IWCF and IADC accredited drilling & well control simulators built on a first-principles physics engine. Software-only, browser-deployable, and engineered for the training centers, universities, and mid-market operators of Southeast Asia and the Middle East.
Four simulators, one engine. Pressure, hydraulics, fluid column, and formation response are computed from first principles — not looked up, not scripted. The bottom-hole pressure model is mode-specific: hydrostatic plus surface pressure when static, hydrostatic plus annular friction plus back-pressure when circulating, hydrostatic plus surge when tripping in, hydrostatic minus swab when tripping out. Gas segments expand per the Real Gas Law (PV = ZnRT), so a kick migrating up the annulus behaves the way it does on a real well, not the way a scripted trigger fires.
An IWCF and IADC accredited drilling and well control simulator — delivered as software, built on a first-principles physics engine, and priced for the training centers, universities, and mid-market operators of Southeast Asia and the Middle East.
Physics Engine. Bottom hole pressure, standpipe pressure, casing pressure, hydraulic losses, and formation response are computed from first principles — not lookup tables, not simplified approximations. Because BHP is physically different under different operating regimes, the engine switches models automatically: static shut-in is hydrostatic plus surface pressure; circulating is hydrostatic plus annular friction pressure plus surface back-pressure (for MPD); tripping in is hydrostatic plus surge; tripping out is hydrostatic minus swab. Four API RP 13D 7th Edition rheology models — Newtonian, Bingham Plastic, Power Law, and Herschel-Bulkley — drive dedicated pressure-loss sub-calculators for surface lines, drill string, bit nozzle, annulus, and choke line. Designed by our team of petroleum engineers, the simulator is accredited by both IWCF and IADC for well control training.
Fluid Column. The annulus is modeled as discrete fluid segments — original mud, kill mud, gas, oil, water — each contributing stratified hydrostatic pressure. Gas segments expand per the Real Gas Law (PV = ZnRT), so a migrating kick accelerates near surface the way real gas does, and a swabbed influx during tripping triggers well-control responses from the physics itself — not from a scripted event.
Instructor Station. The instructor station provides complete control over the training exercise: configure rig equipment, well geometry, directional surveys, and formation tables (pressure gradient, drillability, temperature, activity, fluid type, and permeability per layer). During live simulation, the instructor injects any of ten well control failure modes, monitors student decisions, and captures snapshots at key moments for post-exercise review — every decision trace auditable against the kill sheet.
Real-time drilling parameters, rig visualization, control panel with top drive, pumps, and draw works, plus the Swaco well control panel with pressure gauges and choke controls.
BOP stack configuration, mud gas separator, BOP control system, and choke manifold settings.
Well data, reservoir data, fracture pressure, well survey, formation pressure, and well geometry tabs.
Rig general info, hoisting system, circulating system, well control equipment, and rig equipment tabs.
Pressure, hydraulics, and fluid dynamics update continuously via a SubsystemScheduler. BHP is computed regime by regime — static (hydrostatic + surface pressure), circulating (hydrostatic + AFP + SBP), tripping in (hydrostatic + surge), tripping out (hydrostatic − swab) — using published API / IADC reference formulas with verifiable constants.
The four rheology models canonical in the 7th Edition (2023) of API RP 13D: Newtonian, Bingham Plastic, Power Law, and Herschel-Bulkley — the latter API-recommended as primary for hydraulics in complex wells since 2006. Each drives dedicated pressure-loss sub-calculators for surface lines, drill string, bit nozzle, annulus, and choke line.
Discrete fluid segments tracked from surface to TD with stratified hydrostatic calculation. Gas segments expand per the Real Gas Law (PV = ZnRT) — not a Boyle’s Law approximation — so kick migration, gas-at-surface, and second-influx detection emerge from the physics, not from scripted triggers.
Automatic kick detection when hydrostatic < formation pressure. Supports Driller’s Method and Wait & Weight kill procedures. Real-time kill sheet: ICP, FCP, MAASP, kill weight, pressure schedule. Tracks SIDPP, SICP, pit gain, and shut-in states — all verifiable against a hand-calculated kill sheet.
All 10 IWCF-required problem categories: Nozzle Plugged, Nozzle Washout, Choke Plugging, Choke Washout, Choke Leak, Surface Line Leak, Pump Failure, BOP Fails to Close, BOP Leak, BOP Actuator Failure. Configurable severity (0.0–1.0), progressive onset, and three trigger modes.
Integrated CBHP and PMCD modes with PID-based automatic choke controller, pressure-window monitoring (pore/frac window), RCD physics model, connection-sequence automation, back-pressure pump simulation, and flow-balance monitoring — the full MPD workflow in one simulator, no separate license.
Activates automatically when the well is configured as offshore/deepwater. Choke-line friction loss, riser gas expansion tracking, MUX control pod management (Yellow/Blue with failover), depth-adjusted accumulator calculations, LMRP disconnect simulation, and autoshear/deadman emergency systems.
API Field (psi, ft, ppg, bbl, GPM), SI (kPa, m, kg/m³, m³, L/min), and Metric (bar, m, SG, L, L/min) — switch per session across 40+ physical-quantity categories so crews train in the units they use on the rig floor, whether the program prep is IWCF Arabic, IADC Bahasa, or English.
| Configuration | Description | Use Case |
|---|---|---|
| Desktop Trainer | Single PC running instructor and driller screens. Minimum 1280×800 resolution. | Individual study, small-group instruction |
| Dual-Screen Station | Instructor on one display, driller console on a second display or separate computer. | Standard classroom instruction |
| Web-Based Multi-Station | Instructor runs the web server; each student connects via browser. One engine per browser session. | Scalable classroom deployment, 10–20+ simultaneous students |
| Full-Scale Console | Physical BOP panel, choke console, and pump controls connected to the software engine via HardwareManager. | High-fidelity training centers |
An IWCF and IADC accredited well control certification package built on the same first-principles engine that powers the full Drilling Simulator.
Runs the well control module of the Hydra engine: automatic kick detection when hydrostatic drops below formation pressure, Driller’s Method and Wait & Weight kill procedures, and a live kill sheet tracking ICP, FCP, MAASP, kill weight, SIDPP, SICP, and pit gain. Instructors inject any of 10 IWCF-aligned problem categories at configurable severity and trigger timing, then monitor student responses from a dedicated instructor station.
Rigless well intervention trainer with a dedicated physics engine — architecturally separate from the drilling simulator.
A standalone intervention module built around its own parameter manager, state manager, and console. Covers wireline operations with Slickline, Braided Line, and E-Line unit configurations. PCE components (stuffing box, stripper, strip rams) are modelled as continuous seal physics so surface pressure, string weight, and seal behaviour respond dynamically to operations rather than scripted events. Coiled Tubing support is on the module roadmap.
Managed Pressure Drilling training package with PID choke automation and real RCD physics.
Focused Managed Pressure Drilling configuration of the Hydra engine. Simulates Constant Bottom Hole Pressure (CBHP) and Pressurized Mud Cap Drilling (PMCD) modes with a rotating control device model, automatic PID-based choke controller, and back-pressure pump. BHP is calculated as annulus hydrostatic + AFP + casing pressure + surge − swab + surface back pressure, so the pressure window stays visible throughout connections, kicks, and pump starts/stops.
Planned additions to the Hydra platform — all built on the same real-time engine and instructor station.
Scenario-based trainer for stuck pipe recognition, diagnosis, and recovery.
Planned simulator focused on developing crew response to stuck pipe events — one of the most costly non-productive time drivers in drilling operations. Will cover differential sticking, mechanical sticking (pack-off, key seating, undergauge hole), and wellbore instability, with a structured diagnosis workflow and recovery techniques that respond to the well’s real-time physics state.
Digital drilling fluid program management for mud engineers and rig-side mud stations.
Planned operations module for complete mud program oversight — replacing paper mud reports with structured digital entry, property trending, and automatic treatment calculations. Tracks chemical inventory and consumption, supports standard industry report formats, and keeps multi-well history accessible for post-well review.
Paperless DDR with automatic KPI rollups, cost tracking, and depth-time plotting.
Planned operations module to replace paper daily drilling reports with structured crew-side entry, automatic KPI calculation, and enterprise export. Rolls up non-productive time, cost per foot, and depth-vs-time curves across a well, and tracks actual spend against AFE at the activity level. Role-based access separates field engineer, drilling supervisor, and management views.
Schedule a live demonstration with our engineering team. We will walk through the physics engine, instructor station, and deployment configurations relevant to your training program.