Production Reliability for
Metals & Mining Industry
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VERTICAL AI FOR OUTCOMES

Prescriptive AI for
Mining & Metals Industry

AI-driven prescriptive maintenance solutions to prevent downtime in SAG mills, crushers, slurry pumps, conveyors, smelting furnaces, and more.
PlantOS™ Prescriptive AI Section - Steel Plants

Outcomes Delivered

85
Plants Digitalized
4,089
Breakdowns Avoided
17,965
Unplanned Downtime Hours Eliminated
*Note – Data as of June 03, 2026  Source – PlantOS™ Digital Reporting System – User-validated True Positives & False Negative Rate

Prescriptive AI for Mining & Metal Processing plants turns equipment and process data into a single actionable work order. A predictive alert tells a plant operator that a SAG Mill gearbox is trending toward failure, and leaves the diagnosis to them. A PlantOS™ prescription tells them the fault, the fix, and business outcomes – and arrives ready to convert into a work order. In a Mining & Metal processing plant, that difference shows up on the crusher, the mill, the vibrating screens, and the smelting process : less unplanned downtime, more throughput, and lower cost/ton per asset.

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Strategic Challenges

Beyond Predictive:
Why Mining & Metal Processing Needs Prescriptive AI

Prescriptive AI is the output: the fault, the fix, and business outcomes. Vertical AI is the failure logic behind it, so a reading on crushers, slurry pumps is judged against how they fail, not against a generic deviation threshold. Most Mining and Metal Processing plant failures are not purely mechanical.
Isometric flow diagram of the metals and mining production cycle, showing each stage from raw materials to final output and emphasizing industry reliability and expertise.

Green Anode Plant (GAP)
Ball Mill Bucket Elevator ID Fan Kneader Paste Mixer

Baking Furnace
FTA Blower FTA Compressor FTP ID Fan

Rodding
Autogenous Mill Belt Conveyor Shot Blast Unit Dust Collector Fan Butt Press Pump

Potline
Circulation Blower ID Fan Belt Conveyor

Cast House
Ingot Transfer Fork Cooling Conveyor Layer Conveyor Stack Conveyor Casting conveyor Wire Rod Mill Cooling Tower Saw Cutter Air Compressor Pit Pump Crane Billet Cutter

Rolling
Rough Rolling Stand Finish Rolling Stand Annealing Cooler Fan

Power plant Boiler Feed Pump PA Fan SA Fan ID Fan CEP Pump Vacuum Pump Cooling Water Pump Demineralization Pump Gas Turbine Cooling Tower Fan

01 Green Anode Plant (GAP)

  • Ball Mill
  • Bucket Elevator
  • ID Fan
  • Kneader
  • Paste Mixer

02 Baking Furnace

  • FTA Blower
  • FTA Compressor
  • FTP ID Fan

03 Rodding

  • Autogenous Mill
  • Belt Conveyor
  • Shot Blast Unit
  • Dust Collector Fan
  • Butt Press Pump

04 Potline

  • Circulation Blower
  • ID Fan
  • Belt Conveyor

05 Cast House

  • Ingot Transfer Fork
  • Cooling Conveyor
  • Layer Conveyor
  • Stack Conveyor
  • Casting conveyor
  • Wire Rod Mill
  • Cooling Tower
  • Saw Cutter
  • Air Compressor
  • Pit Pump
  • Crane
  • Billet Cutter

06 Rolling

  • Rough Rolling Stand
  • Finish Rolling Stand
  • Annealing
  • Cooler Fan

07 Power plant

  • Boiler Feed Pump
  • PA Fan
  • SA Fan
  • ID Fan
  • CEP Pump
  • Vacuum Pump
  • Cooling Water Pump
  • Demineralization Pump
  • Gas Turbine
  • Cooling Tower Fan
Mining and metals plants combine abrasive material handling with extreme thermal load, and both wear assets faster than scheduled inspection can detect.
A single failure on a SAG mill pinion, a primary crusher, or a slurry pump backs up the entire comminution circuit, and in metals processing a potline blower
or cast house crane failure stops the line outright.

The PlantOS™ Difference

From SAG mills and crushers to vibrating screens and smelters, PlantOS™ reads mechanical and process-induced fault
signatures on every critical asset across mining and metal processing, then prescribes the fix for both.
Semi-autogenous grinding equipment where the ore charge and steel balls tumble inside a rotating shell to break run-of-mine rock, loading trunnion bearings, girth gear and pinion under fluctuating impact as feed size and ore hardness shift.
Slurry mixing equipment where a driven shaft and impeller keep solids suspended across leach, flotation and thickener tanks, exposing the gearbox and overhung shaft to unbalanced hydraulic loads in abrasive, corrosive service.
Primary and secondary reduction equipment where jaws, mantles and concaves compress run-of-mine rock into sized product, driving eccentric shafts, bearings and pitman assemblies through severe shock loading and tramp metal events.
Overhead handling equipment where bridge, trolley and hoist gear move ladles and crucibles of molten metal between furnace and casting bay, loading gearboxes, wheel assemblies and brake systems under repeated start-stop duty and sustained radiant heat.
Electrolytic reduction equipment where rows of series-connected cells pass high-amperage direct current through molten cryolite to reduce alumina into aluminium, with the supporting fume treatment fans, alumina conveying blowers and pot tending machines running under continuous thermal, magnetic and dust loading.

 Our Customer Speaks

-Mr. Gaurang Kamat Head Engineering, Sesa Goa,
Vedanta Group, India

Since partnering with Infinite Uptime, we’ve seen a significant boost in plant
availability and reliability. The ability to detect issues early has not only helped
us avoid costly downtime but also built confidence in our operations. With
theseresults, we’re now moving into phase two—nearly doubling our sensor
coverage to monitor the entire plant.

Let's start with your most critical line.

Tell us the asset and we will show you what PlantOS™ reads on it.

30 minutes, no deck.

    The Categorical Error of Generic AI
    Process area Assets covered Mechanical fault signature Process-induced fault signature Outcome
    Crushing Jaw, gyratory, and cone crushers, crusher drives, feeders Bearing and eccentric wear, drive-belt and gearbox faults Feed size and hardness variation driving load surge and liner wear Prevents crusher stops that back up the circuit
    Comminution SAG and ball mills, mill pinion drives, girth gears, mill fans Pinion and girth gear wear, mill bearing defects, drive misalignment Ore hardness and feed-rate variation raising mill load and abrasive wear Protects grinding throughput and the whole comminution circuit
    Beneficiation Slurry pumps, agitators, cyclone separators, thickener drives Impeller erosion, seal failure, agitator gearbox and shaft wear Feed density and abrasive slurry variation driving cavitation and erosion Protects flow continuity and separation efficiency
    Metals Processing Cast house cranes, baking furnace fans, potline blowers, rolling mill drives, cooling systems Hoist and drive bearing wear, fan and blower imbalance, gearbox faults Thermal load, radiant heat, and process demand swings accelerating wear Protects casting, baking, and rolling continuity
    In a mining and metals operation, the mechanical fault and the process condition driving it are usually the same event seen twice.
    PlantOS™ reads both, across every stage of the chain.

    What PlantOS™ Prescribes in a Mining and Metals Operation

    Prescriptive AI for Mining & Metals

    Frequently Asked Questions

    Common questions about prescriptive maintenance solutions in mining and metals operations.

    01 Why do mining and metals failures get missed by conventional condition monitoring?

    Because most of them are not purely mechanical. A slurry pump does not fail from impeller wear alone, it fails because feed density variation drives cavitation that accelerates that wear. Conventional condition monitoring reads the vibration signature and misses the process condition driving it, so the alert arrives late and without a cause.

    02 What is Vertical AI, and how does it differ from generic industrial AI?

    Generic industrial AI applies one anomaly model across every asset in every industry. Vertical AI is built for the equipment and process conditions of a single sector. Infinite Uptime's PlantOS™ applies mining-specific failure logic through Dynamic FMEA, so a fault on a SAG mill pinion is evaluated against how SAG mill pinions actually fail under abrasive load, not against a generic deviation threshold.

    03 How does PlantOS™ read process-induced faults as well as mechanical ones?

    PlantOS™ analyses vibration, thermal, and process data from the same asset simultaneously, then correlates the two signature types. A gear mesh reading on a SAG mill drive is interpreted alongside ore hardness, feed rate, and mill load, which separates a genuine developing fault from a normal response to a feed variation. The prescription names the mechanical fault and the process condition sustaining it.

    04 How is prescriptive AI different from predictive maintenance in mining?

    Predictive maintenance tells you a SAG mill bearing might fail in 30 days. Prescriptive AI tells you what is wrong, for example an inner race defect at 2.4 mm/s velocity, what action to take, when to schedule it against the next planned shutdown, and what the production impact will be if you do not. In mining, where a single crusher or mill failure halts the comminution circuit and backs ore up for hours, that is the difference between a controlled intervention and a catastrophic stoppage. Prediction accuracy is 99.97 percent.

    05 Which mining and metals assets does PlantOS™ cover?

    Coverage spans the assets where mechanical and process faults compound. In mining that includes SAG mills, ball mills, jaw and cone crushers, vibrating screens, grizzly feeders, slurry pumps, agitators, cyclone separators, ID fans, conveyor belts and rollers, stackers, reclaimers, and draglines. In metals processing it extends to cast house cranes, baking furnace fans, potline circulation blowers, rolling mill drives, and cooling tower systems. Each asset is mapped to models trained on the failure modes that occur in these conditions, including bearing degradation under abrasive slurry, crusher liner wear, and mill pinion gear faults.

    06 Can PlantOS™ work across different types of mining operations?

    Yes. PlantOS™ adapts across open-pit mining, underground mining, and mineral processing plants regardless of commodity, covering zinc, copper, aluminium, iron ore, gold, and coal. The vertical AI models are trained on equipment behaviour patterns common across these environments, from haul-road conveyors in open-pit operations to ventilation fans and hoisting systems underground.

    07 What outcomes can a mining or metals operation expect?

    Three, delivered together: reduced unplanned downtime, higher throughput across the comminution and processing circuit, and lower cost per tonne through fewer emergency interventions, reduced spares consumption, and less energy waste on rotating equipment.

    08 What measurable results has PlantOS™ delivered in mining and metals?

    Across Vedanta Group, one of the world's largest producers of zinc, aluminium, copper, and iron ore, PlantOS™ monitors 9,055 critical equipment units through more than 26,300 sensors across 77 plant sites and 489 areas. The platform maintains an MTBF of 5,206 hours and has driven 1,554 prescriptions to action, with an operator validation rate above 83 percent. At Hindustan Zinc Limited alone, PlantOS™ eliminated 5,039 hours of unplanned downtime and delivered over $700,000 in production savings across its mines and smelters.

    09 How does a prescription reach the maintenance team?

    Each prescription carries the asset, the fault, the recommended action, and the timeframe. Each one is digitally verified by a reliability engineer/plant head/maintenance manager before it reaches the plant floor, so it is contextually accurate for that asset, operating condition, and process stage. Execution and outcome are logged, and validated outcomes feed back into the models through the 99% Trust Loop.

    10 Does PlantOS™ require replacing existing systems or sensors?

    No. PlantOS™ integrates with the infrastructure already in the operation, unifying data from PLCs, DCS historians, energy meters, and installed sensors alongside its own hardware where additional coverage is needed. Prescriptions are delivered into the existing maintenance workflow, so the site gains process context on its critical assets without a rip and replace programme.