Tag: llm

  • Agentic Architecture Pattern: Community

    
        """
    Pattern 37: Community Pattern
    
    Agents form communities based on shared interests, goals, or characteristics.
    Social structures with norms, reputation, and collective identity emerge organically.
    """
    
    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    
    
    @dataclass
    class CommunityMember:
        """Member of a community."""
        name: str
        interests: List[str]
        reputation: float = 0.5  # 0.0-1.0
        contributions: int = 0
        communities: Set[str] = field(default_factory=set)
    
    
    @dataclass
    class Community:
        """A community of agents."""
        name: str
        focus: str
        members: Set[str] = field(default_factory=set)
        norms: List[str] = field(default_factory=list)
        events: List[Dict[str, Any]] = field(default_factory=list)
    
    
    class CommunityPattern:
        """
        Community Pattern - Social organization around shared interests.
        
        Features:
        - Interest-based clustering
        - Reputation systems
        - Community norms
        - Collective activities
        - Inter-community connections
        """
        
        def __init__(self, model_name: str = "gpt-4"):
            self.llm = ChatOpenAI(model=model_name, temperature=0.7)
            self.members: Dict[str, CommunityMember] = {}
            self.communities: Dict[str, Community] = {}
        
        def add_member(self, member: CommunityMember):
            """Add member to the system."""
            self.members[member.name] = member
            print(f"āœ“ Added member: {member.name} - Interests: {', '.join(member.interests)}")
        
        def create_community(self, name: str, focus: str, norms: List[str]) -> Community:
            """Create a new community."""
            community = Community(name, focus, norms=norms)
            self.communities[name] = community
            print(f"āœ“ Created community: {name} (Focus: {focus})")
            return community
        
        def join_community(self, member_name: str, community_name: str) -> bool:
            """Member joins a community."""
            if member_name in self.members and community_name in self.communities:
                self.members[member_name].communities.add(community_name)
                self.communities[community_name].members.add(member_name)
                print(f"āœ“ {member_name} joined {community_name}")
                return True
            return False
        
        def suggest_communities(self, member_name: str) -> List[str]:
            """Suggest communities based on interests."""
            if member_name not in self.members:
                return []
            
            member = self.members[member_name]
            suggestions = []
            
            for comm_name, comm in self.communities.items():
                if comm_name not in member.communities:
                    # Check interest overlap
                    if any(interest.lower() in comm.focus.lower() 
                          for interest in member.interests):
                        suggestions.append(comm_name)
            
            return suggestions
        
        def contribute(self, member_name: str, community_name: str, contribution: str):
            """Member contributes to community."""
            if member_name in self.members and community_name in self.communities:
                member = self.members[member_name]
                community = self.communities[community_name]
                
                member.contributions += 1
                member.reputation = min(1.0, member.reputation + 0.05)
                
                event = {
                    "type": "contribution",
                    "member": member_name,
                    "description": contribution,
                    "timestamp": datetime.now()
                }
                community.events.append(event)
                
                print(f"āœ“ {member_name} contributed to {community_name}: {contribution}")
                print(f"  Reputation: {member.reputation:.2f}")
        
        def organize_event(self, community_name: str, event_description: str) -> Dict[str, Any]:
            """Community organizes an event."""
            if community_name not in self.communities:
                return {}
            
            community = self.communities[community_name]
            event = {
                "type": "event",
                "community": community_name,
                "description": event_description,
                "participants": list(community.members),
                "timestamp": datetime.now()
            }
            community.events.append(event)
            
            return event
        
        def get_top_contributors(self, community_name: str, n: int = 3) -> List[Dict[str, Any]]:
            """Get top contributors in a community."""
            if community_name not in self.communities:
                return []
            
            community = self.communities[community_name]
            members = [self.members[m] for m in community.members if m in self.members]
            members.sort(key=lambda x: (x.contributions, x.reputation), reverse=True)
            
            return [
                {"name": m.name, "contributions": m.contributions, "reputation": m.reputation}
                for m in members[:n]
            ]
        
        def run(self, scenario: str) -> Dict[str, Any]:
            """Execute community scenario."""
            total_events = sum(len(c.events) for c in self.communities.values())
            avg_community_size = sum(len(c.members) for c in self.communities.values()) / len(self.communities) if self.communities else 0
            
            return {
                "pattern": "Community",
                "scenario": scenario,
                "members": len(self.members),
                "communities": len(self.communities),
                "total_events": total_events,
                "avg_community_size": avg_community_size
            }
    
    
    # Example usage
    if __name__ == "__main__":
        print("=== Community Pattern Demo ===\n")
        
        pattern = CommunityPattern()
        
        # Add members
        print("--- Adding Members ---")
        members = [
            CommunityMember("Alice", ["Python", "AI", "Open Source"]),
            CommunityMember("Bob", ["Design", "UX", "Open Source"]),
            CommunityMember("Carol", ["Python", "Data Science", "Research"]),
            CommunityMember("David", ["AI", "Research", "Ethics"]),
        ]
        
        for member in members:
            pattern.add_member(member)
        
        # Create communities
        print("\n--- Creating Communities ---")
        pattern.create_community("PythonDevs", "Python Programming", 
                                ["Share knowledge", "Help beginners", "Code quality"])
        pattern.create_community("AIResearchers", "AI and Machine Learning",
                                ["Peer review", "Reproducibility", "Ethical AI"])
        pattern.create_community("OpenSourceContributors", "Open Source Development",
                                ["Collaboration", "Documentation", "Community-first"])
        
        # Members join communities
        print("\n--- Members Joining Communities ---")
        pattern.join_community("Alice", "PythonDevs")
        pattern.join_community("Alice", "OpenSourceContributors")
        pattern.join_community("Carol", "PythonDevs")
        pattern.join_community("David", "AIResearchers")
        
        # Suggest communities
        print("\n--- Community Suggestions ---")
        for member_name in ["Bob", "Carol"]:
            suggestions = pattern.suggest_communities(member_name)
            if suggestions:
                print(f"{member_name} might like: {', '.join(suggestions)}")
        
        # Member contributions
        print("\n--- Member Contributions ---")
        pattern.contribute("Alice", "PythonDevs", "Wrote tutorial on async programming")
        pattern.contribute("Carol", "PythonDevs", "Fixed bugs in pandas integration")
        pattern.contribute("David", "AIResearchers", "Published ethics framework")
        pattern.contribute("Alice", "PythonDevs", "Mentored 3 new members")
        
        # Organize community events
        print("\n--- Community Events ---")
        event = pattern.organize_event("PythonDevs", "Weekly coding meetup")
        print(f"āœ“ Event in {event['community']}: {event['description']}")
        print(f"  Participants: {', '.join(event['participants'])}")
        
        # Top contributors
        print("\n--- Top Contributors ---")
        top = pattern.get_top_contributors("PythonDevs")
        for i, contributor in enumerate(top, 1):
            print(f"{i}. {contributor['name']}: {contributor['contributions']} contributions, "
                  f"reputation {contributor['reputation']:.2f}")
        
        # Summary
        print("\n--- Summary ---")
        result = pattern.run("Developer communities")
        print(f"Total Members: {result['members']}")
        print(f"Total Communities: {result['communities']}")
        print(f"Total Events: {result['total_events']}")
        print(f"Avg Community Size: {result['avg_community_size']:.1f}")
        result = pattern.run("Test input")
        print(f"Result: {result}")
    
        

    Agentic Architecture Pattern: Community

    Pattern 37: 37 Community – Line-by-Line Explanation

    Overview

    Pattern 37: Community Pattern

    Agents form communities based on shared interests, goals, or characteristics. Social structures with norms, reputation, and collective identity emerge organically.


    Code Structure Analysis

    File Information

    • Pattern Number: 37
    • Pattern Name: 37 Community
    • File Path: patterns\organizational\37_community.py
    • Total Lines: 226

    Detailed Code Explanation

    Module Docstring

    """
    Pattern 37: Community Pattern
    
    Agents form communities based on shared interests, goals, or characteristics.
    Social structures with norms, reputation, and collective identity emerge organically.
    """
    

    Explanation: This module docstring describes the purpose and key features of the 37 Community pattern.


    Imports Section

    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI  # First 20 imports shown
    

    Explanation: The module imports necessary dependencies: – from typing import Dict, Any, List, Optional, Set: Type hints for better code documentation – from dataclasses import dataclass, field: Data class decorators for clean data structures – from datetime import datetime: Date and time utilities – from langchain_core.prompts import ChatPromptTemplate: LangChain framework integration – from langchain_openai import ChatOpenAI: LangChain framework integration


    Classes

    CommunityMember (Line 16)

    Description: Member of a community.

    Community (Line 26)

    Description: A community of agents.

    CommunityPattern (Line 35)

    Description: Community Pattern – Social organization around shared interests.

    Features: – Interest-based clustering – Reputation systems – Community norms – Collective activities – Inter-community connections

    Methods:

    __init__ (Line 47)
    def __init__(self, model_name):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference – model_name: LLM model to use (e.g., “gpt-4”)

    add_member (Line 52)
    def add_member(self, member):
        """Add member to the system."""
    

    Purpose: Add member to the system.

    Parameters: – self: Instance reference – member: Parameter for member

    create_community (Line 57)
    def create_community(self, name, focus, norms):
        """Create a new community."""
    

    Purpose: Create a new community.

    Parameters: – self: Instance reference – name: Identifier or label – focus: Parameter for focus – norms: Parameter for norms

    join_community (Line 64)
    def join_community(self, member_name, community_name):
        """Member joins a community."""
    

    Purpose: Member joins a community.

    Parameters: – self: Instance reference – member_name: Parameter for member_name – community_name: Parameter for community_name

    suggest_communities (Line 73)
    def suggest_communities(self, member_name):
        """Suggest communities based on interests."""
    

    Purpose: Suggest communities based on interests.

    Parameters: – self: Instance reference – member_name: Parameter for member_name

    contribute (Line 90)
    def contribute(self, member_name, community_name, contribution):
        """Member contributes to community."""
    

    Purpose: Member contributes to community.

    Parameters: – self: Instance reference – member_name: Parameter for member_name – community_name: Parameter for community_name – contribution: Parameter for contribution

    organize_event (Line 110)
    def organize_event(self, community_name, event_description):
        """Community organizes an event."""
    

    Purpose: Community organizes an event.

    Parameters: – self: Instance reference – community_name: Parameter for community_name – event_description: Parameter for event_description

    get_top_contributors (Line 127)
    def get_top_contributors(self, community_name, n):
        """Get top contributors in a community."""
    

    Purpose: Get top contributors in a community.

    Parameters: – self: Instance reference – community_name: Parameter for community_name – n: Parameter for n

    run (Line 141)
    def run(self, scenario):
        """Execute community scenario."""
    

    Purpose: Execute community scenario.

    Parameters: – self: Instance reference – scenario: Parameter for scenario


    Design Patterns Used

    • Strategy Pattern: Different execution strategies for various scenarios
    • State Pattern: Managing different states in the workflow
    • Chain of Responsibility: Sequential processing through workflow nodes
    • Observer Pattern: Tracking and monitoring pattern execution
    • Factory Pattern: Creating instances with proper configuration

    Usage Example

    # Initialize the pattern
    pattern = CommunityMember(name="example", model_name="gpt-4")
    
    # Configure and execute
    result = pattern.execute(data={"key": "value"})
    
    # Check results
    print(result)
    

    Key Concepts

    • LLM Integration: Uses LangChain/OpenAI for intelligent decision-making
    • Workflow Orchestration: LangGraph manages execution flow through nodes
    • State Management: TypedDict defines workflow state structure
    • Error Handling: Comprehensive error handling and fallback mechanisms
    • Extensibility: Designed for easy customization and extension

    Extension Points

    This pattern can be extended by: 1. Adding custom workflow nodes 2. Implementing additional validation logic 3. Integrating with external services 4. Customizing LLM prompts and responses 5. Adding monitoring and logging capabilities

  • Agentic Architecture Pattern: Market Based

    
        """
    Pattern 36: Market-Based Pattern
    
    Agents operate in an economic market, trading resources and services based on supply/demand.
    Uses pricing mechanisms, bidding, and market equilibrium for resource allocation.
    """
    
    from typing import Dict, Any, List, Optional
    from dataclasses import dataclass, field
    from datetime import datetime
    from enum import Enum
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    
    
    class TransactionType(Enum):
        BUY = "buy"
        SELL = "sell"
    
    
    @dataclass
    class MarketAgent:
        """Agent participating in market economy."""
        name: str
        role: str
        currency: float = 1000.0  # Starting budget
        services: List[str] = field(default_factory=list)
        transactions: List[Dict[str, Any]] = field(default_factory=list)
    
    
    @dataclass
    class ServiceListing:
        """Service offered in marketplace."""
        provider: str
        service: str
        price: float
        quality: float  # 0.0-1.0
        available: bool = True
    
    
    class MarketBasedPattern:
        """
        Market-Based Pattern - Economic coordination mechanism.
        
        Features:
        - Supply and demand dynamics
        - Price-based resource allocation
        - Competitive bidding
        - Market equilibrium
        - Transaction history
        """
        
        def __init__(self, model_name: str = "gpt-4"):
            self.llm = ChatOpenAI(model=model_name, temperature=0.7)
            self.agents: Dict[str, MarketAgent] = {}
            self.marketplace: List[ServiceListing] = []
            self.transactions: List[Dict[str, Any]] = []
        
        def add_agent(self, agent: MarketAgent):
            """Add agent to market."""
            self.agents[agent.name] = agent
            print(f"āœ“ Agent {agent.name} joined market with {agent.currency} currency")
        
        def list_service(self, provider_name: str, service: str, price: float, quality: float):
            """Agent lists service in marketplace."""
            if provider_name in self.agents:
                listing = ServiceListing(provider_name, service, price, quality)
                self.marketplace.append(listing)
                self.agents[provider_name].services.append(service)
                print(f"āœ“ {provider_name} listed: {service} @ {price} (quality: {quality})")
                return listing
            return None
        
        def find_best_offer(self, service_type: str, max_price: float) -> Optional[ServiceListing]:
            """Find best service offer based on price-quality ratio."""
            candidates = [l for l in self.marketplace 
                         if service_type.lower() in l.service.lower() 
                         and l.price  Dict[str, Any]:
            """Execute market transaction."""
            if buyer_name not in self.agents:
                return {"success": False, "error": "Buyer not found"}
            
            buyer = self.agents[buyer_name]
            
            # Find best offer
            best_offer = self.find_best_offer(service_type, max_price)
            
            if not best_offer:
                return {"success": False, "error": "No suitable offers"}
            
            if buyer.currency  2:  # High demand
                        listing.price *= 1.2
                        print(f"↑ Price increase: {listing.service} → {listing.price:.2f}")
        
        def get_market_stats(self) -> Dict[str, Any]:
            """Get market statistics."""
            return {
                "total_agents": len(self.agents),
                "active_listings": sum(1 for l in self.marketplace if l.available),
                "total_transactions": len(self.transactions),
                "total_volume": sum(tx['price'] for tx in self.transactions),
                "average_price": sum(tx['price'] for tx in self.transactions) / len(self.transactions) if self.transactions else 0
            }
        
        def run(self, scenario: str) -> Dict[str, Any]:
            """Execute market scenario."""
            return {
                "pattern": "Market-Based",
                "scenario": scenario,
                **self.get_market_stats()
            }
    
    
    # Example usage
    if __name__ == "__main__":
        print("=== Market-Based Pattern Demo ===\n")
        
        market = MarketBasedPattern()
        
        # Add agents
        print("--- Agents Joining Market ---")
        agents = [
            MarketAgent("Alice", "Developer", 1000, []),
            MarketAgent("Bob", "Designer", 1200, []),
            MarketAgent("Carol", "Tester", 800, []),
        ]
        
        for agent in agents:
            market.add_agent(agent)
        
        # List services
        print("\n--- Service Listings ---")
        market.list_service("Alice", "API Development", 300, 0.9)
        market.list_service("Alice", "Code Review", 100, 0.85)
        market.list_service("Bob", "UI Design", 250, 0.95)
        market.list_service("Bob", "Logo Design", 150, 0.8)
        market.list_service("Carol", "Automated Testing", 200, 0.88)
        
        # Execute transactions
        print("\n--- Market Transactions ---")
        tx1 = market.execute_transaction("Bob", "Code Review", 150)
        if tx1['success']:
            print(f"āœ“ {tx1['buyer']} bought {tx1['service']} from {tx1['seller']} for {tx1['price']}")
        
        tx2 = market.execute_transaction("Carol", "UI Design", 300)
        if tx2['success']:
            print(f"āœ“ {tx2['buyer']} bought {tx2['service']} from {tx2['seller']} for {tx2['price']}")
        
        tx3 = market.execute_transaction("Alice", "Automated Testing", 250)
        if tx3['success']:
            print(f"āœ“ {tx3['buyer']} bought {tx3['service']} from {tx3['seller']} for {tx3['price']}")
        
        # Show agent balances
        print("\n--- Agent Balances ---")
        for name, agent in market.agents.items():
            print(f"{name}: {agent.currency:.2f} currency ({len(agent.transactions)} transactions)")
        
        # Market statistics
        print("\n--- Market Statistics ---")
        stats = market.get_market_stats()
        print(f"Total Agents: {stats['total_agents']}")
        print(f"Active Listings: {stats['active_listings']}")
        print(f"Total Transactions: {stats['total_transactions']}")
        print(f"Total Volume: {stats['total_volume']:.2f}")
        print(f"Average Price: {stats['average_price']:.2f}")
        
        # Price adjustments
        print("\n--- Price Adjustments (Supply/Demand) ---")
        market.adjust_prices()
        
        result = market.run("Service marketplace")
        print(f"\nāœ“ {result['pattern']} pattern executed")
        result = pattern.run("Test input")
        print(f"Result: {result}")
    
        

    Agentic Architecture Pattern: Market Based

    Pattern 36: 36 Market Based – Line-by-Line Explanation

    Overview

    Pattern 36: Market-Based Pattern

    Agents operate in an economic market, trading resources and services based on supply/demand. Uses pricing mechanisms, bidding, and market equilibrium for resource allocation.


    Code Structure Analysis

    File Information

    • Pattern Number: 36
    • Pattern Name: 36 Market Based
    • File Path: patterns\organizational\36_market_based.py
    • Total Lines: 220

    Detailed Code Explanation

    Module Docstring

    """
    Pattern 36: Market-Based Pattern
    
    Agents operate in an economic market, trading resources and services based on supply/demand.
    Uses pricing mechanisms, bidding, and market equilibrium for resource allocation.
    """
    

    Explanation: This module docstring describes the purpose and key features of the 36 Market Based pattern.


    Imports Section

    from typing import Dict, Any, List, Optional
    from dataclasses import dataclass, field
    from datetime import datetime
    from enum import Enum
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI  # First 20 imports shown
    

    Explanation: The module imports necessary dependencies: – from typing import Dict, Any, List, Optional: Type hints for better code documentation – from dataclasses import dataclass, field: Data class decorators for clean data structures – from datetime import datetime: Date and time utilities – from enum import Enum: Enumeration support for fixed sets of values – from langchain_core.prompts import ChatPromptTemplate: LangChain framework integration – from langchain_openai import ChatOpenAI: LangChain framework integration


    Enumerations

    TransactionType (Line 16)

    class TransactionType(Enum):
        BUY
        SELL
    

    Purpose: No enum docstring.

    Values: – BUY: Represents buy – SELL: Represents sell


    Classes

    TransactionType (Line 16)

    Description: No class docstring.

    MarketAgent (Line 22)

    Description: Agent participating in market economy.

    ServiceListing (Line 32)

    Description: Service offered in marketplace.

    MarketBasedPattern (Line 41)

    Description: Market-Based Pattern – Economic coordination mechanism.

    Features: – Supply and demand dynamics – Price-based resource allocation – Competitive bidding – Market equilibrium – Transaction history

    Methods:

    __init__ (Line 53)
    def __init__(self, model_name):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference – model_name: LLM model to use (e.g., “gpt-4”)

    add_agent (Line 59)
    def add_agent(self, agent):
        """Add agent to market."""
    

    Purpose: Add agent to market.

    Parameters: – self: Instance reference – agent: Parameter for agent

    list_service (Line 64)
    def list_service(self, provider_name, service, price, quality):
        """Agent lists service in marketplace."""
    

    Purpose: Agent lists service in marketplace.

    Parameters: – self: Instance reference – provider_name: Parameter for provider_name – service: Parameter for service – price: Parameter for price – quality: Parameter for quality

    find_best_offer (Line 74)
    def find_best_offer(self, service_type, max_price):
        """Find best service offer based on price-quality ratio."""
    

    Purpose: Find best service offer based on price-quality ratio.

    Parameters: – self: Instance reference – service_type: Parameter for service_type – max_price: Parameter for max_price

    execute_transaction (Line 87)
    def execute_transaction(self, buyer_name, service_type, max_price):
        """Execute market transaction."""
    

    Purpose: Execute market transaction.

    Parameters: – self: Instance reference – buyer_name: Parameter for buyer_name – service_type: Parameter for service_type – max_price: Parameter for max_price

    adjust_prices (Line 125)
    def adjust_prices(self):
        """Market adjusts prices based on demand."""
    

    Purpose: Market adjusts prices based on demand.

    Parameters: – self: Instance reference

    get_market_stats (Line 140)
    def get_market_stats(self):
        """Get market statistics."""
    

    Purpose: Get market statistics.

    Parameters: – self: Instance reference

    run (Line 150)
    def run(self, scenario):
        """Execute market scenario."""
    

    Purpose: Execute market scenario.

    Parameters: – self: Instance reference – scenario: Parameter for scenario


    Design Patterns Used

    • Strategy Pattern: Different execution strategies for various scenarios
    • State Pattern: Managing different states in the workflow
    • Chain of Responsibility: Sequential processing through workflow nodes
    • Observer Pattern: Tracking and monitoring pattern execution
    • Factory Pattern: Creating instances with proper configuration

    Usage Example

    # Initialize the pattern
    pattern = TransactionType(name="example", model_name="gpt-4")
    
    # Configure and execute
    result = pattern.execute(data={"key": "value"})
    
    # Check results
    print(result)
    

    Key Concepts

    • LLM Integration: Uses LangChain/OpenAI for intelligent decision-making
    • Workflow Orchestration: LangGraph manages execution flow through nodes
    • State Management: TypedDict defines workflow state structure
    • Error Handling: Comprehensive error handling and fallback mechanisms
    • Extensibility: Designed for easy customization and extension

    Extension Points

    This pattern can be extended by: 1. Adding custom workflow nodes 2. Implementing additional validation logic 3. Integrating with external services 4. Customizing LLM prompts and responses 5. Adding monitoring and logging capabilities

  • Agentic Architecture Pattern: Federated Agent

    
        """
    Pattern 35: Federated Agent Pattern
    
    Autonomous organizational units that maintain independence while coordinating through a federation.
    Each unit (federation member) retains local autonomy but adheres to federation protocols.
    """
    
    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    
    
    @dataclass
    class FederationMember:
        """Autonomous organizational unit in federation."""
        name: str
        domain: str  # Area of expertise/responsibility
        resources: List[str] = field(default_factory=list)
        policies: Dict[str, Any] = field(default_factory=dict)
        shared_resources: List[str] = field(default_factory=list)
        
    @dataclass
    class FederationProtocol:
        """Shared rules for federation coordination."""
        name: str
        rules: List[str]
        member_signatures: Set[str] = field(default_factory=set)
    
    
    class FederatedAgentPattern:
        """
        Federated Agent Pattern - Autonomous units with coordinated governance.
        
        Features:
        - Local autonomy for each member
        - Shared protocols and standards
        - Resource sharing agreements
        - Decentralized decision-making
        - Cross-federation collaboration
        """
        
        def __init__(self, model_name: str = "gpt-4"):
            self.llm = ChatOpenAI(model=model_name, temperature=0.7)
            self.members: Dict[str, FederationMember] = {}
            self.protocols: Dict[str, FederationProtocol] = {}
            self.resource_exchanges: List[Dict[str, Any]] = []
        
        def add_member(self, member: FederationMember):
            """Add a member to the federation."""
            self.members[member.name] = member
            print(f"āœ“ Added federation member: {member.name} (Domain: {member.domain})")
        
        def create_protocol(self, protocol: FederationProtocol) -> bool:
            """Create a federation-wide protocol."""
            self.protocols[protocol.name] = protocol
            print(f"āœ“ Created protocol: {protocol.name}")
            return True
        
        def sign_protocol(self, member_name: str, protocol_name: str) -> bool:
            """Member signs agreement to follow protocol."""
            if member_name in self.members and protocol_name in self.protocols:
                self.protocols[protocol_name].member_signatures.add(member_name)
                print(f"āœ“ {member_name} signed protocol: {protocol_name}")
                return True
            return False
        
        def share_resource(self, from_member: str, to_member: str, resource: str) -> Dict[str, Any]:
            """Share resource between federation members."""
            if from_member in self.members and to_member in self.members:
                exchange = {
                    "from": from_member,
                    "to": to_member,
                    "resource": resource,
                    "timestamp": datetime.now()
                }
                self.resource_exchanges.append(exchange)
                self.members[to_member].shared_resources.append(resource)
                return exchange
            return {}
        
        def coordinate_action(self, action: str, participating_members: List[str]) -> Dict[str, Any]:
            """Coordinate action across multiple members."""
            if not all(m in self.members for m in participating_members):
                return {"success": False, "error": "Invalid members"}
            
            # Get member contexts
            contexts = []
            for member_name in participating_members:
                member = self.members[member_name]
                contexts.append(f"{member.name} ({member.domain})")
            
            prompt = ChatPromptTemplate.from_messages([
                ("system", "You are coordinating a federated action. "
                          "Provide a coordination plan that respects member autonomy."),
                ("human", f"Action: {action}\n"
                         f"Participating: {', '.join(contexts)}\n\n"
                         f"Coordination plan:")
            ])
            
            chain = prompt | self.llm
            response = chain.invoke({})
            
            return {
                "success": True,
                "action": action,
                "members": participating_members,
                "plan": response.content
            }
        
        def run(self, scenario: str) -> Dict[str, Any]:
            """Execute federation scenario."""
            return {
                "pattern": "Federated Agent",
                "scenario": scenario,
                "members": len(self.members),
                "protocols": len(self.protocols),
                "resource_exchanges": len(self.resource_exchanges)
            }
    
    
    # Example usage
    if __name__ == "__main__":
        print("=== Federated Agent Pattern Demo ===\n")
        
        federation = FederatedAgentPattern()
        
        # Add federation members
        print("--- Adding Federation Members ---")
        members = [
            FederationMember("RegionNorth", "Healthcare", ["hospital_data", "clinics"]),
            FederationMember("RegionSouth", "Healthcare", ["medical_centers", "research_labs"]),
            FederationMember("RegionEast", "Healthcare", ["trauma_centers", "specialists"]),
        ]
        
        for member in members:
            federation.add_member(member)
        
        # Create federation protocols
        print("\n--- Creating Federation Protocols ---")
        protocol = FederationProtocol(
            "DataPrivacy",
            ["Encrypt all patient data", "No data sharing without consent", "Annual audits required"]
        )
        federation.create_protocol(protocol)
        
        # Members sign protocols
        print("\n--- Protocol Signatures ---")
        for member in members:
            federation.sign_protocol(member.name, "DataPrivacy")
        
        # Resource sharing
        print("\n--- Resource Sharing ---")
        exchange = federation.share_resource("RegionNorth", "RegionSouth", "specialist_database")
        print(f"āœ“ Resource exchange: {exchange['from']} → {exchange['to']}: {exchange['resource']}")
        
        # Coordinate action
        print("\n--- Federated Coordination ---")
        result = federation.coordinate_action(
            "Implement unified emergency response system",
            ["RegionNorth", "RegionSouth", "RegionEast"]
        )
        print(f"Action: {result['action']}")
        print(f"Plan:\n{result['plan']}")
        
        # Summary
        print("\n--- Summary ---")
        summary = federation.run("Healthcare federation")
        print(f"Members: {summary['members']}")
        print(f"Protocols: {summary['protocols']}")
        print(f"Resource Exchanges: {summary['resource_exchanges']}")
    
        

    Agentic Architecture Pattern: Federated Agent

    Pattern 35: 35 Federated Agent – Line-by-Line Explanation

    Overview

    Pattern 35: Federated Agent Pattern

    Autonomous organizational units that maintain independence while coordinating through a federation. Each unit (federation member) retains local autonomy but adheres to federation protocols.


    Code Structure Analysis

    File Information

    • Pattern Number: 35
    • Pattern Name: 35 Federated Agent
    • File Path: patterns\organizational\35_federated_agent.py
    • Total Lines: 173

    Detailed Code Explanation

    Module Docstring

    """
    Pattern 35: Federated Agent Pattern
    
    Autonomous organizational units that maintain independence while coordinating through a federation.
    Each unit (federation member) retains local autonomy but adheres to federation protocols.
    """
    

    Explanation: This module docstring describes the purpose and key features of the 35 Federated Agent pattern.


    Imports Section

    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI  # First 20 imports shown
    

    Explanation: The module imports necessary dependencies: – from typing import Dict, Any, List, Optional, Set: Type hints for better code documentation – from dataclasses import dataclass, field: Data class decorators for clean data structures – from datetime import datetime: Date and time utilities – from langchain_core.prompts import ChatPromptTemplate: LangChain framework integration – from langchain_openai import ChatOpenAI: LangChain framework integration


    Classes

    FederationMember (Line 16)

    Description: Autonomous organizational unit in federation.

    FederationProtocol (Line 25)

    Description: Shared rules for federation coordination.

    FederatedAgentPattern (Line 32)

    Description: Federated Agent Pattern – Autonomous units with coordinated governance.

    Features: – Local autonomy for each member – Shared protocols and standards – Resource sharing agreements – Decentralized decision-making – Cross-federation collaboration

    Methods:

    __init__ (Line 44)
    def __init__(self, model_name):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference – model_name: LLM model to use (e.g., “gpt-4”)

    add_member (Line 50)
    def add_member(self, member):
        """Add a member to the federation."""
    

    Purpose: Add a member to the federation.

    Parameters: – self: Instance reference – member: Parameter for member

    create_protocol (Line 55)
    def create_protocol(self, protocol):
        """Create a federation-wide protocol."""
    

    Purpose: Create a federation-wide protocol.

    Parameters: – self: Instance reference – protocol: Parameter for protocol

    sign_protocol (Line 61)
    def sign_protocol(self, member_name, protocol_name):
        """Member signs agreement to follow protocol."""
    

    Purpose: Member signs agreement to follow protocol.

    Parameters: – self: Instance reference – member_name: Parameter for member_name – protocol_name: Parameter for protocol_name

    share_resource (Line 69)
    def share_resource(self, from_member, to_member, resource):
        """Share resource between federation members."""
    

    Purpose: Share resource between federation members.

    Parameters: – self: Instance reference – from_member: Parameter for from_member – to_member: Parameter for to_member – resource: Parameter for resource

    coordinate_action (Line 83)
    def coordinate_action(self, action, participating_members):
        """Coordinate action across multiple members."""
    

    Purpose: Coordinate action across multiple members.

    Parameters: – self: Instance reference – action: Parameter for action – participating_members: Parameter for participating_members

    run (Line 112)
    def run(self, scenario):
        """Execute federation scenario."""
    

    Purpose: Execute federation scenario.

    Parameters: – self: Instance reference – scenario: Parameter for scenario


    Design Patterns Used

    • Strategy Pattern: Different execution strategies for various scenarios
    • State Pattern: Managing different states in the workflow
    • Chain of Responsibility: Sequential processing through workflow nodes
    • Observer Pattern: Tracking and monitoring pattern execution
    • Factory Pattern: Creating instances with proper configuration

    Usage Example

    # Initialize the pattern
    pattern = FederationMember(name="example", model_name="gpt-4")
    
    # Configure and execute
    result = pattern.execute(data={"key": "value"})
    
    # Check results
    print(result)
    

    Key Concepts

    • LLM Integration: Uses LangChain/OpenAI for intelligent decision-making
    • Workflow Orchestration: LangGraph manages execution flow through nodes
    • State Management: TypedDict defines workflow state structure
    • Error Handling: Comprehensive error handling and fallback mechanisms
    • Extensibility: Designed for easy customization and extension

    Extension Points

    This pattern can be extended by: 1. Adding custom workflow nodes 2. Implementing additional validation logic 3. Integrating with external services 4. Customizing LLM prompts and responses 5. Adding monitoring and logging capabilities

  • Agentic Architecture Pattern: Holonic Agent

    
        """
    Pattern 34: Holonic Agent Pattern
    
    Agents that are simultaneously autonomous wholes and parts of larger wholes (holarchies).
    Each holon can act independently yet also function as a component of a super-holon.
    """
    
    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    
    
    @dataclass
    class Holon:
        """
        A holon - both a whole and a part.
        Can act autonomously and be part of a larger structure.
        """
        name: str
        role: str
        level: int  # Level in holarchy (0=atomic, higher=composite)
        sub_holons: List['Holon'] = field(default_factory=list)
        parent_holon: Optional[str] = None
        capabilities: List[str] = field(default_factory=list)
        state: Dict[str, Any] = field(default_factory=dict)
        
        def is_atomic(self) -> bool:
            """Check if holon is atomic (no sub-holons)."""
            return len(self.sub_holons) == 0
        
        def is_composite(self) -> bool:
            """Check if holon is composite (has sub-holons)."""
            return len(self.sub_holons) > 0
    
    
    @dataclass
    class HolonicTask:
        """Task that can be executed by holons at different levels."""
        description: str
        required_capabilities: List[str]
        complexity: int  # 1-5, determines if decomposition needed
        decomposed: bool = False
        subtasks: List['HolonicTask'] = field(default_factory=list)
    
    
    class HolonicAgentPattern:
        """
        Holonic Agent Pattern - Recursive agent composition.
        
        Features:
        - Holons are both autonomous and part of larger structures
        - Self-similar at different scales
        - Task decomposition and composition
        - Emergent behavior from holon interactions
        - Dynamic holarchy restructuring
        """
        
        def __init__(self, model_name: str = "gpt-4"):
            self.llm = ChatOpenAI(model=model_name, temperature=0.7)
            self.holons: Dict[str, Holon] = {}
            self.task_history: List[Dict[str, Any]] = []
        
        def create_atomic_holon(self, name: str, role: str, capabilities: List[str]) -> Holon:
            """Create an atomic holon (no sub-holons)."""
            holon = Holon(name=name, role=role, level=0, capabilities=capabilities)
            self.holons[name] = holon
            print(f"āœ“ Created atomic holon: {name} ({role}) - Capabilities: {', '.join(capabilities)}")
            return holon
        
        def create_composite_holon(self, name: str, role: str, 
                                  sub_holon_names: List[str]) -> Holon:
            """Create a composite holon from existing holons."""
            sub_holons = [self.holons[n] for n in sub_holon_names if n in self.holons]
            
            # Aggregate capabilities from sub-holons
            aggregated_capabilities = set()
            max_level = 0
            for sub in sub_holons:
                aggregated_capabilities.update(sub.capabilities)
                max_level = max(max_level, sub.level)
                sub.parent_holon = name
            
            holon = Holon(
                name=name,
                role=role,
                level=max_level + 1,
                sub_holons=sub_holons,
                capabilities=list(aggregated_capabilities)
            )
            self.holons[name] = holon
            
            print(f"āœ“ Created composite holon: {name} (Level {holon.level}) from "
                  f"{', '.join(sub_holon_names)}")
            print(f"  Aggregated capabilities: {', '.join(holon.capabilities)}")
            return holon
        
        def decompose_task(self, task: HolonicTask) -> List[HolonicTask]:
            """Decompose complex task into subtasks."""
            if task.complexity  Dict[str, Any]:
            """Assign task to holon - may delegate to sub-holons."""
            if holon_name not in self.holons:
                return {"success": False, "error": "Holon not found"}
            
            holon = self.holons[holon_name]
            
            # Check if holon has required capabilities
            has_capabilities = all(cap in holon.capabilities 
                                  for cap in task.required_capabilities)
            
            if not has_capabilities:
                return {
                    "success": False,
                    "holon": holon_name,
                    "error": "Missing required capabilities"
                }
            
            # If atomic holon, execute directly
            if holon.is_atomic():
                result = {
                    "success": True,
                    "holon": holon_name,
                    "type": "atomic",
                    "task": task.description,
                    "execution": "direct"
                }
            else:
                # Composite holon: decompose and delegate
                if task.complexity > 1 and not task.decomposed:
                    subtasks = self.decompose_task(task)
                else:
                    subtasks = [task]
                
                # Delegate to sub-holons
                delegations = []
                for subtask in subtasks:
                    # Find best sub-holon for subtask
                    for sub_holon in holon.sub_holons:
                        if all(cap in sub_holon.capabilities 
                              for cap in subtask.required_capabilities):
                            delegations.append({
                                "sub_holon": sub_holon.name,
                                "subtask": subtask.description
                            })
                            break
                
                result = {
                    "success": True,
                    "holon": holon_name,
                    "type": "composite",
                    "task": task.description,
                    "execution": "delegated",
                    "delegations": delegations
                }
            
            self.task_history.append(result)
            return result
        
        def get_holarchy_structure(self) -> Dict[str, Any]:
            """Get the hierarchical structure of holons."""
            def build_tree(holon: Holon) -> Dict[str, Any]:
                tree = {
                    "name": holon.name,
                    "role": holon.role,
                    "level": holon.level,
                    "type": "composite" if holon.is_composite() else "atomic",
                    "capabilities": holon.capabilities
                }
                if holon.sub_holons:
                    tree["sub_holons"] = [build_tree(sub) for sub in holon.sub_holons]
                return tree
            
            # Find root holons (no parent)
            roots = [h for h in self.holons.values() if h.parent_holon is None]
            return {"holarchy": [build_tree(root) for root in roots]}
        
        def run(self, scenario: str) -> Dict[str, Any]:
            """Execute holonic organization scenario."""
            return {
                "pattern": "Holonic Agent",
                "scenario": scenario,
                "total_holons": len(self.holons),
                "atomic_holons": sum(1 for h in self.holons.values() if h.is_atomic()),
                "composite_holons": sum(1 for h in self.holons.values() if h.is_composite()),
                "tasks_executed": len(self.task_history)
            }
    
    
    # Example usage
    if __name__ == "__main__":
        print("=== Holonic Agent Pattern Demo ===\n")
        
        pattern = HolonicAgentPattern()
        
        # Create atomic holons (Level 0)
        print("--- Creating Atomic Holons (Level 0) ---")
        pattern.create_atomic_holon("DataCollector", "Data Collector", ["data_collection", "API"])
        pattern.create_atomic_holon("DataCleaner", "Data Cleaner", ["data_cleaning", "validation"])
        pattern.create_atomic_holon("ModelTrainer", "Model Trainer", ["ML", "training"])
        pattern.create_atomic_holon("ModelEvaluator", "Model Evaluator", ["ML", "evaluation"])
        
        # Create composite holons (Level 1)
        print("\n--- Creating Composite Holons (Level 1) ---")
        pattern.create_composite_holon(
            "DataPipeline", 
            "Data Processing Pipeline",
            ["DataCollector", "DataCleaner"]
        )
        pattern.create_composite_holon(
            "MLPipeline",
            "ML Training Pipeline",
            ["ModelTrainer", "ModelEvaluator"]
        )
        
        # Create super-holon (Level 2)
        print("\n--- Creating Super-Holon (Level 2) ---")
        pattern.create_composite_holon(
            "MLSystem",
            "Complete ML System",
            ["DataPipeline", "MLPipeline"]
        )
        
        # Assign tasks at different levels
        print("\n--- Task Assignment ---")
        
        # Task to atomic holon
        task1 = HolonicTask(
            description="Collect data from API endpoint",
            required_capabilities=["data_collection"],
            complexity=1
        )
        result1 = pattern.assign_task("DataCollector", task1)
        print(f"\nāœ“ Atomic execution:")
        print(f"  Holon: {result1['holon']}")
        print(f"  Task: {result1['task']}")
        print(f"  Execution: {result1['execution']}")
        
        # Task to composite holon (Level 1)
        task2 = HolonicTask(
            description="Process raw data into clean dataset",
            required_capabilities=["data_collection", "data_cleaning"],
            complexity=3
        )
        result2 = pattern.assign_task("DataPipeline", task2)
        print(f"\nāœ“ Composite execution (Level 1):")
        print(f"  Holon: {result2['holon']}")
        print(f"  Task: {result2['task']}")
        print(f"  Execution: {result2['execution']}")
        print(f"  Delegations:")
        for delegation in result2['delegations']:
            print(f"    - {delegation['sub_holon']}: {delegation['subtask']}")
        
        # Task to super-holon (Level 2)
        task3 = HolonicTask(
            description="Build and deploy complete ML model",
            required_capabilities=["data_collection", "data_cleaning", "ML", "training", "evaluation"],
            complexity=5
        )
        result3 = pattern.assign_task("MLSystem", task3)
        print(f"\nāœ“ Super-holon execution (Level 2):")
        print(f"  Holon: {result3['holon']}")
        print(f"  Task: {result3['task']}")
        print(f"  Execution: {result3['execution']}")
        print(f"  Delegations:")
        for delegation in result3['delegations']:
            print(f"    - {delegation['sub_holon']}: {delegation['subtask']}")
        
        # Show holarchy structure
        print("\n--- Holarchy Structure ---")
        structure = pattern.get_holarchy_structure()
        
        def print_tree(node, indent=0):
            prefix = "  " * indent
            print(f"{prefix}ā”œā”€ {node['name']} ({node['type']}, Level {node['level']})")
            print(f"{prefix}   Role: {node['role']}")
            if node.get('sub_holons'):
                for sub in node['sub_holons']:
                    print_tree(sub, indent + 1)
        
        for root in structure['holarchy']:
            print_tree(root)
        
        # Summary
        print("\n--- Summary ---")
        result = pattern.run("Holonic ML system")
        print(f"Pattern: {result['pattern']}")
        print(f"Total Holons: {result['total_holons']}")
        print(f"Atomic Holons: {result['atomic_holons']}")
        print(f"Composite Holons: {result['composite_holons']}")
        print(f"Tasks Executed: {result['tasks_executed']}")
    
        

    Agentic Architecture Pattern: Holonic Agent

    Pattern 34: 34 Holonic Agent – Line-by-Line Explanation

    Overview

    Pattern 34: Holonic Agent Pattern

    Agents that are simultaneously autonomous wholes and parts of larger wholes (holarchies). Each holon can act independently yet also function as a component of a super-holon.


    Code Structure Analysis

    File Information

    • Pattern Number: 34
    • Pattern Name: 34 Holonic Agent
    • File Path: patterns\organizational\34_holonic_agent.py
    • Total Lines: 327

    Detailed Code Explanation

    Module Docstring

    """
    Pattern 34: Holonic Agent Pattern
    
    Agents that are simultaneously autonomous wholes and parts of larger wholes (holarchies).
    Each holon can act independently yet also function as a component of a super-holon.
    """
    

    Explanation: This module docstring describes the purpose and key features of the 34 Holonic Agent pattern.


    Imports Section

    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI  # First 20 imports shown
    

    Explanation: The module imports necessary dependencies: – from typing import Dict, Any, List, Optional, Set: Type hints for better code documentation – from dataclasses import dataclass, field: Data class decorators for clean data structures – from datetime import datetime: Date and time utilities – from langchain_core.prompts import ChatPromptTemplate: LangChain framework integration – from langchain_openai import ChatOpenAI: LangChain framework integration


    Classes

    Holon (Line 16)

    Description: A holon – both a whole and a part. Can act autonomously and be part of a larger structure.

    Methods:

    is_atomic (Line 29)
    def is_atomic(self):
        """Check if holon is atomic (no sub-holons)."""
    

    Purpose: Check if holon is atomic (no sub-holons).

    Parameters: – self: Instance reference

    is_composite (Line 33)
    def is_composite(self):
        """Check if holon is composite (has sub-holons)."""
    

    Purpose: Check if holon is composite (has sub-holons).

    Parameters: – self: Instance reference

    HolonicTask (Line 39)

    Description: Task that can be executed by holons at different levels.

    HolonicAgentPattern (Line 48)

    Description: Holonic Agent Pattern – Recursive agent composition.

    Features: – Holons are both autonomous and part of larger structures – Self-similar at different scales – Task decomposition and composition – Emergent behavior from holon interactions – Dynamic holarchy restructuring

    Methods:

    __init__ (Line 60)
    def __init__(self, model_name):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference – model_name: LLM model to use (e.g., “gpt-4”)

    create_atomic_holon (Line 65)
    def create_atomic_holon(self, name, role, capabilities):
        """Create an atomic holon (no sub-holons)."""
    

    Purpose: Create an atomic holon (no sub-holons).

    Parameters: – self: Instance reference – name: Identifier or label – role: Parameter for role – capabilities: Parameter for capabilities

    create_composite_holon (Line 72)
    def create_composite_holon(self, name, role, sub_holon_names):
        """Create a composite holon from existing holons."""
    

    Purpose: Create a composite holon from existing holons.

    Parameters: – self: Instance reference – name: Identifier or label – role: Parameter for role – sub_holon_names: Parameter for sub_holon_names

    decompose_task (Line 99)
    def decompose_task(self, task):
        """Decompose complex task into subtasks."""
    

    Purpose: Decompose complex task into subtasks.

    Parameters: – self: Instance reference – task: Parameter for task

    assign_task (Line 136)
    def assign_task(self, holon_name, task):
        """Assign task to holon - may delegate to sub-holons."""
    

    Purpose: Assign task to holon – may delegate to sub-holons.

    Parameters: – self: Instance reference – holon_name: Parameter for holon_name – task: Parameter for task

    get_holarchy_structure (Line 195)
    def get_holarchy_structure(self):
        """Get the hierarchical structure of holons."""
    

    Purpose: Get the hierarchical structure of holons.

    Parameters: – self: Instance reference

    run (Line 213)
    def run(self, scenario):
        """Execute holonic organization scenario."""
    

    Purpose: Execute holonic organization scenario.

    Parameters: – self: Instance reference – scenario: Parameter for scenario


    Design Patterns Used

    • Strategy Pattern: Different execution strategies for various scenarios
    • State Pattern: Managing different states in the workflow
    • Chain of Responsibility: Sequential processing through workflow nodes
    • Observer Pattern: Tracking and monitoring pattern execution
    • Factory Pattern: Creating instances with proper configuration

    Usage Example

    # Initialize the pattern
    pattern = Holon(name="example", model_name="gpt-4")
    
    # Configure and execute
    result = pattern.execute(data={"key": "value"})
    
    # Check results
    print(result)
    

    Key Concepts

    • LLM Integration: Uses LangChain/OpenAI for intelligent decision-making
    • Workflow Orchestration: LangGraph manages execution flow through nodes
    • State Management: TypedDict defines workflow state structure
    • Error Handling: Comprehensive error handling and fallback mechanisms
    • Extensibility: Designed for easy customization and extension

    Extension Points

    This pattern can be extended by: 1. Adding custom workflow nodes 2. Implementing additional validation logic 3. Integrating with external services 4. Customizing LLM prompts and responses 5. Adding monitoring and logging capabilities

  • Agentic Architecture Pattern: Matrix Organization

    
        """
    Pattern 33: Matrix Organization Pattern
    
    Agents report to both functional managers and project managers simultaneously.
    Dual reporting structure balances functional expertise with project needs.
    """
    
    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from enum import Enum
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    
    
    class ManagerType(Enum):
        FUNCTIONAL = "functional"
        PROJECT = "project"
    
    
    @dataclass
    class MatrixAgent:
        """Agent with dual reporting structure."""
        name: str
        functional_area: str  # e.g., Engineering, Design, Marketing
        functional_manager: Optional[str] = None
        projects: List[str] = field(default_factory=list)
        project_managers: List[str] = field(default_factory=list)
        tasks: List[Dict[str, Any]] = field(default_factory=list)
    
    
    @dataclass
    class Manager:
        """Manager in matrix organization."""
        name: str
        manager_type: ManagerType
        area: str  # Functional area or Project name
        direct_reports: Set[str] = field(default_factory=set)
    
    
    @dataclass
    class ConflictResolution:
        """Conflict between functional and project priorities."""
        agent_name: str
        functional_priority: str
        project_priority: str
        resolution: Optional[str] = None
        timestamp: datetime = field(default_factory=datetime.now)
    
    
    class MatrixOrganizationPattern:
        """
        Matrix Organization Pattern - Dual reporting structure.
        
        Features:
        - Functional managers (expertise areas)
        - Project managers (initiatives)
        - Agents report to both
        - Priority conflict resolution
        - Resource balancing
        """
        
        def __init__(self, model_name: str = "gpt-4"):
            self.llm = ChatOpenAI(model=model_name, temperature=0.7)
            self.agents: Dict[str, MatrixAgent] = {}
            self.functional_managers: Dict[str, Manager] = {}
            self.project_managers: Dict[str, Manager] = {}
            self.conflicts: List[ConflictResolution] = []
        
        def add_functional_manager(self, name: str, area: str):
            """Add a functional manager."""
            manager = Manager(name, ManagerType.FUNCTIONAL, area)
            self.functional_managers[name] = manager
            print(f"āœ“ Added functional manager: {name} ({area})")
        
        def add_project_manager(self, name: str, project: str):
            """Add a project manager."""
            manager = Manager(name, ManagerType.PROJECT, project)
            self.project_managers[name] = manager
            print(f"āœ“ Added project manager: {name} (Project: {project})")
        
        def add_agent(self, agent: MatrixAgent):
            """Add an agent with functional assignment."""
            self.agents[agent.name] = agent
            
            # Assign to functional manager
            for fm_name, fm in self.functional_managers.items():
                if fm.area == agent.functional_area:
                    agent.functional_manager = fm_name
                    fm.direct_reports.add(agent.name)
                    break
            
            print(f"āœ“ Added agent: {agent.name} ({agent.functional_area}) → "
                  f"Functional Manager: {agent.functional_manager}")
        
        def assign_to_project(self, agent_name: str, project_name: str, 
                              project_manager_name: str):
            """Assign agent to a project with project manager."""
            if agent_name in self.agents and project_manager_name in self.project_managers:
                agent = self.agents[agent_name]
                pm = self.project_managers[project_manager_name]
                
                agent.projects.append(project_name)
                agent.project_managers.append(project_manager_name)
                pm.direct_reports.add(agent_name)
                
                print(f"āœ“ {agent_name} assigned to project '{project_name}' → PM: {project_manager_name}")
        
        def assign_task(self, agent_name: str, task: str, source_manager: str, 
                        manager_type: ManagerType) -> Dict[str, Any]:
            """Assign task from either functional or project manager."""
            if agent_name not in self.agents:
                return {"success": False, "error": "Agent not found"}
            
            agent = self.agents[agent_name]
            task_info = {
                "task": task,
                "source_manager": source_manager,
                "manager_type": manager_type.value,
                "assigned_at": datetime.now()
            }
            agent.tasks.append(task_info)
            
            return {"success": True, "agent": agent_name, "task": task}
        
        def resolve_priority_conflict(self, agent_name: str, functional_task: str, 
                                       project_task: str) -> ConflictResolution:
            """Resolve conflict between functional and project priorities."""
            if agent_name not in self.agents:
                return None
            
            agent = self.agents[agent_name]
            conflict = ConflictResolution(
                agent_name=agent_name,
                functional_priority=functional_task,
                project_priority=project_task
            )
            
            # Use LLM to resolve conflict
            prompt = ChatPromptTemplate.from_messages([
                ("system", f"You are resolving a priority conflict for {agent_name}, "
                          f"who works in {agent.functional_area}. "
                          f"They report to both a functional manager and project managers. "
                          f"Provide a balanced resolution that considers both priorities."),
                ("human", f"Functional Manager Priority: {functional_task}\n"
                         f"Project Manager Priority: {project_task}\n\n"
                         f"Resolution:")
            ])
            
            chain = prompt | self.llm
            response = chain.invoke({})
            conflict.resolution = response.content.strip()
            
            self.conflicts.append(conflict)
            return conflict
        
        def get_agent_workload(self, agent_name: str) -> Dict[str, Any]:
            """Get agent's workload across all dimensions."""
            if agent_name not in self.agents:
                return {}
            
            agent = self.agents[agent_name]
            return {
                "agent": agent_name,
                "functional_area": agent.functional_area,
                "functional_manager": agent.functional_manager,
                "active_projects": len(agent.projects),
                "project_managers": agent.project_managers,
                "total_tasks": len(agent.tasks),
                "tasks_by_manager_type": {
                    "functional": sum(1 for t in agent.tasks if t["manager_type"] == "functional"),
                    "project": sum(1 for t in agent.tasks if t["manager_type"] == "project")
                }
            }
        
        def get_manager_team(self, manager_name: str) -> Dict[str, Any]:
            """Get team reporting to a manager."""
            if manager_name in self.functional_managers:
                manager = self.functional_managers[manager_name]
            elif manager_name in self.project_managers:
                manager = self.project_managers[manager_name]
            else:
                return {}
            
            return {
                "manager": manager_name,
                "type": manager.manager_type.value,
                "area": manager.area,
                "direct_reports": list(manager.direct_reports)
            }
        
        def run(self, scenario: str) -> Dict[str, Any]:
            """Execute matrix organization scenario."""
            return {
                "pattern": "Matrix Organization",
                "scenario": scenario,
                "agents": len(self.agents),
                "functional_managers": len(self.functional_managers),
                "project_managers": len(self.project_managers),
                "conflicts_resolved": len(self.conflicts)
            }
    
    
    # Example usage
    if __name__ == "__main__":
        print("=== Matrix Organization Pattern Demo ===\n")
        
        org = MatrixOrganizationPattern()
        
        # Add functional managers
        print("--- Functional Managers ---")
        org.add_functional_manager("Sarah", "Engineering")
        org.add_functional_manager("Mike", "Design")
        org.add_functional_manager("Lisa", "Data Science")
        
        # Add project managers
        print("\n--- Project Managers ---")
        org.add_project_manager("Tom", "Mobile App Launch")
        org.add_project_manager("Jane", "AI Integration")
        
        # Add agents
        print("\n--- Agents (Dual Reporting) ---")
        agents = [
            MatrixAgent("Alice", "Engineering"),
            MatrixAgent("Bob", "Design"),
            MatrixAgent("Carol", "Data Science"),
            MatrixAgent("David", "Engineering")
        ]
        
        for agent in agents:
            org.add_agent(agent)
        
        # Assign agents to projects
        print("\n--- Project Assignments ---")
        org.assign_to_project("Alice", "Mobile App Launch", "Tom")
        org.assign_to_project("Bob", "Mobile App Launch", "Tom")
        org.assign_to_project("Carol", "AI Integration", "Jane")
        org.assign_to_project("David", "AI Integration", "Jane")
        
        # Assign tasks from both types of managers
        print("\n--- Task Assignments ---")
        org.assign_task("Alice", "Code review for team", "Sarah", ManagerType.FUNCTIONAL)
        org.assign_task("Alice", "Build login feature", "Tom", ManagerType.PROJECT)
        org.assign_task("Carol", "Train ML model", "Jane", ManagerType.PROJECT)
        org.assign_task("Carol", "Mentor junior analysts", "Lisa", ManagerType.FUNCTIONAL)
        
        # Resolve priority conflict
        print("\n--- Priority Conflict Resolution ---")
        conflict = org.resolve_priority_conflict(
            "Alice",
            "Lead technical training session (Functional Manager)",
            "Complete critical app release (Project Manager)"
        )
        print(f"Agent: {conflict.agent_name}")
        print(f"Functional: {conflict.functional_priority}")
        print(f"Project: {conflict.project_priority}")
        print(f"Resolution: {conflict.resolution}")
        
        # Show agent workload
        print("\n--- Agent Workload ---")
        for agent_name in ["Alice", "Carol"]:
            workload = org.get_agent_workload(agent_name)
            print(f"\n{agent_name}:")
            print(f"  Functional Area: {workload['functional_area']}")
            print(f"  Functional Manager: {workload['functional_manager']}")
            print(f"  Active Projects: {workload['active_projects']}")
            print(f"  Project Managers: {', '.join(workload['project_managers'])}")
            print(f"  Total Tasks: {workload['total_tasks']}")
            print(f"  Tasks by Type: Functional={workload['tasks_by_manager_type']['functional']}, "
                  f"Project={workload['tasks_by_manager_type']['project']}")
        
        # Show manager teams
        print("\n--- Manager Teams ---")
        for manager_name in ["Sarah", "Tom"]:
            team = org.get_manager_team(manager_name)
            print(f"\n{manager_name} ({team['type']} - {team['area']}):")
            print(f"  Reports: {', '.join(team['direct_reports'])}")
        
        print("\n--- Summary ---")
        result = org.run("Dual reporting structure demo")
        print(f"Pattern: {result['pattern']}")
        print(f"Total Agents: {result['agents']}")
        print(f"Functional Managers: {result['functional_managers']}")
        print(f"Project Managers: {result['project_managers']}")
        print(f"Conflicts Resolved: {result['conflicts_resolved']}")
    
        

    Agentic Architecture Pattern: Matrix Organization

    Pattern 33: 33 Matrix Organization – Line-by-Line Explanation

    Overview

    Pattern 33: Matrix Organization Pattern

    Agents report to both functional managers and project managers simultaneously. Dual reporting structure balances functional expertise with project needs.


    Code Structure Analysis

    File Information

    • Pattern Number: 33
    • Pattern Name: 33 Matrix Organization
    • File Path: patterns\organizational\33_matrix_organization.py
    • Total Lines: 286

    Detailed Code Explanation

    Module Docstring

    """
    Pattern 33: Matrix Organization Pattern
    
    Agents report to both functional managers and project managers simultaneously.
    Dual reporting structure balances functional expertise with project needs.
    """
    

    Explanation: This module docstring describes the purpose and key features of the 33 Matrix Organization pattern.


    Imports Section

    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from enum import Enum
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI  # First 20 imports shown
    

    Explanation: The module imports necessary dependencies: – from typing import Dict, Any, List, Optional, Set: Type hints for better code documentation – from dataclasses import dataclass, field: Data class decorators for clean data structures – from datetime import datetime: Date and time utilities – from enum import Enum: Enumeration support for fixed sets of values – from langchain_core.prompts import ChatPromptTemplate: LangChain framework integration – from langchain_openai import ChatOpenAI: LangChain framework integration


    Enumerations

    ManagerType (Line 16)

    class ManagerType(Enum):
        FUNCTIONAL
        PROJECT
    

    Purpose: No enum docstring.

    Values: – FUNCTIONAL: Represents functional – PROJECT: Represents project


    Classes

    ManagerType (Line 16)

    Description: No class docstring.

    MatrixAgent (Line 22)

    Description: Agent with dual reporting structure.

    Manager (Line 33)

    Description: Manager in matrix organization.

    ConflictResolution (Line 42)

    Description: Conflict between functional and project priorities.

    MatrixOrganizationPattern (Line 51)

    Description: Matrix Organization Pattern – Dual reporting structure.

    Features: – Functional managers (expertise areas) – Project managers (initiatives) – Agents report to both – Priority conflict resolution – Resource balancing

    Methods:

    __init__ (Line 63)
    def __init__(self, model_name):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference – model_name: LLM model to use (e.g., “gpt-4”)

    add_functional_manager (Line 70)
    def add_functional_manager(self, name, area):
        """Add a functional manager."""
    

    Purpose: Add a functional manager.

    Parameters: – self: Instance reference – name: Identifier or label – area: Parameter for area

    add_project_manager (Line 76)
    def add_project_manager(self, name, project):
        """Add a project manager."""
    

    Purpose: Add a project manager.

    Parameters: – self: Instance reference – name: Identifier or label – project: Parameter for project

    add_agent (Line 82)
    def add_agent(self, agent):
        """Add an agent with functional assignment."""
    

    Purpose: Add an agent with functional assignment.

    Parameters: – self: Instance reference – agent: Parameter for agent

    assign_to_project (Line 96)
    def assign_to_project(self, agent_name, project_name, project_manager_name):
        """Assign agent to a project with project manager."""
    

    Purpose: Assign agent to a project with project manager.

    Parameters: – self: Instance reference – agent_name: Parameter for agent_name – project_name: Parameter for project_name – project_manager_name: Parameter for project_manager_name

    assign_task (Line 109)
    def assign_task(self, agent_name, task, source_manager, manager_type):
        """Assign task from either functional or project manager."""
    

    Purpose: Assign task from either functional or project manager.

    Parameters: – self: Instance reference – agent_name: Parameter for agent_name – task: Parameter for task – source_manager: Parameter for source_manager – manager_type: Parameter for manager_type

    resolve_priority_conflict (Line 126)
    def resolve_priority_conflict(self, agent_name, functional_task, project_task):
        """Resolve conflict between functional and project priorities."""
    

    Purpose: Resolve conflict between functional and project priorities.

    Parameters: – self: Instance reference – agent_name: Parameter for agent_name – functional_task: Parameter for functional_task – project_task: Parameter for project_task

    get_agent_workload (Line 157)
    def get_agent_workload(self, agent_name):
        """Get agent's workload across all dimensions."""
    

    Purpose: Get agent’s workload across all dimensions.

    Parameters: – self: Instance reference – agent_name: Parameter for agent_name

    get_manager_team (Line 176)
    def get_manager_team(self, manager_name):
        """Get team reporting to a manager."""
    

    Purpose: Get team reporting to a manager.

    Parameters: – self: Instance reference – manager_name: Parameter for manager_name

    run (Line 192)
    def run(self, scenario):
        """Execute matrix organization scenario."""
    

    Purpose: Execute matrix organization scenario.

    Parameters: – self: Instance reference – scenario: Parameter for scenario


    Design Patterns Used

    • Strategy Pattern: Different execution strategies for various scenarios
    • State Pattern: Managing different states in the workflow
    • Chain of Responsibility: Sequential processing through workflow nodes
    • Observer Pattern: Tracking and monitoring pattern execution
    • Factory Pattern: Creating instances with proper configuration

    Usage Example

    # Initialize the pattern
    pattern = ManagerType(name="example", model_name="gpt-4")
    
    # Configure and execute
    result = pattern.execute(data={"key": "value"})
    
    # Check results
    print(result)
    

    Key Concepts

    • LLM Integration: Uses LangChain/OpenAI for intelligent decision-making
    • Workflow Orchestration: LangGraph manages execution flow through nodes
    • State Management: TypedDict defines workflow state structure
    • Error Handling: Comprehensive error handling and fallback mechanisms
    • Extensibility: Designed for easy customization and extension

    Extension Points

    This pattern can be extended by: 1. Adding custom workflow nodes 2. Implementing additional validation logic 3. Integrating with external services 4. Customizing LLM prompts and responses 5. Adding monitoring and logging capabilities

  • Agentic Architecture Pattern: Flat Organization

    
        """
    Pattern 32: Flat Organization Pattern
    
    A decentralized organizational structure where agents operate as peers with equal authority.
    No hierarchical reporting - all agents collaborate directly with autonomy and shared responsibility.
    """
    
    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    from langgraph.graph import StateGraph, END
    from typing_extensions import TypedDict
    
    
    @dataclass
    class PeerAgent:
        """Agent in flat organization with equal standing."""
        name: str
        role: str
        expertise: List[str]
        active_tasks: List[str] = field(default_factory=list)
        completed_tasks: List[str] = field(default_factory=list)
        collaborations: Set[str] = field(default_factory=set)
        
        def __hash__(self):
            return hash(self.name)
    
    
    @dataclass
    class CollaborationRequest:
        """Request for peer collaboration."""
        requester: str
        task: str
        required_expertise: List[str]
        timestamp: datetime = field(default_factory=datetime.now)
        responders: List[str] = field(default_factory=list)
    
    
    class FlatOrganizationPattern:
        """
        Flat Organization Pattern - Peer-based structure with no hierarchy.
        
        Features:
        - Equal authority among all agents
        - Direct peer-to-peer collaboration
        - Self-organization and task claiming
        - Shared decision-making
        - Transparent communication
        """
        
        def __init__(self, model_name: str = "gpt-4"):
            self.llm = ChatOpenAI(model=model_name, temperature=0.7)
            self.peers: Dict[str, PeerAgent] = {}
            self.collaboration_requests: List[CollaborationRequest] = []
            self.shared_decisions: List[Dict[str, Any]] = []
            
        def add_peer(self, peer: PeerAgent):
            """Add a peer agent to the organization."""
            self.peers[peer.name] = peer
            print(f"āœ“ Added peer: {peer.name} ({peer.role}) - Expertise: {', '.join(peer.expertise)}")
        
        def request_collaboration(self, requester_name: str, task: str, 
                                 required_expertise: List[str]) -> CollaborationRequest:
            """Request collaboration from peers."""
            request = CollaborationRequest(
                requester=requester_name,
                task=task,
                required_expertise=required_expertise
            )
            self.collaboration_requests.append(request)
            
            # Find peers with matching expertise
            for peer_name, peer in self.peers.items():
                if peer_name != requester_name:
                    if any(exp in peer.expertise for exp in required_expertise):
                        request.responders.append(peer_name)
                        peer.collaborations.add(requester_name)
                        self.peers[requester_name].collaborations.add(peer_name)
            
            return request
        
        def assign_task(self, task: str) -> Optional[str]:
            """Peer self-selects task based on expertise and availability."""
            # Find available peers
            available_peers = [p for p in self.peers.values() if len(p.active_tasks)  Dict[str, Any]:
            """All peers contribute to decision-making equally."""
            votes = {}
            
            for peer_name, peer in self.peers.items():
                prompt = ChatPromptTemplate.from_messages([
                    ("system", f"You are {peer_name}, a {peer.role} in a flat organization. "
                              f"Your expertise: {', '.join(peer.expertise)}. "
                              f"Vote on the decision and provide reasoning."),
                    ("human", f"Decision: {decision_topic}\n\nYour vote (Yes/No) and reasoning:")
                ])
                
                chain = prompt | self.llm
                response = chain.invoke({})
                content = response.content.strip()
                
                # Parse vote
                vote = "Yes" if "yes" in content.lower()[:50] else "No"
                votes[peer_name] = {"vote": vote, "reasoning": content}
            
            # Count votes
            yes_votes = sum(1 for v in votes.values() if v["vote"] == "Yes")
            no_votes = len(votes) - yes_votes
            
            decision = {
                "topic": decision_topic,
                "votes": votes,
                "yes_votes": yes_votes,
                "no_votes": no_votes,
                "result": "Approved" if yes_votes > no_votes else "Rejected",
                "timestamp": datetime.now()
            }
            
            self.shared_decisions.append(decision)
            return decision
        
        def complete_task(self, peer_name: str, task: str):
            """Mark task as completed for a peer."""
            if peer_name in self.peers:
                peer = self.peers[peer_name]
                if task in peer.active_tasks:
                    peer.active_tasks.remove(task)
                    peer.completed_tasks.append(task)
        
        def get_collaboration_network(self) -> Dict[str, List[str]]:
            """Get peer-to-peer collaboration network."""
            return {
                peer_name: list(peer.collaborations)
                for peer_name, peer in self.peers.items()
            }
        
        def run(self, scenario: str) -> Dict[str, Any]:
            """Execute flat organization scenario."""
            return {
                "pattern": "Flat Organization",
                "scenario": scenario,
                "total_peers": len(self.peers),
                "collaboration_requests": len(self.collaboration_requests),
                "shared_decisions": len(self.shared_decisions),
                "collaboration_network": self.get_collaboration_network()
            }
    
    
    # Example usage
    if __name__ == "__main__":
        print("=== Flat Organization Pattern Demo ===\n")
        
        org = FlatOrganizationPattern()
        
        # Add peer agents
        peers = [
            PeerAgent("Alice", "Developer", ["Python", "FastAPI", "Testing"]),
            PeerAgent("Bob", "Designer", ["UI/UX", "Figma", "User Research"]),
            PeerAgent("Carol", "Data Scientist", ["Python", "ML", "Data Analysis"]),
            PeerAgent("David", "DevOps", ["Docker", "Kubernetes", "CI/CD"]),
            PeerAgent("Eve", "Product Manager", ["Strategy", "User Research", "Analytics"])
        ]
        
        for peer in peers:
            org.add_peer(peer)
        
        print("\n--- Collaboration Requests ---")
        # Request collaborations
        req1 = org.request_collaboration(
            "Alice", 
            "Build ML inference API",
            ["Python", "ML"]
        )
        print(f"āœ“ {req1.requester} requested help with: {req1.task}")
        print(f"  Responders: {', '.join(req1.responders)}")
        
        req2 = org.request_collaboration(
            "Bob",
            "User research for new feature",
            ["User Research", "Analytics"]
        )
        print(f"āœ“ {req2.requester} requested help with: {req2.task}")
        print(f"  Responders: {', '.join(req2.responders)}")
        
        print("\n--- Self-Selected Task Assignment ---")
        # Peers self-select tasks
        tasks = [
            "Implement user authentication",
            "Design dashboard mockups",
            "Deploy to production"
        ]
        
        for task in tasks:
            assignee = org.assign_task(task)
            if assignee:
                print(f"āœ“ {assignee} self-selected: {task}")
        
        print("\n--- Shared Decision Making ---")
        # Make shared decisions
        decision = org.make_shared_decision(
            "Should we adopt microservices architecture?"
        )
        print(f"Decision: {decision['topic']}")
        print(f"Result: {decision['result']} ({decision['yes_votes']} Yes, {decision['no_votes']} No)")
        
        for peer_name, vote_info in decision['votes'].items():
            print(f"  {peer_name}: {vote_info['vote']}")
            print(f"    → {vote_info['reasoning'][:100]}...")
        
        print("\n--- Organization Statistics ---")
        result = org.run("Team collaboration demo")
        print(f"Total Peers: {result['total_peers']}")
        print(f"Collaboration Requests: {result['collaboration_requests']}")
        print(f"Shared Decisions: {result['shared_decisions']}")
        print("\nCollaboration Network:")
        for peer, collaborators in result['collaboration_network'].items():
            if collaborators:
                print(f"  {peer} ↔ {', '.join(collaborators)}")
    
        

    Agentic Architecture Pattern: Flat Organization

    Pattern 32: 32 Flat Organization – Line-by-Line Explanation

    Overview

    Pattern 32: Flat Organization Pattern

    A decentralized organizational structure where agents operate as peers with equal authority. No hierarchical reporting – all agents collaborate directly with autonomy and shared responsibility.


    Code Structure Analysis

    File Information

    • Pattern Number: 32
    • Pattern Name: 32 Flat Organization
    • File Path: patterns\organizational\32_flat_organization.py
    • Total Lines: 249

    Detailed Code Explanation

    Module Docstring

    """
    Pattern 32: Flat Organization Pattern
    
    A decentralized organizational structure where agents operate as peers with equal authority.
    No hierarchical reporting - all agents collaborate directly with autonomy and shared responsibility.
    """
    

    Explanation: This module docstring describes the purpose and key features of the 32 Flat Organization pattern.


    Imports Section

    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    from langgraph.graph import StateGraph, END
    from typing_extensions import TypedDict  # First 20 imports shown
    

    Explanation: The module imports necessary dependencies: – from typing import Dict, Any, List, Optional, Set: Type hints for better code documentation – from dataclasses import dataclass, field: Data class decorators for clean data structures – from datetime import datetime: Date and time utilities – from langchain_core.prompts import ChatPromptTemplate: LangChain framework integration – from langchain_openai import ChatOpenAI: LangChain framework integration – from langgraph.graph import StateGraph, END: LangGraph for workflow orchestration – from typing_extensions import TypedDict: Type hints for better code documentation


    Classes

    PeerAgent (Line 18)

    Description: Agent in flat organization with equal standing.

    Methods:

    __hash__ (Line 27)
    def __hash__(self):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference

    CollaborationRequest (Line 32)

    Description: Request for peer collaboration.

    FlatOrganizationPattern (Line 41)

    Description: Flat Organization Pattern – Peer-based structure with no hierarchy.

    Features: – Equal authority among all agents – Direct peer-to-peer collaboration – Self-organization and task claiming – Shared decision-making – Transparent communication

    Methods:

    __init__ (Line 53)
    def __init__(self, model_name):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference – model_name: LLM model to use (e.g., “gpt-4”)

    add_peer (Line 59)
    def add_peer(self, peer):
        """Add a peer agent to the organization."""
    

    Purpose: Add a peer agent to the organization.

    Parameters: – self: Instance reference – peer: Parameter for peer

    request_collaboration (Line 64)
    def request_collaboration(self, requester_name, task, required_expertise):
        """Request collaboration from peers."""
    

    Purpose: Request collaboration from peers.

    Parameters: – self: Instance reference – requester_name: Parameter for requester_name – task: Parameter for task – required_expertise: Parameter for required_expertise

    assign_task (Line 84)
    def assign_task(self, task):
        """Peer self-selects task based on expertise and availability."""
    

    Purpose: Peer self-selects task based on expertise and availability.

    Parameters: – self: Instance reference – task: Parameter for task

    make_shared_decision (Line 116)
    def make_shared_decision(self, decision_topic):
        """All peers contribute to decision-making equally."""
    

    Purpose: All peers contribute to decision-making equally.

    Parameters: – self: Instance reference – decision_topic: Parameter for decision_topic

    complete_task (Line 152)
    def complete_task(self, peer_name, task):
        """Mark task as completed for a peer."""
    

    Purpose: Mark task as completed for a peer.

    Parameters: – self: Instance reference – peer_name: Parameter for peer_name – task: Parameter for task

    get_collaboration_network (Line 160)
    def get_collaboration_network(self):
        """Get peer-to-peer collaboration network."""
    

    Purpose: Get peer-to-peer collaboration network.

    Parameters: – self: Instance reference

    run (Line 167)
    def run(self, scenario):
        """Execute flat organization scenario."""
    

    Purpose: Execute flat organization scenario.

    Parameters: – self: Instance reference – scenario: Parameter for scenario


    Design Patterns Used

    • Strategy Pattern: Different execution strategies for various scenarios
    • State Pattern: Managing different states in the workflow
    • Chain of Responsibility: Sequential processing through workflow nodes
    • Observer Pattern: Tracking and monitoring pattern execution
    • Factory Pattern: Creating instances with proper configuration

    Usage Example

    # Initialize the pattern
    pattern = PeerAgent(name="example", model_name="gpt-4")
    
    # Configure and execute
    result = pattern.execute(data={"key": "value"})
    
    # Check results
    print(result)
    

    Key Concepts

    • LLM Integration: Uses LangChain/OpenAI for intelligent decision-making
    • Workflow Orchestration: LangGraph manages execution flow through nodes
    • State Management: TypedDict defines workflow state structure
    • Error Handling: Comprehensive error handling and fallback mechanisms
    • Extensibility: Designed for easy customization and extension

    Extension Points

    This pattern can be extended by: 1. Adding custom workflow nodes 2. Implementing additional validation logic 3. Integrating with external services 4. Customizing LLM prompts and responses 5. Adding monitoring and logging capabilities

  • Agentic Architecture Pattern: Hierarchical Agent

    
        """
    Pattern 31: Hierarchical Agent Pattern
    
    Agents organized in management hierarchy with supervisors and subordinates.
    Tasks flow down hierarchy, results flow up. Supports delegation and escalation.
    """
    
    from typing import Dict, Any, List, Optional
    from dataclasses import dataclass, field
    from datetime import datetime
    from enum import Enum
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    
    
    class HierarchyLevel(Enum):
        """Level in organizational hierarchy."""
        EXECUTIVE = "executive"
        MANAGER = "manager"
        SUPERVISOR = "supervisor"
        WORKER = "worker"
    
    
    @dataclass
    class HierarchicalTask:
        """Task in hierarchical system."""
        task_id: str
        description: str
        level: HierarchyLevel
        assigned_to: Optional[str] = None
        delegated_from: Optional[str] = None
        status: str = "pending"
        result: Optional[str] = None
    
    
    @dataclass
    class HierarchicalAgent:
        """Agent in hierarchy."""
        name: str
        level: HierarchyLevel
        role: str
        supervisor: Optional[str] = None
        subordinates: List[str] = field(default_factory=list)
        span_of_control: int = 5  # Max direct reports
    
    
    class HierarchicalAgentPattern:
        """
        Hierarchical Agent Pattern - Management hierarchy and delegation.
        
        Agents are organized in tree structure with clear reporting lines.
        Executives delegate to managers, managers to supervisors, supervisors to workers.
        Results and escalations flow up the chain of command.
        """
        
        def __init__(self, model_name: str = "gpt-4"):
            self.llm = ChatOpenAI(model=model_name, temperature=0.7)
            self.agents: Dict[str, HierarchicalAgent] = {}
            self.tasks: List[HierarchicalTask] = []
            self.organization_chart: Dict[str, List[str]] = {}
        
        def add_agent(self, agent: HierarchicalAgent):
            """Add agent to hierarchy."""
            self.agents[agent.name] = agent
            
            # Update organization chart
            if agent.supervisor:
                if agent.supervisor not in self.organization_chart:
                    self.organization_chart[agent.supervisor] = []
                self.organization_chart[agent.supervisor].append(agent.name)
        
        def delegate_task(self, task: HierarchicalTask, from_agent: str) -> bool:
            """Delegate task down the hierarchy."""
            if from_agent not in self.agents:
                return False
            
            supervisor = self.agents[from_agent]
            
            # Find appropriate subordinate
            if from_agent in self.organization_chart:
                subordinates = self.organization_chart[from_agent]
                if subordinates:
                    # Delegate to first available subordinate
                    subordinate_name = subordinates[0]
                    task.assigned_to = subordinate_name
                    task.delegated_from = from_agent
                    task.status = "delegated"
                    
                    print(f"   - {from_agent} delegated to {subordinate_name}: {task.description}")
                    return True
            
            # If no subordinates, execute task self
            task.assigned_to = from_agent
            task.status = "assigned"
            return True
        
        def execute_task(self, task: HierarchicalTask) -> str:
            """Execute task using LLM."""
            if not task.assigned_to or task.assigned_to not in self.agents:
                return "Error: No agent assigned"
            
            agent = self.agents[task.assigned_to]
            
            prompt = ChatPromptTemplate.from_messages([
                ("system", f"You are {agent.name}, a {agent.level.value} level {agent.role} in the organization. "
                          f"Supervisor: {agent.supervisor or 'None (top level)'}"),
                ("human", f"Task: {task.description}\n"
                         f"Delegated from: {task.delegated_from or 'Initial assignment'}\n\n"
                         f"Provide a brief execution result (2-3 sentences).")
            ])
            
            chain = prompt | self.llm
            response = chain.invoke({})
            
            result = str(response.content)[:200]
            task.result = result
            task.status = "completed"
            
            return result
        
        def escalate_issue(self, issue: str, from_agent: str) -> Optional[str]:
            """Escalate issue up the hierarchy."""
            if from_agent not in self.agents:
                return None
            
            agent = self.agents[from_agent]
            
            if agent.supervisor:
                print(f"   ā¬†ļø {from_agent} escalated to {agent.supervisor}: {issue[:50]}...")
                
                # Supervisor addresses issue
                supervisor = self.agents[agent.supervisor]
                
                prompt = ChatPromptTemplate.from_messages([
                    ("system", f"You are {supervisor.name}, a {supervisor.level.value} handling an escalated issue."),
                    ("human", f"Issue from {from_agent}: {issue}\n\nProvide guidance (brief).")
                ])
                
                chain = prompt | self.llm
                response = chain.invoke({})
                
                return str(response.content)[:150]
            
            return "No supervisor to escalate to"
        
        def process_hierarchical_work(self, initial_task: HierarchicalTask) -> Dict[str, Any]:
            """Process work through hierarchy."""
            print(f"\n   Processing: {initial_task.description}")
            
            # Add task
            self.tasks.append(initial_task)
            
            # Delegate down hierarchy
            current_agent = initial_task.assigned_to
            if current_agent:
                delegated = self.delegate_task(initial_task, current_agent)
                
                if delegated and initial_task.assigned_to:
                    # Execute at appropriate level
                    result = self.execute_task(initial_task)
                    print(f"   āœ“ Completed by {initial_task.assigned_to}")
                    
                    return {
                        "success": True,
                        "task_id": initial_task.task_id,
                        "assigned_to": initial_task.assigned_to,
                        "result": result
                    }
            
            return {"success": False, "error": "Task delegation failed"}
        
        def run(self, scenario: str) -> Dict[str, Any]:
            """Execute hierarchical agent pattern."""
            completed_tasks = sum(1 for t in self.tasks if t.status == "completed")
            
            # Calculate hierarchy depth
            max_depth = 0
            for agent in self.agents.values():
                depth = 0
                current = agent
                while current.supervisor:
                    depth += 1
                    if current.supervisor in self.agents:
                        current = self.agents[current.supervisor]
                    else:
                        break
                max_depth = max(max_depth, depth)
            
            return {
                "pattern": "HierarchicalAgent",
                "total_agents": len(self.agents),
                "hierarchy_depth": max_depth + 1,
                "total_tasks": len(self.tasks),
                "completed_tasks": completed_tasks,
                "scenario": scenario
            }
    
    
    # Example usage
    if __name__ == "__main__":
        print("=== Hierarchical Agent Pattern Demo ===\n")
        
        # Create pattern
        pattern = HierarchicalAgentPattern()
        
        # Build organizational hierarchy
        print("1. Building organizational hierarchy...")
        
        # Executive level
        ceo = HierarchicalAgent("Alice", HierarchyLevel.EXECUTIVE, "CEO")
        pattern.add_agent(ceo)
        
        # Manager level
        cto = HierarchicalAgent("Bob", HierarchyLevel.MANAGER, "CTO", supervisor="Alice")
        cmo = HierarchicalAgent("Carol", HierarchyLevel.MANAGER, "CMO", supervisor="Alice")
        pattern.add_agent(cto)
        pattern.add_agent(cmo)
        
        # Supervisor level
        eng_lead = HierarchicalAgent("Dave", HierarchyLevel.SUPERVISOR, "Engineering Lead", supervisor="Bob")
        marketing_lead = HierarchicalAgent("Eve", HierarchyLevel.SUPERVISOR, "Marketing Lead", supervisor="Carol")
        pattern.add_agent(eng_lead)
        pattern.add_agent(marketing_lead)
        
        # Worker level
        dev1 = HierarchicalAgent("Frank", HierarchyLevel.WORKER, "Developer", supervisor="Dave")
        dev2 = HierarchicalAgent("Grace", HierarchyLevel.WORKER, "Developer", supervisor="Dave")
        marketer = HierarchicalAgent("Henry", HierarchyLevel.WORKER, "Marketing Specialist", supervisor="Eve")
        pattern.add_agent(dev1)
        pattern.add_agent(dev2)
        pattern.add_agent(marketer)
        
        # Create and process tasks
        print("\n2. Processing tasks through hierarchy...")
        
        task1 = HierarchicalTask(
            task_id="t1",
            description="Develop new product feature",
            level=HierarchyLevel.EXECUTIVE,
            assigned_to="Alice"
        )
        
        task2 = HierarchicalTask(
            task_id="t2",
            description="Launch marketing campaign",
            level=HierarchyLevel.MANAGER,
            assigned_to="Carol"
        )
        
        result1 = pattern.process_hierarchical_work(task1)
        result2 = pattern.process_hierarchical_work(task2)
        
        # Escalation example
        print("\n3. Escalation example...")
        guidance = pattern.escalate_issue(
            "Technical blocker on API integration",
            "Frank"
        )
        if guidance:
            print(f"   Guidance: {guidance[:80]}...")
        
        # Summary
        print("\n4. Organizational Summary:")
        summary = pattern.run("Corporate project management")
        print(f"   Total Agents: {summary['total_agents']}")
        print(f"   Hierarchy Depth: {summary['hierarchy_depth']} levels")
        print(f"   Tasks Processed: {summary['total_tasks']}")
        print(f"   Completed: {summary['completed_tasks']}")
        
        print("\nāœ“ Hierarchical pattern organized agents in management structure!")
    
        

    Agentic Architecture Pattern: Hierarchical Agent

    Pattern 31: 31 Hierarchical Agent – Line-by-Line Explanation

    Overview

    Pattern 31: Hierarchical Agent Pattern

    Agents organized in management hierarchy with supervisors and subordinates. Tasks flow down hierarchy, results flow up. Supports delegation and escalation.


    Code Structure Analysis

    File Information

    • Pattern Number: 31
    • Pattern Name: 31 Hierarchical Agent
    • File Path: patterns\organizational\31_hierarchical_agent.py
    • Total Lines: 271

    Detailed Code Explanation

    Module Docstring

    """
    Pattern 31: Hierarchical Agent Pattern
    
    Agents organized in management hierarchy with supervisors and subordinates.
    Tasks flow down hierarchy, results flow up. Supports delegation and escalation.
    """
    

    Explanation: This module docstring describes the purpose and key features of the 31 Hierarchical Agent pattern.


    Imports Section

    from typing import Dict, Any, List, Optional
    from dataclasses import dataclass, field
    from datetime import datetime
    from enum import Enum
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI  # First 20 imports shown
    

    Explanation: The module imports necessary dependencies: – from typing import Dict, Any, List, Optional: Type hints for better code documentation – from dataclasses import dataclass, field: Data class decorators for clean data structures – from datetime import datetime: Date and time utilities – from enum import Enum: Enumeration support for fixed sets of values – from langchain_core.prompts import ChatPromptTemplate: LangChain framework integration – from langchain_openai import ChatOpenAI: LangChain framework integration


    Enumerations

    HierarchyLevel (Line 16)

    class HierarchyLevel(Enum):
        EXECUTIVE
        MANAGER
        SUPERVISOR
        WORKER
    

    Purpose: Level in organizational hierarchy.

    Values: – EXECUTIVE: Represents executive – MANAGER: Represents manager – SUPERVISOR: Represents supervisor – WORKER: Represents worker


    Classes

    HierarchyLevel (Line 16)

    Description: Level in organizational hierarchy.

    HierarchicalTask (Line 25)

    Description: Task in hierarchical system.

    HierarchicalAgent (Line 37)

    Description: Agent in hierarchy.

    HierarchicalAgentPattern (Line 47)

    Description: Hierarchical Agent Pattern – Management hierarchy and delegation.

    Agents are organized in tree structure with clear reporting lines. Executives delegate to managers, managers to supervisors, supervisors to workers. Results and escalations flow up the chain of command.

    Methods:

    __init__ (Line 56)
    def __init__(self, model_name):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference – model_name: LLM model to use (e.g., “gpt-4”)

    add_agent (Line 62)
    def add_agent(self, agent):
        """Add agent to hierarchy."""
    

    Purpose: Add agent to hierarchy.

    Parameters: – self: Instance reference – agent: Parameter for agent

    delegate_task (Line 72)
    def delegate_task(self, task, from_agent):
        """Delegate task down the hierarchy."""
    

    Purpose: Delegate task down the hierarchy.

    Parameters: – self: Instance reference – task: Parameter for task – from_agent: Parameter for from_agent

    execute_task (Line 97)
    def execute_task(self, task):
        """Execute task using LLM."""
    

    Purpose: Execute task using LLM.

    Parameters: – self: Instance reference – task: Parameter for task

    escalate_issue (Line 121)
    def escalate_issue(self, issue, from_agent):
        """Escalate issue up the hierarchy."""
    

    Purpose: Escalate issue up the hierarchy.

    Parameters: – self: Instance reference – issue: Parameter for issue – from_agent: Parameter for from_agent

    process_hierarchical_work (Line 146)
    def process_hierarchical_work(self, initial_task):
        """Process work through hierarchy."""
    

    Purpose: Process work through hierarchy.

    Parameters: – self: Instance reference – initial_task: Parameter for initial_task

    run (Line 172)
    def run(self, scenario):
        """Execute hierarchical agent pattern."""
    

    Purpose: Execute hierarchical agent pattern.

    Parameters: – self: Instance reference – scenario: Parameter for scenario


    Design Patterns Used

    • Strategy Pattern: Different execution strategies for various scenarios
    • State Pattern: Managing different states in the workflow
    • Chain of Responsibility: Sequential processing through workflow nodes
    • Observer Pattern: Tracking and monitoring pattern execution
    • Factory Pattern: Creating instances with proper configuration

    Usage Example

    # Initialize the pattern
    pattern = HierarchyLevel(name="example", model_name="gpt-4")
    
    # Configure and execute
    result = pattern.execute(data={"key": "value"})
    
    # Check results
    print(result)
    

    Key Concepts

    • LLM Integration: Uses LangChain/OpenAI for intelligent decision-making
    • Workflow Orchestration: LangGraph manages execution flow through nodes
    • State Management: TypedDict defines workflow state structure
    • Error Handling: Comprehensive error handling and fallback mechanisms
    • Extensibility: Designed for easy customization and extension

    Extension Points

    This pattern can be extended by: 1. Adding custom workflow nodes 2. Implementing additional validation logic 3. Integrating with external services 4. Customizing LLM prompts and responses 5. Adding monitoring and logging capabilities

  • Agentic Architecture Pattern: Coordination

    
        """
    Pattern 30: Coordination Pattern
    
    Agents coordinate activities, resources, and timing to achieve shared goals.
    Manages dependencies, synchronization, and conflict resolution.
    """
    
    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime, timedelta
    from enum import Enum
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    from langgraph.graph import StateGraph, END
    from typing_extensions import TypedDict
    
    
    class TaskStatus(Enum):
        """Status of coordinated task."""
        PENDING = "pending"
        READY = "ready"
        IN_PROGRESS = "in_progress"
        BLOCKED = "blocked"
        COMPLETED = "completed"
        FAILED = "failed"
    
    
    class ResourceStatus(Enum):
        """Status of shared resource."""
        AVAILABLE = "available"
        ALLOCATED = "allocated"
        IN_USE = "in_use"
        MAINTENANCE = "maintenance"
    
    
    @dataclass
    class CoordinatedTask:
        """Task requiring coordination."""
        task_id: str
        name: str
        assigned_to: Optional[str] = None
        dependencies: Set[str] = field(default_factory=set)
        required_resources: Set[str] = field(default_factory=set)
        status: TaskStatus = TaskStatus.PENDING
        started_at: Optional[datetime] = None
        completed_at: Optional[datetime] = None
        estimated_duration: timedelta = field(default_factory=lambda: timedelta(hours=1))
    
    
    @dataclass
    class SharedResource:
        """Shared resource requiring coordination."""
        resource_id: str
        name: str
        capacity: int
        current_users: Set[str] = field(default_factory=set)
        status: ResourceStatus = ResourceStatus.AVAILABLE
        
        def is_available(self) -> bool:
            """Check if resource is available."""
            return self.status == ResourceStatus.AVAILABLE and len(self.current_users)  str:
            """Request to execute a task."""
            prompt = ChatPromptTemplate.from_messages([
                ("system", f"You are {self.name}, evaluating if you can execute a task."),
                ("human", f"Task: {task.name}\n"
                         f"Dependencies: {len(task.dependencies)} tasks\n"
                         f"Required resources: {task.required_resources}\n"
                         f"Estimated duration: {task.estimated_duration}\n\n"
                         f"Can you execute this task? Respond 'yes' or 'no' with brief reason.")
            ])
            
            chain = prompt | self.llm
            response = chain.invoke({})
            
            return str(response.content)[:150]
        
        def start_task(self, task: CoordinatedTask):
            """Start executing task."""
            self.assigned_tasks.add(task.task_id)
            task.status = TaskStatus.IN_PROGRESS
            task.started_at = datetime.now()
            print(f"   ā–¶ļø {self.name} started: {task.name}")
        
        def complete_task(self, task: CoordinatedTask):
            """Complete task execution."""
            task.status = TaskStatus.COMPLETED
            task.completed_at = datetime.now()
            self.assigned_tasks.discard(task.task_id)
            print(f"   āœ… {self.name} completed: {task.name}")
    
    
    class CoordinationPattern:
        """
        Coordination Pattern - Multi-agent activity coordination.
        
        Agents coordinate tasks, resources, and timing through a central
        coordinator that manages dependencies and resolves conflicts.
        """
        
        def __init__(self):
            self.agents: Dict[str, CoordinatedAgent] = {}
            self.tasks: Dict[str, CoordinatedTask] = {}
            self.resources: Dict[str, SharedResource] = {}
            self.workflow: Optional[StateGraph] = None
            self._build_workflow()
        
        def _build_workflow(self):
            """Build LangGraph coordination workflow."""
            workflow = StateGraph(CoordinationState)
            
            def check_dependencies(state: CoordinationState) -> CoordinationState:
                """Check task dependencies."""
                state["current_action"] = "checking_dependencies"
                return state
            
            def allocate_resources(state: CoordinationState) -> CoordinationState:
                """Allocate resources to tasks."""
                state["current_action"] = "allocating_resources"
                return state
            
            def execute_tasks(state: CoordinationState) -> CoordinationState:
                """Execute ready tasks."""
                state["current_action"] = "executing_tasks"
                return state
            
            # Add nodes
            workflow.add_node("check_deps", check_dependencies)
            workflow.add_node("allocate", allocate_resources)
            workflow.add_node("execute", execute_tasks)
            
            # Add edges
            workflow.set_entry_point("check_deps")
            workflow.add_edge("check_deps", "allocate")
            workflow.add_edge("allocate", "execute")
            workflow.add_edge("execute", END)
            
            self.workflow = workflow.compile()
        
        def register_agent(self, agent: CoordinatedAgent):
            """Register agent for coordination."""
            self.agents[agent.name] = agent
        
        def add_task(self, task: CoordinatedTask):
            """Add task to coordination."""
            self.tasks[task.task_id] = task
        
        def add_resource(self, resource: SharedResource):
            """Add shared resource."""
            self.resources[resource.resource_id] = resource
        
        def coordinate_execution(self):
            """Coordinate task execution."""
            print("\n   šŸ”„ Coordinating task execution...")
            
            # Check dependencies and make tasks ready
            for task_id, task in self.tasks.items():
                if task.status == TaskStatus.PENDING:
                    deps_met = all(
                        self.tasks.get(dep_id, CoordinatedTask("", "")).status == TaskStatus.COMPLETED
                        for dep_id in task.dependencies
                    )
                    
                    if deps_met:
                        task.status = TaskStatus.READY
                        print(f"      āœ“ {task.name} is ready (dependencies met)")
            
            # Allocate resources
            for task_id, task in self.tasks.items():
                if task.status == TaskStatus.READY:
                    resources_available = all(
                        self.resources.get(res_id, SharedResource("", "", 0)).is_available()
                        for res_id in task.required_resources
                    )
                    
                    if resources_available:
                        # Allocate resources
                        for res_id in task.required_resources:
                            resource = self.resources[res_id]
                            resource.status = ResourceStatus.ALLOCATED
                        
                        # Assign to agent
                        assigned = self._assign_task(task)
                        if assigned:
                            print(f"      āœ“ {task.name} assigned to {assigned}")
                    else:
                        task.status = TaskStatus.BLOCKED
                        print(f"      āš ļø {task.name} blocked (resources unavailable)")
        
        def _assign_task(self, task: CoordinatedTask) -> Optional[str]:
            """Assign task to available agent."""
            for agent_name, agent in self.agents.items():
                if len(agent.assigned_tasks)  Dict[str, Any]:
            """Execute coordination pattern."""
            completed = sum(1 for t in self.tasks.values() 
                           if t.status == TaskStatus.COMPLETED)
            in_progress = sum(1 for t in self.tasks.values() 
                             if t.status == TaskStatus.IN_PROGRESS)
            blocked = sum(1 for t in self.tasks.values() 
                         if t.status == TaskStatus.BLOCKED)
            
            return {
                "pattern": "Coordination",
                "scenario": scenario,
                "total_agents": len(self.agents),
                "total_tasks": len(self.tasks),
                "completed_tasks": completed,
                "in_progress": in_progress,
                "blocked_tasks": blocked,
                "total_resources": len(self.resources)
            }
    
    
    # Example usage
    if __name__ == "__main__":
        print("=== Coordination Pattern Demo ===\n")
        
        # Create coordination pattern
        print("1. Creating coordination system...")
        pattern = CoordinationPattern()
        
        # Register agents
        agents = [
            CoordinatedAgent("Alice"),
            CoordinatedAgent("Bob"),
            CoordinatedAgent("Carol")
        ]
        
        for agent in agents:
            pattern.register_agent(agent)
        
        # Add shared resources
        print("\n2. Adding shared resources...")
        pattern.add_resource(SharedResource("db1", "Database", capacity=2))
        pattern.add_resource(SharedResource("api1", "API Server", capacity=3))
        pattern.add_resource(SharedResource("gpu1", "GPU Cluster", capacity=1))
        
        # Add tasks with dependencies
        print("\n3. Adding tasks with dependencies...")
        
        task1 = CoordinatedTask("t1", "Data Collection", 
                               required_resources={"db1"})
        task2 = CoordinatedTask("t2", "Data Processing",
                               dependencies={"t1"},
                               required_resources={"gpu1"})
        task3 = CoordinatedTask("t3", "Model Training",
                               dependencies={"t2"},
                               required_resources={"gpu1"})
        task4 = CoordinatedTask("t4", "API Development",
                               required_resources={"api1"})
        task5 = CoordinatedTask("t5", "Testing",
                               dependencies={"t3", "t4"},
                               required_resources={"api1", "db1"})
        
        for task in [task1, task2, task3, task4, task5]:
            pattern.add_task(task)
        
        # Round 1: Coordinate execution
        print("\n4. Coordination Round 1:")
        pattern.coordinate_execution()
        
        # Simulate completion of task1
        print("\n5. Simulating task completions...")
        pattern.complete_task_coordination("t1")
        pattern.complete_task_coordination("t4")
        
        # Round 2: More tasks should be ready
        print("\n6. Coordination Round 2:")
        pattern.coordinate_execution()
        
        # Complete more tasks
        pattern.complete_task_coordination("t2")
        
        # Round 3: Final tasks
        print("\n7. Coordination Round 3:")
        pattern.coordinate_execution()
        
        # Statistics
        print("\n8. Coordination Statistics:")
        summary = pattern.run("Software Development Project")
        print(f"   Total Tasks: {summary['total_tasks']}")
        print(f"   Completed: {summary['completed_tasks']}")
        print(f"   In Progress: {summary['in_progress']}")
        print(f"   Blocked: {summary['blocked_tasks']}")
        print(f"   Resources: {summary['total_resources']}")
        
        # Task timeline
        print("\n9. Task Status:")
        for task_id, task in pattern.tasks.items():
            status_icon = {"completed": "āœ…", "in_progress": "ā–¶ļø", 
                          "blocked": "āš ļø", "pending": "āøļø", "ready": "🟢"}.get(task.status.value, "ā“")
            deps = f" (deps: {len(task.dependencies)})" if task.dependencies else ""
            assigned = f" -> {task.assigned_to}" if task.assigned_to else ""
            print(f"   {status_icon} {task.name}: {task.status.value}{deps}{assigned}")
        
        # Resource utilization
        print("\n10. Resource Utilization:")
        for res_id, resource in pattern.resources.items():
            usage = f"{len(resource.current_users)}/{resource.capacity}"
            print(f"   {resource.name}: {usage} users, status: {resource.status.value}")
        
        print("\nāœ“ Coordination pattern enabled multi-agent collaboration!")
    
        

    Agentic Architecture Pattern: Coordination

    Pattern 30: 30 Coordination – Line-by-Line Explanation

    Overview

    Pattern 30: Coordination Pattern

    Agents coordinate activities, resources, and timing to achieve shared goals. Manages dependencies, synchronization, and conflict resolution.


    Code Structure Analysis

    File Information

    • Pattern Number: 30
    • Pattern Name: 30 Coordination
    • File Path: patterns\collaboration\30_coordination.py
    • Total Lines: 357

    Detailed Code Explanation

    Module Docstring

    """
    Pattern 30: Coordination Pattern
    
    Agents coordinate activities, resources, and timing to achieve shared goals.
    Manages dependencies, synchronization, and conflict resolution.
    """
    

    Explanation: This module docstring describes the purpose and key features of the 30 Coordination pattern.


    Imports Section

    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime, timedelta
    from enum import Enum
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    from langgraph.graph import StateGraph, END
    from typing_extensions import TypedDict  # First 20 imports shown
    

    Explanation: The module imports necessary dependencies: – from typing import Dict, Any, List, Optional, Set: Type hints for better code documentation – from dataclasses import dataclass, field: Data class decorators for clean data structures – from datetime import datetime, timedelta: Date and time utilities – from enum import Enum: Enumeration support for fixed sets of values – from langchain_core.prompts import ChatPromptTemplate: LangChain framework integration – from langchain_openai import ChatOpenAI: LangChain framework integration – from langgraph.graph import StateGraph, END: LangGraph for workflow orchestration – from typing_extensions import TypedDict: Type hints for better code documentation


    Enumerations

    TaskStatus (Line 18)

    class TaskStatus(Enum):
        PENDING
        READY
        IN_PROGRESS
        BLOCKED
        COMPLETED
        FAILED
    

    Purpose: Status of coordinated task.

    Values: – PENDING: Initial state, not yet processed – READY: Represents ready – IN_PROGRESS: Represents in progress – BLOCKED: Represents blocked – COMPLETED: Successfully finished – FAILED: Execution failed

    ResourceStatus (Line 28)

    class ResourceStatus(Enum):
        AVAILABLE
        ALLOCATED
        IN_USE
        MAINTENANCE
    

    Purpose: Status of shared resource.

    Values: – AVAILABLE: Represents available – ALLOCATED: Represents allocated – IN_USE: Represents in use – MAINTENANCE: Represents maintenance


    Classes

    TaskStatus (Line 18)

    Description: Status of coordinated task.

    ResourceStatus (Line 28)

    Description: Status of shared resource.

    CoordinatedTask (Line 37)

    Description: Task requiring coordination.

    SharedResource (Line 51)

    Description: Shared resource requiring coordination.

    Methods:

    is_available (Line 59)
    def is_available(self):
        """Check if resource is available."""
    

    Purpose: Check if resource is available.

    Parameters: – self: Instance reference

    CoordinationState (Line 64)

    Description: State for coordination workflow.

    CoordinatedAgent (Line 72)

    Description: Agent participating in coordination.

    Methods:

    __init__ (Line 75)
    def __init__(self, name, model_name):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference – name: Identifier or label – model_name: LLM model to use (e.g., “gpt-4”)

    request_task (Line 81)
    def request_task(self, task):
        """Request to execute a task."""
    

    Purpose: Request to execute a task.

    Parameters: – self: Instance reference – task: Parameter for task

    start_task (Line 97)
    def start_task(self, task):
        """Start executing task."""
    

    Purpose: Start executing task.

    Parameters: – self: Instance reference – task: Parameter for task

    complete_task (Line 104)
    def complete_task(self, task):
        """Complete task execution."""
    

    Purpose: Complete task execution.

    Parameters: – self: Instance reference – task: Parameter for task

    CoordinationPattern (Line 112)

    Description: Coordination Pattern – Multi-agent activity coordination.

    Agents coordinate tasks, resources, and timing through a central coordinator that manages dependencies and resolves conflicts.

    Methods:

    __init__ (Line 120)
    def __init__(self):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference

    _build_workflow (Line 127)
    def _build_workflow(self):
        """Build LangGraph coordination workflow."""
    

    Purpose: Build LangGraph coordination workflow.

    Parameters: – self: Instance reference

    register_agent (Line 159)
    def register_agent(self, agent):
        """Register agent for coordination."""
    

    Purpose: Register agent for coordination.

    Parameters: – self: Instance reference – agent: Parameter for agent

    add_task (Line 163)
    def add_task(self, task):
        """Add task to coordination."""
    

    Purpose: Add task to coordination.

    Parameters: – self: Instance reference – task: Parameter for task

    add_resource (Line 167)
    def add_resource(self, resource):
        """Add shared resource."""
    

    Purpose: Add shared resource.

    Parameters: – self: Instance reference – resource: Parameter for resource

    coordinate_execution (Line 171)
    def coordinate_execution(self):
        """Coordinate task execution."""
    

    Purpose: Coordinate task execution.

    Parameters: – self: Instance reference

    _assign_task (Line 209)
    def _assign_task(self, task):
        """Assign task to available agent."""
    

    Purpose: Assign task to available agent.

    Parameters: – self: Instance reference – task: Parameter for task

    complete_task_coordination (Line 228)
    def complete_task_coordination(self, task_id):
        """Complete task and release resources."""
    

    Purpose: Complete task and release resources.

    Parameters: – self: Instance reference – task_id: Parameter for task_id

    run (Line 247)
    def run(self, scenario):
        """Execute coordination pattern."""
    

    Purpose: Execute coordination pattern.

    Parameters: – self: Instance reference – scenario: Parameter for scenario


    Design Patterns Used

    • Strategy Pattern: Different execution strategies for various scenarios
    • State Pattern: Managing different states in the workflow
    • Chain of Responsibility: Sequential processing through workflow nodes
    • Observer Pattern: Tracking and monitoring pattern execution
    • Factory Pattern: Creating instances with proper configuration

    Usage Example

    # Initialize the pattern
    pattern = TaskStatus(name="example", model_name="gpt-4")
    
    # Configure and execute
    result = pattern.execute(data={"key": "value"})
    
    # Check results
    print(result)
    

    Key Concepts

    • LLM Integration: Uses LangChain/OpenAI for intelligent decision-making
    • Workflow Orchestration: LangGraph manages execution flow through nodes
    • State Management: TypedDict defines workflow state structure
    • Error Handling: Comprehensive error handling and fallback mechanisms
    • Extensibility: Designed for easy customization and extension

    Extension Points

    This pattern can be extended by: 1. Adding custom workflow nodes 2. Implementing additional validation logic 3. Integrating with external services 4. Customizing LLM prompts and responses 5. Adding monitoring and logging capabilities

  • Agentic Architecture Pattern: Consensus

    
        """
    Pattern 29: Consensus Pattern
    
    Agents reach agreement through iterative consensus-building mechanisms.
    Supports multiple consensus algorithms: unanimous, majority, quorum-based.
    """
    
    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from enum import Enum
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    
    
    class ConsensusType(Enum):
        """Type of consensus mechanism."""
        UNANIMOUS = "unanimous"  # All must agree
        MAJORITY = "majority"  # >50% must agree
        SUPERMAJORITY = "supermajority"  # 2/3 must agree
        QUORUM = "quorum"  # Minimum number must participate
    
    
    class ProposalStatus(Enum):
        """Status of consensus proposal."""
        PROPOSED = "proposed"
        DISCUSSING = "discussing"
        VOTING = "voting"
        ACCEPTED = "accepted"
        REJECTED = "rejected"
        NO_CONSENSUS = "no_consensus"
    
    
    @dataclass
    class Proposal:
        """Proposal for consensus."""
        proposal_id: str
        proposer: str
        content: str
        status: ProposalStatus = ProposalStatus.PROPOSED
        votes_for: Set[str] = field(default_factory=set)
        votes_against: Set[str] = field(default_factory=set)
        abstentions: Set[str] = field(default_factory=set)
        discussion_rounds: int = 0
        created_at: datetime = field(default_factory=datetime.now)
    
    
    @dataclass
    class ConsensusRound:
        """Round of consensus building."""
        round_id: int
        proposal_id: str
        participants: List[str]
        votes_cast: int
        consensus_reached: bool
        timestamp: datetime = field(default_factory=datetime.now)
    
    
    class ConsensusAgent:
        """Agent participating in consensus."""
        
        def __init__(self, name: str, model_name: str = "gpt-4"):
            self.name = name
            self.llm = ChatOpenAI(model=model_name, temperature=0.7)
            self.proposals_voted: Set[str] = set()
        
        def propose(self, proposal_id: str, content: str) -> Proposal:
            """Make a proposal."""
            proposal = Proposal(
                proposal_id=proposal_id,
                proposer=self.name,
                content=content
            )
            print(f"   šŸ“‹ {self.name} proposed: {content}")
            return proposal
        
        def evaluate_proposal(self, proposal: Proposal, context: str = "") -> str:
            """Evaluate a proposal and provide stance."""
            prompt = ChatPromptTemplate.from_messages([
                ("system", f"You are {self.name}, evaluating a proposal for consensus. "
                          f"Consider the proposal carefully and provide your stance."),
                ("human", f"Proposal: {proposal.content}\n"
                         f"Proposer: {proposal.proposer}\n"
                         f"Context: {context}\n\n"
                         f"Do you support this proposal? Answer with 'support', 'oppose', or 'abstain' "
                         f"and explain why in 1-2 sentences.")
            ])
            
            chain = prompt | self.llm
            response = chain.invoke({})
            
            return str(response.content)[:200]
        
        def vote(self, proposal: Proposal, decision: str):
            """Cast vote on proposal."""
            self.proposals_voted.add(proposal.proposal_id)
            
            if "support" in decision.lower():
                proposal.votes_for.add(self.name)
                print(f"   āœ… {self.name} voted FOR")
            elif "oppose" in decision.lower():
                proposal.votes_against.add(self.name)
                print(f"   āŒ {self.name} voted AGAINST")
            else:
                proposal.abstentions.add(self.name)
                print(f"   ⚪ {self.name} ABSTAINED")
    
    
    class ConsensusPattern:
        """
        Consensus Pattern - Agreement through iterative consensus.
        
        Agents work together to reach consensus on proposals through
        discussion, voting, and iterative refinement.
        """
        
        def __init__(self, consensus_type: ConsensusType = ConsensusType.MAJORITY,
                     quorum: Optional[int] = None):
            self.consensus_type = consensus_type
            self.quorum = quorum
            self.agents: Dict[str, ConsensusAgent] = {}
            self.proposals: Dict[str, Proposal] = {}
            self.consensus_rounds: List[ConsensusRound] = []
        
        def register_agent(self, agent: ConsensusAgent):
            """Register agent in consensus group."""
            self.agents[agent.name] = agent
        
        def submit_proposal(self, proposal: Proposal):
            """Submit proposal for consensus."""
            self.proposals[proposal.proposal_id] = proposal
            proposal.status = ProposalStatus.DISCUSSING
        
        def conduct_consensus(self, proposal_id: str, max_rounds: int = 3) -> bool:
            """Conduct consensus building rounds."""
            if proposal_id not in self.proposals:
                return False
            
            proposal = self.proposals[proposal_id]
            proposal.status = ProposalStatus.VOTING
            
            print(f"\n   šŸ¤ Starting consensus on: {proposal.content}")
            print(f"   Consensus type: {self.consensus_type.value}")
            
            for round_num in range(max_rounds):
                print(f"\n   === Round {round_num + 1} ===")
                proposal.discussion_rounds += 1
                
                # Each agent evaluates and votes
                for agent_name, agent in self.agents.items():
                    evaluation = agent.evaluate_proposal(proposal)
                    agent.vote(proposal, evaluation)
                
                # Check consensus
                consensus_reached = self._check_consensus(proposal)
                
                # Record round
                consensus_round = ConsensusRound(
                    round_id=round_num,
                    proposal_id=proposal_id,
                    participants=list(self.agents.keys()),
                    votes_cast=len(proposal.votes_for) + len(proposal.votes_against),
                    consensus_reached=consensus_reached
                )
                self.consensus_rounds.append(consensus_round)
                
                if consensus_reached:
                    proposal.status = ProposalStatus.ACCEPTED
                    print(f"\n   āœ… Consensus REACHED after {round_num + 1} rounds!")
                    return True
            
            proposal.status = ProposalStatus.NO_CONSENSUS
            print(f"\n   āŒ No consensus after {max_rounds} rounds")
            return False
        
        def _check_consensus(self, proposal: Proposal) -> bool:
            """Check if consensus is reached."""
            total_agents = len(self.agents)
            votes_for = len(proposal.votes_for)
            votes_against = len(proposal.votes_against)
            votes_cast = votes_for + votes_against
            
            print(f"      Votes: {votes_for} for, {votes_against} against, "
                  f"{len(proposal.abstentions)} abstain")
            
            # Check quorum if required
            if self.quorum and votes_cast  total_agents / 2
            
            elif self.consensus_type == ConsensusType.SUPERMAJORITY:
                return votes_for >= (total_agents * 2 / 3)
            
            elif self.consensus_type == ConsensusType.QUORUM:
                return votes_cast >= (self.quorum or total_agents)
            
            return False
        
        def run(self, scenario: str) -> Dict[str, Any]:
            """Execute consensus pattern."""
            total_proposals = len(self.proposals)
            accepted = sum(1 for p in self.proposals.values() 
                          if p.status == ProposalStatus.ACCEPTED)
            
            return {
                "pattern": "Consensus",
                "scenario": scenario,
                "consensus_type": self.consensus_type.value,
                "total_agents": len(self.agents),
                "total_proposals": total_proposals,
                "accepted_proposals": accepted,
                "consensus_rounds": len(self.consensus_rounds)
            }
    
    
    # Example usage
    if __name__ == "__main__":
        print("=== Consensus Pattern Demo ===\n")
        
        # Create consensus group (majority rule)
        print("1. Creating consensus group (majority rule)...")
        pattern = ConsensusPattern(consensus_type=ConsensusType.MAJORITY)
        
        # Register agents
        agents = [
            ConsensusAgent("Alice"),
            ConsensusAgent("Bob"),
            ConsensusAgent("Carol"),
            ConsensusAgent("Dave"),
            ConsensusAgent("Eve")
        ]
        
        for agent in agents:
            pattern.register_agent(agent)
        
        print(f"   Registered {len(agents)} agents")
        
        # Proposal 1: Should be accepted
        print("\n2. Proposal 1: Adopt new AI safety guidelines")
        proposal1 = agents[0].propose("prop1", "Adopt comprehensive AI safety guidelines for all projects")
        pattern.submit_proposal(proposal1)
        result1 = pattern.conduct_consensus("prop1", max_rounds=1)
        
        # Proposal 2: Different proposal
        print("\n3. Proposal 2: Increase project budget by 50%")
        proposal2 = agents[1].propose("prop2", "Increase project budget by 50% to accelerate development")
        pattern.submit_proposal(proposal2)
        result2 = pattern.conduct_consensus("prop2", max_rounds=1)
        
        # Proposal 3: Another proposal
        print("\n4. Proposal 3: Switch to open-source model")
        proposal3 = agents[2].propose("prop3", "Switch primary AI model from proprietary to open-source")
        pattern.submit_proposal(proposal3)
        result3 = pattern.conduct_consensus("prop3", max_rounds=1)
        
        # Try unanimous consensus
        print("\n\n5. Testing UNANIMOUS consensus (harder to achieve)...")
        unanimous_pattern = ConsensusPattern(consensus_type=ConsensusType.UNANIMOUS)
        
        for agent in agents[:3]:  # Smaller group for unanimous
            unanimous_pattern.register_agent(agent)
        
        proposal4 = agents[0].propose("prop4", "Schedule team meeting for next Monday at 2 PM")
        unanimous_pattern.submit_proposal(proposal4)
        result4 = unanimous_pattern.conduct_consensus("prop4", max_rounds=1)
        
        # Statistics
        print("\n\n6. Consensus Statistics:")
        summary = pattern.run("Team decision making")
        print(f"   Total Proposals: {summary['total_proposals']}")
        print(f"   Accepted: {summary['accepted_proposals']}")
        print(f"   Rejection rate: {((summary['total_proposals'] - summary['accepted_proposals']) / max(1, summary['total_proposals']) * 100):.1f}%")
        print(f"   Consensus rounds: {summary['consensus_rounds']}")
        
        # Vote distribution
        print("\n7. Vote Distribution:")
        for prop_id, proposal in pattern.proposals.items():
            print(f"   {prop_id}: {len(proposal.votes_for)} for, "
                  f"{len(proposal.votes_against)} against, "
                  f"{len(proposal.abstentions)} abstain -> {proposal.status.value}")
        
        print("\nāœ“ Consensus pattern enabled collaborative decision making!")
    
        

    Agentic Architecture Pattern: Consensus

    Pattern 29: 29 Consensus – Line-by-Line Explanation

    Overview

    Pattern 29: Consensus Pattern

    Agents reach agreement through iterative consensus-building mechanisms. Supports multiple consensus algorithms: unanimous, majority, quorum-based.


    Code Structure Analysis

    File Information

    • Pattern Number: 29
    • Pattern Name: 29 Consensus
    • File Path: patterns\collaboration\29_consensus.py
    • Total Lines: 289

    Detailed Code Explanation

    Module Docstring

    """
    Pattern 29: Consensus Pattern
    
    Agents reach agreement through iterative consensus-building mechanisms.
    Supports multiple consensus algorithms: unanimous, majority, quorum-based.
    """
    

    Explanation: This module docstring describes the purpose and key features of the 29 Consensus pattern.


    Imports Section

    from typing import Dict, Any, List, Optional, Set
    from dataclasses import dataclass, field
    from datetime import datetime
    from enum import Enum
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI  # First 20 imports shown
    

    Explanation: The module imports necessary dependencies: – from typing import Dict, Any, List, Optional, Set: Type hints for better code documentation – from dataclasses import dataclass, field: Data class decorators for clean data structures – from datetime import datetime: Date and time utilities – from enum import Enum: Enumeration support for fixed sets of values – from langchain_core.prompts import ChatPromptTemplate: LangChain framework integration – from langchain_openai import ChatOpenAI: LangChain framework integration


    Enumerations

    ConsensusType (Line 16)

    class ConsensusType(Enum):
        UNANIMOUS
        MAJORITY
        SUPERMAJORITY
        QUORUM
    

    Purpose: Type of consensus mechanism.

    Values: – UNANIMOUS: Represents unanimous – MAJORITY: Represents majority – SUPERMAJORITY: Represents supermajority – QUORUM: Represents quorum

    ProposalStatus (Line 24)

    class ProposalStatus(Enum):
        PROPOSED
        DISCUSSING
        VOTING
        ACCEPTED
        REJECTED
        NO_CONSENSUS
    

    Purpose: Status of consensus proposal.

    Values: – PROPOSED: Represents proposed – DISCUSSING: Represents discussing – VOTING: Represents voting – ACCEPTED: Represents accepted – REJECTED: Represents rejected – NO_CONSENSUS: Represents no consensus


    Classes

    ConsensusType (Line 16)

    Description: Type of consensus mechanism.

    ProposalStatus (Line 24)

    Description: Status of consensus proposal.

    Proposal (Line 35)

    Description: Proposal for consensus.

    ConsensusRound (Line 49)

    Description: Round of consensus building.

    ConsensusAgent (Line 59)

    Description: Agent participating in consensus.

    Methods:

    __init__ (Line 62)
    def __init__(self, name, model_name):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference – name: Identifier or label – model_name: LLM model to use (e.g., “gpt-4”)

    propose (Line 67)
    def propose(self, proposal_id, content):
        """Make a proposal."""
    

    Purpose: Make a proposal.

    Parameters: – self: Instance reference – proposal_id: Parameter for proposal_id – content: Parameter for content

    evaluate_proposal (Line 77)
    def evaluate_proposal(self, proposal, context):
        """Evaluate a proposal and provide stance."""
    

    Purpose: Evaluate a proposal and provide stance.

    Parameters: – self: Instance reference – proposal: Parameter for proposal – context: Parameter for context

    vote (Line 94)
    def vote(self, proposal, decision):
        """Cast vote on proposal."""
    

    Purpose: Cast vote on proposal.

    Parameters: – self: Instance reference – proposal: Parameter for proposal – decision: Parameter for decision

    ConsensusPattern (Line 109)

    Description: Consensus Pattern – Agreement through iterative consensus.

    Agents work together to reach consensus on proposals through discussion, voting, and iterative refinement.

    Methods:

    __init__ (Line 117)
    def __init__(self, consensus_type, quorum):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference – consensus_type: Parameter for consensus_type – quorum: Parameter for quorum

    register_agent (Line 125)
    def register_agent(self, agent):
        """Register agent in consensus group."""
    

    Purpose: Register agent in consensus group.

    Parameters: – self: Instance reference – agent: Parameter for agent

    submit_proposal (Line 129)
    def submit_proposal(self, proposal):
        """Submit proposal for consensus."""
    

    Purpose: Submit proposal for consensus.

    Parameters: – self: Instance reference – proposal: Parameter for proposal

    conduct_consensus (Line 134)
    def conduct_consensus(self, proposal_id, max_rounds):
        """Conduct consensus building rounds."""
    

    Purpose: Conduct consensus building rounds.

    Parameters: – self: Instance reference – proposal_id: Parameter for proposal_id – max_rounds: Parameter for max_rounds

    _check_consensus (Line 176)
    def _check_consensus(self, proposal):
        """Check if consensus is reached."""
    

    Purpose: Check if consensus is reached.

    Parameters: – self: Instance reference – proposal: Parameter for proposal

    run (Line 205)
    def run(self, scenario):
        """Execute consensus pattern."""
    

    Purpose: Execute consensus pattern.

    Parameters: – self: Instance reference – scenario: Parameter for scenario


    Design Patterns Used

    • Strategy Pattern: Different execution strategies for various scenarios
    • State Pattern: Managing different states in the workflow
    • Chain of Responsibility: Sequential processing through workflow nodes
    • Observer Pattern: Tracking and monitoring pattern execution
    • Factory Pattern: Creating instances with proper configuration

    Usage Example

    # Initialize the pattern
    pattern = ConsensusType(name="example", model_name="gpt-4")
    
    # Configure and execute
    result = pattern.execute(data={"key": "value"})
    
    # Check results
    print(result)
    

    Key Concepts

    • LLM Integration: Uses LangChain/OpenAI for intelligent decision-making
    • Workflow Orchestration: LangGraph manages execution flow through nodes
    • State Management: TypedDict defines workflow state structure
    • Error Handling: Comprehensive error handling and fallback mechanisms
    • Extensibility: Designed for easy customization and extension

    Extension Points

    This pattern can be extended by: 1. Adding custom workflow nodes 2. Implementing additional validation logic 3. Integrating with external services 4. Customizing LLM prompts and responses 5. Adding monitoring and logging capabilities

  • Agentic Architecture Pattern: Swarm Intelligence

    
        """
    Pattern 28: Swarm Intelligence Pattern
    
    Emergent collective behavior from simple agent interactions.
    Inspired by natural swarms (bees, ants, birds) - local interactions lead to global solutions.
    """
    
    from typing import Dict, Any, List, Optional, Tuple
    from dataclasses import dataclass, field
    from datetime import datetime
    import random
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI
    
    
    @dataclass
    class SwarmAgent:
        """Individual agent in the swarm."""
        agent_id: str
        position: Tuple[float, float]  # 2D position
        velocity: Tuple[float, float]  # Current velocity
        best_position: Tuple[float, float]  # Personal best
        best_score: float = float('-inf')
        neighbors: List[str] = field(default_factory=list)
    
    
    @dataclass
    class SwarmProblem:
        """Problem to be solved by swarm."""
        problem_id: str
        description: str
        search_space: Tuple[Tuple[float, float], Tuple[float, float]]  # ((x_min, x_max), (y_min, y_max))
        goal: str
    
    
    @dataclass
    class SwarmSolution:
        """Solution found by swarm."""
        problem_id: str
        best_position: Tuple[float, float]
        best_score: float
        iterations: int
        convergence_history: List[float]
    
    
    class SwarmIntelligencePattern:
        """
        Swarm Intelligence Pattern - Emergent collective optimization.
        
        Multiple simple agents follow local rules and interact with neighbors.
        Global optimal solutions emerge from collective behavior.
        Inspired by Particle Swarm Optimization (PSO).
        """
        
        def __init__(self, num_agents: int = 20, inertia: float = 0.7, 
                     cognitive: float = 1.5, social: float = 1.5, model_name: str = "gpt-4"):
            self.num_agents = num_agents
            self.inertia = inertia  # Weight for current velocity
            self.cognitive = cognitive  # Weight for personal best
            self.social = social  # Weight for global best
            self.llm = ChatOpenAI(model=model_name, temperature=0.7)
            
            self.swarm: List[SwarmAgent] = []
            self.global_best_position: Optional[Tuple[float, float]] = None
            self.global_best_score: float = float('-inf')
        
        def initialize_swarm(self, search_space: Tuple[Tuple[float, float], Tuple[float, float]]):
            """Initialize swarm agents in search space."""
            self.swarm = []
            (x_min, x_max), (y_min, y_max) = search_space
            
            for i in range(self.num_agents):
                position = (
                    random.uniform(x_min, x_max),
                    random.uniform(y_min, y_max)
                )
                velocity = (
                    random.uniform(-1, 1),
                    random.uniform(-1, 1)
                )
                
                agent = SwarmAgent(
                    agent_id=f"agent_{i}",
                    position=position,
                    velocity=velocity,
                    best_position=position
                )
                self.swarm.append(agent)
        
        def evaluate_position(self, position: Tuple[float, float], problem: SwarmProblem) -> float:
            """
            Evaluate fitness of position for problem.
            Uses LLM to score position quality.
            """
            x, y = position
            
            # For demo: simple optimization function (can be replaced with LLM evaluation)
            # Maximize: -(x^2 + y^2) (peak at origin)
            score = -(x**2 + y**2)
            
            return score
        
        def update_velocity(self, agent: SwarmAgent) -> Tuple[float, float]:
            """Update agent velocity based on personal and global best."""
            if not self.global_best_position:
                return agent.velocity
            
            vx, vy = agent.velocity
            x, y = agent.position
            pbx, pby = agent.best_position
            gbx, gby = self.global_best_position
            
            # PSO velocity update formula
            r1, r2 = random.random(), random.random()
            
            new_vx = (self.inertia * vx + 
                      self.cognitive * r1 * (pbx - x) + 
                      self.social * r2 * (gbx - x))
            
            new_vy = (self.inertia * vy + 
                      self.cognitive * r1 * (pby - y) + 
                      self.social * r2 * (gby - y))
            
            # Limit velocity
            max_velocity = 2.0
            new_vx = max(-max_velocity, min(max_velocity, new_vx))
            new_vy = max(-max_velocity, min(max_velocity, new_vy))
            
            return (new_vx, new_vy)
        
        def update_position(self, agent: SwarmAgent, search_space: Tuple[Tuple[float, float], Tuple[float, float]]):
            """Update agent position based on velocity."""
            (x_min, x_max), (y_min, y_max) = search_space
            
            x, y = agent.position
            vx, vy = agent.velocity
            
            new_x = x + vx
            new_y = y + vy
            
            # Keep in bounds
            new_x = max(x_min, min(x_max, new_x))
            new_y = max(y_min, min(y_max, new_y))
            
            agent.position = (new_x, new_y)
        
        def solve(self, problem: SwarmProblem, max_iterations: int = 30) -> SwarmSolution:
            """Solve problem using swarm intelligence."""
            print(f"\n   Problem: {problem.description}")
            print(f"   Swarm size: {self.num_agents} agents")
            print(f"   Search space: {problem.search_space}")
            
            # Initialize swarm
            self.initialize_swarm(problem.search_space)
            convergence_history = []
            
            # Optimize over iterations
            for iteration in range(max_iterations):
                # Evaluate all agents
                for agent in self.swarm:
                    score = self.evaluate_position(agent.position, problem)
                    
                    # Update personal best
                    if score > agent.best_score:
                        agent.best_score = score
                        agent.best_position = agent.position
                    
                    # Update global best
                    if score > self.global_best_score:
                        self.global_best_score = score
                        self.global_best_position = agent.position
                
                # Update velocities and positions
                for agent in self.swarm:
                    agent.velocity = self.update_velocity(agent)
                    self.update_position(agent, problem.search_space)
                
                convergence_history.append(self.global_best_score)
                
                if iteration % 10 == 0:
                    print(f"   Iteration {iteration}: Best score = {self.global_best_score:.4f}")
            
            print(f"   āœ“ Final best position: {self.global_best_position}")
            print(f"   āœ“ Final best score: {self.global_best_score:.4f}")
            
            solution = SwarmSolution(
                problem_id=problem.problem_id,
                best_position=self.global_best_position or (0, 0),
                best_score=self.global_best_score,
                iterations=max_iterations,
                convergence_history=convergence_history
            )
            
            return solution
        
        def run(self, scenario: str) -> Dict[str, Any]:
            """Execute swarm intelligence pattern."""
            return {
                "pattern": "SwarmIntelligence",
                "swarm_size": self.num_agents,
                "inertia": self.inertia,
                "cognitive_weight": self.cognitive,
                "social_weight": self.social,
                "global_best_score": self.global_best_score,
                "scenario": scenario
            }
    
    
    # Example usage
    if __name__ == "__main__":
        print("=== Swarm Intelligence Pattern Demo ===\n")
        
        # Create swarm pattern
        print("1. Creating swarm...")
        pattern = SwarmIntelligencePattern(
            num_agents=25,
            inertia=0.7,
            cognitive=1.5,
            social=1.5
        )
        
        # Define optimization problem
        print("\n2. Defining optimization problem...")
        problem = SwarmProblem(
            problem_id="optimize1",
            description="Find maximum point in 2D space (minimize distance from origin)",
            search_space=((-10, 10), (-10, 10)),
            goal="Find position closest to origin (0, 0)"
        )
        
        # Solve using swarm
        print("\n3. Solving with swarm intelligence...")
        solution = pattern.solve(problem, max_iterations=30)
        
        # Summary
        print("\n4. Solution Summary:")
        print(f"   Best Position: ({solution.best_position[0]:.4f}, {solution.best_position[1]:.4f})")
        print(f"   Best Score: {solution.best_score:.4f}")
        print(f"   Iterations: {solution.iterations}")
        print(f"   Improvement: {solution.convergence_history[-1] - solution.convergence_history[0]:.4f}")
        
        summary = pattern.run("2D optimization via swarm")
        print(f"\n5. Pattern Configuration:")
        print(f"   Swarm Size: {summary['swarm_size']}")
        print(f"   Inertia: {summary['inertia']}")
        print(f"   Cognitive: {summary['cognitive_weight']}")
        print(f"   Social: {summary['social_weight']}")
        
        print("\nāœ“ Swarm intelligence found optimal solution through emergent behavior!")
    
        

    Agentic Architecture Pattern: Swarm Intelligence

    Pattern 28: 28 Swarm Intelligence – Line-by-Line Explanation

    Overview

    Pattern 28: Swarm Intelligence Pattern

    Emergent collective behavior from simple agent interactions. Inspired by natural swarms (bees, ants, birds) – local interactions lead to global solutions.


    Code Structure Analysis

    File Information

    • Pattern Number: 28
    • Pattern Name: 28 Swarm Intelligence
    • File Path: patterns\collaboration\28_swarm_intelligence.py
    • Total Lines: 250

    Detailed Code Explanation

    Module Docstring

    """
    Pattern 28: Swarm Intelligence Pattern
    
    Emergent collective behavior from simple agent interactions.
    Inspired by natural swarms (bees, ants, birds) - local interactions lead to global solutions.
    """
    

    Explanation: This module docstring describes the purpose and key features of the 28 Swarm Intelligence pattern.


    Imports Section

    from typing import Dict, Any, List, Optional, Tuple
    from dataclasses import dataclass, field
    from datetime import datetime
    import random
    from langchain_core.prompts import ChatPromptTemplate
    from langchain_openai import ChatOpenAI  # First 20 imports shown
    

    Explanation: The module imports necessary dependencies: – from typing import Dict, Any, List, Optional, Tuple: Type hints for better code documentation – from dataclasses import dataclass, field: Data class decorators for clean data structures – from datetime import datetime: Date and time utilities – from langchain_core.prompts import ChatPromptTemplate: LangChain framework integration – from langchain_openai import ChatOpenAI: LangChain framework integration


    Classes

    SwarmAgent (Line 17)

    Description: Individual agent in the swarm.

    SwarmProblem (Line 28)

    Description: Problem to be solved by swarm.

    SwarmSolution (Line 37)

    Description: Solution found by swarm.

    SwarmIntelligencePattern (Line 46)

    Description: Swarm Intelligence Pattern – Emergent collective optimization.

    Multiple simple agents follow local rules and interact with neighbors. Global optimal solutions emerge from collective behavior. Inspired by Particle Swarm Optimization (PSO).

    Methods:

    __init__ (Line 55)
    def __init__(self, num_agents, inertia, cognitive, social, model_name):
        """No method docstring."""
    

    Purpose: No method docstring.

    Parameters: – self: Instance reference – num_agents: Parameter for num_agents – inertia: Parameter for inertia – cognitive: Parameter for cognitive – social: Parameter for social – model_name: LLM model to use (e.g., “gpt-4”)

    initialize_swarm (Line 67)
    def initialize_swarm(self, search_space):
        """Initialize swarm agents in search space."""
    

    Purpose: Initialize swarm agents in search space.

    Parameters: – self: Instance reference – search_space: Parameter for search_space

    evaluate_position (Line 90)
    def evaluate_position(self, position, problem):
        """Evaluate fitness of position for problem.
    Uses LLM to score position quality."""
    

    Purpose: Evaluate fitness of position for problem. Uses LLM to score position quality.

    Parameters: – self: Instance reference – position: Parameter for position – problem: Parameter for problem

    update_velocity (Line 103)
    def update_velocity(self, agent):
        """Update agent velocity based on personal and global best."""
    

    Purpose: Update agent velocity based on personal and global best.

    Parameters: – self: Instance reference – agent: Parameter for agent

    update_position (Line 131)
    def update_position(self, agent, search_space):
        """Update agent position based on velocity."""
    

    Purpose: Update agent position based on velocity.

    Parameters: – self: Instance reference – agent: Parameter for agent – search_space: Parameter for search_space

    solve (Line 147)
    def solve(self, problem, max_iterations):
        """Solve problem using swarm intelligence."""
    

    Purpose: Solve problem using swarm intelligence.

    Parameters: – self: Instance reference – problem: Parameter for problem – max_iterations: Parameter for max_iterations

    run (Line 196)
    def run(self, scenario):
        """Execute swarm intelligence pattern."""
    

    Purpose: Execute swarm intelligence pattern.

    Parameters: – self: Instance reference – scenario: Parameter for scenario


    Design Patterns Used

    • Strategy Pattern: Different execution strategies for various scenarios
    • State Pattern: Managing different states in the workflow
    • Chain of Responsibility: Sequential processing through workflow nodes
    • Observer Pattern: Tracking and monitoring pattern execution
    • Factory Pattern: Creating instances with proper configuration

    Usage Example

    # Initialize the pattern
    pattern = SwarmAgent(name="example", model_name="gpt-4")
    
    # Configure and execute
    result = pattern.execute(data={"key": "value"})
    
    # Check results
    print(result)
    

    Key Concepts

    • LLM Integration: Uses LangChain/OpenAI for intelligent decision-making
    • Workflow Orchestration: LangGraph manages execution flow through nodes
    • State Management: TypedDict defines workflow state structure
    • Error Handling: Comprehensive error handling and fallback mechanisms
    • Extensibility: Designed for easy customization and extension

    Extension Points

    This pattern can be extended by: 1. Adding custom workflow nodes 2. Implementing additional validation logic 3. Integrating with external services 4. Customizing LLM prompts and responses 5. Adding monitoring and logging capabilities