Controllers supervise the system, priorities and exceptions. They are not continuously steering every vehicle.
Industry intelligence · Remote operations & control systems
Perth sees the whole mine.
Inside the control centre, Pilbara trucks, drills, process plants, trains, stockyards, ports and energy systems become one connected operating picture. The real intelligence is in how those systems sense, decide, communicate and hand control back to people.
Video, sensors and controls allow an operator to work away from the immediate hazard.
The operating idea
Distance is only half the story. Integration is the real advantage.
Moving a controller to Perth can reduce exposure to remote travel and place different disciplines in the same room. The bigger change is that mine, plant, rail, port, maintenance, product-quality and planning information can be considered together.
A delayed crusher, unavailable train path or stockyard constraint can change the best decision in the pit. Integrated operations tries to make that dependency visible early enough for people and systems to respond.
The intelligence is not one screen or one algorithm. It is the quality of the data, control logic, communications and human decisions across the full pit-to-port system.
Conceptual control stack
What sits between a Pilbara machine and a Perth console.
This is a general learning model based on recognised industrial-control layers. It is not any operator’s network diagram, configuration or control philosophy.
- 01
Sense the physical world
Position, pressure, flow, vibration, temperature, cameras, radar, lidar, machine state and electrical protection.
What the intelligence doesTurns equipment and process conditions into signals the control system can interpret.
- 02
Control locally
Onboard machine controllers, PLCs, DCS controllers, protection systems, interlocks and safety functions.
What the intelligence doesExecutes time-critical control close to the asset. A Perth screen does not replace local machine logic or approved safety controls.
- 03
Supervise the operation
HMI and SCADA displays, alarm systems, fleet management, autonomous-haulage supervision and train-control interfaces.
What the intelligence doesGives controllers visibility, priorities, permissions, alarms and the ability to manage exceptions or approved commands.
- 04
Coordinate pit to port
Production schedules, mine plans, ore-quality models, rail and port plans, maintenance constraints and energy information.
What the intelligence doesConnects decisions across the value chain so one area is not optimised at the expense of the next bottleneck.
- 05
Learn and improve
Process historians, event logs, condition monitoring, digital twins, data platforms, optimisation and carefully governed AI.
What the intelligence doesFinds patterns, predicts emerging problems and supports decisions. People still validate context, risk and the action taken.
Fibre, radio and other private operational networks carry machine state, video, alarms and commands. GNSS and time synchronisation support position and event accuracy. Redundancy, access control, monitoring and degraded-operation planning matter because availability and integrity are operational issues, not simply IT issues.
Major Pilbara examples
Four operators. Four connected operating systems.
These summaries reflect what each company makes public. Exact control platforms, asset coverage and responsibilities vary and change over time.
Integrated Remote Operations Centre — Perth
BHP says its IROC operates most WAIO logistics and processes, connecting four processing hubs and five mining hubs with more than 1,000 kilometres of rail and Pilbara port facilities. Its public description includes machinery, trains, trucks and drill rigs, with shiploader automation work also reported.
Whole-system coordination across mine, processing, rail and portOperations Centre — Perth
Rio Tinto says autonomous trucks, trains, plants and drills across its Pilbara mines, ports and rail systems can be operated from one Perth location about 1,500 kilometres away. Public examples include AutoHaul, autonomous haulage, remote drill consoles and digitally enabled Gudai-Darri.
Autonomous mobile fleets, rail and process operations on one networkThe Hive — Perth
Fortescue describes the Hive as a 24/7 integrated operations centre coordinating autonomous haul trucks, ore processing plants, rail, port, scheduling and energy systems. It also links operational AI, remote monitoring and battery-intelligence systems into the operating picture.
Real-time coordination plus energy, battery and AI intelligenceIntegrated Remote Operations Centre — Perth Airport
Hancock recruitment material identifies Perth IROC roles across mine, rail and autonomous-haulage control, supported by IT, data, analytics, automation, AI, planning and engineering. Roy Hill’s LinkOA deployment is a major Australian example of open, mixed-fleet autonomous haulage.
Mine, rail and open-autonomy control supported by digital teamsImportant distinction: “Operated from Perth” can describe several different arrangements. A process controller may issue commands through an HMI; a remote-equipment operator may directly control a machine; an autonomous truck may execute its own route while a controller supervises many vehicles. Read the role and system description rather than assuming every asset is remotely driven in the same way.
Beyond the driverless truck
The systems and machines connected to central operations.
Public sources do not disclose every site’s exact product version or architecture. These are the principal technology families and their operating purpose.
Onboard navigation and machine control complete assigned haul cycles inside controlled operating zones. Fleet and AHS controllers supervise status, priorities and exceptions.
GNSS and maps · onboard perception · drive-by-wire · AHS/FMS · wireless communications
A controller can plan and supervise multiple drills, while onboard control handles repeatable parts of the drilling cycle and site teams manage patterns, consumables and ground conditions.
Drill automation · remote consoles · pattern data · survey control · equipment health
Train planning, signalling, onboard automation, cameras, communications and network control move ore between mines and ports under central supervision.
Train control · movement authorities · signalling · onboard systems · network planning
Crushers, screens, pumps, conveyors and process circuits are controlled by local automation and supervised through control-room interfaces. Operators respond to alarms, constraints and product-quality information.
PLCs · DCS · SCADA/HMI · instruments · drives · historians · advanced process control
Conveyor routing, stockpile management, car dumpers, stackers, reclaimers and shiploaders can combine remote commands with local machine automation, positioning and protection systems.
Machine PLCs · anti-collision and positioning · route control · stockpile models · berth and vessel plans
Selected dozers, loaders, rock-breakers, inspection devices or other machines may be directly tele-operated from a console, keeping the operator away from a hazardous area.
Video and sensor feeds · low-latency controls · machine state · communications · local safeguards
Microgrids, generation, storage, charging and battery systems add a new control layer as mines introduce renewable power and electric equipment.
Energy management · battery management · charging control · power quality · forecasting
Sensor histories, maintenance events and production context are combined to detect abnormal behaviour, prioritise work and improve availability.
Historians · condition monitoring · digital twins · computer vision · analytics and governed AI
Roles around the intelligence
The control centre creates work in Perth—and depends on capability in the Pilbara.
Titles and reporting lines vary. Many centres run continuously, so controller and support roles may involve rostered day and night shifts.
Operate and coordinate
Mine controller · AHS controller · drill controller · process controller · train or network controller · port and stockyard controller · integrated operations coordinatorMonitor system state, manage priorities and alarms, coordinate field teams, complete disciplined handovers and respond to abnormal conditions.
Control and automate
Control systems engineer · automation engineer · PLC/SCADA specialist · functional safety engineer · systems integrator · commissioning engineerDesign, configure, test and govern control logic, interfaces, alarms, changes and the interaction between connected systems.
Connect and protect
OT network engineer · communications technician · radio specialist · OT cyber-security analyst · infrastructure engineerKeep operational communications and computing available, support secure connectivity and diagnose faults across field and control-centre infrastructure.
Maintain the physical system
Autonomy technician · E&I technician · electrician · instrumentation technician · heavy mobile maintainer · rail signalling maintainerMaintain the machines, sensors, controllers, instruments, harnesses, communications devices and protection systems underneath the digital layer.
Plan and model
Mine planner · scheduler · surveyor · geospatial analyst · process engineer · production engineer · rail and port plannerCreate the plans, routes, spatial boundaries, schedules, product models and constraints used by automated and remotely supervised systems.
Turn data into decisions
Data engineer · data scientist · reliability engineer · condition-monitoring specialist · software developer · AI engineer · digital-twin specialistStructure operational data, identify useful patterns, build decision support and verify that models remain relevant to real operating conditions.
Assure the operating model
Trainer and assessor · human-factors specialist · safety and risk professional · change manager · systems assurance specialistBuild competence, manage change, test readiness and make sure people, procedures and technology work together under normal and degraded conditions.
Lead the integrated system
Control-room supervisor · superintendent integrated operations · operations manager · technology product owner · principal engineerSet priorities across teams, balance production and risk, own system performance and provide clear authority during complex events.
Getting into the work
Keep the operational context. Add the systems capability.
There is no single “remote operations ticket”. Entry requirements depend on whether the job is operations, trade, engineering, technology, planning or assurance.
Operations pathway
Build strong site knowledge in mobile plant, processing, rail or port; move into dispatch or site control; then develop multi-area coordination and control-room capability.
Trade pathway
Start with an electrical, instrumentation, communications or mechanical trade; add fault-finding across sensors, PLCs, networks or autonomy hardware; progress into specialist support or controls.
Engineering pathway
Use electrical, mechatronic, control, mining, process, software or systems engineering to enter projects, commissioning, automation, functional safety or optimisation.
Digital pathway
Bring software, data, networking, cyber-security or geospatial capability; learn operational technology, mining processes, change control and the consequences of bad data or unavailable systems.
Evidence employers can use
Show how you think when the system is not normal.
- Operating knowledgeEquipment, process, rail, port or mine-control experience—and the upstream and downstream consequences of a decision.
- Control-room disciplineAlarm management, radio communication, clear escalation, accurate logs and high-quality shift handovers.
- Technical exposureHMI, SCADA, PLC, fleet systems, telemetry, sensors, networks, event logs or spatial data relevant to the role.
- Change and recoveryApproved change control, testing, fault diagnosis, degraded-operation response and safe return to service.
- Human judgementCalm prioritisation, fatigue awareness, teamwork across Perth and site, and willingness to challenge unreliable data.
Safety, resilience and cyber security
A connected mine must also know how to fail safely.
Remote visibility can improve decisions, but it also increases dependence on communications, system integrity, competence and disciplined authority.
Local protection
Safety functions, interlocks and protection must be designed for the asset and operating state; a distant screen is not an isolation or proof that equipment is safe to approach.
Degraded operation
Teams need approved responses for unavailable communications, poor positioning, failed sensors, stale data or loss of a supervisory system.
Alarm and workload
Controllers need usable alarms, clear priorities, manageable spans of control and handovers that preserve situational awareness.
OT cyber security
Secure connectivity, controlled access, asset knowledge, monitoring, recovery and tested change are essential where digital systems affect physical operations.
AI assurance
An optimisation or prediction is decision support unless the approved system says otherwise. Models require governance, testing, oversight and known limits.
Perth–Pilbara teamwork
Controllers and field teams need one shared operating picture, clear authority and reliable confirmation before access, intervention or return to service.
Technical and safety boundary: This guide explains concepts only. It intentionally does not describe operator network layouts, access methods, security controls or site procedures. Always use current site instructions, authorised control philosophies, OEM documentation, permits, isolations and competent supervision.
Primary sources
Explore the operator and control-system context.
Source-checked 28 August 2026. Operator scope, fleet size, role titles and technology change as systems are expanded or reconfigured.
BHP — 10 years of remote operations
Scope of WAIO IROC across processing hubs, mine hubs, rail, port and equipment.
Rio Tinto — Western Australia
Current public description of its Perth Operations Centre, AutoHaul, autonomous haulage and remote drills.
Rio Tinto — automation
Remote drill-control model, autonomous equipment and operations-centre examples.
Rio Tinto — Gudai-Darri
Autonomous fleet, digital asset and technology at Rio Tinto’s most technologically advanced Pilbara mine.
Fortescue — Integrated Operations Centre
Current scope of the Hive across haulage, processing, rail, port, scheduling, energy, batteries and AI.
Hancock Iron Ore — Perth IROC careers
Public examples of control-centre, technology, planning and engineering role families.
Epiroc — Roy Hill LinkOA
The January 2026 milestone for open autonomous haulage at Roy Hill.
ISA — ISA-95 control hierarchy
A recognised framework for distinguishing physical control, supervisory systems, operations management and enterprise planning.
ASD’s ACSC — secure OT connectivity
Australian guidance on the benefits and risks of connecting operational technology for remote monitoring and control.
WorkSafe WA — autonomous mining
WA risk guidance for mobile autonomous and mixed mining operations.

