
Explore dfmea and fmea concepts to identify product and process functions, determine failure modes, effects, and causes, and apply prevention and detection controls in automotive and aerospace industries.
Identify, measure, and mitigate risks in product and process design using DFMEA, an early cross-functional risk assessment prioritizing severity, occurrence, and detection.
Explore the DFMEA format and documentation, including applicability, product information, failure modes and effects, severity, occurrence, and detection, RPN, and recommended actions.
Explore how boundary diagrams define FMEA scope, map subsystem interfaces, and guide interface matrices in a shock absorber case study, detailing four interaction types and rating scales.
Identify and define product functions using verb-noun-measurable terms aligned with design requirements in the DFMEA framework, illustrated by shock absorber functions that ensure safety, ride comfort, and tire contact.
Explore the four failure modes in dfmea—no function, degraded over time, intermittent, and unintended function—and apply these concepts to shock absorber case studies.
Understand how failure mode effects impact customers, safety, and regulatory compliance, describe effects on parts and systems, and assign severity (1–10) within the dfmea framework.
Identify potential causes of failure and their relation to failure modes, and apply occurrence and severity rankings in a shock absorber case study.
Identify product functions, failure modes, effects, and causes, then apply prevention and detection design controls, with a design verification plan, prototype testing, and design validation.
Prioritize actions in dfmea by focusing on severity first, then occurrence and detection, using severity-occurrence-detection ranking and prevention over detection to reduce risks and guide design verification.
Develop an understanding of dfma fundamentals and risk assessment. Identify functions, failure modes and effects, and related causes, plus prevention and detection controls and linkages to dvp and process fmea.
Once you complete this course you will have a clear understanding of the following :
Importance of DFMEA in New Product Development.
How to Understand Block diagram and Boundary diagram.
How to identify Product Functions, Failure Modes, and Failure causes.
Identifying the prevention and detection controls for the failure mode and its causes.
Importance of Risks Priority and Risks Prevention and Reduction.
How to evaluate the risks based on Severity, Occurrence, and Detection and how to assign the correct ranking
How to identify recommended actions to eliminate or reduce the Risks.
How to establish the linkages between DFMEA, DVP and Process FMEA .
How to update the DFMEA based on the feedback from the field failures and Customer Concerns.
The importance of CFT in DFMEA development.
How to understand Severity, Occurrence, and Detection tables clearly.
How to develop the design verification and validation plans based on DFMEA Causes.
The linkages between Product functions, Failure Modes, Failure Effects, and Failure causes.
How to maintain this DFMEA is a living document.
The reasons for DFMEA documentation are imperfect.
The competencies of CFT members in DFMEA development.
The importance of communication between CFT members.
Benefits of including suppliers and Customers as CFT members and their role in DFMEA development.