Industry

Uptime for machines and moulds

IMMs, chillers, hopper dryers, MTCs — and moulds that are assets in their own right. Track shot-count style usage, heater/hydraulic failures and mould maintenance in one system.

How Plastics & Injection Moulding plants like yours use AssetAI

Plastics processors run mixed fleets — IMMs from different vintages, chillers and hopper dryers bought as utilities almost as an afterthought, and moulds that quietly become the most expensive assets on the floor once tooling cost and downtime are added up. AssetAI is built to treat each of these correctly instead of forcing them into one generic "machine" record.

Getting the Asset Tree Right from Day One

The biggest mistake plants make when digitising maintenance is registering the mould and the machine as one asset, or not registering the mould at all. Once shot count, servicing history and BOM are mixed together, neither the mould's real life nor the machine's is trustworthy. A cleaner setup:

  • Register every IMM, chiller, hopper dryer and MTC in the Asset Registry with its own commercial, warranty and AMC block.
  • Register each mould as a child asset under its IMM in the EBS asset tree — it keeps its own history and work orders but still rolls up under the parent machine for reporting.
  • Decide upfront which meter (shot count, run hours, or both) drives PM on the mould versus the machine, since usage-based PM rebaselines automatically once triggered.
  • Populate your own failure mode / cause / remedy master list with the terms your toolroom actually uses (short-shot, flash, sink mark, gate wear) — AssetAI doesn't preload a moulding vocabulary, so this list is what makes your Pareto analysis meaningful later, not generic.

Getting this structure right before go-live is far cheaper than restructuring history six months in.

Where This Shows Up on the Shop Floor

For an India-heavy manufacturing base — multi-shift operation, contract operators, machines running well past a single OEM's design life — the practical value shows up less in dashboards and more in what closes a breakdown correctly:

  • An operator scans a QR code on the IMM, logs severity, whether the machine is stopped, failure mode and photos — no login, no app to teach.
  • The work order that follows attaches parts, outside services and labour to a single record, so a heater-band replacement or hydraulic repair is costed against the right machine or the right mould, not lumped into a general spares bucket.
  • If the chiller or compressor is under an AMC, coverage status is auto-stamped the moment a service call is raised against it, so nobody has to check a vendor contract folder mid-breakdown.
  • Every closure forces a failure mode, cause and remedy — the discipline that, over enough cycles, turns into a fleet-wide Pareto of recurring heater or hydraulic failures instead of a folder of unrelated complaints.

None of this depends on pulling data automatically from the IMM controller — readings come in by manual entry, QR scan, WhatsApp or API, which matters on plant floors where PLC integration isn't in budget or isn't offered by the machine OEM. It's a deliberate trade-off: less automation, but a system that goes live on the machines you actually have, not the ones a vendor assumes you have.

Where production logs exist per asset, OEE is computed from them, in line with the standard OEE definition — see our OEE explainer for how availability, performance and quality roll up. Assets without a production log are simply skipped rather than estimated, which keeps the number honest. If you're weighing this against a broader total productive maintenance programme, our use cases page has more on how CMMS fits into that. To see the moulding setup on your own floor, book a 30-minute demo.

Injection moulding plants lose more hours to heater bands, hydraulic leaks and mismanaged mould changes than to any single catastrophic failure — and most of that loss is invisible until someone starts closing work orders with a proper failure mode, cause and remedy every time. AssetAI is built around that discipline rather than around dashboards that look good before they have real data behind them.

What AssetAI Deliberately Doesn't Automate

Plants evaluating a CMMS for a moulding shop often assume shot counts and cavity data will flow in automatically from the IMM controller. That's not how this works, and it's worth knowing before you commit:

  • Meter readings — shot count, run hours, whatever you choose — are entered manually, by QR scan, WhatsApp, or API; there's no native PLC pull from the machine controller.
  • There's no cavity-level or hot-runner-zone tracking. Assets are registered at machine, mould and component granularity through the asset tree, not per cavity.
  • Failure mode, cause and remedy lists start empty. AssetAI doesn't ship with moulding vocabulary like short-shot, flash, or sink mark preloaded — your maintenance team builds that master list from your own failure history.
  • The "predictive" schedule type stores a monitored parameter name and an alarm threshold as fields on the asset. There's no vibration or pressure sensor feed behind it — if you want true condition monitoring, that sits outside the system.
  • Hazardous jobs like mould changes or hydraulic line work get a safety-measures checklist printed on the job sheet, not a full permit-to-work flow with approvals and expiry.

None of this is a gap so much as a boundary: AssetAI gives you the structure and the record-keeping discipline; the domain vocabulary, the sensor layer, and the permit process are things you either already run separately or build up over time inside the system.

Turning Closed Work Orders into a Failure Pareto

The payoff for insisting on failure mode, cause and remedy at every breakdown or corrective maintenance closure is that it eventually becomes usable data, not just paperwork. Once enough closures are logged this way:

  • You can pull a fleet-wide Pareto of failure modes and see, for instance, whether heater-band failures are concentrated on a few older IMMs or spread evenly.
  • Parts and outside-service costs attached to those same work orders let you cost barrel, heater and hydraulic consumption per machine or per mould, rather than lumping everything into a general maintenance spend line.
  • Chiller and compressor AMC coverage is stamped automatically on any service call raised against those assets, so you're not manually checking whether a vendor visit is billable before it happens.

This is the same underlying logic that TPM programs rely on — structured failure data feeding continuous improvement — just applied through work order discipline instead of a separate improvement initiative. If your plant also tracks OEE, keep in mind it's computed from production logs per asset here, and any asset without a log is simply skipped rather than force-fit into a number that doesn't mean anything.

Fitting This Into a Broader Maintenance Program

A moulding shop rarely runs maintenance in isolation from quality and safety systems, and if your plant is working toward ISO certification or referencing ISO standards for equipment management, having AMC, warranty and PM history centrally recorded makes audits considerably less painful. It's worth browsing /use-cases and the full /features list to see how the same asset registry and work order engine apply outside plastics, and checking /pricing or booking time via /contact once you've mapped your own fleet against what's described here.

CMMS for Plastics & Injection Moulding FAQs

How do I track mould maintenance separately from the injection moulding machine itself?

Register the mould as a child asset nested under its parent IMM in the Asset tree; it gets its own independent work-order history, BOM and spare-parts log while staying linked to the machine. This separation lets you track mould-specific service intervals, failure modes and costs without mixing them with machine-level maintenance. When you log a shot count on the parent machine, usage-based PM can fire work orders for the mould at its own meter targets—so a mould servicing interval triggers independently from the IMM's own preventive schedule, and you see exactly which moulds are consuming spares and labour.

Can I automate maintenance schedules based on shot count instead of calendar days?

Yes. Shot count (or any usage metric) is registered as a meter unit on each asset; once you log a reading via manual entry, QR scan, WhatsApp or API, usage-based PM automatically fires a work order when that reading hits the next target threshold and rebaselines for the next interval. For injection moulding, this means a mould-servicing task triggers only after actual production cycles, not on a fixed date, so you maintain only when the asset has genuinely earned the service—eliminating premature teardowns and aligning maintenance to real wear patterns.

What information can operators report when a machine breaks down on the shop floor?

Operators use QR-scan breakdown reporting (no login required) to immediately capture severity level, whether the machine is stopped, the failure mode, a written description and up to 5 photos—ideal for documenting heater-band burns, hydraulic leaks or barrel faults. This record feeds directly into the work-order system, so maintenance teams receive documented failures without delays, and you build a searchable history of fault patterns across your injection moulding fleet without forcing operators to use a computer terminal during downtime.

How do I track spare parts and service costs by machine or by mould?

Attach parts, outside services and labour to a single work order record; the system logs which asset (machine or mould) consumed the spare and associates the cost to that asset. Over time, you see barrel-heater-hydraulic spare consumption patterns per machine or per mould, making it clear which assets are burning through inventory and where to focus reliability efforts. This glossary entry on CMMS explains how integrated spare tracking reduces guesswork in budgeting and procurement.

Should I keep my chiller and compressor on time-based or usage-based maintenance?

Chillers and compressors typically run on time-based PM schedules with stored checklists rendered into each work order, since they operate continuously and their wear is calendar-driven rather than tied to production shot count. Usage-based PM works best for injection moulding machines and moulds where wear correlates to cycles; time-based schedules suit utilities and support equipment. AssetAI supports both, so you can run usage-based PM for your IMMs and time-based PM for your chiller and compressor infrastructure in the same system, aligning each asset to how it actually degrades.

How do I confirm vendor AMC coverage when I raise a service call for a chiller or compressor?

Record the AMC per asset—e.g. chiller or compressor vendor contracts—and the system auto-stamps coverage status on any service call raised against it, showing instantly whether the call is in-warranty or out-of-pocket. This prevents billing disputes and lets you route calls correctly: in-warranty calls go to the vendor, out-of-coverage calls stay internal or trigger a new procurement decision. Combined with preventive maintenance scheduling, you know exactly which assets are protected and can plan spare-parts stock and budget around coverage gaps.

How do I handle maintenance for multiple cavities in a single mould when one cavity fails?

Log the cavity failure separately from the mould's preventive schedule. AssetAI lets you record which cavity failed, link repair costs to that specific cavity, and track performance degradation over time. This prevents replacing entire moulds prematurely and helps identify design weaknesses. See work order management for detailed reporting options.

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