Failure Mode and Effects Analysis FMEA for Maintenance Engineering Training Course

Course overview

Maintenance teams often respond to repeat equipment failures with corrective actions that restore production but do not remove the failure mechanism. This leads to recurring downtime, high spare-parts consumption, unplanned overtime, quality losses and weak justification for reliability investments. This five-day course equips maintenance and engineering professionals to apply Failure Mode and Effects Analysis (FMEA) before failures occur, using a structured method to identify how assets, systems and maintenance tasks can fail, assess consequences and prioritise practical risk-reduction actions.

Participants learn to build process and equipment FMEAs for maintenance-critical assets, define functions and functional failures, identify credible failure modes and causes, assess local and system-level effects, and use Severity, Occurrence and Detection ratings consistently. The course covers both traditional Risk Priority Number (RPN) ranking and Action Priority logic, linking FMEA findings to preventive maintenance, condition monitoring, spare-parts strategy, design changes and root cause analysis. Participants also learn how to facilitate cross-functional FMEA workshops and maintain an auditable action register.

Instructor-led demonstrations are combined with guided analysis of realistic maintenance scenarios, including rotating equipment, utilities and production-line subsystems. Working in teams, participants use an FMEA worksheet and rating criteria to analyse a selected asset, challenge assumptions with evidence and convert high-priority risks into assigned controls. Each participant leaves with a completed maintenance FMEA pack: a scoped asset breakdown, failure-mode register, risk ranking, recommended actions, ownership plan and review schedule that can be adapted for use at their own site.

The course is suited to professionals who already work with maintenance plans, asset data, engineering drawings or reliability reports and need a repeatable method for preventing operational failures rather than merely documenting them.

Course objectives

By the end of this course, participants will be able to:

• Define asset functions, performance standards and functional failures for an equipment-level FMEA
• Construct a maintenance FMEA worksheet using functions, failure modes, effects, causes and existing controls
• Apply Severity, Occurrence and Detection rating criteria to prioritise maintenance risks consistently
• Use Action Priority and Risk Priority Number methods to rank corrective and preventive actions
• Distinguish failure mechanisms, root causes and failure modes when analysing equipment breakdowns
• Translate high-risk FMEA findings into preventive maintenance, condition-monitoring and design-change actions
• Facilitate a cross-functional FMEA workshop using evidence from maintenance history and operating data
• Produce an auditable FMEA action register with owners, due dates, verification measures and review triggers

Benefits of attending

Target competencies

Who should attend

• Maintenance Engineers — who need to prevent repeat equipment failures through structured risk analysis
• Reliability Engineers — who prioritise asset-improvement actions and maintenance strategy changes
• Maintenance Planners — who must convert failure risks into task plans, frequencies and resource requirements
• Asset Managers — who need defensible evidence for reliability, renewal and risk-reduction investment decisions
• Production Engineers — who must assess how equipment failure modes affect throughput, quality and safety
• Operations Supervisors — who coordinate responses to chronic plant problems and need practical action ownership

Requirements and prerequisites

Participants should have practical familiarity with industrial equipment, maintenance workflows or engineering operations. They should be able to read a basic equipment hierarchy, maintenance work order, process flow or mechanical/electrical drawing and understand terms such as preventive maintenance, corrective maintenance, downtime and root cause. Experience using a CMMS, spreadsheet or reliability report is useful because course examples draw on maintenance history and asset data. Formal reliability certification, advanced statistics, prior FMEA facilitation experience and specialist software knowledge are not required. Participants do not need to be design engineers, but should bring an asset or recurring-failure example from their workplace if possible.

Training methodology

The course uses short instructor-led briefings followed by asset-focused FMEA practice. Participants work from equipment hierarchies, simplified P&IDs, maintenance histories and failure scenarios to define functions, failure modes, causes and effects. Facilitated group workshops test rating decisions against agreed Severity, Occurrence and Detection criteria, while case studies show how poor FMEAs create ineffective maintenance tasks. Daily reviews connect findings to PM optimisation, condition monitoring and corrective-action ownership. On the final day, participants refine their own FMEA pack and create a workplace application plan.

Course outline

Day 1: FMEA foundations for maintenance-critical assets

• Purpose of FMEA in maintenance and reliability improvement
• IEC 60812 terminology and FMEA process stages
• Asset boundaries, equipment hierarchies and system interfaces
• Functions, performance standards and functional failures
• Distinguishing failure modes, mechanisms, causes and symptoms
• Using maintenance history to select FMEA scope
• FMEA roles, workshop rules and evidence requirements

Workshop: Participants scope a maintenance-critical asset and produce a function-and-boundary statement for an FMEA workshop.

Day 2: Building the failure-mode analysis

• Structuring the FMEA worksheet and analysis columns
• Identifying component-level and system-level failure modes
• Mapping local effects, next-level effects and end effects
• Developing cause chains from physical failure mechanisms
• Recording current prevention and detection controls
• Using fault trees and the five whys to validate causes
• Writing precise, observable FMEA entries

Workshop: Teams build a draft FMEA worksheet for a rotating-equipment case, documenting functions, failure modes, effects, causes and current controls.

Day 3: Risk evaluation and prioritisation

• Severity rating for safety, environmental, quality and production consequences
• Occurrence rating using failure data and engineering judgement
• Detection rating for inspections, alarms and condition-monitoring controls
• Risk Priority Number calculation and its limitations
• AIAG-VDA Action Priority logic for action selection
• Calibration of rating scales across cross-functional teams
• Escalation criteria for intolerable and high-consequence risks

Workshop: Participants score their case-study FMEA, compare rating rationales and produce a ranked list of risks requiring action.

Day 4: Converting FMEA findings into maintenance controls

• Selecting prevention, detection and mitigation actions
• Linking failure mechanisms to preventive maintenance tasks
• Condition-monitoring techniques for early failure detection
• Maintenance interval review and task optimisation
• Design-out actions, engineering changes and management of change
• Spare-parts, redundancy and contingency controls
• Action ownership, target dates and effectiveness measures

Workshop: Participants convert the highest-priority FMEA risks into a costed action register covering maintenance, monitoring and engineering controls.

Day 5: Facilitation, governance and workplace application

• Planning and facilitating an effective FMEA workshop
• Managing disagreement, assumptions and incomplete data
• Integrating FMEA with RCA, RCM and CMMS work management
• FMEA revision triggers after failures, changes and audits
• Document control, traceability and approval workflows
• Using ReliaSoft XFMEA and Microsoft Excel templates
• Developing a site-level FMEA deployment roadmap

Workshop: Each participant presents a completed maintenance FMEA pack and produces a 90-day implementation plan for applying it to a workplace asset.

Tools & standards covered

IEC 60812, AIAG-VDA FMEA Handbook, ReliaSoft XFMEA, Microsoft Excel

A typical training day

Live online deliveries follow the same structure in the East Africa Time zone, with shorter screen blocks and longer breaks.

What the fee includes

How you can take this course

Certification

Participants who complete the full five days receive the Skillset Development Certificate of Completion, stating the course title, course code, dates and delivery format — suitable for professional-development records and employer reimbursement.

Frequently asked questions