Output recorded on paper
Keyed into Excel in the evening, so numbers reach management a day late.
We connect the plan in your ERP to the machines on the floor and turn production data into numbers management can act on immediately — built from real projects across many plants and industries.
Level 4
ERP / finance / sales
Business planning, monthly to weekly
Level 3
MES — manufacturing execution
Dispatch, track and measure by shift and minute
Level 2
SCADA / HMI
Machine monitoring and control
Level 0–1
PLC · sensors · machines
Real data from the floor
Keyed into Excel in the evening, so numbers reach management a day late.
Downtime goes unrecorded — you see the target missed, not where the time went.
Without one number for real machine effectiveness, bottlenecks are found by gut feel.
A huge spreadsheet that takes hours per cycle — when that person is away, planning stalls.
The same data is re-typed several times, and one mistake ripples through the line.
SCADA licences are expensive and nobody wants to connect the older equipment.
None of this is fixed by hiring more people — you need one system that pulls data from the machines and gives every department the same numbers.
All modules share one database. Roll them out one at a time and extend later, with data flowing to and from ERP / WMS through APIs.
Capacity-based plans
Plans built on machine capacity, with an AI co-pilot that explains the reasoning.
Order-to-production
AI reads POs, explodes the BOM and dispatches jobs to each department.
At the machine
HMI at the machine: choose the lot, start and stop, confirm the job.
Real-time
Output per hour, machine status and downtime by cause.
Defects
Defect logging plus AI vision that inspects parts at line speed.
WMS · AMR
WMS and AMRs feeding the line, with poka-yoke against wrong picks.
Energy monitoring
Meters from several brands and energy cost per unit produced.
Audit trail
Management dashboards, LINE alerts and an audit trail of every action.
Overall Equipment Effectiveness = Availability × Performance × Quality
Run time ÷ planned time
90%
Actual speed ÷ standard speed
95%
Good parts ÷ total parts
98%
OEE for this machine
83.8%
Each factor looks high, yet together they give 83.8% — calculated automatically for every machine and shift.
Examples from several plants — from line-side OEE to production planning with an AI that explains itself.
How it helps: Management sees the whole plant’s performance on one page.
How it works: Data from PLCs and sensors feeds OEE, Availability, Performance and Quality automatically, with a 24-hour trend.
How it helps: Know instantly which machine has stopped or lost connection.
How it works: Green = running, grey = stopped, with a Connection Loss alert when the signal drops. Works on a TV at the line.
How it helps: Shows which machine and which problem to fix first.
How it works: Compares OEE for every machine in one table and ranks the most frequent defect and downtime causes.
How it helps: Packing lines and raw-material silos on one screen.
How it works: OEE per machine coloured by status, plus the fill level of each silo and when it is expected to run out.
How it helps: See machine status on the actual plant layout.
How it works: Each machine is placed on the layout, with the line’s OEE, Availability, Performance and Quality alongside.
How it helps: Shows where the time goes so downtime can be cut where it matters.
How it works: Splits stoppages by cause and ranks the machines that stop most often and longest — daily, weekly, monthly or yearly.
How it helps: Plans days ahead in seconds instead of a giant spreadsheet.
How it works: The engine sequences filling, blending, packing and cleaning for every silo within all the rules — the result must have zero hard violations.
How it helps: Planners don’t have to guess the reasoning — they just ask in Thai.
How it works: The AI reads the collected rules and know-how and answers citing the rules it used. A person makes the final call.
How it helps: Check what a plan is based on before it goes live.
How it works: Summarises batches scheduled, silos in use, rules checked and warnings, with the utilisation of every silo.
Screens from delivered systems. Customer names, product names, document numbers and other confidential data are hidden.
No ripping out machines and no SCADA licences — we pull data from what the plant already has.
Protocols and devices our team has connected on real projects
From a real project: 40+ PLCs and devices across a warehouse and packing lines, plus 7 power-meter models from 4 brands, over plant-wide WiFi.
The AI runs on servers in your plant, learns from your data, and production data never leaves the company.
Reads POs from images or PDFs, explodes the BOM and dispatches jobs by department — no re-keying.
An engine schedules within every rule, then AI explains the reasoning and helps with exceptions.
Checks shape, characters and surface defects on the line in real time.
“Why did line 3 stop yesterday?” — answered with numbers and sources, within the asker’s permissions.
Each row is a project our team has delivered or is delivering (shown by industry, customer names withheld).
| Project | Planning | BOM | Dispatch | OEE | Quality | Intralogistics | Energy | Local AI |
|---|---|---|---|---|---|---|---|---|
| Petrochemical logistics — MES + IIoT | · | · | · | · | ||||
| Petrochemical — AI planning co-pilot (2026) | · | · | · | · | · | · | ||
| Chemicals — OEE on 20+ machines | · | · | · | · | · | · | ||
| Medical devices — order-to-production + WMS | · | · | · | · | ||||
| Medical devices — enterprise knowledge AI (2026) | · | · | · | · | · | · | · | |
| Electronics — MES + AMR | · | · | · | · | · | |||
| Machinery — AMR intralogistics | · | · | · | · | · | · | · | |
| Consumer goods — WMS + AMR | · | · | · | · | · | · | · | |
| Vision — food · medical · agriculture | · | · | · | · | · | · | ||
| Energy · aviation · automotive — monitoring | · | · | · | · | · | · |
Module delivered or being delivered on a real project Uses AI running on the customer’s own servers
Every phase has clear deliverables and acceptance criteria, with plan-versus-actual tracked weekly.
Step 1
Confirm installation points, test signals and machine protocols, and assess safety risks.
Step 2
Design the process, production rules and screens together with the real users.
Step 3
Install gateways, HMIs and sensors; wire PLCs and meters into the MES.
Step 4
Backtest against real historical data before going live.
Step 5
Users test it themselves, with Thai-language manuals for every role.
Step 6
Go live with close support, then roll out to the next line.
Why start with one line
Book a free consultation with our engineering team.