Multi-Agent Orchestration Research - Foundry Integration
Status: Research Complete
Last Updated: January 2026
Priority: High
Timeline: 3-4 weeks for implementation
Executive Summary
Multi-agent orchestration enables coordinated collaboration between multiple AI agents to execute complex workflows. Azure AI Foundry provides built-in orchestration capabilities that can enhance Engram’s multi-agent system (Elena, Marcus, Sage) for complex, multi-step tasks.
Key Findings:
- ✅ Foundry supports multi-agent workflows with shared context
- ✅ Automatic handoff handling and coordination
- ✅ Workflow visualization and observability
- ✅ Hybrid approach recommended: Foundry for complex workflows, Engram router for simple requests
What is Multi-Agent Orchestration?
Definition
Multi-agent orchestration is the coordination of multiple specialized AI agents to collaboratively execute complex tasks that require:
- Sequential processing: Tasks that flow from one agent to another
- Parallel processing: Multiple agents working simultaneously
- Shared context: Agents accessing and updating common state
- Dynamic routing: Intelligent task assignment based on agent capabilities
Industry Examples
1. IBM watsonx Orchestrate
- Acts as supervisor, coordinating specialized agents
- Routes requests to appropriate tools and LLMs
- Supports React (exploration) and Plan-Act (structured flows)
- Ensures workflows remain governed and observable
2. Temporal Multi-Agent Workflows
- Provides orchestration for reliable multi-agent interactions
- Manages complex stateful and stateless interactions
- Ensures fault tolerance and retry logic
- Suitable for AI applications requiring coordinated activities
3. AgentOrchestrationLayer
- Visual workflow builder for multi-agent systems
- Distributed state management
- Dynamic task handoff
- Supports LangGraph and AutoGen frameworks
Current Engram State
Existing Multi-Agent System
Engram’s Three Agents:
- Elena (Dr. Elena Vasquez) - Business Analyst
- Requirements analysis
- Microsoft Graph integration (email, OneDrive)
- Business process documentation
- Marcus (Marcus Chen) - Project Manager
- Project planning and timelines
- Resource allocation
- Risk assessment
- Sage (Sage Meridian) - Storytelling & Visualization
- Technical documentation
- Story generation
- Visual diagram creation
Current Orchestration Approach
Engram Router (backend/agents/router.py):
- ✅ Agent selection based on query analysis
- ✅ Handoff detection via keyword matching
- ✅ Separate conversation threads per agent
- ✅ Agents can reference each other’s work via memory search
Limitations:
- ⚠️ Manual handoff detection (keyword-based)
- ⚠️ No shared context between agents
- ⚠️ No workflow visualization
- ⚠️ Complex multi-step tasks require user intervention
Example Current Flow:
User: "I need requirements for a new feature, then a project plan"
↓
Elena: Analyzes requirements → Suggests Marcus
↓
User: Manually switches to Marcus
↓
Marcus: Creates project plan → Suggests Sage
↓
User: Manually switches to Sage
↓
Sage: Creates documentation
Azure AI Foundry Orchestration Capabilities
Foundry Multi-Agent Features
1. Workflow Definition
- Define multi-agent workflows declaratively
- Specify agent roles and responsibilities
- Define handoff conditions and rules
- Configure shared context and state
2. Automatic Coordination
- Built-in agent coordination logic
- Automatic handoff handling
- Shared context management
- State synchronization
3. Workflow Visualization
- Visual representation of agent interactions
- Real-time workflow status
- Observability and monitoring
- Debugging and troubleshooting
4. Fault Tolerance
- Automatic retry on failures
- Error handling and recovery
- Graceful degradation
- State persistence
Proposed Integration Approach
Hybrid Strategy
Use Foundry For:
- ✅ Complex multi-agent workflows
- ✅ Sequential task chains (Elena → Marcus → Sage)
- ✅ Parallel agent collaboration
- ✅ Shared context requirements
Keep Engram Router For:
- ✅ Simple single-agent requests
- ✅ Direct agent selection
- ✅ Fast response times
- ✅ Existing handoff detection
Architecture
┌─────────────────┐
│ User Query │
└────────┬────────┘
│
▼
┌─────────────────┐
│ Task Analyzer │
└────────┬────────┘
│
┌────┴────┐
│ │
▼ ▼
┌─────────┐ ┌──────────────────┐
│ Simple │ │ Complex Task │
│ Task │ │ │
└────┬────┘ └────────┬─────────┘
│ │
│ ▼
│ ┌──────────────────┐
│ │ Foundry Workflow │
│ │ Orchestrator │
│ └────────┬─────────┘
│ │
│ ┌────────┴────────┐
│ │ │
│ ▼ ▼
│ ┌───────┐ ┌───────┐
│ │ Elena │ ────► │ Marcus │
│ └───────┘ └───┬───┘
│ │
│ ▼
│ ┌───────┐
│ │ Sage │
│ └───────┘
│
▼
┌─────────────┐
│ Engram │
│ Router │
└─────────────┘
Use Cases
1. Requirements → Project Planning
User: "I need a new feature for user authentication"
↓
Foundry Workflow:
1. Elena: Analyzes requirements
- Creates requirements document
- Identifies stakeholders
- Defines acceptance criteria
2. Automatic handoff to Marcus
3. Marcus: Creates project plan
- Timeline and milestones
- Resource allocation
- Risk assessment
4. Automatic handoff to Sage
5. Sage: Creates documentation
- Technical specification
- User story
- Architecture diagram
↓
Result: Complete feature specification with plan and docs
2. Comprehensive Project Analysis
User: "Analyze our Q1 project portfolio"
↓
Foundry Workflow (Parallel):
- Elena: Business analysis (requirements, ROI)
- Marcus: Project management (timelines, resources)
- Sage: Documentation (reports, visualizations)
↓
Result: Comprehensive analysis combining all perspectives
3. Multi-Step Feature Development
User: "Build a new dashboard feature"
↓
Foundry Workflow:
1. Elena: Requirements gathering
2. Marcus: Project planning
3. Sage: Technical documentation
4. Elena: Stakeholder communication
5. Marcus: Progress tracking
6. Sage: User guide creation
↓
Result: Complete feature from requirements to documentation
Implementation Plan
Phase 1: Research & Design (Week 1)
Tasks:
- ✅ Research Foundry workflow capabilities
- ✅ Design workflow patterns for Engram use cases
- ✅ Create workflow definitions
- ✅ Plan integration with Engram router
Deliverables:
- Workflow design document
- Integration architecture
- Use case specifications
Phase 2: Foundry Workflow Creation (Week 2)
Tasks:
- Create Foundry workflow with Elena, Marcus, Sage
- Define handoff rules and conditions
- Configure shared context
- Test basic workflow execution
Implementation:
# Foundry workflow definition
workflow_definition = {
"name": "engram-multi-agent-workflow",
"agents": [
{
"id": "elena",
"role": "business_analyst",
"capabilities": ["requirements", "analysis", "stakeholder_communication"]
},
{
"id": "marcus",
"role": "project_manager",
"capabilities": ["planning", "timeline", "resource_allocation"]
},
{
"id": "sage",
"role": "documentation_specialist",
"capabilities": ["documentation", "visualization", "storytelling"]
}
],
"handoff_rules": [
{
"from": "elena",
"to": "marcus",
"condition": "requirements_complete",
"trigger": "requirements_document_created"
},
{
"from": "marcus",
"to": "sage",
"condition": "project_plan_created",
"trigger": "timeline_established"
}
],
"shared_context": {
"enabled": True,
"scope": "workflow",
"persistence": True
}
}
Phase 3: Integration with Engram (Week 3)
Tasks:
- Create Foundry workflow client
- Integrate with Engram router
- Implement task complexity detection
- Add workflow execution logic
Implementation:
# backend/agents/foundry_orchestrator.py
class FoundryOrchestrator:
"""
Orchestrates multi-agent workflows using Foundry.
"""
async def execute_workflow(
self,
workflow_name: str,
initial_query: str,
context: EnterpriseContext
) -> WorkflowResult:
"""
Execute a Foundry multi-agent workflow.
"""
# Create workflow execution
execution = await foundry_client.create_workflow_execution(
workflow_name=workflow_name,
initial_input=initial_query,
context=context.to_dict()
)
# Monitor execution
while not execution.is_complete():
status = await execution.get_status()
if status.has_handoff():
# Log handoff
logger.info(f"Handoff: {status.from_agent} → {status.to_agent}")
await asyncio.sleep(1)
# Get final result
return await execution.get_result()
# backend/agents/router.py
async def route_and_execute(
self, query: str, context: EnterpriseContext, agent_id: Optional[AgentId] = None
) -> tuple[str, EnterpriseContext, AgentId, Optional[str]]:
"""
Route query - use Foundry workflow for complex tasks, Engram router for simple.
"""
# Detect if task requires multi-agent workflow
if self._requires_workflow(query):
orchestrator = FoundryOrchestrator()
result = await orchestrator.execute_workflow(
workflow_name="engram-multi-agent-workflow",
initial_query=query,
context=context
)
return result.response, context, result.final_agent, None
# Simple task - use existing router
return await self._route_simple(query, context, agent_id)
def _requires_workflow(self, query: str) -> bool:
"""
Detect if query requires multi-agent workflow.
"""
complex_indicators = [
"requirements and plan",
"analyze and document",
"complete project",
"full analysis",
"comprehensive",
]
return any(indicator in query.lower() for indicator in complex_indicators)
Phase 4: Testing & Refinement (Week 4)
Tasks:
- Test workflow execution
- Validate handoff logic
- Test shared context
- Performance optimization
- Error handling
Test Cases:
- Sequential Workflow: Elena → Marcus → Sage
- Parallel Workflow: All agents working simultaneously
- Conditional Handoff: Handoff based on conditions
- Error Recovery: Handle agent failures
- Context Sharing: Verify shared state
Benefits
✅ Enhanced Capabilities
- Complex Workflows: Execute multi-step tasks automatically
- Better Coordination: Agents work together seamlessly
- Shared Context: Agents access common information
- Automatic Handoffs: No manual intervention needed
✅ Improved User Experience
- Single Request: User asks once, gets complete result
- Faster Results: Parallel agent execution
- Better Quality: Comprehensive analysis from all agents
- Less Friction: No need to manually switch agents
✅ Operational Benefits
- Observability: Workflow visualization
- Debugging: Easy to trace agent interactions
- Scalability: Foundry manages infrastructure
- Reliability: Built-in fault tolerance
Challenges & Considerations
⚠️ Complexity
- Learning Curve: Team needs to understand Foundry workflows
- Debugging: Multi-agent workflows can be complex to debug
- State Management: Shared context requires careful design
⚠️ Integration
- Hybrid Approach: Need to maintain both Foundry and Engram systems
- Context Translation: Convert between Engram and Foundry contexts
- Tool Compatibility: Ensure tools work in both systems
⚠️ Performance
- Latency: Multi-agent workflows may take longer
- Cost: Multiple agent calls increase token usage
- Optimization: Need to optimize workflow execution
Success Metrics
Workflow Execution
- ✅ Workflow completion rate > 95%
- ✅ Average workflow duration < 2 minutes
- ✅ Handoff success rate > 98%
User Experience
- ✅ User satisfaction with complex workflows
- ✅ Reduction in manual agent switches
- ✅ Time saved on multi-step tasks
Quality
- ✅ Response quality improvement
- ✅ Comprehensive analysis coverage
- ✅ Error rate < 2%
Next Steps
Immediate (This Week)
- ✅ Complete research (this document)
- 🔄 Review with team
- 🔄 Finalize workflow designs
Short Term (Next 2 Weeks)
- Create Foundry workflow definitions
- Test basic workflow execution
- Design integration architecture
Medium Term (Next Month)
- Implement Foundry orchestrator
- Integrate with Engram router
- Test with real use cases
- Refine based on feedback
Related Documentation
References
- IBM watsonx Orchestrate
- Temporal Multi-Agent Workflows
- AgentOrchestrationLayer
- Azure AI Foundry Documentation
Last Updated: January 2026