Babysitter capacity-constraint-analyzer
Production capacity analysis skill using Theory of Constraints principles
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 "$T/library/specializations/domains/business/supply-chain/skills/capacity-constraint-analyzer" ~/.claude/skills/a5c-ai-babysitter-capacity-constraint-analyzer && rm -rf "$T"
manifest:
library/specializations/domains/business/supply-chain/skills/capacity-constraint-analyzer/SKILL.mdtags
source content
Capacity Constraint Analyzer
Overview
The Capacity Constraint Analyzer provides production and supply chain capacity analysis using Theory of Constraints (TOC) principles. It identifies bottlenecks, models capacity exploitation strategies, and supports capacity investment decisions.
Capabilities
- Capacity Utilization Calculation: Resource utilization analysis
- Bottleneck Identification: Constraint and limiting factor detection
- Constraint Exploitation Strategies: TOC-based improvement approaches
- Capacity Adjustment Modeling: Expansion and contraction scenarios
- Lead Time Impact Analysis: Capacity effects on delivery performance
- Rough-Cut Capacity Planning: Aggregate capacity assessment
- Finite Capacity Scheduling Support: Detailed scheduling inputs
- Capacity Investment Analysis: CapEx decision support
Input Schema
capacity_analysis_request: resources: work_centers: array - resource_id: string name: string available_capacity: float capacity_unit: string efficiency: float setup_time: float labor: array equipment: array demand_requirements: production_plan: array capacity_requirements: array - resource_id: string product: string rate: float constraints: operating_hours: object maintenance_windows: array policy_limits: object analysis_parameters: time_horizon: string granularity: string scenarios: array
Output Schema
capacity_analysis_output: utilization_analysis: by_resource: array - resource_id: string name: string available_capacity: float required_capacity: float utilization_percent: float status: string # under, balanced, constrained, over summary: object bottleneck_identification: constraints: array - resource_id: string constraint_type: string impact: string root_cause: string constraint_ranking: array exploitation_strategies: recommendations: array - strategy: string target_resource: string expected_improvement: float implementation_effort: string capacity_scenarios: scenarios: array - scenario_name: string capacity_changes: object cost: float benefit: float lead_time_impact: string investment_analysis: options: array npv_comparison: object payback_analysis: object rough_cut_capacity_plan: object
Usage
Bottleneck Identification
Input: Production plan, resource capacities Process: Calculate utilization, identify constraints Output: Bottleneck report with ranking
Capacity Scenario Analysis
Input: Demand growth scenarios, current capacity Process: Model capacity options and impacts Output: Capacity scenario comparison
TOC Exploitation Strategy
Input: Identified constraint, current operations Process: Apply TOC principles for exploitation Output: Constraint exploitation recommendations
Integration Points
- ERP/MES Systems: Capacity and production data
- Planning Systems: Demand and production plans
- Scheduling Systems: Finite capacity scheduling
- Tools/Libraries: Theory of Constraints frameworks, scheduling algorithms
Process Dependencies
- Capacity Planning and Constraint Management
- Sales and Operations Planning (S&OP)
- Supply Chain Network Design
Best Practices
- Validate capacity data accuracy
- Consider all constraint types (physical, policy, market)
- Focus improvement efforts on true constraints
- Model multiple demand scenarios
- Include maintenance in capacity calculations
- Review capacity plans monthly