Seal vs eMaint

1eMaint and Seal, side by side.

eMaint and Seal both support GMP maintenance with audit trails, electronic signatures and change control. They differ in where the maintenance record sits. eMaint is CMMS and EAM software from Fluke, with a life sciences configuration that it describes as GxP, 21 CFR Part 11 and validation-ready.¹ In Seal, teams configure lab, manufacturing and quality workflows on one platform around a shared ontology, so a maintenance plan, the repairs it leads to and the batches and results they affect are connected records.

2What eMaint is built for.

eMaint is designed for maintenance and reliability teams that want an enterprise CMMS with condition monitoring from the same vendor. Founded in 1986, eMaint was acquired by Fluke Corporation in September 2016, when it was a web-based, software-as-a-service CMMS with operations in Florida, New Jersey and Ireland.²³ It describes itself as backed by Fluke, says it is trusted by 150,000 users in 116 countries, and lists industries from manufacturing, life sciences and food and beverage to healthcare, energy, fleets, data centres and facilities.¹

For life sciences, eMaint says it supports regulatory-grade maintenance workflows, with role-based access, auditable electronic records and support for IQ, OQ and PQ validation activities. It links maintenance tasks to SOPs and controlled documents, supports deviation and CAPA processes within the CMMS, and provides versioned change control and traceability to inspections and quality packs. For instruments, it offers a central registry, calibration due-date tracking, and calibration certificates and pass/fail results attached to assets.⁴ Its electronic signatures and audit trail are designed to align with 21 CFR Part 11, and every work order, PM completion and asset record change is logged with a timestamp and user.⁵

Fluke ownership shapes the product. eMaint connects natively to Fluke wireless vibration and temperature sensors, and readings that cross configured thresholds trigger work orders with asset history and parts information attached.⁶ eMaint AI turns a spoken request into a draft work request, filling in the asset, location, problem and criticality, drafts SOPs, and answers questions from the customer’s own eMaint data with each answer linked to its source. The team reviews, approves and converts each request, and eMaint says its AI is trained on the customer’s data only.⁷

3From a condition alarm to a changed plan.

Both products turn a signal into maintenance work. The difference is what happens when the same fault keeps coming back.

In eMaint, alarms on Fluke triaxial vibration sensors can trigger on overall vibration levels or narrowband fault signatures. When a reading crosses a threshold, eMaint generates a prioritised work order and routes it to a technician with asset history, manuals and parts availability attached.⁸ Its life sciences configuration adds versioned change control and traceability to inspections and quality packs.⁴

In Seal, a recurring fault is investigated across the work it touched and can end in a verified change to the plan. Neil compares repairs, installed-part lots, calibration and actual uses, and creates a linked assessment with competing explanations, affected-work candidates and the evidence still needed. A shared part lot is a lead to investigate, not proof of the cause. If the team concludes that the plan should change, Neil assembles a changeset with the requirement links, revised configuration, verification cases and training impact.

In the example in Seal’s CMMS blueprint, the next version of maintenance plan PM-007 is proposed with its checks while work order WO-007 keeps v2, the version it ran against. Authorised people review the technical scope, run the required checks, sign and publish the change. An effectiveness review defined with the change then compares recurring symptoms, downtime, parts and quality impact across an agreed population and reporting window. Software verification does not replace equipment qualification, calibration or the authorised return-to-service decision.

4Where a maintenance event is recorded.

eMaint keeps deviation and CAPA support inside the maintenance system. In Seal, the event that starts maintenance is recorded on the equipment, and its consequences link to the batches, samples and quality records concerned.

Seal’s electronic logbooks record equipment, room and shift events against the procedure version, with event time and entry time kept apart. A configured answer or limit can place equipment on hold and open a deviation, sample, maintenance order or cleaning activity, with the entry, value, time, user and attachments linked to the new record.

In the logbook example, vessel V-12 has a completed cleaning entry, LOG-091, recorded against cleaning procedure CLN-012 v03 at 09:10 and entered at 09:12. The required post-clean inspection, LOG-092, is assigned but has no outcome, and the schedule proposes V-12 for batch BUF-044 at 14:00. Cleaning, inspection and planned use remain separate facts, so “cleaned” is not read as “ready”: readiness is not established until the inspection is recorded, and the shift handover gives that open check an owner.

A CMMS such as eMaint can remain authoritative for planned maintenance and work orders, while the logbook opens or references that work and receives its reviewed completion.

5Where eMaint is the better fit.

eMaint is the better fit when you want an established enterprise CMMS with GxP features and condition monitoring from one vendor.

• You want a CMMS configured for life sciences, with Part 11 signatures, auditable records and support for IQ, OQ and PQ.⁴⁵
• You use Fluke sensors, or want vibration monitoring that opens prioritised work orders without a third-party link.⁶⁸
• You want deviation and CAPA handled within the maintenance system, linked to SOPs and controlled documents.⁴
• You run SAP or Oracle and want work-order costs to post to the right cost centre and purchase orders to flow without re-entry.⁶
• You want pre-built connectors to LIMS, MES and ERP, with a path for validating the integrations.⁴
• Your maintenance spans many sites and industries beyond GMP manufacturing.¹

6Where Seal is the better fit.

Seal is the better fit when maintenance, calibration and their effects on the work should share one set of records with laboratory, manufacturing and quality.

• You want a deviation to point to the step and batch it concerns, and an equipment failure to lead to the uses since the last acceptable check.
• You want each reading kept as its own record, with its value, interval, recorder, timestamp and source, so a passing reading contributes evidence without approving the repair.
• You want calibration points to keep their original and final values, standards and procedure, with use permission decided for the range at use.
• You expect to keep improving plans and checks. Each improvement becomes a new process version with its specifications, test evidence and approvals, and existing work keeps the version it ran against.
• You want an AI agent whose output is configured work: a linked assessment, a work package or a changeset. People approve, and Neil never releases a change on its own. In line with the EU’s draft GMP Annex 22 on AI, Neil is not used in GMP execution. It helps set up configuration, which your team verifies and releases under change control.

7Running Seal alongside eMaint.

Seal has no dedicated eMaint connector. Where a system is not on Seal’s integrations list, Seal’s REST API and Scripts can connect it, and Seal can review its interfaces with you. On the eMaint side, eMaint provides a documented REST API, pre-built connectors and its Connect2Assets framework for asset-level data.⁶

Seal’s API reads and writes records from another system or your own application. Agree the records, the direction of transfer, the credentials and the failure handling before setting up the connection. Scripts are versioned Python in Seal that can call an external service after an event or on a schedule; they are edited in a changeset, tested and published like other Seal records.

Start with read access: bring eMaint work-order identity and status into the equipment record in Seal, and treat any write-back to eMaint as a separate decision with defined actions, review gates and audit evidence. Qualify the connection by defining source identifiers and field mappings, testing missing, delayed and duplicate records, and reconciling transferred records against the source. The regulatory guide covers these checks.

8Moving from eMaint to Seal.

Start with one asset, and keep eMaint as the maintenance system for the rest.

1. Choose an asset with a recurring fault or a GMP decision that depends on it, such as a pump, a vessel or a release-testing instrument.
2. Bring its maintenance plan, a real work order, the evidence needed to return it to use and the batches or tests it supports. Start with sample material, or arrange an NDA before sharing confidential records.
3. From your procedure, Neil drafts the job-plan and work-order templates, linked measurement records, required fields and review states, and prepares verification cases. Once the scope is agreed and the inputs received, Seal prepares the first working process and its validation pack within 48 hours. Production timing then depends on scope, interfaces, migration and your release requirements.
4. Connect eMaint read-only for the work orders and status the process needs, and agree which system owns asset identity, work orders and current restrictions.
5. Test the complete cycle, including a missing part, a deferred task, an unexpected finding and a failed post-repair check, before extending to the next equipment family.
6. If you later move maintenance itself, reconcile assets, components, open orders, due dates, plans and historical evidence, and preserve identifiers, approved versions and any source gaps.

Retention obligations continue for the records that stay in eMaint. The CMMS blueprint describes maintenance work in Seal in detail.