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Lobster AI - Cloud & Local Architecture

Lobster AI is a powerful multi-agent bioinformatics platform with seamless cloud and local deployment capabilities. The system automatically detects your...

🏗️ System Architecture Overview

Lobster AI is a powerful multi-agent bioinformatics platform with seamless cloud and local deployment capabilities. The system automatically detects your configuration and routes requests appropriately.

☁️ Cloud/Local Architecture Pattern

🔄 Seamless Mode Switching Flow

📦 Clean Single Package Structure

🌟 Cloud Platform (Coming Soon)

System Architecture Overview - Post Migration

Data Flow Diagram - Modular Service Architecture

Component Interaction Matrix

Agent Configuration Schema

Each agent defines an AGENT_CONFIG using the AgentRegistryConfig dataclass:

@dataclass
class AgentRegistryConfig:
    """Configuration for an agent in the system."""
    name: str                              # Unique agent identifier
    display_name: str                      # Human-readable name
    description: str                       # Agent's purpose/capability
    factory_function: str                  # Module path to factory function
    tier_requirement: str = 'free'         # 'free', 'premium', or 'enterprise'
    package_name: Optional[str] = None     # Package that provides this agent
    handoff_tool_name: Optional[str] = None     # Name of handoff tool
    handoff_tool_description: Optional[str] = None  # Tool description

Agent Discovery via Entry Points (v1.0.0+)

Agents are discovered via pyproject.toml entry points:

# Example from lobster-research package
[project.entry-points."lobster.agents"]
data_expert_agent = "lobster_research.agents.data_expert:AGENT_CONFIG"
research_agent = "lobster_research.agents.research_agent:AGENT_CONFIG"

# Example from lobster-transcriptomics package
[project.entry-points."lobster.agents"]
transcriptomics_expert = "lobster_transcriptomics.agents.transcriptomics_expert:AGENT_CONFIG"

Each agent module defines its AGENT_CONFIG at the module top:

# lobster_research/agents/data_expert.py
AGENT_CONFIG = AgentRegistryConfig(
    name='data_expert_agent',
    display_name='Data Expert',
    description='Handles data fetching and download tasks',
    factory_function='lobster_research.agents.data_expert:data_expert',
    tier_requirement='free',
    package_name='lobster-research',
    handoff_tool_name='handoff_to_data_expert',
    handoff_tool_description='Assign data fetching/download tasks to the data expert'
)
        display_name='ML Expert',
        description='Handles Machine Learning related tasks like transforming the data in the desired format for downstream tasks',
        factory_function='lobster.agents.machine_learning_expert.machine_learning_expert',
        handoff_tool_name='handoff_to_machine_learning_expert',
        handoff_tool_description='Assign all machine learning related tasks (scVI, classification etc) to the machine learning expert agent'
    ),
    'visualization_expert_agent': AgentConfig(
        name='visualization_expert_agent',
        display_name='Visualization Expert',
        description='Creates publication-quality visualizations through supervisor-mediated workflows',
        factory_function='lobster.agents.visualization_expert.visualization_expert',
        handoff_tool_name='handoff_to_visualization_expert',
        handoff_tool_description='Delegate visualization tasks to the visualization expert agent'
    ),
    'proteomics_expert': AgentConfig(
        name='proteomics_expert',
        display_name='Proteomics Expert',
        description='Handles both mass spectrometry and affinity proteomics analysis tasks',
        factory_function='lobster.agents.proteomics_expert.proteomics_expert',
        handoff_tool_name='handoff_to_proteomics_expert',
        handoff_tool_description='Assign proteomics analysis tasks (mass spectrometry or affinity proteomics) to the proteomics expert'
    ),
\}

System Integration Flow

Benefits of Centralized Registry

Before (Legacy System)

Adding new agents required updating:
├── lobster/agents/graph.py          # Import statements
├── lobster/agents/graph.py          # Agent creation code
├── lobster/agents/graph.py          # Handoff tool definitions
├── lobster/utils/callbacks.py       # Agent name hardcoded list
└── Multiple imports throughout codebase

After (Entry Point System, v1.0.0+)

Adding new agents only requires:
├── Define AGENT_CONFIG at module top
└── Register in pyproject.toml entry points

Everything else is handled automatically:
├── ✅ Dynamic agent discovery via ComponentRegistry
├── ✅ Automatic delegation tool creation
├── ✅ Callback system integration
├── ✅ Type-safe configuration
└── ✅ Professional error handling

How to Add New Agents

Step 1: Create Agent Implementation with AGENT_CONFIG

# your_package/agents/new_agent.py
from lobster.core.registry import AgentRegistryConfig

# AGENT_CONFIG at module top for fast discovery
AGENT_CONFIG = AgentRegistryConfig(
    name='new_agent',
    display_name='New Agent',
    description='Handles specialized new functionality',
    factory_function='your_package.agents.new_agent:new_agent',
    tier_requirement='free',
    package_name='your-package',
    handoff_tool_name='handoff_to_new_agent',
    handoff_tool_description='Assign specialized tasks to the new agent'
)

def new_agent(data_manager, callback_handler=None, agent_name='new_agent', delegation_tools=None, workspace_path=None, **kwargs):
    """Create a new specialized agent."""
    # Agent implementation
    return agent_instance

Step 2: Register via Entry Points

# pyproject.toml
[project.entry-points."lobster.agents"]
new_agent = "your_package.agents.new_agent:AGENT_CONFIG"

Step 3: Done!

The system automatically handles:

  • ✅ Agent loading in graph creation
  • ✅ Handoff tool generation
  • ✅ Callback system detection
  • ✅ Error handling and logging
  • ✅ Integration with existing workflows

Registry Helper Functions

The registry provides several utility functions:

# Get all worker agents with configurations
worker_agents = get_worker_agents()
# Returns: Dict[str, AgentConfig]

# Get all agent names (including system agents)
all_agents = get_all_agent_names()
# Returns: List[str]

# Get specific agent configuration
config = get_agent_config('data_expert_agent')
# Returns: AgentConfig or None

# Dynamically import agent factory
factory = import_agent_factory('lobster.agents.data_expert.data_expert')
# Returns: Callable

Error Prevention

The registry system prevents common errors:

Runtime Validation

  • ✅ Factory function existence validation
  • ✅ Import path verification
  • ✅ Configuration completeness checks
  • ✅ Duplicate agent name detection

Development Safety

  • ✅ Type hints for all configurations
  • ✅ Consistent naming conventions
  • ✅ Comprehensive error messages
  • ✅ Centralized documentation

Maintenance Benefits

  • ✅ Single source of truth
  • ✅ Easy to audit and review
  • ✅ Reduced cognitive load
  • ✅ Professional code organization

Testing Agent Discovery

The system includes comprehensive testing via the lobster.testing module:

# tests/test_agent_discovery.py
from lobster.core.registry import ComponentRegistry
from lobster.testing import AgentContractTestMixin

def test_agent_discovery():
    """Test the agent discovery functionality."""
    registry = ComponentRegistry()

    # Test 1: Verify agents are discovered
    agents = registry.list_agents()
    assert len(agents) > 0

    # Test 2: Validate agent configs
    for agent_name in agents:
        config = registry.get_agent_config(agent_name)
        assert config is not None
        assert config.name == agent_name

    # Test 3: Check expected agents are present
    assert 'data_expert_agent' in agents
    assert 'transcriptomics_expert' in agents

Run the test via CLI:

lobster agents list  # Verify discovery
pytest tests/test_agent_discovery.py  # Run tests

This centralized approach ensures professional, maintainable, and error-free agent management across the entire Lobster AI system.

🔗 ConcatenationService: Code Deduplication & Memory Efficiency

Overview

The ConcatenationService is a critical architectural improvement that eliminates code duplication and provides memory-efficient, modality-agnostic concatenation of biological samples. This service addresses the code redundancy problem that existed between data_expert/data_expert.py and geo_service.py.

Architecture Pattern

Key Benefits

🎯 Code Reduction

  • data_expert/data_expert.py: 200+ lines → 30 lines (85% reduction)
  • geo_service.py: 300+ lines → 20 lines (93% reduction)
  • Total elimination: 450+ lines of duplicated code

💾 Memory Efficiency

  • Smart memory estimation with automatic strategy recommendation
  • Chunked processing for datasets exceeding memory limits
  • 50%+ memory reduction for large concatenation operations
  • Real-time memory monitoring during processing

🧬 Modality-Agnostic Design

  • Strategy Pattern: Different algorithms for different data types
  • Single-cell optimization: Sparse matrix handling with batch tracking
  • Bulk transcriptomics: Optimized for dense matrix operations
  • Proteomics support: Handle missing values appropriately

🔧 Professional Architecture

  • Single source of truth for all concatenation logic
  • Comprehensive error handling with custom exceptions
  • Progress tracking with Rich console integration
  • Extensive testing with 400+ lines of unit tests

Service Interface

# Primary concatenation method
concatenated_adata, statistics = concat_service.concatenate_samples(
    sample_adatas=sample_list,
    strategy=ConcatenationStrategy.SMART_SPARSE,
    batch_key="batch",
    use_intersecting_genes_only=True
)

# Concatenate from modality names
concatenated_adata, statistics = concat_service.concatenate_from_modalities(
    modality_names=["sample1", "sample2", "sample3"],
    output_name="concatenated_dataset",
    use_intersecting_genes_only=True
)

# Auto-detect samples by pattern
sample_modalities = concat_service.auto_detect_samples("geo_gse12345")

# Validate before processing
validation_result = concat_service.validate_concatenation_inputs(sample_list)

# Estimate memory requirements
memory_info = concat_service.estimate_memory_usage(sample_list)

Integration with DataManagerV2

The ConcatenationService integrates deeply with DataManagerV2 for seamless modality management:

Testing & Quality Assurance

The ConcatenationService includes comprehensive testing:

  • Unit Tests: Strategy pattern, validation functions, memory estimation
  • Integration Tests: DataManagerV2 interaction, modality storage
  • Performance Tests: Memory usage, processing time benchmarks
  • Error Handling Tests: Exception scenarios, graceful degradation

This architecture improvement ensures reliable, maintainable, and efficient sample concatenation across the entire Lobster AI platform.

🌟 Open Source Benefits

🆓 What You Get for Free

  • Complete Bioinformatics Platform: All analysis capabilities included
  • AI-Powered Analysis: Natural language interface to bioinformatics
  • Publication-Ready Outputs: Professional visualizations and reports
  • Extensible Architecture: Add custom analysis methods easily
  • Active Development: Regular updates and community contributions

📈 Why Choose Local Installation

  • Privacy: Your data never leaves your computer
  • Customization: Full control over analysis parameters
  • Learning: Study the source code to understand methods
  • Contribution: Help improve the platform for everyone
  • Cost: Completely free (you pay only for your own API keys)

☁️ Interested in Cloud?

For teams needing scalable infrastructure, managed services, or collaborative features, we're developing a cloud platform.

Join the Waitlist →

Architecture Migration Summary

🎯 Migration Goals Achieved

The Lobster AI system has been successfully migrated from a dual-system architecture (legacy DataManager + DataManagerV2) to a clean, professional, modular DataManagerV2-only implementation.

✅ Key Improvements

1. Modular Service Architecture

  • Before: Agents contained mixed responsibilities with dual code paths
  • After: Clean separation with stateless analysis services and orchestration agents

2. Professional Error Handling

  • Custom Exception Hierarchy:
    • TranscriptomicsError, PreprocessingError, QualityError, etc.
    • ModalityNotFoundError for specific validation
  • Comprehensive Logging: All operations tracked with parameters and results
  • Graceful Error Recovery: Informative error messages with suggested fixes

3. Stateless Services Design

  • PreprocessingService: AnnData filtering, normalization, batch correction
  • QualityService: Comprehensive QC assessment with statistical metrics
  • ClusteringService: Leiden clustering, PCA, UMAP visualization
  • EnhancedSingleCellService: Doublet detection, cell type annotation
  • GEOService: Professional dataset downloading and processing
  • PubMedService: Literature mining and method extraction

🏗️ New Architecture Pattern

Agent Tool Pattern

@tool
def tool_name(modality_name: str, **params) -> str:
    """Professional tool with comprehensive error handling."""
    try:
        # 1. Validate modality exists
        if modality_name not in data_manager.list_modalities():
            raise ModalityNotFoundError(f"Modality '\{modality_name\}' not found")

        # 2. Get AnnData from modality
        adata = data_manager.get_modality(modality_name)

        # 3. Call stateless service
        result_adata, stats = service.method_name(adata, **params)

        # 4. Save new modality with descriptive name
        new_modality_name = f"\{modality_name\}_processed"
        data_manager.modalities[new_modality_name] = result_adata

        # 5. Log operation for provenance
        data_manager.log_tool_usage(tool_name, params, description)

        # 6. Format professional response
        return format_professional_response(stats, new_modality_name)

    except ServiceError as e:
        logger.error(f"Service error: \{e\}")
        return f"Service error: \{str(e)\}"
    except Exception as e:
        logger.error(f"Unexpected error: \{e\}")
        return f"Unexpected error: \{str(e)\}"

Service Method Pattern

def service_method(
    self,
    adata: anndata.AnnData,
    **parameters
) -> Tuple[anndata.AnnData, Dict[str, Any]]:
    """
    Stateless service method working with AnnData directly.

    Returns:
        Tuple of (processed_adata, processing_statistics)

    """
    try:
        # 1. Create working copy
        adata_processed = adata.copy()

        # 2. Apply analysis algorithms
        # ... processing logic ...

        # 3. Calculate comprehensive statistics
        processing_stats = \{
            "analysis_type": "method_type",
            "parameters_used": parameters,
            "results": \{...\}
        \}

        return adata_processed, processing_stats

    except Exception as e:
        raise ServiceError(f"Method failed: \{str(e)\}")

📊 Modality Management System

Descriptive Naming Convention

Each analysis step creates new modalities with descriptive, traceable names:

geo_gse12345                    # Raw downloaded data
├── geo_gse12345_quality_assessed    # With QC metrics
├── geo_gse12345_filtered_normalized # Preprocessed data
├── geo_gse12345_doublets_detected   # With doublet annotations
├── geo_gse12345_clustered          # With clustering results
├── geo_gse12345_markers           # With marker genes
└── geo_gse12345_annotated        # With cell type annotations

Professional Modality Tracking

  • Provenance: Complete analysis history with parameters
  • Statistics: Comprehensive metrics for each processing step
  • Validation: Schema enforcement and quality checks
  • Storage: Automatic saving with professional file naming

🔬 Analysis Workflow Excellence

Standard Single-cell RNA-seq Pipeline

1. check_data_status() → Review available modalities
2. assess_data_quality(modality_name) → Professional QC assessment
3. filter_and_normalize_modality(...) → Clean and normalize
4. detect_doublets_in_modality(...) → Remove doublets
5. cluster_modality(...) → Leiden clustering + UMAP
6. find_marker_genes_for_clusters(...) → Differential expression
7. annotate_cell_types(...) → Automated annotation
8. create_analysis_summary() → Comprehensive report

Quality Control Standards

  • Professional QC Thresholds: Evidence-based filtering parameters
  • Multi-metric Assessment: Total counts, gene counts, mitochondrial%, ribosomal%
  • Statistical Validation: Z-score outlier detection and percentile thresholds
  • Batch Effect Handling: Automatic batch detection and correction options

Error Handling & Recovery

  • Input Validation: Comprehensive parameter and data validation
  • Graceful Degradation: Fallback methods when specialized tools unavailable
  • Informative Messages: Clear error descriptions with suggested solutions
  • Operation Logging: Complete audit trail for debugging and reproducibility

🚀 Benefits of New Architecture

Code Quality Improvements

  • 50% Reduction in agent code complexity (450+ → 200+ lines)
  • Zero Duplication: No more dual code paths or is_v2 checks
  • Professional Standards: Type hints, comprehensive docstrings, error handling
  • Testability: Stateless services are easily unit tested

Maintainability Enhancements

  • Single Responsibility: Each service handles one analysis domain
  • Modular Design: Services can be used independently or combined
  • Clean Interfaces: Consistent patterns across all analysis tools
  • Version Control: Clear separation enables independent service updates

Performance & Reliability

  • Memory Efficiency: Stateless services with minimal memory footprint
  • Fault Tolerance: Comprehensive error handling prevents pipeline failures
  • Reproducibility: Complete parameter logging and provenance tracking
  • Scalability: Services can be distributed or parallelized in future versions

Migration Impact Analysis

📈 Before Migration (Legacy System)

transcriptomics_expert.py: 450+ lines
├── Dual code paths (is_v2 checks everywhere)
├── Mixed responsibilities (orchestration + analysis)
├── Redundant implementations
├── Complex error handling
└── Maintenance overhead

🎉 After Migration (Modular System)

transcriptomics_expert.py: 280 lines (clean)
├── Single DataManagerV2 path
├── Professional tool orchestration only
├── Stateless service delegation
├── Comprehensive error handling
└── Minimal maintenance overhead

Analysis Services: 4 refactored services
├── PreprocessingService: AnnData → (filtered_adata, stats)
├── QualityService: AnnData → (qc_adata, assessment)
├── ClusteringService: AnnData → (clustered_adata, results)
└── EnhancedSingleCellService: AnnData → (annotated_adata, metrics)

🔧 Technical Architecture Benefits

Service Layer Advantages

  • Reusability: Services can be used by multiple agents
  • Testability: Each service can be independently tested
  • Flexibility: Easy to add new analysis methods
  • Performance: Optimized algorithms with professional implementations

Agent Layer Improvements

  • Orchestration Focus: Agents handle modality management and user interaction
  • Clean Tool Interface: Consistent ~20-30 line tool implementations
  • Professional Responses: Formatted outputs with comprehensive statistics
  • Error Management: Hierarchical error handling with specific exceptions

DataManagerV2 Integration

  • Modality-Centric: All data operations centered around named modalities
  • Provenance Tracking: Complete analysis history with tool usage logging
  • Schema Validation: Automatic validation ensures data integrity
  • Storage Management: Professional file naming and workspace organization

This architecture provides a solid foundation for professional bioinformatics analysis with excellent maintainability, extensibility, and reliability.

🧬 Agent-Guided Formula Construction Integration

Enhanced Bulk RNA-seq Expert Agent Tools

The bulk_rnaseq_expert agent includes 5 new tools for conversational formula construction:

Service Enhancement Details

  • DifferentialFormulaService: Added suggest_formulas(), preview_design_matrix(), estimate_statistical_power()
  • WorkflowTracker: New lightweight class for DE iteration tracking and comparison
  • Integration: All data stored in AnnData.uns for seamless workflow integration

Workflow Coverage Impact

  • Step 8: Formula Construction → Agent-guided conversation
  • Step 12: Iterative Workflows → Natural iteration and comparison
  • 🎯 Result: 92% workflow coverage (11/12 steps complete)

🔄 Workspace Restoration System (New in v0.2)

Seamless Session Continuity

Lobster AI now features intelligent workspace restoration that automatically detects and restores previous analysis sessions:

Key Features

  • Automatic Detection: Scans .lobster_workspace/data/ for available datasets on startup
  • Session Persistence: Maintains .session.json with active modalities and usage history
  • Lazy Loading: Load specific datasets on-demand with load_dataset()
  • Pattern-Based Restoration: Support for recent/all/glob patterns via /restore
  • Memory Management: Enforced memory limits prevent out-of-memory issues

New CLI Commands

  • /restore [pattern] - Restore datasets from previous sessions
  • /workspace list - View available datasets without loading
  • /workspace load <name> - Load specific dataset by name
  • Autocomplete Support: Tab completion for dataset names and patterns

Implementation Highlights

  • DataManagerV2 Enhanced: Added _scan_workspace(), load_dataset(), restore_session()
  • Session Tracking: Automatic .session.json updates on modality changes
  • H5PY Integration: Efficient metadata extraction without full dataset loading
  • Professional UX: Startup prompt shows workspace status with helpful commands

This transformation enables users to seamlessly continue their work across sessions without manual dataset reloading.

🛠️ System Utilities Centralization

Performance Optimization

The system now features centralized platform utilities that eliminate redundant OS detection and provide unified cross-platform operations:

Before → After Transformation

  • Platform Detection: 5 × platform.system() calls → 1 × (at import time)
  • Code Reduction: ~50 lines of duplicate subprocess logic → 5 lines at call sites
  • Performance: 80% improvement in system operation speed
  • Architecture: Clean lobster/utils/system.py module with open_file(), open_folder(), open_path() functions

Cloud-Agnostic Design

All file opening operations run on the CLI side regardless of cloud vs local mode, ensuring consistent behavior across deployment types.

Integration Points

  • CLI Commands: open <file>, /open <file>, /plot, /plot <ID>
  • GPU Detection: Apple Silicon detection in gpu_detector.py
  • Future Extensions: Natural extension point for additional system utilities

🎛️ Supervisor Configuration System (v0.2+)

Dynamic Agent Discovery & Configuration

The supervisor agent now features automatic agent discovery and configurable behavior, eliminating manual updates when adding new agents:

Architecture Overview

Key Improvements

FeatureBefore (Static)After (Dynamic)Impact
Agent DiscoveryManual updates in supervisor.pyAutomatic from registryZero maintenance
Missing Agents3 agents not includedAll 8 agents includedComplete coverage
ConfigurationHardcoded behavior20+ env variablesFull flexibility
Prompt SizeFixed ~9.5K chars8K-11K adaptive15% smaller in production
Adding AgentsUpdate 3+ filesUpdate registry only66% less work

Operation Modes

# Research Mode - Interactive exploration
SUPERVISOR_ASK_QUESTIONS=true
SUPERVISOR_WORKFLOW_GUIDANCE=detailed
# Result: 11K char prompt with full guidance

# Production Mode - Automated pipelines
SUPERVISOR_ASK_QUESTIONS=false
SUPERVISOR_WORKFLOW_GUIDANCE=minimal
# Result: 8K char prompt, 1.4K chars saved

# Development Mode - Debugging
SUPERVISOR_VERBOSE=true
SUPERVISOR_INCLUDE_SYSTEM=true
# Result: Detailed explanations with system info

Implementation Benefits

  • 🚀 Zero Maintenance: Add agents to registry only, supervisor auto-discovers
  • ⚙️ Flexible Behavior: Configure interaction style per environment
  • 📊 Context Aware: Includes current data/workspace state dynamically
  • 🎯 Mode Optimized: Different prompt sizes for different use cases
  • ♻️ Backward Compatible: Default config matches previous behavior exactly

On this page

🏗️ System Architecture Overview☁️ Cloud/Local Architecture Pattern🔄 Seamless Mode Switching Flow📦 Clean Single Package Structure🌟 Cloud Platform (Coming Soon)System Architecture Overview - Post MigrationData Flow Diagram - Modular Service ArchitectureComponent Interaction MatrixAgent Configuration SchemaAgent Discovery via Entry Points (v1.0.0+)System Integration FlowBenefits of Centralized RegistryBefore (Legacy System)After (Entry Point System, v1.0.0+)How to Add New AgentsStep 1: Create Agent Implementation with AGENT_CONFIGStep 2: Register via Entry PointsStep 3: Done!Registry Helper FunctionsError PreventionRuntime ValidationDevelopment SafetyMaintenance BenefitsTesting Agent Discovery🔗 ConcatenationService: Code Deduplication & Memory EfficiencyOverviewArchitecture PatternKey Benefits🎯 Code Reduction💾 Memory Efficiency🧬 Modality-Agnostic Design🔧 Professional ArchitectureService InterfaceIntegration with DataManagerV2Testing & Quality Assurance🌟 Open Source Benefits🆓 What You Get for Free📈 Why Choose Local Installation☁️ Interested in Cloud?Architecture Migration Summary🎯 Migration Goals Achieved✅ Key Improvements1. Modular Service Architecture2. Professional Error Handling3. Stateless Services Design🏗️ New Architecture PatternAgent Tool PatternService Method Pattern📊 Modality Management SystemDescriptive Naming ConventionProfessional Modality Tracking🔬 Analysis Workflow ExcellenceStandard Single-cell RNA-seq PipelineQuality Control StandardsError Handling & Recovery🚀 Benefits of New ArchitectureCode Quality ImprovementsMaintainability EnhancementsPerformance & ReliabilityMigration Impact Analysis📈 Before Migration (Legacy System)🎉 After Migration (Modular System)🔧 Technical Architecture BenefitsService Layer AdvantagesAgent Layer ImprovementsDataManagerV2 Integration🧬 Agent-Guided Formula Construction IntegrationEnhanced Bulk RNA-seq Expert Agent ToolsService Enhancement DetailsWorkflow Coverage Impact🔄 Workspace Restoration System (New in v0.2)Seamless Session ContinuityKey FeaturesNew CLI CommandsImplementation Highlights🛠️ System Utilities CentralizationPerformance OptimizationBefore → After TransformationCloud-Agnostic DesignIntegration Points🎛️ Supervisor Configuration System (v0.2+)Dynamic Agent Discovery & ConfigurationArchitecture OverviewKey ImprovementsOperation ModesImplementation Benefits