Movement III of V · Methodology & Discipline

Launch discipline from plan to control.

NPD structure, APQP/PPAP readiness, project controls, EVM, SPI/CPI, and RAID management presented as a disciplined launch system.

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III
Movement III of V
Methodology & Discipline
NPD · APQP · Controls
05 / Methodology

New product development.

Lifecycle Discipline

NPD ownership for me is not a sequence of meetings — it is a continuous discipline that begins with investment validation and CAPEX approval, integrates tool lifecycle and amortization planning, and runs in parallel with change management costing across every gate.

Each phase has named deliverables, named owners, and measurable readiness criteria. The framework — at right — is one I have applied across automotive supplier, aerospace cabin-interior, and EV powertrain programs over the past eight years.

01 Phase-Gate Driven Product Launch APQP framework execution · multi-disciplinary reviews 02 Engineering & Technical Reviews GD&T and tolerance-stack feasibility · manufacturability 03 Safe Launch Management Cp / Cpk · Gage R&R · MSA · defect tracking · 8D integration 04 Material Life & Packaging Integration Packaging design reviews · material BOM structuring 05 Cost & Margin Engineering Tool amortization · process-margin breakdown · claim closure → SOP Start of Production
Fig. 02 — Five-stage NPD lifecycle, phase-gate governed
04 · ii

Industrialization strategy.

Scalable Capacity

Launch planning is rarely a single-volume problem. A line built for PPAP capacity will be under-utilized at SOP, stretched at Planned Peak, stranded during volume crisis, and obsolete at Face-Out. Scalable configuration manages that arc deliberately — using a typed-equipment genome that rebalances as demand shifts.

D — Dedicated. Single-product capacity. Highest output, lowest flex.
S — Shared. Pooled across product families. Rebalanced by demand.
O — Other Dedicated. Dedicated to an adjacent product or family.

Layered over this — line-level ergonomic flow. Karakuri gravity-fed material exchange (replacing manual handling). Counter-clockwise operator-walk patterns that reduce 90° body rotation to 10°. Round-tube material guides for low-friction part transfer. Standard takt protected from operator fatigue.

Scalable Configuration · Volume-Lifecycle Arc AGILE MANUFACTURING ZONE PPAP SOP +1y PEAK CRISIS −30% INCREASE +30% FACE OUT VOLUME D — Dedicated S — Shared O — Other Dedicated
Fig. 03 — Scalable equipment-mix configuration across product lifecycle
06 / APQP

Advanced product quality planning.

Program Management Role in PPAP Readiness

Role mapping reflects launch program management accountability: driving timing, cross-functional readiness, escalation, and gate discipline while technical ownership remains with Engineering, Quality, Manufacturing, Metrology, Supplier Quality, and Operations as applicable.

Phase Deliverable PM Role
PlanningPPAP PlanLead
Product Design & DevelopmentAuthorized Engineering Change DocumentsTrack
Bill of MaterialsCoordinate
Design FMEASupport
Process Design & DevelopmentProcess Flow DiagramReview
Process FMEAReview
Control PlanReview
Customer-Owned Tools / Tool-Transfer PlanLead
Weld Feasibility / Fixture ConceptCoordinate
Supplier Technical Clarification LogLead
Equipment Reuse vs. New-Build Business CaseCoordinate
Special Processes — CoatingTrack
Product ValidationDimensional TestTrack
PPAP SamplesLead
Prototype Build Feedback / Supplier QuestionsCoordinate
Weld Validation PlanTrack
PPAP Master SampleTrack
Production Process ValidationMeasurement System AnalysisTrack
Process Capability StudiesTrack
Part Submission WarrantSupport
Capacity AnalysisLead
Safe-Launch / Run @ Rate ReadinessLead
Lead Drive timing, readiness, closure
Review Gate-level review
Track Monitor and escalate
Coordinate Cross-functional alignment
Support Support technical owner
07 / Project Controls

Earned-value discipline.

Schedule · Cost · Risk
Illustrative anonymized program — paused mid-cycle then restarted under controlled spend. Original program currency and customer redacted; control approach identical.

EVM. Earned Value flatlined during a Q1–Q3 hold; the post-hold restart re-accelerated EV against a controlled actual-cost trajectory, with Actual Cost approaching ~690k by the eighth month.

SPI / CPI. Schedule Performance Index dipped during the hold and recovered post-restart; Cost Performance Index stabilized and improved — better cost efficiency relative to earned progress.

RAID. The hold drove RAID backlog aging; post-restart closure throughput accelerated and open items burned down month-over-month — visible in the RAID aging proxy at right.

EVM S-Curve (k USD) 0 200 400 600 800 N D J F M A M J J A S O N D PROGRAM HOLD EV — Earned Value PV — Planned Value AC — Actual Cost
Fig. 04 — EVM S-curve with mid-program hold and recovery
SPI / CPI Trend 0 0.25 0.5 0.85 1.0 SPI 0.986 CPI 0.954
Fig. 05 — SPI / CPI recovery through program restart
RAID Aging — Stacked (days) 0 10 20 30 40 HOLD 0–30 31–60 61–90 >90
Fig. 06 — RAID aging proxy, Nov-24 to Dec-25