Free RCM reliability-centred maintenance worksheet template

• The MapTrack RCM reliability-centred maintenance worksheet template contains 21 checks across 4 sections. Sections covered: Function & performance standard, Functional failures & failure modes, Task selection & P-F interval, Task specification & CMMS load.
• Asset identification and operating context: asset ID, parent system, location, design and operating parameters, operating envelope, redundancy status and the functional standard the asset must deliver to remain available.
• Function statement: the primary and secondary functions of the asset written as a measurable performance standard (e.g. deliver 240 m3/h of cooling water at 4 bar between 5C and 30C ambient).
• Functional failures: the specific ways the asset can fail to meet the function statement (cannot start, delivers degraded flow, delivers contaminated water, fails to alarm on low flow).

Learn more about maintenance and work orders in MapTrack.

• Defensible task selection: every PM, PdM, failure-finding and run-to-failure decision is traceable through the SAE JA1011 seven-question logic, replacing opinion-driven PM scoping with documented engineering rationale.
• Cost-justified depth: full RCM is reserved for the few assets that genuinely warrant 8 to 16 hours of facilitated analysis, with FMEA-light or PM optimisation used for everything else to control programme cost.
• P-F interval discipline: forcing each failure mode into the P-F framework reveals where condition monitoring at half the P-F interval beats time-based PM, and where time-based PM is genuinely the right call.
• Insurance and ISO 55001 evidence: a signed worksheet per Class A asset is the document that auditors, OEMs and insurers request when a major failure triggers a warranty claim or root cause review.
• Capture of tribal knowledge: the facilitated review pulls failure history out of senior technician memory and into a controlled record before retirement, restructure or attrition removes the knowledge from the organisation.
• Foundation for capital decisions: a populated worksheet exposes which failure modes are dominant and informs whether the right investment is a PM change, a sensor retrofit, a design modification or full asset replacement.

• Asset identification and operating context: asset ID, parent system, location, design and operating parameters, operating envelope, redundancy status and the functional standard the asset must deliver to remain available.
• Function statement: the primary and secondary functions of the asset written as a measurable performance standard (e.g. deliver 240 m3/h of cooling water at 4 bar between 5C and 30C ambient).
• Functional failures: the specific ways the asset can fail to meet the function statement (cannot start, delivers degraded flow, delivers contaminated water, fails to alarm on low flow).
• Failure modes: the physical mechanisms that cause each functional failure (bearing fatigue, seal extrusion, impeller erosion, sensor drift, control logic fault, operator error, supply utility failure).
• Failure effects and evidence: a written description of what happens when the failure mode occurs, including symptoms operators will see, downstream consequences and how the team can verify the failure.
• Consequence category and rating: classification against the SAE JA1011 categories (hidden, safety and environmental, operational, non-operational) with a documented severity rating.
• P-F interval and task selection: the documented P-F interval for each failure mode, the task selected (CBM, PdM, PM, failure-finding, default action) and the frequency, with reference to the JA1011 decision tree.
• Task description and standard: the specific work to be performed (vibration reading at point A, oil sample on schedule X, ultrasonic thickness at gauge B) with acceptance criteria, sample frequency and the responsible role.
• Risk-priority outputs: the residual risk after the proposed task is implemented, plus any recommended design change, operator training or spare-parts strategy needed to support the task.
• Sign-off and revision control: facilitator, reviewer, asset owner and reliability engineer sign-off with revision number, revision date and the change log that records every update.

1. Define the asset boundary and assemble the cross-functional team. The boundary determines what is in scope (pump and motor and coupling and instrumentation) versus what sits in the upstream or downstream system, and the team needs the senior operator, the senior technician, the planner, the reliability engineer and (for Class A assets) a process engineer in the room for 8 to 16 hours.

2. Write the function statement and identify every functional failure. The function statement is the measurable performance standard the asset must deliver, written in operational units (flow, pressure, temperature, availability, safety integrity level). Every way the asset can fail to meet that standard is a functional failure, and the team must brainstorm exhaustively because anything missed at this stage is missed by every downstream PM decision.

3. Identify and rate the failure modes that cause each functional failure. For every functional failure, the team lists the physical mechanisms that produce it, drawing on CMMS work order history, OEM failure-mode catalogues, technician experience and any FMEA or RCFA records from similar assets. Each failure mode is rated for consequence severity using the SAE JA1011 four-category framework and given a likelihood estimate based on data.

4. Estimate the P-F interval and apply the SAE JA1011 task-selection logic. For each failure mode the team estimates the P-F interval (the time between the first detectable indication of failure and functional failure). If the P-F interval is long and a detection technology exists, CBM or PdM is selected at less than half the P-F interval. If the P-F interval is short or no detection exists, time-based PM or failure-finding is selected. If no task is technically feasible and cost-justified, run-to-failure is the documented default with spares strategy.

5. Document the task, sign off the worksheet and load tasks into the CMMS. Each selected task is written with its specific scope, acceptance criteria, frequency, labour role, parts and tools list. The completed worksheet is signed off by the facilitator, the reliability engineer, the asset owner and the operations manager. The tasks are then loaded against the asset in the CMMS with the worksheet reference so that any future PM change can be traced back to the analysis.

Practical answers about the form, record keeping and using MapTrack.

This form is a starting point. Check the current requirements that apply to your equipment, work and location. The form alone does not establish compliance.

• SAE JA1011:2009 (Evaluation Criteria for Reliability-Centred Maintenance Processes)
• SAE JA1012:2011 (A Guide to the Reliability-Centred Maintenance Standard)
• IEC 60812:2018 (Failure modes and effects analysis FMEA and FMECA)
• MIL-STD-3034 (Reliability-Centred Maintenance Process)
• ISO 55001:2024 (Asset management - Management systems - Requirements)

• ISO 55001:2024, Asset management system requirements (ISO catalogue)

MapTrack publishes this template. The linked authorities publish their own guidance; they haven't endorsed this form.

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