Reliability Centered Maintenance RCM Implementation Training Course

5 days Maintenance & Engineering Certificate on completion
Course codeSD-ME-025
Duration5 days
LevelIntermediate
CategoryMaintenance & Engineering
DeliveryClassroom or live online
LanguageEnglish
CertificateCertificate of completion

Course overview

Unplanned failures, excessive preventive maintenance, and recurring equipment defects consume maintenance budgets while reducing production capacity and confidence in asset plans. Reliability-Centered Maintenance (RCM) provides a disciplined way to determine what maintenance is technically justified for each asset function and failure mode, rather than applying calendar-based tasks by default. This course helps maintenance and engineering professionals build defensible maintenance strategies for critical plant, utilities, mobile equipment, and infrastructure assets.

Participants learn the RCM decision process from system selection and functional analysis through failure mode identification, consequence evaluation, task selection, and maintenance-plan implementation. They practise writing functions and functional failures, conducting FMEA-style failure analysis, distinguishing hidden, safety, operational, and non-operational consequences, and selecting condition-based, scheduled restoration, scheduled discard, failure-finding, or no-scheduled-maintenance policies. The course also addresses data requirements, PM optimisation, spares implications, KPIs, and governance needed to sustain an RCM programme.

Instruction combines facilitated technical sessions with a progressive asset case study. Working in teams, participants analyse a defined equipment system, complete an RCM information worksheet and decision logic, and convert approved tasks into an implementable maintenance plan. Each participant leaves with an RCM implementation charter, a prioritised asset-selection approach, completed analysis templates, and a 90-day action plan that can be adapted for their site.

The course is suited to professionals who already work with maintenance plans, work orders, asset registers, or reliability investigations and need a structured method for improving maintenance effectiveness.

Course objectives

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

  • Define asset functions, performance standards, and functional failures for an RCM study boundary
  • Construct an RCM information worksheet linking failure modes, effects, consequences, and maintenance decisions
  • Apply FMEA techniques to identify credible failure modes and failure effects for critical equipment
  • Classify failure consequences using the RCM hidden, safety, environmental, operational, and non-operational framework
  • Select technically feasible condition-based, restoration, discard, failure-finding, or run-to-failure maintenance policies
  • Develop task intervals using P-F intervals, age-reliability evidence, operating context, and risk criteria
  • Translate RCM task decisions into CMMS-ready job plans, task lists, and maintenance-plan requirements
  • Produce a phased RCM implementation charter with asset prioritisation, roles, measures, and governance controls

Benefits of attending

For you

  • Gain a repeatable method for defending which PM tasks should be retained, redesigned, or removed
  • Build credibility in reliability reviews by using SAE JA1011-aligned RCM logic and terminology
  • Create analysis worksheets and task recommendations that can be presented to operations, HSE, and leadership
  • Improve ability to distinguish symptom-driven maintenance from failure-mode-based maintenance decisions
  • Prepare for reliability engineering, asset management, and maintenance strategy leadership responsibilities

For your organisation

  • Reduce low-value preventive maintenance work by testing each task against failure consequences and technical applicability
  • Improve asset availability through maintenance policies targeted at dominant failure modes and P-F intervals
  • Strengthen safety and environmental controls by identifying hidden protective-function failures and failure-finding needs
  • Create traceable maintenance decisions that support audits, budget reviews, and cross-functional approval
  • Establish a practical RCM rollout approach with prioritised assets, defined roles, CMMS requirements, and performance measures

Target competencies

RCM decision logicFunctional failure analysisFailure consequence rankingMaintenance task selectionP-F interval analysisCMMS task translation

Who should attend

  • Reliability Engineers — who must justify maintenance strategies with evidence of failure consequences and task applicability
  • Maintenance Managers — who need to reduce ineffective PM work while protecting availability, safety, and compliance
  • Maintenance Planners and Schedulers — who convert RCM decisions into executable job plans and preventive maintenance schedules
  • Asset Managers — who set lifecycle, risk, and investment priorities for critical physical assets
  • Operations and Production Managers — who need maintenance policies aligned to operating risk and production constraints
  • Maintenance Supervisors and Senior Technicians — who lead equipment analysis and apply revised task instructions in the field

Requirements and prerequisites

Participants should have practical exposure to industrial or facilities maintenance, engineering operations, asset management, or production support. They should be able to read basic equipment documentation such as P&IDs, equipment lists, OEM manuals, work orders, or maintenance plans, and understand terms including failure mode, preventive maintenance, corrective maintenance, criticality, and downtime. Familiarity with a CMMS such as SAP PM, Maximo, or Infor is helpful but not essential. No prior RCM certification, advanced statistics, specialist reliability software, or formal FMEA facilitation experience is required.

Training methodology

The instructor leads short technical briefings followed by structured analysis of an equipment-system case, such as a pumping or compressed-air package. Participants work from asset boundaries, drawings, operating requirements, failure history, and sample CMMS records to complete RCM worksheets and apply decision logic. Teams challenge one another's failure modes, consequences, and proposed tasks in facilitated review sessions. Daily outputs build toward a final implementation workshop in which participants define their own site candidate, governance model, data needs, and 90-day launch plan.

Course outline

Day 1: RCM foundations and study preparation

  • Purpose and principles of Reliability-Centered Maintenance
  • SAE JA1011 and SAE JA1012 RCM evaluation criteria
  • RCM versus PM optimisation, TPM, RBI, and root cause analysis
  • Asset hierarchy, system boundaries, and equipment selection
  • Criticality screening using consequence and business-impact criteria
  • Functions, performance standards, and operating context
  • RCM team roles, facilitation rules, and evidence requirements

Workshop: Participants scope an RCM study for a case-study asset and produce a system boundary statement, stakeholder map, and function list.

Day 2: Failure analysis and consequence assessment

  • Writing functional failures without embedding solutions
  • Failure mode identification from drawings, history, and field knowledge
  • Failure effects and evidence-based effect statements
  • FMEA worksheet structure for RCM analysis
  • Hidden failures and protective-device functions
  • Safety, environmental, operational, and non-operational consequences
  • Failure consequence ranking and risk escalation rules

Workshop: Teams complete failure-mode and failure-effect entries for a selected subsystem and classify every consequence using an RCM worksheet.

Day 3: Selecting effective maintenance policies

  • RCM decision logic and task-selection sequence
  • On-condition tasks and detectable potential failures
  • P-F intervals and inspection interval selection
  • Scheduled restoration tasks and age-related failure patterns
  • Scheduled discard tasks and life-limit evidence
  • Failure-finding tasks for hidden protective functions
  • Run-to-failure decisions, redesign triggers, and default actions

Workshop: Participants apply the RCM decision logic to their case-study failure modes and produce a justified list of proposed maintenance policies.

Day 4: Converting RCM into executable maintenance

  • Task packaging, job-plan content, and acceptance criteria
  • CMMS coding for task types, failure modes, and maintenance plans
  • SAP PM maintenance-plan and task-list translation
  • Data quality requirements for asset registers and work-history feedback
  • Spare parts, tools, skills, and access requirements
  • PM rationalisation and removal of non-value-adding tasks
  • KPIs for compliance, defect detection, repeat failures, and availability

Workshop: Teams convert selected RCM recommendations into CMMS-ready task descriptions, frequencies, job-plan requirements, and performance measures.

Day 5: RCM implementation governance and rollout

  • Building an RCM business case and benefit hypothesis
  • Prioritising pilot assets using risk, cost, and learning value
  • RCM facilitation workflow and quality assurance reviews
  • Operations, maintenance, engineering, and HSE decision rights
  • Change management for revised maintenance routines
  • Implementation roadmaps, milestones, and resource estimates
  • Sustaining RCM through feedback, audit, and periodic review

Workshop: Each participant produces a site-specific RCM implementation charter and 90-day action plan for review by peers and the instructor.

Tools & standards covered

SAE JA1011, SAE JA1012, IEC 60812, SAP PM

A typical training day

08:30 – 10:30First session
10:30 – 10:45Refreshment break
10:45 – 12:30Second session
12:30 – 13:30Lunch and networking
13:30 – 15:00Third session
15:00 – 15:15Refreshment break
15:15 – 16:30Workshop and daily review

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

What the fee includes

  • Instruction by a practitioner facilitator
  • Full course workbook and materials
  • Exercise files, templates and case studies
  • Certificate of completion
  • Refreshments and lunch (classroom deliveries)
  • Post-course application plan
  • Facilitator follow-up on request
  • Group rates from five participants

How you can take this course

Classroom

Scheduled sessions in Nairobi, Mombasa, Kigali, Dar es Salaam, Dubai and Cape Town.

Live online

The same facilitator and materials, delivered live for distributed teams and individuals.

In-house

Delivered privately for your team, at your offices or a venue of your choice, tailored to your context. Request a proposal.

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

No prior RCM study experience is required. Participants should, however, understand basic maintenance concepts and be comfortable discussing equipment functions, work orders, failure modes, and preventive maintenance.

A laptop is recommended for completing worksheets and the implementation charter, particularly for live online delivery. The course uses structured templates and examples; no specialist RCM software licence is required.

Yes. Reliability engineers learn how to lead and assure the analysis, while planners learn how to convert approved tasks into job plans, task lists, frequencies, and CMMS maintenance plans.

FMEA identifies possible failure modes and effects, while root cause analysis investigates events that have already occurred. This course uses failure analysis within the wider RCM decision process to select and implement the most appropriate maintenance policy for each consequence.

Yes. Participants learn how to use RCM to challenge existing PM tasks, identify missing failure-finding or condition-monitoring work, and document justified run-to-failure decisions. The method is particularly useful for high-cost, high-risk, or repeatedly failing assets.

You leave with completed RCM worksheet examples, decision-logic outputs, CMMS task-translation guidance, and a site-specific implementation charter. The charter includes a pilot-asset selection approach, roles, data requirements, measures, and a 90-day action plan.

Upcoming sessions

  • 21 – 25 Sep 2026
    Cape Town · USD 4,200
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  • 21 – 25 Sep 2026
    Nairobi · USD 3,000
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  • 28 Sep – 02 Oct 2026
    Dar es Salaam · USD 3,500
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  • 12 – 16 Oct 2026
    Nairobi · USD 3,000
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  • 12 – 16 Oct 2026
    Live Online · USD 1,500
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  • 19 – 23 Oct 2026
    Kigali · USD 3,500
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  • 26 – 30 Oct 2026
    Nairobi · USD 3,000
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  • 02 – 06 Nov 2026
    Live Online · USD 1,500
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49 more dates — ask us.


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