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Run your plant on live shop floor data

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We connect machines, operators and ERP so production, quality and maintenance decisions use real numbers instead of end-of-shift paper reports.

Parts list

  1. Machine connectivity and OEE
  2. Digital job cards
  3. ERP and MES integration
  4. Digital quality management
  5. Batch traceability
  6. Predictive maintenance
Project
Manufacturing
Discipline
Digital transformation
Drawn by
Nexzem engineering
Scale
Not to scale

The gap between the machine and the ERP

In most plants the ERP knows what was planned and what was invoiced, but almost nothing about what happened in between. Job cards are paper, downtime reasons are written on a whiteboard, quality inspections sit in registers, and the planning team rebuilds the schedule in Excel every morning. PLCs and CNC controllers hold valuable data that nobody reads.

Customers and regulators now ask for evidence. Auto and electronics OEMs want batch genealogy and PPAP records, BIS quality control orders cover more product categories, listed companies report under BRSR, and exporters of steel, aluminium and cement to Europe need embedded emissions data for CBAM. GST e-invoices and e-way bills must match what actually left the dock.

Nexzem starts at one line or one cell. We fit IIoT gateways that read machine signals over OPC UA or Modbus, give operators a simple tablet app for reasons and counts, and feed both into a production data layer integrated with your ERP. Once OEE is visible and trusted, we extend to quality, maintenance and energy.

Manufacturing, drawn as a phased roadmap

Workstreams down, phases across. An illustrative sequence; your roadmap is set after the first audit.

Ph 1

Ph 2

Ph 3

Ph 4

Ph 5

  1. Machine connectivity and OEE
    Phases 1 to 2
  2. Digital job cards
    Phases 1 to 2
  3. ERP and MES integration
    Phases 2 to 2
  4. Digital quality management
    Phases 2 to 3
  5. Batch traceability
    Phases 3 to 4
  6. Predictive maintenance
    Phases 3 to 3
  7. Vision-based inspection
    Phases 4 to 5
  8. Energy and emissions tracking
    Phases 5 to 5
  1. Ph 1

    Gemba walk and data survey

    We walk the floor, list every machine controller and paper record, and identify the biggest losses.

  2. Ph 2

    Pilot line connectivity

    One line or cell is connected and operators start using digital job cards within weeks.

  3. Ph 3

    ERP integration

    Work orders, material issues and production confirmations sync between floor and ERP.

  4. Ph 4

    Plant-wide rollout

    Remaining lines are connected, and quality and maintenance modules are added on the same data layer.

  5. Ph 5

    Advanced analytics

    Predictive maintenance, vision inspection and energy models are trained on the data now being collected.

Manufacturing transformation initiatives

Connect machines, shop floor and ERP so plants run on live production, quality and energy data instead of paper.

  1. 01

    Machine connectivity and OEE

    IIoT gateways collecting cycle counts, run status and alarms from PLCs and CNCs over OPC UA, Modbus or MQTT, feeding live OEE dashboards per line and shift.

  2. 02

    Digital job cards

    Operator tablet apps for job start, stop, downtime reasons and rejection counts, replacing paper job cards and giving supervisors real-time order status.

  3. 03

    ERP and MES integration

    Two-way integration between shop floor systems and SAP, Oracle, Microsoft Dynamics or Tally, so work orders flow down and actual consumption flows back.

  4. 04

    Digital quality management

    In-process and final inspection checklists on tablets, SPC charts, non-conformance workflows and CAPA tracking with photos attached to each record.

  5. 05

    Batch traceability

    Genealogy from raw material lot to finished goods serial, so a customer complaint can be traced to the shift, machine and supplier lot in minutes.

  6. 06

    Predictive maintenance

    Vibration, temperature and current data analysed against failure history to flag bearings, spindles and motors likely to fail before the next planned stop.

  7. 07

    Vision-based inspection

    Camera stations with trained models that detect surface defects, missing components or label errors at line speed, logging every rejected image for review.

  8. 08

    Energy and emissions tracking

    Sub-metering and data models that allocate energy to products and batches, supporting BRSR disclosures and CBAM embedded emissions calculations for exporters.

Why choose Nexzem for manufacturing transformation

  • R-01

    Downtime made visible

    Live reasons and durations show where capacity is lost, so improvement work targets the real losses.

  • R-02

    Faster complaint resolution

    Traceability links any defective unit to its process history and supplier lots without manual digging.

  • R-03

    Fewer surprise breakdowns

    Condition-based alerts let maintenance plan interventions instead of reacting to failures mid-shift.

  • R-04

    Audit-ready records

    Quality, calibration and emissions data are captured digitally and ready for customer or regulatory audits.

  • R-05

    Plans that match reality

    Planners see actual output and WIP, so schedules reflect what the floor can deliver.

How manufacturing transformation unfolds, phase by phase

Sheet P-01, delivery sequence

Clear stages with a review at the end of each, so you always know what happens next and what it costs.

  1. S1

    Gemba walk and data survey

    We walk the floor, list every machine controller and paper record, and identify the biggest losses.

  2. S2

    Pilot line connectivity

    One line or cell is connected and operators start using digital job cards within weeks.

  3. S3

    ERP integration

    Work orders, material issues and production confirmations sync between floor and ERP.

  4. S4

    Plant-wide rollout

    Remaining lines are connected, and quality and maintenance modules are added on the same data layer.

  5. S5

    Advanced analytics

    Predictive maintenance, vision inspection and energy models are trained on the data now being collected.

Manufacturing transformation in practice

  • Detail A

    OEE visibility on a pilot line

    An auto component plant connects machines on one line, captures downtime reasons on operator tablets and shows supervisors live OEE, revealing that changeovers, not breakdowns, caused most lost time on that line.

  • Detail B

    Digital batch traceability

    A food or pharmaceutical manufacturer links every batch to raw material lots, machines, operators and quality checks, so it can trace and isolate affected products within minutes when a customer complaint or audit arrives.

  • Detail C

    Predictive maintenance for critical assets

    A plant fits vibration and temperature sensors to critical motors and pumps, detects early signs of wear and schedules repairs during planned stops, reducing unplanned breakdowns that previously halted whole production lines.

  • Detail D

    Energy tracking per product line

    A manufacturer measures electricity use by machine and line, identifies equipment running idle between shifts and reports energy per unit produced, supporting cost reduction and the emissions reporting that large customers increasingly request.

Digital Transformation for Manufacturing, in depth

Sheet N-01, general notes

N1

Where legacy systems hold manufacturers back

Many plants run a capable ERP for finance and purchasing while the shop floor still runs on paper job cards, whiteboards and end-of-shift spreadsheets. By the time managers see yesterday's output, downtime reasons and rejection rates, the chance to fix today's shift has passed. Quality records sit in binders, making traceability during a customer complaint or audit slow and stressful.

Machines from different decades rarely share data, and older equipment may have no digital interface at all. Maintenance is reactive, so breakdowns interrupt production unexpectedly, and energy use is invisible at the machine level. Our manufacturing industry page describes the systems plants usually connect first, and our guide to Industrial IoT explains how older machines can be retrofitted.

The good news is that plants do not need to replace their ERP or machines to improve. Most value comes from connecting what already exists and making data visible while it can still change decisions. Starting small also keeps investment proportional to proven results.

  • N1.aPaper job cards and manual production reports.
  • N1.bDowntime reasons recorded late or not at all.
  • N1.cQuality records that are hard to search or trace.
  • N1.dReactive maintenance and surprise breakdowns.
  • N1.eLittle visibility of energy use per machine.
  • N1.fERP and shop floor data that never match.
N2

A phased manufacturing transformation roadmap

Start with a pilot line: connect machines, capture downtime reasons digitally and give supervisors a live view of OEE during the shift. Once that works, digital job cards, quality checks and traceability extend the gains, and integration with the ERP keeps planning and execution in sync without double entry.

Later phases add predictive maintenance, vision-based inspection and energy and emissions tracking, which need reliable data foundations to work. Standards such as ISO 9001, IATF 16949 for automotive suppliers and FDA 21 CFR Part 11 for regulated manufacturers shape how records and signatures are handled; this is general information, not legal or certification advice. Our IoT development services support the machine connectivity work that underpins every phase.

  • N2.aPhase 1: machine connectivity and OEE on a pilot line.
  • N2.bPhase 2: digital job cards and downtime capture plant-wide.
  • N2.cPhase 3: digital quality checks and batch traceability.
  • N2.dPhase 4: ERP and MES integration.
  • N2.ePhase 5: predictive maintenance and vision inspection.
  • N2.fOngoing: operator training and continuous improvement routines.
N3

Measuring manufacturing transformation progress

Manufacturing transformation should show up in output, quality and cost per unit. Overall equipment effectiveness and its components, unplanned downtime hours, first-pass yield, scrap rates, maintenance costs and energy per unit produced are the core indicators, measured per line and shift.

Establish baselines on the pilot line before changes, compare against similar lines that have not yet been transformed, and review results in daily and weekly production meetings. When supervisors use the numbers to make decisions, the transformation becomes part of how the plant runs.

  • N3.aOEE by line and shift.
  • N3.bUnplanned downtime hours.
  • N3.cFirst-pass yield and scrap rate.
  • N3.dMean time between failures for critical machines.
  • N3.eEnergy consumption per unit produced.
  • N3.fTime to trace a batch during complaints or audits.

Technology for manufacturing transformation

Proven, well-supported tools chosen for your scale, budget and team, never for novelty.

  • Python
  • Node.js
  • React
  • PostgreSQL
  • Kafka
  • Grafana
  • OpenCV
  • TensorFlow
  • Docker
  • Azure

Manufacturing transformation FAQs

Something else on your mind? Ask a consultant and get a reply within one business day.

Our machines are old. Can they still be connected?

Usually yes. Newer controllers expose OPC UA or Modbus. Older machines can be retrofitted with current sensors or I/O modules that capture run status and counts without touching the machine logic.

Do you implement ERP as well?

We focus on integrating shop floor systems with the ERP you already use and on building custom modules where packaged ERPs fall short. If an ERP change is needed, we help define requirements and integrate with the chosen platform.

What drives the cost of a smart factory project?

Main drivers are the number of machines and their controller types, sensors or retrofit hardware needed, ERP integration complexity, and the modules in scope such as quality or maintenance. A phased fixed quote follows a free consultation and site survey.

How soon will we see results?

A pilot line with OEE dashboards and digital job cards is typically live in 8-12 weeks. Plant-wide coverage and analytics follow over the next few quarters.

Is shop floor data kept secure?

We separate OT and IT networks, use outbound-only gateway connections, encrypt data in transit and apply role-based access. Machine control logic is never modified by our data collection.

Where should a factory start its digital transformation?

Start with one production line that matters, where downtime or quality problems are costly. Connecting machines and capturing downtime digitally there shows results within weeks, builds confidence among supervisors and provides a template for rolling out across the plant.

How do you get operators to use new digital tools?

We design screens with operators, keep data entry minimal, use barcode scanning and large touch targets, and show operators how their input improves their own shift. Supervisors using the data in daily meetings is what turns digital tools into habits.

We work with clients across the USA, UK, Australia, UAE, New Zealand and India.

Where we work

Start with a clear roadmap.

Share where your systems and processes stand today. We reply within one business day with a suggested first phase.