
Supply Chain Optimizer
- 310 installs
- 86 repo stars
- Updated July 17, 2026
- travisjneuman/.claude
supply-chain-optimizer is a Claude agent skill providing supply chain mapping, inventory optimization, logistics planning, vendor evaluation, and demand forecasting frameworks for developers building SCM analytics or ope
About
supply-chain-optimizer is a travisjneuman/.claude agent skill with comprehensive frameworks for supply chain analysis, inventory management, logistics optimization, and vendor evaluation. It includes an end-to-end supply chain map template tracing raw materials through suppliers, manufacturing, distribution, and customers with steps to identify nodes, material flows, and information flows such as orders and forecasts. Developers building inventory dashboards, procurement tools, or logistics planning features invoke supply-chain-optimizer when they need structured SCM analysis patterns instead of inventing frameworks from scratch. The skill supports demand forecasting workflows and vendor scoring criteria that inform backend data models and integration priorities for warehouse and ERP connectors. Reach for supply-chain-optimizer during validate-phase scoping of SCM products or when refactoring operations modules that must model multi-node supply networks. Outputs include supply chain maps, inventory optimization notes, and vendor evaluation matrices ready for engineering specs.
- supply-chain-optimizer
Supply Chain Optimizer by the numbers
- 310 all-time installs (skills.sh)
- +6 installs in the week ending Aug 5, 2026 (Skillselion tracking)
- Ranked #1,321 of 4,347 Backend & APIs skills by installs in the Skillselion catalog
- Data as of Aug 5, 2026 (Skillselion catalog sync)
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| Installs | 310 |
|---|---|
| repo stars | ★ 86 |
| Last updated | July 17, 2026 |
| Repository | travisjneuman/.claude ↗ |
How do you model supply chain flows for software?
Use supply-chain-optimizer for development tasks
Who is it for?
Developers building inventory, procurement, or logistics software who need structured supply chain mapping and vendor evaluation frameworks before implementation.
Skip if: Pure software teams with no supply chain, inventory, or logistics domain requirements in the product scope.
When should I use this skill?
A developer asks to analyze supply chains, optimize inventory, evaluate suppliers, forecast demand, or plan logistics for operations software.
What you get
End-to-end supply chain map, inventory optimization framework, vendor evaluation matrix, and demand forecasting template for SCM feature specs.
- Supply chain map
- Vendor evaluation matrix
- Demand forecasting template
Files
Supply Chain Optimizer
Comprehensive frameworks for supply chain analysis, inventory management, logistics optimization, and vendor evaluation.
Supply Chain Mapping Template
End-to-End Supply Chain Map
RAW MATERIALS → SUPPLIERS → MANUFACTURING → DISTRIBUTION → CUSTOMER
MAPPING STEPS:
1. Identify all nodes (suppliers, plants, warehouses, customers)
2. Map material flows between nodes
3. Map information flows (orders, forecasts, POs)
4. Map financial flows (payments, invoicing)
5. Record lead times at each stage
6. Identify bottlenecks and single points of failure
NODE DETAIL TEMPLATE:
| Node | Type | Location | Lead Time | Capacity | Utilization |
| -------------- | ---------- | --------- | --------- | -------- | ----------- |
| | Supplier | | | | |
| | Plant | | | | |
| | Warehouse | | | | |
| | DC | | | | |Inventory Optimization
Economic Order Quantity (EOQ)
EOQ = sqrt(2DS / H)
Where: D = Annual demand, S = Ordering cost/order, H = Holding cost/unit/year
Total Cost = (D/Q)S + (Q/2)H + DC
Example: D=10,000, S=$50, H=$5 → EOQ = 447 units, 22.4 orders/yearSafety Stock & Reorder Point
SAFETY STOCK: SS = z x sigma_dLT
REORDER POINT: ROP = (Avg Daily Demand x Lead Time) + Safety Stock
SERVICE LEVEL FACTORS:
| Service Level | z-Score | Use Case |
| ------------- | ------- | ----------------- |
| 90.0% | 1.28 | Basic coverage |
| 95.0% | 1.65 | Standard |
| 99.0% | 2.33 | High service |
| 99.9% | 3.09 | Critical items |Inventory KPI Dashboard
| Metric | Formula | Target |
|---|---|---|
| Inventory Turns | COGS / Average Inventory | Industry-specific |
| Days of Supply | Average Inventory / (COGS / 365) | Minimize |
| Fill Rate | Orders Filled Complete / Total Orders | 97%+ |
| Stockout Rate | Stockout Events / Total Demand Events | < 2% |
| Carrying Cost % | Holding Costs / Average Inventory Value | 15-30% |
| Dead Stock % | No-movement Items / Total SKUs | < 5% |
| Inventory Accuracy | Correct Counts / Total Counts | 99%+ |
| GMROI | Gross Margin / Average Inventory Cost | > 2.0 |
ABC-XYZ Analysis Framework
ABC CLASSIFICATION (Value):
A Items: Top 20% of SKUs = ~80% of annual consumption value
→ Tight control, frequent review, accurate forecasts
B Items: Next 30% of SKUs = ~15% of value
→ Moderate control, periodic review
C Items: Bottom 50% of SKUs = ~5% of value
→ Minimal control, simple replenishment rules
XYZ CLASSIFICATION (Demand Variability):
X: Coefficient of Variation < 0.5 → Stable, predictable demand
Y: CV between 0.5 and 1.0 → Some variation, trend/seasonal
Z: CV > 1.0 → Highly irregular, sporadic demand
COMBINED MATRIX:
| Class | AX | AY | AZ |
| ----- | ---------- | ------------ | ------------- |
| Strat | JIT/Kanban | Forecast | Order on demand|
| Class | BX | BY | BZ |
| Strat | Reorder pt | Buffer stock | Min/Max |
| Class | CX | CY | CZ |
| Strat | Bulk buy | Periodic rev | Eliminate? |Vendor Scorecard
Supplier Evaluation Matrix
| Criteria | Weight | Score (1-5) | Weighted Score | Notes |
|---|---|---|---|---|
| Quality (PPM) | 25% | |||
| Delivery (OTIF) | 20% | |||
| Pricing | 20% | |||
| Responsiveness | 10% | |||
| Financial Health | 10% | |||
| Innovation | 5% | |||
| Sustainability | 5% | |||
| Risk Profile | 5% | |||
| Total | 100% | __ / 5.0 |
RATING SCALE:
4.5-5.0 Strategic Partner — expand relationship
3.5-4.4 Preferred Supplier — maintain, develop
2.5-3.4 Approved Supplier — improvement plan required
< 2.5 Probation / Exit — find alternativeSupplier Performance Tracking
| KPI | Target | Q1 Actual | Q2 Actual | Q3 Actual | Q4 Actual | Trend |
|---|---|---|---|---|---|---|
| On-Time Delivery | 98%+ | |||||
| Quality (PPM) | < 500 | |||||
| Lead Time (days) | ||||||
| Price Variance | +/- 2% | |||||
| Response Time (hrs) | < 24 | |||||
| Corrective Actions | < 2/qtr |
Total Cost of Ownership (TCO)
TCO = Acquisition Costs + Operating Costs + Disposal Costs
ACQUISITION COSTS:
Purchase price
+ Shipping / freight
+ Customs / duties / tariffs
+ Procurement labor
+ Quality inspection
+ Supplier qualification
= Total Acquisition
OPERATING COSTS (over useful life):
Maintenance & repair
+ Inventory carrying cost
+ Warranty claims
+ Downtime cost (if component fails)
+ Training / support
+ Quality failures (scrap, rework)
= Total Operating
DISPOSAL COSTS:
Decommissioning
+ Recycling / disposal fees
+ Environmental compliance
= Total Disposal
TCO = Total Acquisition + Total Operating + Total DisposalTCO Comparison Template
| Cost Element | Supplier A | Supplier B | Supplier C |
|---|---|---|---|
| Unit Price | |||
| Shipping | |||
| Duties / Tariffs | |||
| Quality Cost (est.) | |||
| Inventory Carry Cost | |||
| Lead Time Cost | |||
| Risk Premium | |||
| Total TCO/Unit | |||
| Annual TCO |
Demand Forecasting Methods
| Method | Best For | Horizon | Data Required |
|---|---|---|---|
| Moving Average | Stable demand | Short-term | 3-12 periods history |
| Exponential Smooth | Trend detection | Short-term | Recent weighted data |
| Holt-Winters | Seasonal patterns | Medium-term | 2+ years seasonal |
| Linear Regression | Trend with causal factors | Medium-term | Demand + drivers |
| ARIMA | Complex time series | Short-medium | 50+ data points |
| Machine Learning | Multi-variable patterns | Any | Large datasets |
| Delphi / Expert | New products, disruptions | Long-term | Expert panel |
Forecast Accuracy Metrics
MAD (Mean Absolute Deviation):
MAD = (1/n) x SUM(|Actual - Forecast|)
MAPE (Mean Absolute Percentage Error):
MAPE = (1/n) x SUM(|Actual - Forecast| / Actual) x 100
BIAS (Tracking Signal):
Bias = SUM(Actual - Forecast) / MAD
Target: Between -4 and +4
ACCURACY BENCHMARKS:
| Forecast Horizon | Good MAPE | Acceptable MAPE |
| ---------------- | --------- | --------------- |
| 1 month | < 15% | < 25% |
| 3 months | < 25% | < 35% |
| 6 months | < 30% | < 45% |
| 12 months | < 35% | < 50% |Logistics Optimization
Transportation Mode Selection
| Mode | Cost/Unit | Speed | Capacity | Best For |
|---|---|---|---|---|
| Truck | Medium | Fast | Medium | Regional, door-to-door |
| Rail | Low | Slow | Very High | Bulk, long-distance domestic |
| Ocean | Very Low | Very Slow | Very High | International, bulk cargo |
| Air | Very High | Very Fast | Low | High-value, urgent, perishable |
| Intermodal | Low-Med | Medium | High | Long-distance, cost-effective |
Warehouse Layout Optimization
SLOTTING STRATEGY:
Fast movers (A items) → Near shipping dock, prime pick locations
Medium movers (B items) → Middle zones
Slow movers (C items) → High racks, far locations
LAYOUT PRINCIPLES:
1. Minimize travel distance for highest-velocity items
2. Group items frequently ordered together
3. Separate receiving and shipping areas
4. Reserve staging areas for cross-docking
5. Maintain clear aisle widths for equipmentLead Time Analysis
TOTAL LEAD TIME:
Order Processing Time
+ Supplier Manufacturing Time
+ Transportation Time
+ Receiving / Inspection Time
+ Internal Processing Time
= Total Lead Time
LEAD TIME VARIABILITY:
Track actual vs. quoted lead times over 12+ orders
Calculate standard deviation
Use for safety stock calculations
LEAD TIME REDUCTION STRATEGIES:
| Strategy | Typical Reduction | Effort |
| --------------------- | ----------------- | --------- |
| Vendor-managed inv. | 30-50% | Medium |
| Local sourcing | 40-70% | High |
| Process automation | 10-30% | Medium |
| Blanket POs | 20-40% | Low |
| Consignment stock | 50-80% | Medium |
| 3PL consolidation | 10-25% | Low |Supply Chain Risk Assessment
Risk Identification Matrix
| Risk Category | Risk Event | Likelihood | Impact | Score | Mitigation |
|---|---|---|---|---|---|
| Supply | Single-source failure | Dual-source | |||
| Demand | Demand spike/collapse | Buffer stock, flex | |||
| Logistics | Port congestion | Alternate routes | |||
| Geopolitical | Tariffs, sanctions | Nearshoring | |||
| Natural Disaster | Earthquake, flood | Geographic diversity | |||
| Cyber | System breach | Security protocols | |||
| Quality | Batch failure | Inspection, redundancy | |||
| Financial | Supplier bankruptcy | Financial monitoring |
RISK SCORING:
Likelihood: 1 (Rare) to 5 (Almost Certain)
Impact: 1 (Negligible) to 5 (Catastrophic)
Risk Score = Likelihood x Impact
ACTION THRESHOLDS:
20-25 Critical — immediate action, executive attention
12-19 High — mitigation plan required within 30 days
6-11 Medium — monitor quarterly, contingency plans
1-5 Low — accept or monitor annuallyKPI Dashboard Template
| Category | KPI | Target |
|---|---|---|
| Cost | SC Cost as % of Revenue | 5-10% |
| Cost | Cost per Order | Minimize |
| Service | Perfect Order Rate | 95%+ |
| Service | On-Time In-Full (OTIF) | 98%+ |
| Service | Customer Fill Rate | 97%+ |
| Efficiency | Inventory Turns | Industry-specific |
| Efficiency | Cash-to-Cash Cycle | Minimize |
| Efficiency | Warehouse Utilization | 85% |
| Efficiency | Forecast Accuracy (MAPE) | < 20% |
See Also
- Operations
- Finance
- Risk Management
Related skills
How it compares
Use supply-chain-optimizer for SCM domain modeling and vendor frameworks; use generic API skills when only CRUD endpoints without logistics domain logic are needed.
FAQ
What does supply-chain-optimizer map?
supply-chain-optimizer maps end-to-end supply chains from raw materials through suppliers, manufacturing, distribution, and customers. The travisjneuman/.claude skill documents material flows and information flows such as orders and forecasts for SCM software scoping.
When should developers use supply-chain-optimizer?
Developers should use supply-chain-optimizer when building inventory, procurement, or logistics features and needing structured analysis frameworks. The skill provides vendor evaluation and demand forecasting templates before backend SCM modules and ERP integrations are implement