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AI for Mining & Heavy Industry Australia | AI Surge
AI for Mining and Heavy Industry

Your plant fails on its own schedule.
Now you can see it coming.

AI Surge turns the telemetry you already collect into pre-emptive action: catch a crusher, pump or conveyor failure before it costs you a shift, flag the near-miss patterns that precede a serious incident, and capture forty years of operator know-how before it flies out on the next roster change.

The Challenge

In mining and heavy industry, downtime is the most expensive number on the page.

It is 2am on nightshift. A haul truck is down with a failed final drive, the primary crusher is starving, and the ROM stockpile is dropping fast. The part is three days away in Perth, a week away if the freight slips. By the time dayshift walks through the gate you have lost more production than the repair will ever cost, and the crew is reacting instead of planning. The hardest part to sit with is this: the failure did not come out of nowhere. The signs were in the data. Nobody was watching the right number at the right time.

When a primary crusher, an overland conveyor or a dragline drops, it does not cost you a repair bill, it costs you the shift, six figures of lost production and a scramble for parts that sit weeks away on a remote site. A safety incident costs far more again: in people, in a Section 39 notice or a stop-work order, in the shutdown while the regulator investigates. And the know-how that prevents both sits in the head of the fitter who has read that gearbox by ear for thirty years and retires next roster.

You have already spent the money on condition monitoring, a historian and safety reporting. The vibration traces, the oil analysis, the take-five and near-miss reports, the PLC and SCADA tags, it is all being collected. What is missing is the layer that reads it together and says, in plain English: "this pump bearing fails inside 14 days unless we intervene," or "the vibration and temperature drift on CV-04 matches the profile that preceded the failure at the sister site eight months ago."

AI Surge builds that layer. We unify your historian, CMMS, control-system and safety data into one operating picture, embed models that flag failure and incident signals days or weeks before they surface, and capture the tribal knowledge of your senior operators so the next crew inherits four decades of judgement alongside the asset register. Australian and NZ based, no offshore handoffs, and where sovereignty demands it, running entirely on your own hardware.

A Composite from Operations We Work With

A processing plant kept losing the same slurry pump to bearing failure every few months. Always mid-shift, always a scramble. Before: the vibration data sat in the historian, glanced at monthly if at all, and the first anyone really knew was the high-temperature trip and a starved circuit. After: a model trained on that same historian picks up the bearing signature climbing about 14 days out, raises a work order against the next planned window, and the pump is changed on a Tuesday dayshift with the spare already on the shelf. Same data, same crew, same pump. A failure turned into a scheduled job.

7-21 Days
Equipment Failure
Predicted Ahead
15-25%
Maintenance Cost
Reduction
60%
Reduction in Unplanned
Downtime
40 Years
Tribal Knowledge Captured
and Preserved

Typical outcomes for Australian mining and heavy industry operators we work with. We model the numbers against your own operation before any build.

Technology

AI Platforms We Deploy in Mining

The right platform for each problem. We integrate what you need, nothing you do not.

Claude
Document Intelligence
Reads your SOPs, JHAs, incident and investigation reports, OEM manuals and regulatory submissions, and answers plain-English questions across the lot. Ideal for capturing what a retiring supervisor knows and making it searchable by the crew on shift.
Custom Predictive Models
Asset Health
Purpose-built failure models trained on your vibration spectra, bearing temperatures, oil-analysis trends and CMMS work-order history. Integrated by AI Surge straight into PLC, SCADA and historian tags so alerts land days ahead, not after the trip.
Open-Source Models (On-Premise)
Data Sovereignty
Llama and Mistral running on your own hardware at the site or in your data centre. For geology, personnel and telemetry data that cannot leave the network, there is no cloud dependency and nothing sent offshore.
Manus
Workflow Orchestration
Autonomous multi-step agents that assemble cross-shift production reports, chase maintenance scheduling against parts availability, and compile regulatory and environmental documentation across connected systems.
Microsoft Copilot
Office & Engineering Teams
M365 for planning, mine engineering and admin teams at the site office. Daily production reporting, pre-start and toolbox summaries, procurement coordination and drafting against your own templates.
Google Gemini
Exploration & Corporate Teams
For exploration, environmental and corporate teams on Google Workspace. Drill-result and survey analysis, reporting and coordination across distributed and remote operations.
Use Cases

Where AI Delivers Value in Mining

Concrete applications across the operation, from the pit and the crushing circuit to the planning office.

Use Case 01

Predictive Asset Health

For the reliability engineer and maintenance planner: models trained on vibration spectra, bearing temperature, oil analysis and CMMS work-order history flag pump, motor, conveyor and crusher failures 7 to 21 days out. You move from reactive call-outs to planned interventions in scheduled windows, cutting maintenance cost 15-25% and unplanned downtime by up to 60%.

Use Case 02

Pre-Incident Safety Signal Detection

For the site HSE lead: models trained on your incident history, near-miss and take-five reports and operational telemetry surface the patterns that precede an event, from a spike in a hazard category to drift in a critical control. An early-warning layer that complements your safety systems and human judgement without ever controlling plant.

Use Case 03

Tribal Knowledge Capture

For the maintenance superintendent facing a wave of retirements: capture how your most experienced fitters and operators diagnose faults, work around quirks and read the plant, into a queryable system. The corner-case know-how that separates a smooth shift from a costly one stays on site after the person leaves.

Use Case 04

Production Optimisation Across Constraints

For the mine planner and metallurgist: agents that sequence production across changing ore grades, equipment availability, energy pricing and crew rosters. Lift throughput and recovery from the fleet you already own, balancing blend and plant load without a dollar of additional capex.

Use Case 05

Compliance and Environmental Reporting

For environmental and compliance teams: automate the reporting that eats their week. Pull emissions, energy, water balance and rehabilitation data straight from operational systems, draft the NGER and regulator submissions, flag exceptions and route for sign-off. Consistent and audit-ready across every site.

Use Case 06

Shift Handover and Cross-Site Benchmarking

For superintendents and operations managers: AI-generated handover briefs that carry the full context from nightshift to dayshift so nothing is lost across a FIFO changeover, plus on-demand benchmarking that compares throughput, availability and cost across sites on the same definitions instead of a fortnight of reconciling spreadsheets.

Return on Investment

Before AI vs. After AI

Typical outcomes across Australian mining and heavy industry operators in the first 12 months.

Operational Area Before AI After AI
Crusher, pump and conveyor failure Reactive call-outs, lost shift Predicted 7-21 days ahead
Maintenance cost per asset Calendar-based servicing 15-25% lower, condition-based
Unplanned downtime Absorbed as the cost of doing business Reduced by up to 60%
Near-miss and incident signals Reviewed retrospectively Patterns flagged early for action
Retiring operator knowledge Walks out the gate Captured and queryable on shift
NGER and environmental reporting Weeks of manual spreadsheet work Days, mostly automated and audit-ready
Cross-site production benchmarking Variable definitions, slow Standardised and on-demand
"The vibration data had been sitting in the historian for years. We just did not have the people to turn it into a call the maintenance planner could act on. That is exactly what this gave us, a fortnight of warning before a failure, without changing a single operator's day."
Operations Director, Australian Mining Operator
Our Process

From First Conversation to Live Platform in 90 Days

A structured path that starts delivering value before the platform is built.

1

Discovery Conversation

We map the fleet, the critical assets and the failures and safety risks that keep you up at night.

2

Site Assessment

A structured review of your historian, CMMS, SCADA and safety data, and the quality of the telemetry behind them.

3

Strategy and Roadmap

Prioritised use cases, an ROI model built on your own downtime and cost figures, and a sequenced 90-day plan.

4

Productivity Rollout

AI in the hands of planning, engineering and office teams inside the first month, while the platform is built.

5

Custom Platform Build

Predictive asset health, safety signal detection or knowledge capture, integrated with your historian, CMMS and control systems.

6

Continuous Optimisation

Quarterly reviews, model retraining against fresh failure data, and expansion to more assets and sites as the operation evolves.

Coverage

Designed for Australian Mining Conditions

We work with mining and heavy industry operators across Western Australia's Pilbara and Goldfields, Queensland's Bowen Basin and Galilee Basin, New South Wales' Hunter Valley and South Australia's mining regions. Remote sites, fly-in fly-out rosters and constrained connectivity are the conditions we design for, not exceptions. Australian and NZ based, with no offshore handoffs.

Perth Brisbane Sydney Adelaide Newman Mackay Kalgoorlie Mount Isa Broken Hill Remote WA Remote QLD
FAQ

Common Questions from Mining Operators

Will AI work with our existing telemetry and CMMS systems?+
Yes. We read from the historian, CMMS and control systems most Australian operators already run, including OSIsoft PI, IBM Maximo, SAP PM, Pronto and Hexagon, plus PLC and SCADA tags over OPC UA and Modbus. We add an intelligence layer on top of your existing stack rather than ripping it out, so your condition monitoring, ERP and safety data feed one model instead of five disconnected screens.
Our sites are remote with limited connectivity. Does that matter?+
No. We design for Pilbara and Bowen Basin conditions, including edge deployment, satellite backhaul and intermittent links. Predictive models run on ruggedised local hardware at the site so failure alerts keep firing when the connection drops, then sync to your central data lake when bandwidth returns. Nothing depends on a permanent link to a capital city.
How do we ensure AI does not undermine our safety systems?+
AI is layered alongside your safety systems, never in place of them. It surfaces signals earlier, including drift in vibration and temperature telemetry, clusters in near-miss and take-five reports, and correlations across incident history, and it hands those signals to a person to act on. It never controls plant and never closes out a hazard. Every deployment is governed, logged and fully auditable for the regulator.
Can data stay on our infrastructure?+
Yes. For operations with data sovereignty, native title or client confidentiality requirements, we deploy open-source models such as Llama and Mistral fully on your own infrastructure. No telemetry, geology or personnel data leaves your network, and there is no cloud dependency. This is a standard configuration for us, not a special request.
Does AI work for FIFO operations?+
Yes. AI Surge builds for FIFO realities, including crew rotation continuity, structured shift handover summaries and knowledge transfer across swings. In an environment where the person who saw the fault on nightshift flies out before dayshift starts, an AI handover brief that carries the full context forward is worth more than in any other operating model.
What is the realistic timeline to first value?+
Productivity workflows for planning, engineering and office teams deliver value within the first month. Predictive asset health models take 8 to 14 weeks to train and validate against your historian and CMMS history so they earn trust before crews rely on them. A custom platform ships a working first version within 90 days of contract.
Can AI help with ESG and sustainability reporting for mining?+
Yes. We automate the collection and reconciliation behind Scope 1 and 2 emissions, diesel and energy consumption, water balance and rehabilitation reporting, pulling straight from operational systems. That turns your NGER, safety regulator and investor submissions from weeks of manual spreadsheet work into a faster, more consistent, audit-ready process.
What is the typical investment for a mining operator?+
A first-12-months engagement is scoped to site count and integration complexity, covering strategy, a productivity rollout, and one or two bespoke platforms, usually predictive asset health and compliance automation. We model expected ROI against your own downtime and maintenance figures before you commit.

The operators investing in AI now will run leaner, safer sites than the ones that wait.

If you are the maintenance manager, superintendent or operations manager who gets the call when the plant goes down, this is built for your operation. Talk to us about predictive asset health, tribal knowledge capture or safety signal detection, and we will model the numbers against your own site before you commit to anything.

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