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Synergy Automatics · Industrial IoT

Shaft & Hoisting-System Monitoring

Consolidate hoist, cage, rope, brake and shaft-condition data for operational visibility and maintenance support.

Real-time visibilityEdge data continuitySystem integration

Centralised condition and cycle historyConsolidate hoist, cage, rope, brake and shaft-condition data for operational visibility and maintenance support.

Earlier maintenance indicationConnected data supports faster, evidence-based operational decisions.

Better trip investigationConnected data supports faster, evidence-based operational decisions.
Application overview

What this connected-mine application does

Consolidate hoist, cage, rope, brake and shaft-condition data for operational visibility and maintenance support.

The practical objective is not simply to collect more data. It is to establish a trustworthy measurement chain, detect abnormal conditions, preserve the relevant operating context and route information to the team that can act on it.

Typical points monitored

  • Cage or skip position, speed and load
  • Motor current, torque and temperature
  • Brake command, pressure and wear indication
  • Rope tension, vibration or condition data
  • Door, gate and interlock status
  • Trip, overspeed and operating-cycle history
Primary field devices Hoist-control and protection-system read-only interfaces; Position and speed encoder; Load and rope-condition sensors; Brake pressure/position sensors; Edge historian and maintenance dashboard
Data update pattern Event-driven alarms with periodic telemetry. Critical events should be timestamped and transmitted immediately where the communications design permits.
Connectivity options Industrial Ethernet, fibre, Wi-Fi, leaky-feeder, LoRaWAN or private LTE/5G as site conditions permit.
Alarm and analytics Mirror and escalate existing hoist trips, abnormal condition trends, sensor disagreement and data-interface failure without replacing protection.
Common integration Common interfaces include dry contacts, 4–20 mA, Modbus RTU/TCP, OPC UA, EtherNet/IP, CAN/J1939, MQTT, SNMP or REST APIs where supported by the source equipment.
Data continuity Timestamp at the edge, monitor signal quality and device health, and use store-and-forward buffering so short network outages do not create silent data gaps.
Environmental design Use mine-suitable enclosures, protected cabling and glands, appropriate ingress/impact resistance, and certified equipment wherever the hazardous-area classification requires it.

How it works

A five-layer implementation pattern

Measure

Approved sensors and machine interfaces capture the required physical or operating state.

Control locally

Existing PLCs, protection and safety systems retain their required local authority.

Acquire at edge

A rugged gateway timestamps, buffers, normalises and validates incoming data.

Transmit securely

Mine communications carry telemetry and alarms with health and quality monitoring.

Visualise and integrate

Dashboards, historians and APIs support response, maintenance and reporting.

Typical deployment locations

Where the solution can be applied

  • Winder house
  • Headframe and shaft stations
  • Cage or skip
  • Shaft conveyance and loading pockets
Operational value

Potential benefits

  • Centralised condition and cycle history
  • Earlier maintenance indication
  • Better trip investigation
  • Load and utilisation reporting
  • Remote visibility of shaft-system availability

Engineering considerations

Design details that determine success

  • Hoist protection and safety circuits remain independent
  • Use approved interfaces and competent hoist engineering
  • Do not issue remote commands through an analytics gateway
  • Manage high-integrity time synchronisation and audit records
Safety and control boundary

Keep protection local and approved.

Mirror and escalate existing hoist trips, abnormal condition trends, sensor disagreement and data-interface failure without replacing protection. Dashboard alerts, remote notifications and analytics should complement—not replace—certified protection, local interlocks, emergency procedures, statutory inspections and competent decision-making.

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Frequently asked questions

Implementation questions

Can Shaft & Hoisting-System Monitoring connect to existing PLC, SCADA or mine systems?

Usually, yes. The preferred approach is to reuse approved source data and add isolated field instrumentation only where required. The final interface depends on available protocols, network segregation, data ownership and the source equipment vendor.

Does the IoT layer replace local protection or safety controls?

No. Protection relays, safety PLCs, emergency stops, gas trips, fire systems and other approved local functions remain the primary safety and control layer. IoT adds visibility, history, notifications and decision support.

What happens when underground communications are interrupted?

Critical local functions continue independently. A suitable edge gateway buffers timestamped data, raises a communications-health alarm and forwards retained records after the connection returns.

How are sensors and alarm levels selected?

Selection starts with the mine risk assessment, required decision, environmental classification, measuring range, response time, maintainability and applicable rules. Alarm and trip levels must be approved for the specific site and jurisdiction.

Discuss Shaft & Hoisting-System Monitoring

Discuss field instrumentation, edge connectivity, dashboards and integration with the Synergy Automatics team.

Talk to our experts

Engineering note: Instrument selection, hazardous-area certification, alarm limits, interlocks and network architecture must be validated against the mine risk assessment, applicable legislation, equipment approvals and site operating procedures.