Quality Core Tools

AIAG Quality Core Tools Training & Consulting

Build a Zero-Defect Culture with AIAG Quality Core Tools

The global standard for automotive and high-tech manufacturing excellence.

Based on guidelines from the Automotive Industry Action Group (AIAG), this advanced training delves into the strategic use of core tools—APQP, PPAP, FMEA, MSA, and SPC—to ensure product integrity, process capability, and proactive risk management.  Participants will learn how to apply these tools not just for compliance, but as powerful drivers of continuous improvement and operational reliability.

To compete in today's demanding supply chains, simply inspecting for quality is no longer enough. The Automotive Industry Action Group (AIAG) Quality Core Tools provide a systematic, proactive framework to design, measure, control, and improve your products and processes. Whether you are transitioning to Industry 4.0, aligning with IATF 16949 requirements, or aiming to eliminate waste before production begins, mastering these tools is non-negotiable.

Our expert-led training and consulting services bridge the gap between theoretical compliance and practical, shop-floor application. We empower your Product, Process, and Quality engineering teams to integrate these methodologies seamlessly.

Training and Consulting Focus

Application-oriented workshops on these advanced quality tools.  The training focuses on providing application-oriented workshops for advanced quality tools essential in modern manufacturing.  Participants will engage in hands-on sessions to practice and build skills in each area. 

Overall, the training delivers practical, hands-on experience in using these advanced quality tools, preparing participants to lead and sustain quality and process improvement initiatives within their organizations.

"Achieve Operational Sustainable Quality"

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APQP is a structured approach used in the automotive and manufacturing industries to ensure that products meet customer requirements and are delivered on time, with high quality and reliability. It involves detailed planning, risk assessment, and cross-functional collaboration throughout the product development cycle. The APQP process includes phases such as planning, product design and development, process design and development, product and process validation, and feedback, assessment, and corrective action.

APQP Focus: Participants will learn how to drive product quality from concept through production launch. The focus will be on proactive planning and integrating lessons learned. Training will foster collaboration between engineering, quality, and production teams.

MSA evaluates the accuracy, precision, and reliability of measurement systems used in manufacturing. It helps organizations understand and minimize measurement errors, ensuring that data used for quality decisions is trustworthy.

MSA Focus: Practical workshops will teach participants how to conduct MSA studies, including Gage R&R (Repeatability & Reproducibility) and bias analysis. Training emphasizes interpreting results and using findings to improve measurement processes and quality control.

FMEA is a systematic method for identifying and evaluating potential failures in products or processes and assessing their impact on overall system performance. It helps prioritize risks based on severity, occurrence, and detectability, enabling teams to implement effective corrective actions before problems arise.

FMEA Focus: Participants will engage in workshops to practice building and analyzing FMEA worksheets, identify critical failure modes, and develop mitigation strategies.

PPAP is a standardized process in the automotive industry that ensures suppliers meet all customer engineering design and specification requirements for their parts. It involves documentation, sample submissions, and approval checkpoints to verify quality and consistency before mass production.

PPAP Focus: Sessions will guide participants through each PPAP element, from documentation to sample production, with hands-on exercises simulating real automotive approval scenarios. Training will highlight best practices for ensuring compliance and building robust supplier-customer relationships.

SPC uses statistical methods to monitor and control process performance. By collecting data collected from manufacturing processes, teams can detect trends, identify sources of variation, and maintain consistent product quality.  Understanding variation, control charts (X-bar and R, P, C charts), process capability (Cp, Cpk).

SPC Focus: Training for operators and supervisors on how to interpret control charts and use SPC data for real-time process monitoring and intervention. Participants will learn how to create and interpret control charts, apply process capability analysis, and respond to out-of-control situations. Training emphasizes real-time data analysis and integrating SPC into daily operations for proactive quality management.

AIAG Quality Core Tools

Build a Zero-Defect Culture & Achieve IATF 16949 Compliance

The Foundation of Operational Excellence

To compete in today's demanding supply chains, simply inspecting for quality is no longer enough. The Automotive Industry Action Group (AIAG) Quality Core Tools provide a systematic, proactive framework to design, measure, control, and improve your products and processes.

Our expert-led training and consulting services bridge the gap between theoretical compliance and practical, shop-floor application for Product, Process, and Quality engineering teams.

Proactive Planning

Utilize APQP and FMEA to design out risks before production begins, drastically reducing the Cost of Poor Quality (COPQ).

Data-Driven Control

Leverage SPC and MSA to validate measurement systems and manage process variation based on hard statistical data.

Sustained Execution

Implement rigorous Control Plans, secure customer sign-off via PPAP, and audit specialized processes through CQI assessments.

Advanced Product Quality Planning (APQP)

Focus: Facilitate communication and structure product development so the final product satisfies the customer on time and within budget.

Curriculum Outline

Phase 1 & 2: Define & Design

  • Plan and Define Program
  • Voice of the Customer (VOC) translation
  • Product Design and Development Verification
  • Design Reviews and Material Specifications

Phase 3, 4 & 5: Process & Validation

  • Process Design and Development Verification
  • Product and Process Validation (Significant Production Run)
  • Feedback, Assessment, and Corrective Action
  • Reduced variations and improved delivery

Control Plan (CP)

Focus: Document and standardize the specific controls required to minimize process and product variation on the shop floor.

Curriculum Outline

Development Stages

  • Prototype Control Plan
  • Pre-Launch Control Plan
  • Production Control Plan
  • Linkage to Design and Process FMEA

Execution & Maintenance

  • Identifying Key Product/Process Characteristics (KPCs/KCCs)
  • Establishing Measurement Techniques
  • Creating effective Reaction Plans
  • Managing the CP as a living document

Failure Mode and Effects Analysis (FMEA)

Focus: Systematically evaluate designs and processes to identify potential failures and assess the relative impact/risk to prioritize prevention.

Curriculum Outline

The AIAG-VDA 7-Step Approach

  • Step 1: Planning and Preparation
  • Step 2: Structure Analysis
  • Step 3: Function Analysis
  • Step 4: Failure Analysis

Risk & Optimization

  • Step 5: Risk Analysis & Action Priority (AP) calculation
  • Step 6: Optimization and Mitigation Strategies
  • Step 7: Results Documentation
  • Deep dive into PFMEA and Control Plan integration

Statistical Process Control (SPC)

Focus: Use statistical techniques to control production methods, separating common cause from special cause variation to predict performance.

Curriculum Outline

Control Charts

  • Common Cause vs. Special Cause Variation
  • Variable Charts: X-bar & R, X-bar & S, I-MR
  • Attribute Charts: p, np, c, and u charts
  • Subgrouping and data collection strategies

Process Capability

  • Calculating Cp and Cpk (Short-term capability)
  • Calculating Pp and Ppk (Long-term performance)
  • Interpreting capability indices for continuous improvement
  • Machine capability vs. Process capability

Measurement System Analysis (MSA)

Focus: Assess the quality of a measurement system and quantify the variation contributed by the gage and appraiser to ensure data integrity.

Curriculum Outline

Location Variation

  • Accuracy vs. Precision fundamentals
  • Assessing Measurement Bias
  • Evaluating Linearity across the operating range
  • Measurement System Stability over time

Width Variation (Gage R&R)

  • Repeatability (Equipment Variation)
  • Reproducibility (Appraiser Variation)
  • ANOVA and Average & Range methodologies
  • Attribute Agreement Analysis for visual inspections

Production Part Approval Process (PPAP)

Focus: Determine if all customer engineering design records and specifications are properly understood and consistently met by the supplier.

Curriculum Outline

Requirements & Elements

  • Understanding PPAP Triggers
  • The 18 core PPAP elements documentation
  • Significant Production Run requirements
  • Dimensional, Material, and Performance testing

Submission & Approval

  • Understanding Submission Levels 1 through 5
  • Mastering the Part Submission Warrant (PSW)
  • Customer Specific Requirements (CSR) integration
  • Managing interim approvals and corrective actions

Continuous Quality Improvement (CQI)

Focus: Provide a comprehensive audit framework for high-risk, special manufacturing processes that cannot be easily verified by subsequent inspection.

Curriculum Outline

Special Process Standards

  • Overview of Special Process Assessments
  • CQI-9 (Heat Treat System Assessment)
  • CQI-11 (Plating) & CQI-12 (Coating)
  • CQI-23 (Molding System Assessment)

Auditing Mechanics

  • Internal Auditor Qualifications and Requirements
  • Assessing Management Responsibility & Material Handling
  • Equipment Control and Pyrometry (where applicable)
  • Conducting effective Trace-forward and Trace-back Job Audits