neversight/learn-skills.dev/automotive-supply-chain

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When the user wants to optimize automotive manufacturing supply chains, manage tier suppliers, implement JIT production, or handle automotive-specific logistics. Also use when the user mentions "automotive manufacturing," "OEM supply chain," "tier 1/2/3 suppliers," "sequenced parts delivery," "just-in-time automotive," "vehicle assembly," or "automotive aftermarket." For general manufacturing, see production-scheduling. For lean principles, see lean-manufacturing.

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npx vskill@latest install neversight/learn-skills.dev/automotive-supply-chain

SKILL.md

Automotive Supply Chain

You are an expert in automotive supply chain management and manufacturing operations. Your goal is to help optimize complex multi-tier supply networks, implement just-in-time delivery, manage supplier relationships, and ensure efficient vehicle assembly operations.

Initial Assessment

Before optimizing automotive supply chains, understand:

  1. Manufacturing Context
  • OEM, Tier 1, Tier 2, or Tier 3 supplier?
  • Product types? (vehicles, engines, transmissions, components)
  • Production volume? (high-volume, low-volume, custom)
  • Manufacturing approach? (make-to-stock, make-to-order, configure-to-order)
  • Number of platforms/models?
  1. Supply Chain Structure
  • How many tier suppliers?
  • Geographic footprint? (local, regional, global)
  • Sole source vs. multi-source strategy?
  • In-house vs. outsourced components?
  • Vertical integration level?
  1. Current State
  • Inventory turns?
  • Supplier quality metrics (PPM defects)?
  • On-time delivery performance?
  • Line stoppage frequency?
  • Supply chain costs as % of revenue?
  1. Business Drivers
  • Cost reduction targets?
  • New model launches?
  • Electrification strategy (EV transition)?
  • Reshoring or nearshoring plans?
  • Sustainability goals?

Automotive Supply Chain Framework

Tier Structure

Multi-Tier Supplier Network:

OEM (Vehicle Manufacturer)
↑
Tier 1 (System Integrators)
↑ ↑ ↑
Tier 2 (Component Suppliers)
↑ ↑ ↑ ↑
Tier 3 (Raw Materials, Basic Parts)

Tier Definitions:

  • OEM (Original Equipment Manufacturer): Ford, GM, Toyota, VW, Tesla
  • Final vehicle assembly
  • Design and engineering
  • Brand ownership
  • Dealer network management
  • Tier 1 Suppliers: Bosch, Continental, Denso, Magna
  • Major systems and modules (seats, cockpit, powertrain)
  • Direct delivery to OEM assembly lines
  • Often sequenced or just-in-time
  • Design and engineering capability
  • Tier 2 Suppliers: Component manufacturers
  • Individual parts and subassemblies
  • Supply to Tier 1
  • More standardized products
  • Limited design input
  • Tier 3 Suppliers: Raw materials and commodities
  • Steel, aluminum, plastics, electronics
  • Supply to Tier 2 (sometimes Tier 1)
  • Highly commoditized

Just-In-Time (JIT) and Sequencing

JIT Delivery Model
python
import pandas as pd
import numpy as np
from datetime import datetime, timedelta
class AutomotiveJITScheduler:
"""
Manage Just-In-Time delivery schedules for automotive assembly
"""
def __init__(self, assembly_schedule, takt_time_minutes):
"""
Initialize JIT scheduler
Parameters:
- assembly_schedule: vehicle build schedule
- takt_time_minutes: time per vehicle (e.g., 60 seconds = 1 vehicle/min)
"""
self.assembly_schedule = assembly_schedule
self.takt_time = takt_time_minutes
def calculate_part_requirements(self, bom_df):
"""
Calculate part requirements based on assembly schedule
Parameters:
- bom_df: Bill of Materials with parts per vehicle
Returns:
- time-phased part requirements
"""
requirements = []
for idx, vehicle in self.assembly_schedule.iterrows():
build_time = vehicle['scheduled_time']
model = vehicle['model']
vin = vehicle['vin']
# Get BOM for this model
model_bom = bom_df[bom_df['model'] == model]
for _, part in model_bom.iterrows():
requirements.append({
'vin': vin,
'model': model,
'part_number': part['part_number'],
'quantity': part['quantity_per_vehicle'],
'required_time': build_time,
'supplier': part['supplier'],
'delivery_lead_time_hours': part['delivery_lead_time_hours']
})
return pd.DataFrame(requirements)
def generate_supplier_call_off(self, part_requirements, buffer_hours=2):
"""
Generate supplier call-off schedule (when to deliver each part)
Parameters:
- part_requirements: parts needed with timing
- buffer_hours: safety buffer before assembly need
Returns:
- supplier delivery schedule
"""
call_offs = []
# Group by supplier and part
grouped = part_requirements.groupby(['supplier', 'part_number'])
for (supplier, part_number), group in grouped:
# Sort by required time
group = group.sort_values('required_time')
# Determine delivery frequency
lead_time = group['delivery_lead_time_hours'].iloc[0]
# Calculate delivery windows
for idx, row in group.iterrows():
required_time = row['required_time']
delivery_time = required_time - timedelta(hours=lead_time + buffer_hours)
call_offs.append({
'supplier': supplier,
'part_number': part_number,
'vin': row['vin'],
'quantity': row['quantity'],
'delivery_time': delivery_time,
'required_time': required_time,
'dock_door': self._assign_dock_door(supplier)
})
call_off_df = pd.DataFrame(call_offs)
return call_off_df.sort_values('delivery_time')
def _assign_dock_door(self, supplier):
"""Assign dock door based on supplier"""
# Simplified: hash supplier name to dock door
return (hash(supplier) % 20) + 1 # 20 dock doors
def calculate_lineside_inventory(self, call_offs, consumption_rate):
"""
Calculate lineside inventory levels
Parameters:
- call_offs: delivery schedule
- consumption_rate: parts consumed per hour
Returns:
- inventory profile over time
"""
# Simulate inventory over time
inventory_profile = []
current_inventory = 0
time_periods = pd.date_range(
start=call_offs['delivery_time'].min(),
end=call_offs['required_time'].max(),
freq='H'
)
for t in time_periods:
# Add deliveries at this time
deliveries = call_offs[call_offs['delivery_time'] == t]['quantity'].sum()
current_inventory += deliveries
# Subtract consumption
current_inventory -= consumption_rate
inventory_profile.append({
'time': t,
'inventory': max(0, current_inventory),
'deliveries': deliveries
})
return pd.DataFrame(inventory_profile)
# Example usage
assembly_schedule = pd.DataFrame({
'vin': ['VIN001', 'VIN002', 'VIN003'],
'model': ['Model_A', 'Model_B', 'Model_A'],
'scheduled_time': pd.to_datetime([
'2025-01-20 08:00',
'2025-01-20 09:00',
'2025-01-20 10:00'
])
})
bom = pd.DataFrame({
'model': ['Model_A', 'Model_A', 'Model_B'],
'part_number': ['PART_001', 'PART_002', 'PART_001'],
'quantity_per_vehicle': [4, 2, 4],
'supplier': ['Supplier_A', 'Supplier_B', 'Supplier_A'],
'delivery_lead_time_hours': [4, 2, 4]
})
scheduler = AutomotiveJITScheduler(assembly_schedule, takt_time_minutes=60)
requirements = scheduler.calculate_part_requirements(bom)
call_offs = scheduler.generate_supplier_call_off(requirements, buffer_hours=2)
print("Supplier Call-Off Schedule:")
print(call_offs[['supplier', 'part_number', 'delivery_time', 'quantity']])
Sequenced Parts Delivery

What is Sequencing?

  • Parts delivered in exact build sequence
  • Example: Seats delivered in order 1-2-3 matching VINs
  • Eliminates sorting at assembly line
  • Requires tight coordination with supplier
python
class SequencedPartsManager:
"""
Manage sequenced parts delivery (e.g., seats, cockpits)
"""
def __init__(self, build_sequence):
self.build_sequence = build_sequence
def generate_sequenced_order(self, part_specs):
"""
Generate sequenced parts order matching build sequence
Parameters:
- part_specs: specifications for each vehicle (e.g., seat color/material)
Returns:
- sequenced order for supplier
"""
sequenced_order = []
for idx, vehicle in self.build_sequence.iterrows():
vin = vehicle['vin']
model = vehicle['model']
# Get part spec for this VIN
spec = part_specs[part_specs['vin'] == vin].iloc[0]
sequenced_order.append({
'sequence_number': idx + 1,
'vin': vin,
'model': model,
'part_spec': spec['specification'],
'color': spec['color'],
'material': spec['material'],
'delivery_time': vehicle['scheduled_time'] - timedelta(hours=2)
})
return pd.DataFrame(sequenced_order)
def validate_sequence(self, delivered_sequence, expected_sequence):
"""
Validate delivered parts match expected sequence
Returns:
- sequence accuracy and errors
"""
errors = []
for i, (delivered, expected) in enumerate(zip(delivered_sequence, expected_sequence)):
if delivered['vin'] != expected['vin']:
errors.append({
'position': i + 1,
'expected_vin': expected['vin'],
'delivered_vin': delivered['vin'],
'error_type': 'sequence_mismatch'
})
if delivered['spec'] != expected['spec']:
errors.append({
'position': i + 1,
'vin': delivered['vin'],
'expected_spec': expected['spec'],
'delivered_spec': delivered['spec'],
'error_type': 'specification_mismatch'
})
accuracy = 1 - (len(errors) / len(expected_sequence))
return {
'accuracy_pct': accuracy * 100,
'errors': errors,
'error_count': len(errors)
}

Supplier Quality Management

PPM (Parts Per Million) Defect Tracking
python
class AutomotiveQualityManager:
"""
Track supplier quality performance (PPM defects)
"""
def __init__(self, target_ppm=50):
"""
Initialize quality manager
Parameters:
- target_ppm: target defect rate (parts per million)
"""
self.target_ppm = target_ppm
self.quality_data = []
def record_receipt(self, receipt_data):
"""Record parts receipt and inspection"""
self.quality_data.append(receipt_data)
def calculate_supplier_ppm(self, supplier=None, time_period_days=90):
"""
Calculate PPM for supplier(s)
Parameters:
- supplier: specific supplier (None = all)
- time_period_days: rolling time period
Returns:
- PPM metrics by supplier
"""
df = pd.DataFrame(self.quality_data)
# Filter time period
cutoff_date = datetime.now() - timedelta(days=time_period_days)
df = df[df['receipt_date'] >= cutoff_date]
# Filter supplier if specified
if supplier:
df = df[df['supplier'] == supplier]
# Calculate PPM by supplier
supplier_ppm = df.groupby('supplier').agg({
'quantity_received': 'sum',
'quantity_defective': 'sum'
})
supplier_ppm['ppm'] = (
supplier_ppm['quantity_defective'] /
supplier_ppm['quantity_received'] * 1000000
)
supplier_ppm['meets_target'] = supplier_ppm['ppm'] <= self.target_ppm

This is the start of the file. Read the full SKILL.md on GitHub.

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