Reliability Centered Maintenance Implementation Training Course

Participants can define the governance, scope, data and team arrangements for an RCM study.

• RCM charter defining objectives, boundaries, decisions and expected deliverables
• Select cross-functional team members with operational and technical authority
• System boundary diagrams showing inputs, outputs, interfaces and exclusions
• Asset hierarchy alignment between engineering records and CMMS equipment structures
• Information requirements: drawings, manuals, work orders, alarms and process data
• Facilitator, scribe and technical authority roles during RCM sessions

Participants can document operating context and measurable asset functions for an RCM analysis.

• Operating context captured through duty cycle, environment and demand profile
• Primary functions stated with measurable performance standards and tolerances
• Secondary functions covering containment, protection, control and information
• Define hidden functions whose failure remains undiscovered during normal operation
• Performance standards linked to production, quality, safety and service requirements
• Functional block diagrams connecting equipment items to required system outputs

Participants can identify functional failures and credible failure modes without confusing symptoms and causes.

• Functional failures expressed as complete loss or degraded performance
• Failure modes recorded at an appropriate level of technical specificity
• Distinguish failure cause, failure mode, failure mechanism and observable symptom
• Use work-order history to validate recurring failure mode assumptions
• Human error modes considered within operating and maintenance tasks
• Failure mode wording aligned with ISO 14224 failure taxonomy

Participants can describe failure effects in sufficient detail to support consequence evaluation.

• Failure effects describe what happens after each failure mode occurs
• Record local effects, system effects and evidence available to operators
• Sequence protective devices, alarms, trips and standby equipment responses
• Estimate outage duration including detection, diagnosis, repair and restart
• Identify collateral damage caused by continued operation after failure
• Document existing maintenance tasks and their actual failure-control purpose

Participants can classify failure consequences and prioritise analysis effort using risk-based criteria.

• Hidden failure consequences assessed through multiple failure combinations
• Safety consequences evaluated against credible harm and exposure pathways
• Environmental consequences assessed against release, permit and remediation impacts
• Operational consequences quantified through lost output, quality and service disruption
• Non-operational consequences measured through direct repair and replacement costs
• Criticality matrices calibrated with consequence definitions and likelihood bands

Participants can apply structured RCM decision logic to select technically feasible maintenance actions.

• Decision logic begins with hidden, safety, environmental and operational consequences
• Technical feasibility tests determine whether proactive tasks can prevent failure
• Potential failure identification supports condition-based task selection decisions
• Failure-finding tasks test protective functions with hidden failure consequences
• Default actions selected when no proactive task is technically feasible
• Document task decisions, rationale, assumptions and residual risk acceptance

Participants can specify condition-based maintenance tasks with meaningful warning intervals and response actions.

• P-F interval defines time between potential and functional failure
• Condition indicators selected for relevance, detectability and failure progression
• Vibration analysis applied to imbalance, misalignment, looseness and bearing defects
• Lubricant analysis identifies contamination, wear debris and lubricant degradation
• Thermography detects electrical resistance, insulation deterioration and mechanical friction
• Inspection routes specify method, interval, alert limit and corrective response

Participants can select restoration and replacement tasks based on age-related failure evidence.

• Age-reliability patterns distinguish wear-out failures from random failure behaviour
• Restoration tasks restore resistance to an identifiable age-related failure mode
• Scheduled replacement eliminates components before established wear-out exposure
• Weibull analysis estimates characteristic life, shape parameter and failure probability
• Task intervals balance failure risk, intervention cost and production windows
• Overhaul-induced failures considered before prescribing intrusive maintenance tasks

Participants can develop failure-finding tasks for hidden protective and standby functions.

• Hidden functions include trips, interlocks, relief devices and standby equipment
• Failure-finding intervals determined from allowable unavailability and consequence severity
• Proof tests verify protective function response, setpoint and restoration requirements
• Test coverage limitations recorded for partial stroke and functional testing
• Protective device bypass controls prevent unplanned exposure during testing
• Document test acceptance criteria, evidence and corrective action requirements

Participants can justify run-to-failure decisions and specify appropriate default actions.

• Run-to-failure decisions require acceptable safety, environmental and operational consequences
• Economic analysis compares planned task cost with corrective failure cost
• Design modification considered when repeated failure remains unacceptable
• One-time changes address installation errors, design defects and operating practices
• Redundancy options assessed for risk reduction, maintainability and common-cause failures
• Spare parts strategy supports approved corrective maintenance response times

Participants can convert RCM decisions into clear, executable maintenance task specifications.

• Task statements specify action, asset, method, standard and acceptance criteria
• Job plans identify labour skills, tools, permits and material requirements
• Inspection standards define observable conditions, limits and escalation triggers
• Maintenance intervals assigned by calendar time, runtime, cycles or condition
• Route-based tasks grouped without compromising required inspection timing
• Precision maintenance requirements include alignment, torque, cleanliness and lubrication controls

Participants can translate approved RCM outputs into controlled CMMS maintenance plans and records.

• CMMS asset records reflect approved system boundaries and equipment hierarchy
• Preventive maintenance plans contain task steps, frequencies and triggering rules
• Failure codes capture component, failure mode, cause and remedy
• Job plan libraries control standard work, safety instructions and quality checks
• Work order feedback fields support task review and failure data improvement
• Change control protects approved maintenance strategies from undocumented alterations

Participants can use maintenance and operational data to validate RCM assumptions and priorities.

• Data quality review checks completeness, consistency, coding and timestamp accuracy
• Pareto analysis identifies dominant downtime, cost and repeat failure contributors
• Mean time between failures measured with clear population and exposure definitions
• Mean time to repair separates active repair time from logistical delay
• Bad actor analysis prioritises assets with chronic operational or maintenance impact
• Trend charts test whether maintenance changes improve failure performance

Participants can facilitate focused RCM sessions and manage technical disagreement constructively.

• Facilitation agenda maintains progression from functions through task decisions
• Evidence hierarchy separates field data, engineering judgement and unsupported opinion
• Challenge assumptions using failure evidence, drawings and operating experience
• Consensus rules define when technical authority must resolve disagreement
• Scribe discipline preserves traceability between worksheets and task recommendations
• Quality assurance reviews completed RCM records against SAE JA1011 criteria

Participants can plan phased RCM deployment, stakeholder adoption and governance controls.

• Implementation roadmap sequences pilot systems, review gates and deployment waves
• Benefits cases quantify labour changes, downtime reduction and avoided risk
• Stakeholder mapping identifies operators, maintainers, planners and approvers
• Training plans address new inspection methods, standards and work instructions
• Management of change controls approve maintenance strategy and interval revisions
• Governance forums review overdue actions, residual risks and implementation progress

Participants can establish measures and review cycles that keep RCM strategies effective after implementation.

• Leading indicators track task compliance, defect identification and overdue work
• Lagging indicators measure functional failures, downtime and consequence events
• Maintenance effectiveness review tests whether tasks detect or prevent failures
• Interval optimisation uses inspection findings, failure history and task performance
• RCM living programme triggers review after incidents, modifications and demand changes
• Audit checklists test data traceability, task quality and decision conformance

Participants can build, review and present a complete RCM analysis and implementation plan for a priority asset system.

• Define system boundaries, operating context, functions and performance standards
• Analyse functional failures, failure modes, effects and consequence classifications
• Apply RCM decision logic to select justified maintenance actions
• Draft CMMS-ready task specifications, intervals and acceptance criteria
• Prepare implementation roadmap, governance controls, measures and resource requirements
• Present analysis findings and defend decisions during technical peer review