A pump has stopped, but the maintenance team cannot tell which components were replaced or which parts fit this version. Before deciding on repair, it needs a reliable asset history. A digital record connects identity, configuration, inspections and maintenance. Here is how to define the records needed for a transfer between sites and who must confirm the actual condition.
The operational cost of missing history
Consider an illustrative scenario: a high-capacity centrifugal pump in a chemical plant vibrates excessively. The lead engineer checks the enterprise resource planning (ERP) system. However, the ERP only lists the purchase date and a generic model number. No record indicates whether internal bearings were replaced during the last outage. Without granular service history, assessing the remaining safe service life becomes difficult. The financial impact of this missing data is immediate: capital is spent on new assets while existing, repairable equipment is written off prematurely.
To minimize unplanned downtime, the director might approve a replacement pump. The old unit is scrapped, even though a targeted bearing replacement could potentially extend its operational life. This illustrates a fundamental barrier: materials cannot be kept in circulation through maintenance or reuse if the data required to execute those processes is missing. Moving away from a linear consumption model requires capturing the operational events that define an asset's physical state. Relying solely on static financial ledgers obscures the true condition of the equipment, forcing conservative, high-cost replacement decisions.
Sources: [1]
Structuring visibility events for physical assets
To make an informed repair decision, the asset owner needs a structured log of what has happened to the equipment. This requires moving to an event-driven information model. Industrial traceability frameworks, such as the EPCIS standard, define these visibility events through specific dimensions. The 'What' identifies the specific object, the 'When' timestamps the intervention, the 'Where' logs the physical location, the 'Why' explains the business context, and the 'How' captures sensor data or condition changes.
Every maintenance intervention or location transfer generates a distinct digital record tied to the asset's unique identifier. If a technician replaces a degraded component, or if a sensor detects a temperature anomaly, this data is appended to the history. The digital record should capture the non-transient business state, or persistent disposition, of the item. This disposition flags whether the asset is active, requiring inspection, or awaiting refurbishment. This event history provides the technical data an engineering team needs to determine if a broken machine is a viable candidate for repair.
Sources: [3]
Defining handover criteria for internal reuse
Equipment taken out of service at one site may be useful to another department. A transfer can be delayed when the receiving team lacks condition data or disagrees with the assessment. To resolve that difference, define the documents required, the inspection needed and the acceptance owner. Record known defects, completeness and use restrictions before approving transport.
The digital record acts as the record of handover between departments. It should detail the current operational status, list missing sub-components, and provide the maintenance log. Standardizing these data requirements forces a documented evaluation of the asset's condition prior to decommissioning. If the record shows a history of chronic failures, the receiving site can reject the transfer, preventing the relocation of a defective asset. The following table illustrates the trade-off between a static inventory approach and a dynamic reuse record, highlighting how specific data fields change the receiving department's ability to act.
| Data category | Static inventory approach | Dynamic reuse record |
|---|---|---|
| Identification | Generic SKU and purchase date | Unique serialized ID with linked component hierarchy |
| Condition tracking | Binary status (Active/Broken) | Persistent disposition (e.g., Awaiting Refurbishment) |
| Service history | Last maintenance date | Log of replaced parts and diagnostic events |
| Transfer records | Financial write-off receipt | Cryptographically signed handover protocol |
Configuring the registry on a low-code platform
Check whether the existing accounting system supports the events, asset relationships and record-correction procedure you need. If capabilities are missing, compare extending the current solution with a separate register on a low-code platform. Include integration, support and history migration costs in the assessment; a new platform is not a prerequisite for organising the data.
If operations teams utilize a low-code platform like Scriptum, they can build digital registries linking unique asset identifiers to service histories. A properly configured registry and workflow provide the architecture to integrate this data with enterprise systems. When a technician finishes a repair, updating the status via a digital form triggers a notification to the director about equipment availability. To confirm system functionality, test the data transfer process between the digital form and the enterprise database during peak operational loads. Using configured workflows accelerates management notifications, but it involves a trade-off requiring continuous maintenance of integration gateways to keep records synchronized. If the facility transitions to fully automated production lines, the decision to use manual status entry changes in favor of direct sensor readings.
Sources: [2]
Distinguishing internal records from statutory passports
This internal digital asset record is a practical operational tool, not an automatic compliance mechanism for statutory Digital Product Passports (DPP). External regulations involve complex multi-party data sharing agreements, public registries, and specific cryptographic interoperability standards.
An operations director does not need to wait for external mandates to act internally. Building an internal digital registry reduces capital procurement costs by maximizing the functional utility of existing equipment. It establishes the internal data governance required to track asset conditions accurately. By focusing on operational utility first, the organization builds the necessary digital infrastructure at its own pace. If statutory DPP requirements eventually apply to the organization's products, foundational data structures—unique identifiers, event logs, and persistent condition states—will already be integrated into daily maintenance routines. This proactive approach prepares the organization for future regulatory compliance through data mapping rather than a complete operational overhaul.
Action checklist
- Audit the existing maintenance database to identify which service events are currently missing from asset histories.
- Define the mandatory data fields required before any equipment can be transferred between internal sites.
- Evaluate low-code platforms to configure a custom asset registry that supports event-driven updates.
- Establish a formal handover protocol requiring the receiving department to verify the digital record against the physical asset.
Questions and answers
Does implementing a digital asset record guarantee compliance with European Digital Product Passport regulations?
No. An internal asset record optimizes your own maintenance and reuse decisions. Statutory passports require adherence to specific external data-sharing standards and public registries, which involve different technical and legal frameworks.
How do we handle legacy equipment that has no prior service history?
Establish a baseline condition assessment for legacy assets during their next scheduled downtime. Assign a unique identifier and start logging subsequent maintenance events from that point forward, rather than attempting to reconstruct past data.