Pulse · extending field life
Pulse continuously tracks well parameters — pressure decline, changes in differential pressure across the choke — and sends an alert on a deviation or on a forecast critical pressure drop, at any hour. The decision is made while it can still change the outcome: unplanned shut-ins and failures are prevented, the well stays at its optimal flowing conditions and produces longer. When the data arrives late, the decision is late too — the well loads up with liquid, loses rate and eventually dies, and keeping it running costs more.
Infrastructure layer — 12 Access and reliability: permissions, audit log, backup
◆How it works
Three sensors at each location measure wellhead, flowline and annulus pressure. The signal travels over the air to a cloud server; field operators send events from their phones to the same place — treatments, blowdowns, voice notes — and get feedback: confirmations, alerts, instructions. The server processes the stream continuously — formulas, algorithms, forecast — and what reaches people is not numbers but decisions: who drives out, what to treat, what to sign.
01Data acquisition
Every well carries three self-powered LoRa pressure sensors: wellhead, flowline and annulus. Data flows into the database around the clock with no operator involvement.
Sensors are mapped to a well and a role in the registry: wellhead / flowline / annulus. The reassignment history is kept — replacing a sensor does not break the series.
02Signal conditioning
Raw readings are never overwritten. Every calculation is built on four layers: raw signal → automatic cleanup → manual operator corrections → smoothing.
The raw layer is never overwritten: raw mode returns the data as it came, and the raw series can be overlaid on the processed one. Thresholds are configurable: gap filling up to 10 minutes, a line break when the gap exceeds 120 minutes.
03Visualization
The well page is the engineer's workspace: synchronized charts of pressure, differential and gas rate, events on a timeline, statuses and equipment.
04Events · Sync · Telegram bot
The field operator sends an event to the Telegram bot — a treatment, a blowdown, a measurement — and it immediately becomes part of the whole picture: it lands on the charts, in the analytics and in the reports.
◆Voice events · Speech recognition
Gloved hands, freezing cold, wind — typing on the pad is awkward. The field operator simply speaks the message: the recording is transcribed by the Whisper engine, turned into text, and the text becomes a structured event in the database.
05Alerts · Trends · Routes
The well reports on itself. Acceptable ranges and notification recipients are set for every parameter — when a limit is crossed, the right people get an alert in Telegram within minutes, not at the next route visit.
The route can be built two ways — the system does both. «By event priority»: a failure (P1) and a shut-in (P2) always jump the queue, then blowdowns (P3) and treatments (P4). «By shortest path»: pure mileage optimization — the crew picks up the nearest points; the cost of that choice is immediately visible on the map — a distant shut-in well waits longer and has time to escalate into a failure. Switch the mode while the run is under way — the route is rebuilt instantly from the crew's current position.
A failure here is not a separate event but the state that follows a shut-in the crew did not reach in time: in the simulation well 130 shuts in during the run, and if the crew does not make it, the shut-in escalates into a failure before your eyes. Any significant event during the run — a new shut-in, a blowdown request — recalculates the live route; serviced points turn green.
06Mobile app
The mobile app syncs with the shared database and the event log: the field operator on location and the manager in the office see the same numbers — minutes apart, not a day apart.
The app opens right inside Telegram — no installation needed. Dashboard, events, charts, alerts and reports — the same data as the web version, under one account. Pressures are shown in kgf/cm² (atm in the app).
07Rate calculation
Gas rate is calculated from the differential pressure across the choke for each well, with what-if scenario analysis and a full log of engineering corrections.
r = Pfl / Ptbg — the pressure ratio selects the branch. Under critical flow Ptbg·(1−r) = ΔP, so the rate is directly proportional to the differential.
08Chemical performance analytics
The system splits the well history into treatment intervals — from one treatment to the next treatment or blowdown — and scores each interval against seven metrics, combining them into a single score from 0 to 100.
Smoothed differential ΔP · the rise → plateau → decline segments are detected automatically
Each metric is normalized to 0-100 and enters the Score with its own weight
Every treatment-interval card reveals how the Score was calculated — metric by metric.
Top formulation for well 214 · by average Score
09Reporting
A step-by-step wizard walks the engineer through the chapters: customer data, observation stage, adaptation, period reports. Any analytical block — chart, table, conclusion — is attached to a chapter in one click.
10Economics
Production economics in real time. Pulse brings production and financial indicators together and shows the real performance of the project — from overall payback down to the result of each individual well.
Data is updated as production information arrives — decisions rest on today's numbers, not on last month's report.
1Project economicsIncremental production, revenue, costs, profit and payback
Cumulative incremental production across all wells, Mm³
2Field performanceWells ranked by contribution to the bottom line
effective: 23 need review: 3 total in project: 26 field payback: × 4.38
| Well | Baseline, Mm³/d | Gain | Incremental production, Mm³ | Share of total | Payback | Revenue |
|---|---|---|---|---|---|---|
| Best payback — the top five by contribution | ||||||
| № 7 | 8.10 | +142.3 % | 1 604.2 | × 6.21 | $ 197 340 | |
| № 30 | 9.66 | +106.7 % | 1 299.1 | × 4.13 | $ 134 834 | |
| № 21 | 11.40 | +88.4 % | 1 186.5 | × 5.02 | $ 123 156 | |
| № 102 | 6.95 | +121.0 % | 1 044.8 | × 4.86 | $ 108 430 | |
| № 44 | 14.20 | +64.1 % | 968.3 | × 3.74 | $ 100 495 | |
| 18 more wells with a positive effect | — | — | 11 876.7 | 66.1 % | × 4.29 | $ 1 232 604 |
| 3Problem wells — the effect is below the cost, the regime needs review | ||||||
| № 91 | 12.80 | +2.1 % | 41.2 | × 0.71 | $ 4 276 | |
| № 13 | 17.24 | −16.3 % | 23.7 | × 0.42 | $ 2 459 | |
| № 58 | 21.10 | −8.7 % | −64.5 | — | — | |
The colour-highlighted rows are expanded below — the same breakdown opens for any well on the list: stages, daily production against baseline, cumulative volume and month-by-month economics.
4Detailed well economicsFull breakdown of indicators, costs and result for the selected well
5Effect over timeHow production, costs and profit changed after the interventions
Daily production and baseline, Mm³
Cumulative incremental production, Mm³
By month — rate 12,850 as of 2026-08-11
| Month | Days | Incremental production, Mm³ | Revenue, $ | Revenue, UZS | Adaptation, UZS | Optimization, UZS | Treatment, UZS | Total costs, UZS | Profit, $ |
|---|---|---|---|---|---|---|---|---|---|
| 2026-04 | 24 | 226.80 | 23 540 | 302 483 474 | 185 000 000 | 21 093 333 | 13 590 270 | 219 683 603 | 6 444 |
| 2026-05 | 31 | 429.55 | 44 583 | 572 891 422 | — | 45 200 000 | 28 586 430 | 73 786 430 | 38 841 |
| 2026-06 | 30 | 184.47 | 19 146 | 246 027 899 | — | 45 200 000 | 7 498 080 | 52 698 080 | 15 045 |
| 2026-07 | 31 | 325.31 | 33 764 | 433 866 372 | — | 45 200 000 | 28 427 760 | 73 627 760 | 28 034 |
| 2026-08 | 10 | 132.97 | 13 801 | 177 342 336 | — | — | no report | — | 13 801 |
| Total | 126 | 1 299.10 | 134 834 | 1 732 611 619 | 185 000 000 | 156 693 334 | 78 102 540 | 419 795 874 | 102 165 |
Incremental production, revenue, costs, profit, payback and unit indicators.
Management sees at once whether the project delivers an economic effect.Baseline production, gain, incremental production and the contribution of each well.
You can see which wells drive the result and which ones drag the project down.Daily and incremental production, number of operations, costs and profit for one specific well.
You can evaluate the result of a specific workover, a regime change or any other intervention.11Chemical inventory
Receipts, consumption by treatment events and remaining stock are reconciled automatically. The system forecasts when each chemical runs out and builds a purchasing plan.
The system calculates average daily consumption and forecasts the optimal order date, allowing for delivery time.
Top-up to the 60-day horizon · order = consumption × 60 − stock on hand
| Chemical | Stock | Consumption/d | Lasts | Order by | Order |
|---|---|---|---|---|---|
| UniFoam-HC-80 | 90 | 4,5 | 20 d | 30.07 | 180 |
| UniFoam-200 | 175 | 7,0 | 25 d | 04.08 | 245 |
| UniFoam-30 | 240 | 6,0 | 40 d | 19.08 | 120 |
| UniFoam-HT-260 | 520 | 5,2 | 100 d | 18.10 | — |
| UniFoam-L40 | 610 | 3,8 | 160 d | 17.12 | — |
UniFoam-30 consumption by well for the month
12Access and reliability
◆Summary