Product maturity
Requirements are understood, allocated and verified. Design risks are controlled and drawings, models, bills of material and specifications are configuration-managed.
SPI
Special Processes Institute
sp-i.org
New Product Introduction Report
New Product Introduction Knowledge & Project Control App
Learn how to introduce new products through controlled requirements capture, design maturity, industrialisation, supplier readiness, process validation, first article inspection, launch and post-launch control. Build a complete NPI project, assess gate readiness, save and load JSON, load a worked aerospace example, and generate a professional print/PDF report.
APQP-aligned planning Aerospace & manufacturing focus Contract requirements always take precedence
6
Controlled NPI phases
5
Formal decision gates
0%
Project completeness
0%
Gate evidence complete
JSON / PDF
Portable record and report
What NPI Means
A managed transition from opportunity and concept to repeatable production.
New Product Introduction (NPI) is the cross-functional system used to convert customer and business needs into a product and production system that are safe, compliant, manufacturable, inspectable, supportable, capable and ready for controlled launch. It integrates product design, manufacturing engineering, quality, supply chain, programme management, operations, test, configuration management and customer approval.
Process maturity
The production route, tooling, work instructions, inspection methods, special processes, capacity and skills are proven before rate production.
Evidence-based release
Gate decisions are based on objective evidence, not optimism. Open risks have named owners, dates, containment and authorised acceptance.
World-Class NPI Lifecycle
1. Plan & Feasibility
Customer need, scope, commercial case, resources, regulatory context, technology and supplier feasibility.
2. Product Design
Requirements, architecture, DFMEA, DfX, design reviews, verification planning and configuration baseline.
3. Process Design
Flow, PFMEA, tooling, control plan, special-process validation, inspection, training, capacity and supply chain.
4. Product & Process Validation
Pilot build, MSA, capability, qualification, PPAP/FAI, production process verification and readiness evidence.
5. Launch & Feedback
Controlled ramp-up, heightened surveillance, defect containment, lessons learned and transfer to business-as-usual.
Cross-Functional Responsibilities
| Function | Primary NPI contribution | Typical evidence |
|---|---|---|
| Programme / project management | Integrated plan, milestones, dependencies, resources, cost and escalation. | Project plan, RAID log, gate packs, action tracker. |
| Design engineering | Requirements, design definition, analysis, design reviews, verification and change control. | Design baseline, DFMEA, drawings/models, verification matrix. |
| Manufacturing engineering | Process flow, equipment, tooling, instructions, capacity and industrialisation. | Route, process flow, tooling plan, standard work, capacity study. |
| Quality | Quality planning, risk, inspection, MSA, capability, FAI/PPAP and release assurance. | PFMEA, control plan, ITP, MSA, capability, FAI/PPAP file. |
| Supply chain / supplier quality | Supplier selection, flow-down, capability, APQP monitoring and special-process approval. | Supplier assessment, quality plan, audit, readiness review, sub-tier map. |
| Operations | People, skills, production discipline, maintainability and ownership of the released process. | Training, competency, daily management, handover acceptance. |
Standards and Frameworks
Applicability depends on sector, contract, customer and regulatory requirements.
| Standard / framework | How it supports NPI | Typical application |
|---|---|---|
| ISO 9001:2015 | Framework for planning, requirements review, design and development, external-provider control, production control, release, nonconformity and improvement. | General quality management across sectors. |
| AS9100D / EN 9100 | Adds aerospace and defence controls including operational risk, configuration management, product safety, counterfeit-part prevention, special requirements, critical items and production-process verification. | Aviation, space and defence organisations. |
| AS9145 | Defines aerospace APQP and PPAP requirements from conceptual need through product definition, production planning, validation, use and post-delivery service. | Customer-flowed aerospace APQP/PPAP programmes. |
| AS9102C | Defines requirements for performing and documenting First Article Inspection as objective evidence that production processes can produce conforming product. | Aerospace hardware FAI when contractually applicable. |
| AS9103 | Supports variation management of key characteristics and process-control planning. | Characteristics where variation has significant impact. |
| AIAG APQP 3rd Edition | Structured product-quality planning with stronger focus on sourcing, risk mitigation, change management, traceability, metrics and gated management. | Automotive and adaptable manufacturing NPI. |
| AIAG Control Plan 1st Edition | Standalone guidance for developing linked prototype, pre-launch and production control plans. | Automotive and other controlled manufacturing processes. |
| IATF 16949 | Automotive QMS requirements incorporating customer-specific requirements and core tools. | Automotive production and service-part supply chain. |
| ISO 10007 | Guidance for configuration management through identification, change control, status accounting and audit. | Complex or long-lifecycle products. |
| ISO 31000 | Principles and guidance for systematic risk management. | Enterprise and programme risk framework. |
| ISO/IEC/IEEE 15288 | Systems life-cycle processes for complex systems engineering. | Defence, aerospace, rail, space and complex systems. |
Use note: This app is educational and does not reproduce copyrighted standard text. Confirm the current revision, customer-specific requirements, statutory obligations and contractual flow-down before defining mandatory deliverables.
Clause-to-NPI Thinking
Requirements and contract review
Translate customer, statutory, regulatory and internal requirements into a controlled compliance matrix. Identify ambiguity, conflicts and assumptions before commitment.
Design and development
Plan stages, responsibilities, reviews, verification, validation, interfaces, inputs, outputs and controlled change. Preserve evidence of review and approval.
External providers
Apply risk-based selection and controls, communicate complete requirements, verify sub-tier capability and manage supplier change.
Production provision
Define controlled conditions, competent people, suitable equipment, monitoring, identification, traceability, preservation and release authority.
Special processes
Validate where output cannot be fully verified later. Control personnel qualification, equipment, parameters, consumables, records and revalidation triggers.
Release and learning
Authorised release requires completed acceptance evidence. Nonconformity, corrective action and lessons learned feed future NPI baselines.
Stage-Gate Governance
| Gate | Decision question | Minimum evidence | Possible decision |
|---|---|---|---|
| G1 — Opportunity / Feasibility | Should the organisation commit? | Requirement summary, feasibility, initial risk, resources, technology and supplier strategy. | Approve, conditionally approve, hold or stop. |
| G2 — Design Maturity | Is the product definition mature enough to industrialise? | Requirements baseline, design review, DFMEA, DfX, verification plan, preliminary BOM and critical-characteristic strategy. | Release to detailed industrialisation or retain restrictions. |
| G3 — Process Readiness | Is the planned production system ready for validation? | Process flow, PFMEA, control plan, tooling, work instructions, supplier approvals, MSA plan, validation plan and capacity evidence. | Authorise pilot build or require closure actions. |
| G4 — Production Validation | Has the intended process demonstrated conforming output? | Pilot data, qualification, special-process validation, MSA, capability, FAI/PPAP, packaging and traceability evidence. | Approve controlled launch, conditional launch or reject. |
| G5 — Full-Rate Release | Can heightened launch controls be removed? | Sustained performance, closed launch issues, capacity at rate, stable suppliers, trained operators and formal process-owner acceptance. | Transfer to serial production or extend containment. |
Gate Decision Rules
Green
Required evidence is complete, risks are acceptable, approvals are present and no unresolved issue threatens safety, compliance, quality or delivery.
Amber / conditional
Open items are bounded, contained, owned and time-limited. The decision authority explicitly accepts residual risk and defines restrictions.
Red / no-go
Mandatory evidence is missing, a critical risk is uncontrolled, product definition is unstable, validation has failed, or capacity and compliance cannot be demonstrated.
Best practice: The gate chair should be independent enough to challenge the project. A schedule date is not evidence of readiness. Do not convert every red item to amber simply to preserve launch timing.
Core NPI Tools
Special-Process NPI Control
Early design engagement
- Confirm material, temper, hardness and geometry compatibility.
- Define masking, datums, allowance, edge condition and post-process dimensional effects.
- Resolve restricted substances, corrosion system and repair limitations.
- Ensure specifications and drawing notes are unambiguous and achievable.
Industrialisation evidence
- Approved processor and sub-tier route.
- Qualified operators, equipment and procedures.
- Validated parameters, loads, racks, fixtures and consumables.
- Periodic tests, process-control tests and laboratory methods.
- Capacity, contingency, traceability and record-retention plan.
Examples of high-risk processes
Heat treatment, welding, brazing, NDT, composites, bonding, additive manufacturing, electroplating, anodising, conversion coating, painting, thermal spray and nonconventional machining.
Release challenge questions
Can all critical parameters be reconstructed from records? Are rework and repair routes approved? What triggers revalidation? Has the actual production configuration—not a laboratory surrogate—been validated?
Common NPI Failure Modes
| Failure mode | Why it happens | Preventive control |
|---|---|---|
| Late discovery of requirements | Specifications, customer clauses and sub-tier obligations are not decomposed early. | Requirements matrix with owner, verification method and source. |
| Design thrown over the wall | Manufacturing, quality and suppliers are involved after key decisions. | Cross-functional reviews and DfX from concept stage. |
| PFMEA completed as paperwork | It is written after the process is fixed and not linked to controls. | Living PFMEA linked to process flow, control plan and lessons learned. |
| Prototype process differs from production | Manual or laboratory methods conceal rate-production risks. | Validate representative equipment, people, tooling, software and conditions. |
| FAI treated as product inspection only | Focus is placed on a single conforming part rather than the complete process. | Plan FAI as production-process verification using released configuration. |
| Supplier readiness assumed | Purchase order placement is mistaken for capacity and capability. | Supplier APQP, evidence reviews, audits, sub-tier visibility and run-at-rate. |
| Launch issues hidden by rework | Output is shipped, but first-pass yield and disruption are poor. | Track FPY, escapes, rework, concessions, queue time and cost of poor quality. |
NPI Project Builder
Programme setup
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NPI Project Report
Generated from the project builder with readiness and gate evidence.
Complete the project builder and select Generate Report.