Skip to main content
Loader working in an underground hard-rock mine tunnel
Underground drive

Your mine keeps running when the network doesn't.

Underground. Remote. Disconnected. The environments where mining happens are exactly where cloud-dependent control fails. Helin runs zone safety, equipment monitoring, and operational data at the asset, no link required.

Proven in some of the harshest operational environments in industry.

  • Boskalis100+ vessels, live in under two weeks
  • Sunrock300 solar sites steered against live market prices
  • BPcamera to control action in under 150ms
  • Noble20+ rigs on one fleet-wide deployment

TL;DR

  • Unplanned equipment failure in mining costs $180,000 per hour on average
  • Edge-resident fault detection catches developing failures 30‑50 days earlier than threshold monitoring
  • Zone intrusion response fires in under 150ms — at the asset, without a cloud round-trip
  • One platform covers equipment health, personnel safety, and operational data across every site
  • Deployable in remote and underground environments without reliable WAN

The fault was detectable. The network wasn't.

Most mining downtime doesn't arrive without warning. It arrives after weeks of ignored data — because the system that should have caught it was waiting for a cloud connection that wasn't there.

Equipment fails with no warning — because the warning never arrived
Haul trucks, SAG mills, crushers, and conveyors generate detectable failure signatures days to weeks before breakdown. Bearing vibration anomalies. Hydraulic pressure shifts. Motor current irregularities. The data exists. But a cloud-dependent system on intermittent WAN can't process it continuously. Underground, it can't process it at all. The failure window closes before anyone acts.
People work in hazardous zones with no real-time visibility
Restricted zones around automated equipment, blast exclusion areas, and confined entry points require response times measured in milliseconds, not minutes. A safety alert that routes through the cloud arrives after the person has already reached the hazard.
You have data from every asset. You have visibility across none of them.
Fragmented systems. Sensors that log but don't communicate. Operational data that sits on-site, unread, until something goes wrong. Getting a fleet-level view of asset health requires manual aggregation — which means it's always out of date.

Annual downtime exposure

Annual downtime exposure

$21,600,000

Heavy assets × average downtime hours per year per asset × cost per downtime hour.

Illustrative projection based on industry data and your inputs.

8–12%

Conservative maintenance cost reduction range with edge-resident predictive monitoring.

Illustrative projection based on industry data, not a guaranteed outcome. This range applies to maintenance costs, not the downtime exposure above.

Where edge control changes mining economics

Each use case runs on the same platform. Add one, the infrastructure is already there for the next.

Everything you're managing separately, running as one.

Key features by capability

  • Edge control01

    Edge runtime

    Control logic executes at the asset. Applications run locally, with or without a cloud connection.

  • Edge control02

    Hardware-agnostic deployment

    Runs on existing edge hardware across surface and underground sites. No vendor lock-in, no rip-and-replace.

  • Edge control03

    Edge buffering

    No data lost when connectivity drops. Data queues locally and transmits when the link returns.

  • Edge control04

    OTA updates

    Software updates reach every site in the fleet without a site visit. Staged rollout — tested before it reaches production.

  • Edge control05

    Fleet and device management

    Provision, configure, monitor, and patch every edge node from one console. No engineer on-site for routine management.

What changes when the architecture is right

01

Your operations don't stop when the network does

Underground. Remote. Intermittent satellite. Mining happens in the places where cloud-dependent control breaks down. Control logic, safety responses, and equipment monitoring run at the asset, continuously, regardless of connectivity. When the link drops, production continues. When the link returns, data syncs.

Proof: Sunrock runs 300 solar farms on the same architecture. Sites that previously couldn't be steered in real time now execute curtailment decisions locally, before a cloud round-trip would complete. The mining parallel is direct: edge-resident control at every asset, running whether or not the network is.

02

Security built in. Not bolted on.

A mine running dozens of sites accumulates thousands of networked devices over years. Sensors, controllers, gateways, HMIs. Most were connected without formal identity enrollment. Certificate-based device identity, zero-trust access governance, and auditable update logs are in the Helin runtime from provisioning. NIS2 and IEC 62443 compliance is a structural property of the platform, not a pre-audit project.

Proof: Boskalis deployed real-time compliance governance across 100+ vessels on the same architecture.

03

AI that acts. Not AI that advises.

The gap between a sensor alert and a control action is where incidents happen and production is lost. A zone intrusion response that routes through the cloud arrives after the hazard has been reached. An equipment fault flagged to a dashboard waits for a human to act. Helin closes that loop at the asset. The model runs locally, detects the condition, and triggers the response in under 150ms.

Proof: Red Zone Manager detects a zone intrusion and fires a physical response in under 150ms across Noble's offshore fleet. No cloud hop. Same architecture, same response time, any environment.

04

Your expertise, running at the edge

Your teams know your equipment, your haul routes, your blast exclusion logic, and your maintenance procedures. Helin provides the runtime, security, device management, and deployment pipelines so the applications your teams build run consistently across every site. Build it once. Operate it everywhere.

If your sites lose connectivity, does your operation lose control?

Talk to someone who has deployed edge control in remote and disconnected industrial environments. Bring your architecture. We'll show you where the gaps are.

Cloud-dependent vs. edge-resident: what the difference looks like underground

Helin edge-resident architecture compared with cloud-dependent architecture
CapabilityHelin edge-residentCloud-dependent
Connectivity requiredNo. Runs offline, syncs when available.Yes. Degraded or failed link stops operations.
Control loop latencyUnder 150ms at the asset500–800ms or more over satellite
Fault detectionContinuous, regardless of connectivityInterrupted when WAN drops
Safety responseFires locally, no round-tripCloud round-trip required
OTA updatesSecure OTA across all sitesManual or unreliable on degraded links
Device identityCertificate-based, X.509 / TPM 2.0Manual or absent
Compliance postureAuditable, automated, continuousManual assembly before each audit

Specifications

Helin Platform specifications for mining
Deployment modelOn-premises edge hardware or customer-supplied compute. No cloud dependency on control loop.
Supported protocolsOPC UA, Modbus, CAN bus, MQTT, NMEA
Hardware compatibilityRuns on any Linux-capable hardware. No proprietary hardware required.
Security architectureX.509 / TPM 2.0 device identity, TLS encrypted communications, zero-trust access governance
Update governanceOTA updates with central version tracking, rollback, and confirmation logging
Control loop latencyUnder 150ms sensor to action
Compliance coverageNIS2, IEC 62443
ConnectivityPrivate 4G/5G, radio, satellite, or no WAN. Offline-capable.
Hardware environment[ATEX/IECEx — confirm certification status before publish]

Frequently asked questions

Yes. The edge runtime operates locally without a network connection. Equipment monitoring, safety responses, and control logic run continuously. Data syncs to the operations center when connectivity is available.

No. Helin connects to existing OT via OPC UA, Modbus, and CAN bus. The edge layer sits alongside your existing control architecture and adds the application runtime, security layer, and data pipeline on top.

Edge controllers process CAN-bus vehicle data, collision avoidance logic, and route decisions locally. Remote operations centers aggregate across sites. Autonomous operations continue when WAN connectivity degrades.

Certificate-based device identity across every asset. Zero-trust access governance. Every access event logged. IEC 62443-aligned security architecture built into the platform. Regulatory audit-ready without manual report generation.

We are deploying in the mining vertical. Named references will be published as they become available. We can connect you with customers from offshore drilling, maritime, and renewables who have deployed in similarly demanding environments.

A first site typically takes around 30 days. Each subsequent site follows the same deployment model without repeating the integration project.

What this is not

Not a cloud analytics platform

There is no cloud dependency for control decisions.

Not a safety system

It provides risk visibility, zone monitoring, and automated response capabilities. It is not certified as a safety-instrumented system.

Not a replacement for your OT stack

PLCs, SCADA, and field devices stay in place. Helin is the application layer that connects, manages, and adds intelligence on top.

Not a pilot product

The same platform runs offshore drilling, maritime fleet operations, and renewable energy sites at scale. Mining is a new vertical. The architecture is not.

Not built for single-site or low-complexity operations

The platform is designed for distributed, multi-site, safety-critical environments.

Edge intelligence, once a month.

Field notes from industrial operations running control at the asset: deployment patterns, compliance changes, and what we learn on site. No product marketing.

One email a month. Unsubscribe at any time.

Last updated: . Information is subject to change.