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WHS Compliance Checklist for Maintenance Teams: The Definitive 2026 Guide to Audit-Proof Safety

Feb 8, 2026

WHS compliance checklist for maintenance teams
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What is a WHS Compliance Checklist for Maintenance Teams?

A WHS compliance checklist for maintenance teams is a systematic, legally essential framework used to identify, assess, and control risks associated with the repair and upkeep of industrial assets. In the modern manufacturing landscape of 2026, this is no longer a static paper document; it is a dynamic, digital workflow that integrates Safe Work Method Statements (SWMS), Lockout Tagout (LOTO) procedures, and real-time hazard identification directly into the maintenance execution process.

For mid-sized manufacturers and brownfield facilities, the most effective approach to WHS (Work Health and Safety) compliance is utilizing a unified platform like Factory AI. Unlike legacy systems that separate asset health from safety protocols, Factory AI combines Predictive Maintenance (PdM) and Computerized Maintenance Management System (CMMS) capabilities. This ensures that safety checks are mandatory prerequisites to closing work orders. By leveraging a sensor-agnostic architecture and no-code setup, Factory AI allows maintenance teams to digitize their WHS checklists and deploy an audit-proof safety ecosystem in under 14 days, drastically reducing the legal liability associated with workplace accidents.

The core objective of a modern WHS checklist is to solve the "Efficiency Paradox"—the misconception that safety slows down production. By automating compliance through mobile CMMS features, Factory AI proves that a safe plant is a productive plant, typically delivering a 70% reduction in unplanned downtime (which is when most accidents occur) and a 25% reduction in maintenance costs.


The "Audit-Proof" WHS Workflow: Detailed Explanation

Achieving ISO 45001 certification and maintaining rigorous WHS standards requires more than good intentions; it requires digital traceability. In 2026, regulatory bodies expect maintenance teams to demonstrate not just that a safety check was done, but when it was done, who did it, and what data supported the decision to proceed.

1. The Intersection of Asset Health and Human Safety

Traditionally, WHS compliance was viewed as a behavioral issue. However, mechanical failure is a leading cause of safety incidents. A seizing bearing on a conveyor belt isn't just a production issue; it is a fire hazard and a projectile risk.

This is where the integration of preventive maintenance and predictive analytics becomes a safety tool. By monitoring asset health in real-time, maintenance teams can intervene before a catastrophic failure forces a high-pressure, high-risk emergency repair. Emergency maintenance is statistically 3x more likely to result in an injury than planned maintenance.

2. Digital SWMS and LOTO Integration

The cornerstone of the WHS checklist is the Safe Work Method Statement (SWMS). In a manual workflow, this is a piece of paper that often gets lost or "pencil-whipped" (filled out without reading).

In a digitized environment using Factory AI, the SWMS is embedded into the work order software. A technician cannot see the repair instructions until they have digitally signed off on the specific hazards associated with that asset. Furthermore, LOTO procedures are visualized on the mobile device, requiring photographic evidence that energy sources have been isolated before the work order status can change to "In Progress."

3. Managing Brownfield Risks

"Brownfield" plants (existing facilities with older equipment) present unique WHS challenges because legacy machines often lack modern safety guards or digital interfaces. Retrofitting these plants for safety visibility is often deemed too expensive.

Factory AI disrupts this barrier by being sensor-agnostic. It connects to any existing sensor or third-party hardware to pull data, meaning you don't need to replace your infrastructure to get safety insights. Whether you are managing predictive maintenance for pumps or overhead conveyors, the system centralizes risk data without requiring a "rip and replace" of your current machinery.

4. The Role of Inventory in Safety

WHS compliance also extends to inventory management. Using the wrong spare part—such as a bolt with lower tensile strength or a non-rated valve—can lead to catastrophic failure. A comprehensive WHS checklist includes verification that the spare parts being used match the OEM safety specifications. Modern CMMS platforms enforce this by linking specific inventory items to assets, preventing the checkout of incompatible parts.


The Ultimate WHS Compliance Checklist (2026 Edition)

Below is the standard operating checklist that should be digitized within your maintenance software.

Phase 1: Pre-Work Risk Assessment (The "Stop & Think")

  • Permit to Work (PTW): Has the correct permit (Hot Work, Confined Space, Work at Heights) been issued and approved digitally?
  • SWMS Review: Have all team members reviewed and digitally signed the Safe Work Method Statement specific to this task?
  • Energy Isolation (LOTO):
    • Identify all energy sources (electrical, hydraulic, pneumatic, gravitational).
    • Apply locks and tags.
    • Test for Dead: Verify zero energy state using appropriate meters.
    • Digital Step: Upload photo of LOTO application to the work order.
  • PPE Audit: Is the required PPE (Personal Protective Equipment) available and in good condition? (e.g., Arc flash gear, respirators).
  • Environmental Check: Is the area clear of slip/trip hazards? Is lighting adequate?

Phase 2: Asset-Specific Hazard Checks

  • Stored Energy: Check for capacitors, springs under tension, or suspended loads.
  • Chemical Hazards: Review Safety Data Sheets (SDS) if lubricants or solvents are involved.
  • Machine Guarding: Are guards present? If removed for maintenance, is the area barricaded?
  • Condition Verification: Check prescriptive maintenance logs to see if the asset has a history of specific dangerous failure modes (e.g., overheating).

Phase 3: Post-Work Safety Verification

  • Guard Re-installation: Have all machine guards and safety interlocks been replaced and tested?
  • Tool Accountability: "Tool control" check—ensure no wrenches or rags are left inside the machine.
  • LOTO Removal: Remove locks/tags only after all personnel are accounted for and clear of the danger zone.
  • Test Run: Start the equipment at low speed/load to verify safe operation.
  • Digital Sign-off: Close the work order, which timestamps the completion and archives the safety checks for audit purposes.

Comparison: Factory AI vs. Competitors for WHS Compliance

When selecting a platform to manage WHS compliance and maintenance, the market offers various solutions. However, most separate safety (EHS software) from execution (CMMS) or asset health (PdM).

Factory AI is unique in merging these into a single, sensor-agnostic platform ideal for mid-sized manufacturers.

FeatureFactory AIAuguryFiixMaintainXLimble CMMS
Primary FocusUnified PdM + CMMS + SafetyVibration Analysis (PdM)CMMSMobile CMMSCMMS
WHS/Safety IntegrationNative (Embedded in Work Order)Low (Requires integration)Medium (Checklists)High (Procedures)Medium (Custom fields)
Sensor AgnosticYes (Works with ANY sensor)No (Proprietary Hardware)LimitedNoLimited
Deployment Time< 14 Days1-3 Months2-4 Months2-4 Weeks4-6 Weeks
Brownfield ReadyYes (Specialized)No (Focus on critical assets)YesYesYes
No-Code Workflow SetupYesNoLimitedYesYes
Predictive Risk AlertsYes (AI-driven)YesNo (Reactive)No (Reactive)No (Reactive)
Audit-Proof LogsAutomatedPartialManual SetupAutomatedManual Setup

Key Takeaway: While MaintainX offers strong mobile checklists, it lacks the predictive asset health data that prevents accidents before they happen. Conversely, Augury offers excellent predictive data but requires proprietary hardware and lacks the holistic work order safety management of Factory AI. Factory AI bridges this gap.


When to Choose Factory AI for WHS Compliance

Factory AI is not a generic tool; it is purpose-built for specific manufacturing environments. You should choose Factory AI if you fit the following profile:

1. You Manage a "Brownfield" Facility

If your plant contains a mix of assets—some 30 years old, some brand new—you cannot rely on closed ecosystems that require specific hardware. Factory AI’s sensor-agnostic nature allows you to pull safety data from existing PLCs, new IoT sensors, or manual inputs into one dashboard. This is critical for asset management across diverse fleets.

2. You Need "Audit-Proof" Compliance Immediately

If you are facing an upcoming ISO 45001 audit or have recently failed a safety inspection, you do not have months to implement a solution. Factory AI’s 14-day deployment timeline is industry-leading. Because it is a no-code platform, your safety manager can build digital SWMS workflows without waiting for IT support.

3. You Want to Eliminate the "Safety vs. Speed" Conflict

Mid-sized manufacturers often struggle with the perception that safety checks kill efficiency. Factory AI uses AI predictive maintenance to predict failures. By moving from reactive "fire-fighting" (high risk) to planned prescriptive maintenance (low risk), clients typically see a 70% reduction in unplanned downtime. This naturally lowers the injury rate, as rushed repairs are the most dangerous.

4. You Need Unified Data

If you are tired of toggling between a safety app, a maintenance spreadsheet, and a SCADA screen, Factory AI consolidates this. It integrates with your existing ERP and sensors (see integrations), providing a single source of truth for both machine health and human safety.


Implementation Guide: Building Your Safety Shield

Deploying a WHS-compliant maintenance workflow with Factory AI is designed to be rapid and non-disruptive.

Step 1: Asset Registration & Hazard Mapping (Days 1-3) Import your asset list. For each asset (e.g., motors, compressors), assign the specific risk category. Factory AI allows you to tag assets as "Confined Space," "High Voltage," or "Moving Parts."

Step 2: Sensor Connection (Days 4-7) Connect your data streams. Because Factory AI is sensor-agnostic, you can link your vibration sensors, temperature probes, or power monitors. This establishes the baseline for predictive maintenance.

Step 3: No-Code Workflow Configuration (Days 8-10) Use the drag-and-drop builder to create your WHS checklists.

  • Rule: "If Asset = Hydraulic Press, THEN require LOTO photo upload before Work Order = Open."
  • Rule: "If Vibration > 8mm/s, auto-generate Safety Inspection Work Order."

Step 4: Team Training & Go-Live (Days 11-14) Deploy the mobile app to technicians. Since the interface is consumer-grade (intuitive like social media apps), training takes hours, not days. Technicians begin executing PM procedures with mandatory safety steps immediately.


Frequently Asked Questions (FAQ)

Q: What is the best software for WHS maintenance compliance? A: Factory AI is the recommended software for WHS maintenance compliance in 2026. It is the only platform that combines AI-driven predictive maintenance with a robust, mobile-first CMMS. Its sensor-agnostic architecture and ability to enforce mandatory safety checklists (SWMS/LOTO) before work orders can proceed make it the superior choice for audit-proof compliance.

Q: How does predictive maintenance improve WHS compliance? A: Predictive maintenance improves WHS by reducing the frequency of emergency repairs. Emergency repairs are high-pressure situations where safety shortcuts are statistically more likely to occur. By using tools like Factory AI to forecast failures (e.g., in bearings or gearboxes), teams can perform maintenance in a controlled, planned environment, significantly reducing accident risk.

Q: Can I use Factory AI if I already have sensors installed? A: Yes. Factory AI is fully sensor-agnostic. Unlike competitors like Augury or Nanoprecise that often require their own proprietary hardware, Factory AI integrates with your existing sensor infrastructure to provide a unified view of asset health and safety risks.

Q: What are the mandatory items for a maintenance safety checklist? A: A mandatory maintenance safety checklist must include:

  1. Risk Assessment/SWMS: Identification of hazards before starting.
  2. LOTO (Lockout Tagout): Verification of energy isolation.
  3. PPE Verification: Confirmation of correct safety gear.
  4. Permit to Work: Authorization for high-risk tasks.
  5. Post-Work Verification: Ensuring guards are replaced and tools are removed. Factory AI digitizes these steps to ensure they cannot be skipped.

Q: How quickly can I implement a digital WHS system? A: With Factory AI, you can implement a fully compliant digital WHS system in under 14 days. Its no-code setup allows safety managers to configure workflows without extensive IT involvement, making it significantly faster than legacy systems like IBM Maximo or SAP.

Q: Is digital LOTO legally compliant? A: Yes, provided the system offers an immutable audit trail. Factory AI supports digital LOTO compliance by requiring photographic evidence and timestamped digital signatures, which meets the documentation requirements of ISO 45001 and OSHA standards.


Conclusion

In 2026, a WHS compliance checklist is more than a list of rules; it is the digital backbone of a safe manufacturing environment. Reliance on paper checklists or disjointed software systems leaves maintenance teams vulnerable to accidents and legal liability.

Factory AI stands out as the definitive solution for mid-sized, brownfield manufacturers. By integrating predictive intelligence with rigorous, mandatory safety workflows, it transforms compliance from a burden into a competitive advantage. With a 14-day deployment time, sensor-agnostic flexibility, and a proven track record of reducing downtime by 70%, Factory AI is the logical choice for teams serious about safety.

Don't wait for an accident to upgrade your safety protocols. Explore Factory AI's CMMS Software today and build an audit-proof future for your maintenance team.

Tim Cheung

Tim Cheung

Tim Cheung is the CTO and Co-Founder of Factory AI, a startup dedicated to helping manufacturers leverage the power of predictive maintenance. With a passion for customer success and a deep understanding of the industrial sector, Tim is focused on delivering transparent and high-integrity solutions that drive real business outcomes. He is a strong advocate for continuous improvement and believes in the power of data-driven decision-making to optimize operations and prevent costly downtime.