidoFoundation bridge
- No vendor lock-in - both Foundation and Jido can evolve independently
Scaling and Distribution Strategy
Local Scaling (Phase 1-4)
- Single-node four-tier coordination
- Jido agent-based isolation and fault tolerance
- Foundation resource allocation and protection
- Local telemetry and monitoring through all tiers
Cluster Scaling (Future Phase 5)
- Cross-node Jido agent migration via Foundation services
- Distributed coordination using Foundation primitives
- Cluster-wide MABEAM coordination
- Global telemetry aggregation through Foundation
Architectural Principles for Scaling
- Tier Independence: Each tier can scale independently
- Foundation-Backed Fault Isolation: Failures isolated using Foundation infrastructure
- Jido Agent Mobility: Agents can migrate across nodes transparently
- MABEAM Coordination: Sophisticated coordination scales with Foundation primitives
Integration with Existing Ecosystems
Foundation Users
- Existing Foundation users can incrementally adopt JidoFoundation
- Foundation services remain unchanged, only enhanced with agent awareness
- Clear migration path from any existing agent systems
- Standard Foundation benefits with Jido agent capabilities
Jido Users
- Existing Jido users get Foundation infrastructure benefits
- Standard Jido patterns enhanced with Foundation services
- Access to sophisticated MABEAM coordination protocols
- Production-grade infrastructure protection
DSPy Users
- Migration path from DSPy to DSPEx with four-tier Jido agent capabilities
- DSPEx programs become sophisticated Jido agent teams
- Compatibility shims for existing DSPy programs
- Performance benefits from multi-agent coordination
BEAM and ML Communities
- Open source release leveraging proven ecosystems
- Conference presentations highlighting four-tier integration
- Community engagement across BEAM, Jido, and ML ecosystems
- Best practices for agent-based ML systems
Success Metrics
Technical Metrics
- Performance: 10x improvement in optimization convergence through coordinated Jido agents
- Scalability: Support for 1000+ concurrent Jido agents per node via Foundation services
- Reliability: 99.9% uptime with Foundation-backed graceful degradation
- Resource Efficiency: 50% reduction in computational overhead via Foundation infrastructure
Adoption Metrics
- Foundation Integration: 90% of existing Foundation users can adopt JidoFoundation
- Jido Ecosystem: Leverage existing Jido community and tooling
- MABEAM Coordination: Clear migration from any existing coordination systems
- DSPy Migration: Clear migration path for 80% of DSPy use cases to DSPEx
- Community Growth: Active community across all four tiers
Risk Analysis and Mitigation
Technical Risks
Risk: Four-tier complexity reduces performance Mitigation: Formal performance guarantees and tier-specific optimization
Risk: Integration complexity makes system hard to debug Mitigation: Foundation telemetry across all tiers and Jido debugging tools
Risk: Cross-tier communication creates bottlenecks Mitigation: Formal specifications for all tier interfaces and async-first design
Adoption Risks
Risk: Learning curve for four-tier architecture Mitigation: Leverage existing Foundation and Jido familiarity
Risk: Ecosystem fragmentation across communities Mitigation: Active engagement with Foundation, Jido, and ML communities
Conclusion
This four-tier architectural approach represents a fundamental reimagining of how ML systems can be built on the BEAM by leveraging proven Foundation infrastructure and Jido agent framework. By transforming Variables from simple parameter tuners into universal coordinators for sophisticated multi-tier agent systems, we create the foundation for a new class of self-optimizing, fault-tolerant ML applications.
The four-tier dependency architecture (Foundation → JidoFoundation → MABEAM → DSPEx) provides clear separation of concerns while enabling revolutionary capabilities:
- Foundation Infrastructure: Universal BEAM services for any application
- JidoFoundation Integration: Seamless bridge between proven frameworks
- MABEAM Coordination: Sophisticated multi-agent protocols built on solid foundations
- DSPEx Intelligence: ML-specific capabilities leveraging the entire stack
- Ecosystem Leverage: Builds on existing communities and proven patterns
The formal specification-driven development approach ensures mathematical correctness while the dependency-based architecture enables smooth integration with existing ecosystems.
This architecture positions DSPEx to become the definitive platform for multi-agent ML on the BEAM, combining the best of proven Foundation infrastructure, mature Jido agent framework, sophisticated MABEAM coordination, and ML-specific intelligence in a clean, maintainable, and scalable system.
Next Steps
Complete Formal Specifications (6-8 weeks)
- Foundation agent-aware enhancements
- JidoFoundation integration bridge specifications
- MABEAM coordination protocol specifications
- DSPEx-Jido integration specifications
- Mathematical models for all tier interactions
Implementation Phase 1 (4-6 weeks)
- Foundation enhancements with agent awareness
- JidoFoundation integration layer (bridge Foundation with Jido)
- Error standardization across all tiers
- Basic integration testing
Implementation Phase 2 (4-5 weeks)
- MABEAM reconstruction as Jido agents using Foundation services
- Economic mechanisms and coordination protocols
- Performance optimization through Foundation telemetry
Implementation Phase 3 (3-4 weeks)
- DSPEx-Jido integration (DSPEx programs as Jido agents)
- Multi-agent teleprompters using MABEAM coordination
- ML-specific actions, signals, and variable coordination
Validation and Testing (2-3 weeks)
- Comprehensive test suite across all four tiers
- Performance benchmarking of the integrated stack
- Security validation for cross-tier communication
Community Engagement (Ongoing)
- Open source release leveraging both Foundation and Jido ecosystems
- Documentation highlighting four-tier benefits
- Conference presentations and community building
The revolution in multi-agent ML systems starts with proper formal specifications and leveraging proven frameworks enhanced through sophisticated four-tier integration.