Pipeline Operations Console watches every segment on every trunk line in real time — forty of them or four thousand — scores where the next failure is forming, and answers plain-English questions about any of it, in one screen a control room can read on day one.
A pipeline rarely announces a failure. It thins, drifts and creaks for months first — and almost every one of those months leaves a trace in data somebody already owns.
Corrosion thins a wall over a year. A pressure drop hides inside normal variance. A soil-movement note sits in a PDF nobody opened. By the time an alarm trips, the cheap window for fixing it has closed and the expensive one has opened.
The readings that would have caught it earlier are scattered across SCADA histories, inspection spreadsheets, maintenance tickets and regulator submissions — each in its own tool, with its own login. Nobody's job is to sit and correlate them, so nobody does.
So teams do the rational thing: inspect on a fixed calendar, react when something trips, and lose the last week of every month to paperwork. It works, until it doesn't.
Every segment, every reading, every open action — on one screen that keeps updating while you look at it.
Whole network · 5-second refresh
Every segment on every line, drawn to route and coloured by risk — fifty of them or several thousand, the view is the same and so is the load time. Flow, pressure and temperature refresh every five seconds, so the map on the wall is the network as it is now, not as it was at the last shift handover.
Throughput · uptime · load
Throughput, uptime, open alerts and maintenance load in one glance, each with the trend that produced it. Drill from a headline number to the segment behind it in two clicks — no export, no analyst in the middle.
Ranked by consequence
Alerts ranked by what they will cost, not by what tripped first. Each one arrives with the reading that raised it, the segment's inspection history, and the action that resolved it last time.
This isn't a chat window bolted onto a dashboard. The assistant reads the same live network state your operators do, and it shows which segments it read.
Ask in plain English — "which segments should I inspect this week?" — and get an answer built from current readings, with the segments it used listed underneath. No query language, no ticket to the reporting team, no waiting until Thursday.
Every segment carries a failure-risk score built from seven factors: wall-thickness trend, pressure variance, age, soil conditions, inspection history, throughput load, and prior incidents on the same line. Risk moves before the pipe does.
Each segment is judged against its own history, so a reading that's ordinary on a forty-year-old line still flags on a new one. Deviations surface in seconds with the context around them, not as a bare threshold breach at 3am.
Console assistant · simulated
Which segments need attention before the monsoon?
Four. B7 and B8 sit in the soil-movement corridor and have both drifted past 70% risk since the last walk. C3's wall-thickness trend has been falling for three quarters and it carries the highest throughput on that line. A11 is the outlier — low risk, but its PESO safety inspection lapses in eleven days. I'd bundle B7, B8 and C3 into one crew rotation and schedule A11 separately.
Read from
B7B8C3 A11Inspection log Soil survey 2024Simulated — responses are scripted for this showcase.
Three moments from an ordinary working day, running right here in your browser. The data is invented for this showcase; the mechanics are the ones the console ships with.
Simulated network
Fifteen segments sampled from a 1,284-segment demo network — enough to read at this size. Hover or tab to any of them to see what the console sees: risk score, current flow, and the note from its last inspection. The pulsing ones we'd walk today.
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A real question, answered from network state, with its sources attached. Run it as often as you like — the answer is scripted, the shape of it is not.
Simulated — responses are scripted for this showcase.
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Watch a month-end compliance report assemble itself: gather the readings, check them against the framework, write the summary. Four seconds, one button.
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All figures illustrative, from simulated data.
Frameworks differ by country and get rewritten every few years; what they demand underneath — evidence, attached to the right asset, at the time it was generated — does not. The Indian set ships configured. The table is what "built in" means for any of them.
| Framework | What it means for you |
|---|---|
| PNGRB T4S | Pipeline integrity standards. Integrity data is recorded as it is generated, against the segment it came from. The submission becomes a filter over records you already hold, instead of a month of assembly work in a spreadsheet. |
| OISD-STD-195 | Inspection & maintenance. Intervals, findings and follow-up actions live on the segment they belong to. An overdue inspection shows up as an alert on a Tuesday, not as a finding in an audit. |
| PESO | Petroleum & explosives safety. Safety-critical events and their closure trail are timestamped and exportable, so the evidence exists before anyone asks to see it. |
One shutdown you didn't have pays for the year. Operators put a mid-size trunk-line outage at ₹2–3 crore — roughly US$300,000 — a day in deferred throughput, before penalties or remediation. The console's whole job is to move an event like that from "handled well" to "never happened".
Cost range illustrative; your own figures will differ.
The console is separated the way a control-room system should be: a fast operator layer that only ever displays, a governed backend that holds every credential and brokers every model call, and a clear line drawn between them.
Shown as a reference architecture — the separation and the guarantees are the product decision; the components behind each box are chosen per deployment.
The fastest way to judge this is half an hour against a network you already know.