Babysitter supply-chain-digital-twin
Digital twin representation of supply chain for real-time monitoring and simulation
install
source · Clone the upstream repo
git clone https://github.com/a5c-ai/babysitter
Claude Code · Install into ~/.claude/skills/
T=$(mktemp -d) && git clone --depth=1 https://github.com/a5c-ai/babysitter "$T" && mkdir -p ~/.claude/skills && cp -r "$T/library/specializations/domains/business/supply-chain/skills/supply-chain-digital-twin" ~/.claude/skills/a5c-ai-babysitter-supply-chain-digital-twin && rm -rf "$T"
manifest:
library/specializations/domains/business/supply-chain/skills/supply-chain-digital-twin/SKILL.mdsource content
Supply Chain Digital Twin
Overview
The Supply Chain Digital Twin creates a virtual representation of the physical supply chain for real-time monitoring, predictive analytics, and simulation. It enables continuous optimization through what-if analysis and performance prediction.
Capabilities
- Real-Time Supply Chain State Representation: Live digital model
- Predictive Analytics Integration: Forward-looking performance prediction
- Scenario Simulation: What-if analysis on digital model
- Anomaly Detection: Deviation identification from expected patterns
- Optimization Recommendation: AI-driven improvement suggestions
- What-If Analysis: Impact assessment of proposed changes
- Performance Prediction: Future state forecasting
- Continuous Learning Integration: Model improvement from actuals
Input Schema
digital_twin_request: twin_scope: network_elements: array processes: array time_horizon: string real_time_feeds: erp_integration: object iot_sensors: array tracking_feeds: array model_configuration: physics_models: object ml_models: array business_rules: array simulation_scenarios: array prediction_horizon: string anomaly_detection_config: sensitivity: float alert_rules: array
Output Schema
digital_twin_output: current_state: network_status: object inventory_positions: object in_transit: array production_status: object kpis: object predictions: demand_forecast: object supply_forecast: object risk_predictions: array kpi_projections: object anomalies: detected_anomalies: array - anomaly_id: string type: string severity: string location: string description: string recommended_action: string scenario_results: scenarios: array - scenario_name: string predicted_outcomes: object risks: array recommendations: array optimization_recommendations: immediate: array short_term: array strategic: array model_health: accuracy_metrics: object data_quality: object model_drift: object visualizations: network_view: object flow_animation: object prediction_charts: array
Usage
Real-Time Network Monitoring
Input: Live data feeds, network model Process: Update digital twin state continuously Output: Real-time visibility dashboard
Predictive Performance Analysis
Input: Current state, ML models, forecast horizon Process: Predict future network performance Output: Performance predictions with confidence
What-If Scenario Analysis
Input: Proposed change, current twin state Process: Simulate impact on digital twin Output: Scenario outcome prediction
Integration Points
- IoT Platforms: Sensor and device data
- Real-Time Data Streams: Event streaming platforms
- ML Platforms: Predictive model deployment
- Visualization Platforms: 3D and interactive visualization
- Tools/Libraries: Digital twin platforms, IoT integration, ML models
Process Dependencies
- Supply Chain Network Design
- Supply Chain Disruption Response
- Supply Chain KPI Dashboard Development
Best Practices
- Start with high-value use cases
- Ensure real-time data quality
- Validate twin accuracy regularly
- Balance model complexity with maintainability
- Integrate with decision-making processes
- Plan for continuous model improvement