--- title: "Open-pit mining monitoring | Nexus Observatory" description: "Walls that move before they fail, fleets that need a radio they can trust, blasts that reach the neighbours and dust that reaches the permit." url: https://observatory.global/industries/mining/open-pit/ publisher: Nexus Observatory Inc. updated: 2026-11-02 --- [Nexus Observatory](https://observatory.global/) / [Mining](https://observatory.global/industries/mining/) / [Specialized fields](https://observatory.global/industries/mining/fields/) / **Open-pit mining** # Open-pit mining, observed from the bench to the fence. Walls that move before they fail, fleets that need a radio they can trust, blasts that reach the neighbours and dust that reaches the permit. One observation network covers the pit, the haul roads and the boundary, and every reading arrives timed, signed and ready for the geotechnical engineer, the dispatcher and the regulator. [Plan a deployment](https://observatory.global/contact/deployment/) How it works [Station Builder](https://observatory.global/studio/builder/) **Industry**: Mining **Measurements**: 6 **Sources cited**: 10 1. Mining · Open-pit mining A pit that changes every week An open pit is dug bench by bench, so its walls are always new and always loaded. The same ground carries haul trucks, drills and shovels that rely on radio, and blasts that reach roads, water and neighbours. Watching the walls, carrying the fleet and recording what leaves the fence are one problem, not three. 2. What is measured Walls, water, blasts and dust Scanning radar and robotic total stations watch wall displacement and its velocity; GNSS points anchor them to survey control. Piezometers read pore pressure behind critical slopes. Blast monitors at the nearest structures record vibration and air overpressure, and dust and weather stations at the boundary record what the permit asks for. InstrumentsSlope radar · Prisms · GNSS · Piezometers · Blast monitors · Dust 3. The base node A node on every trailer and shelter Each radar trailer and prism shelter carries a base node. It reads the instruments over Ethernet and serial lines, takes its time from GNSS, checks and signs every value and keeps it through any loss of link. Alarm logic runs locally first, so a wall that accelerates is flagged even when the backhaul is down. 4. Radio and links Private LTE or 5G across the pit A private network with its core on site carries dispatch, video and autonomy data with the latency the fleet needs. Battery sensors report over LoRaWAN, microwave links join radio sites that move with the pit, and fibre serves the permanent plant. Each choice is made from the measured survey, not from habit. RadioPrivate LTE or 5G · LoRaWAN · Microwave · Fibre · Satellite 5. How it works From the wall to the dispatcher A radar scan becomes a displacement value on the trailer's node, is stamped and signed, crosses the private network to the edge server beside dispatch and lands in the historian. The edge applies the engineer's alarm levels and offers the dispatcher an area to avoid, while the governed record keeps every reading for review. 6. From order to operation · Order Scope the pit and its questions The engagement starts with the mine's own questions: which walls the slope design flags, how the fleet will be dispatched or automated, which neighbours a blast can reach and what the permit demands. Nexus Observatory Inc. returns a written scope with the monitoring plan, the radio approach, the evidence each regulator expects and a price per site. [Plan a deployment](https://observatory.global/contact/deployment/) 7. From order to operation · Survey Survey the rims, benches and boundary A crew walks the rims, ramps and boundary with the mine's geotechnical and survey teams. It measures radio coverage across the pit, confirms line of sight for radar, prisms and microwave, checks where solar works through the seasons and records every proposed position with photos and coordinates in the site record. 8. From order to operation · Permits Spectrum, ground access and blasting rules Private LTE or 5G needs a licence, a shared-band authorisation or a lease through the national regulator, and the case is prepared from band tables and the measured survey. Blast monitoring follows the limits in the mine's permit and the applicable rules, and all work inside the pit follows the mine's own ground control and access procedures. 9. From order to operation · Build Design, build and test before shipping The reference design becomes a bill of materials: radar and prisms, piezometer strings, blast monitors, dust and weather stations, the radio sites, the edge server and the power for each position. Stations are assembled and tested on the bench, enrolled with their identities and shipped with their configuration ready for the pit. [Open the Station Builder](https://observatory.global/studio/builder/) 10. From order to operation · Install Install around a working pit Installation is scheduled around blasting and haulage. Radio sites and the core go in first, then radar and total stations on the rim, prisms on the walls, piezometers in their boreholes and blast monitors at the agreed points. Each position is checked against the design and photographed for the site record. 11. From order to operation · Commission Commission every node and every alarm Each node joins only after its identity is proven. Readings are then compared with references: survey control for prisms and GNSS, a stable target for the radar, calibration checks for dust and vibration. Alarm levels come from the geotechnical engineer and are tested end to end, from the wall to the phone in a supervisor's pocket. 12. From order to operation · Operate Run the pit as one system The operations console shows every wall, every station and the radio network together. A displacement trend that accelerates raises an alarm with its data and its runbook, so the geotechnical engineer decides on clearing an area with the evidence in front of them. Each blast produces its vibration report automatically. 13. From order to operation · Maintain Keep it true as the pit moves The pit changes every week, so monitoring moves with it. Prisms are re-surveyed, radar positions follow new walls, radio sites are added as benches deepen and software reaches the fleet in rings. Every visit and every change updates the site record that the next crew works from. [Book field services](https://observatory.global/contact/field-service/) 14. Data products Products each team uses Geotechnical engineers get displacement and velocity maps with alarms; drill and blast engineers get a vibration report for every blast; environmental teams get boundary dust records in the regulator's format; the technology team sees coverage and network health. Each product is drawn from the same signed readings, so no two teams argue over different numbers. [See the data products](https://observatory.global/data-products/) 15. Evidence Evidence a regulator can check Calibration checks, survey control, alarm tests and every alarm with its data are kept as signed records. Slope monitoring follows the design guidelines the mine's engineers apply, blast records follow the permit's limits, and readings are exchanged through OPC UA and OGC SensorThings, so an auditor can verify them without asking us. Drawn againstGuidelines for Open Pit Slope Design · 30 CFR Part 56 · 30 CFR 816.67 16. What you get Mine, plant and port site monitoring Slope radar, tailings monitoring, dust and water, and site connectivity for operations and closure. Delivered as managed service and hardware + software, for mining, heavy industry, ports. Scale: Site portfolios. Service levels are written as numbers you can measure on your own dashboard. [Talk to sales](https://observatory.global/contact/sales-enquiry/) 17. Next step Plan open-pit mining with us Tell us the site, the measurements and the rules it answers to. We reply with a survey proposal, a design and a scope for open-pit mining. An engineer replies with a survey proposal and a scope, and the plan grows from one site to the network you need, at your pace. [Plan a deployment](https://observatory.global/contact/deployment/) [Open the Station Builder](https://observatory.global/studio/builder/) [Open the Studio](https://observatory.global/studio/) **01** The place and its hazards ## Where it runs, and what can go wrong. Operating contextAn open pit removes rock bench by bench, so its walls are steepened and unloaded week after week. Slopes are designed with a margin of safety and then confirmed by watching the walls move. The same pit runs haul trucks, drills and shovels that depend more and more on a radio network for dispatch, collision avoidance and autonomy, and it blasts close to roads, water and neighbours. Hazards - Wall and bench failure, usually preceded by measurable acceleration of displacement - Interaction between people, light vehicles and large haul trucks - Ground vibration, air overpressure and flyrock from blasting - Respirable dust and crystalline silica on haul roads, drill benches and crushers - Groundwater and storm water that load the slopes and must be pumped and discharged **02** What must be measured ## What, where, how often, and under which rules. Each measurement names where it is taken, how often, and the public standard or regulation behind it. Numbers in the sources column open the cited source below. | Measurement | Where | Cadence | Sources | | --- | --- | --- | --- | | Wall displacement and its velocity | Active walls and haul ramps, by scanning radar, robotic total station prisms and GNSS points | Continuous, with alarm levels set by the geotechnical engineer | 12 | | Pore pressure behind the slope | Vibrating-wire piezometers in boreholes behind critical walls | Logged continuously at the interval the slope design sets | 1 | | Ground vibration and air overpressure | At the nearest structures and the agreed boundary points | Every blast, triggered and reported automatically | 34 | | Respirable dust and particulate matter | Haul roads, drill benches, crushers and the site boundary | Continuous at the boundary; personal sampling by shift | 56 | | Wind, rain and temperature | Pit rim and crusher, sited to recognised practice | Continuous | 7 | | Fleet position and radio performance | Haul trucks, drills, shovels and light vehicles | Continuous | 89 | **03** The observation stack ## From one base unit to a network. The same blocks at every scale: instruments and a base node, a site with its radio, a fleet run as one, and a network federated on the open protocol. 1. **01** Base unit A base node on the radar trailer or in a prism shelter reads the instruments, takes time from GNSS, signs every value and buffers it when the link drops. [Build a station →](https://observatory.global/studio/builder/) 2. **02** Site The pit: radar and total stations on the rim, prisms and piezometers on the walls, blast monitors at the fence, a private LTE or 5G network with its core on site and an edge server beside dispatch. [Plan a site →](https://observatory.global/contact/deployment/) 3. **03** Fleet Several pits, dumps and stockpiles of one operation run as one fleet, with one alarm policy, one update ring and one evidence trail for every wall. [Managed offers →](https://observatory.global/industries/mining/solutions/) 4. **04** Network Operations across a region or a company federate through the open protocol, so a corporate geotechnical team reviews every site's walls the same way. [The open protocol →](https://observatory.global/protocol/) - **01** Surveillance radar (FMCW) - **02** GNSS geodetic station - **03** Vibration and condition monitor - **04** Air quality monitor - **05** Edge node (Wedge) - **06** Cellular modem/router - **07** Small cell (4G/5G) - **08** 5G core appliance (UPF/core) - **09** Point-to-point microwave - **10** Solar array - **11** Battery case - **12** Telescopic mast Radio and links ### Private 5G Dispatch, collision avoidance, tele-remote and autonomy need predictable latency and coverage that moves with the pit; a licensed or shared-band private network with its core on site keeps control local. Radio and links ### LoRaWAN Piezometers, water levels and small sensors in places without power send short readings on batteries, so they need no cable across active benches. Radio and links ### Point-to-point microwave Joins radio sites, radar trailers and the office across the pit, where fibre cannot follow walls that keep moving. Radio and links ### Fibre Carries the core, the historian and the office network where the plant and buildings are permanent. Radio and links ### Satellite Backhaul and fallback for remote operations that no terrestrial link reaches. Edge computeAn edge server beside dispatch runs the slope alarm logic, video analytics on the walls and the private network's core, so an alarm never depends on a link to a distant cloud. PowerRadar trailers and remote prism shelters run on solar with batteries sized for the darkest season of the site; radio sites on the rim take mains where the grid reaches and hybrid solar where it does not. **04** How it works ## From the instrument to the product. One observation's path, tier by tier, with the interface on every link and a bill of materials below; then how the one node grows to a site, a fleet and federated networks. Open-pit mining: data path – of 09 01 Instruments Measurement with sensor identity andcalibration 02 Node – Wrap in an observation envelope with timequality– Measure quality and uncertainty, attachquality flags– Buffer locally (store-and-forward when thelink drops) 03 Field radio 04 Radio access 05 Core network 06 Backhaul Commit with transactional outbox andpublish, delivered at least once 07 Site Consumer inbox deduplicates and applieseach record once into governed data 08 Data store Governed product through API, map orexport, correction-aware 09 Products OPC UA (IEC 62541)OGC SensorThings API3GPP non-public networks 10 Power and structure Supplies 12 V DC, 24 V DC, 48 V DC to thefield equipment 01 Surveillance radar (FMCW) Ethernet 02 GNSS geodetic station Ethernet · GNSS antenna · 1PPS/10MHz 03 Vibration and condition monitor Analogue I/O · RS-485 · Ethernet 04 Air quality monitor SDI-12 · RS-485 · Ethernet 05 Edge node (Wedge) Ethernet · Fibre · USB · RS-485 ·BMC 06 Cellular modem/router Ethernet · USB · RS-232 07 Small cell (4G/5G) Ethernet · Fibre · GNSS antenna ·1PPS/10 MHz 08 5G core appliance (UPF/core) Ethernet · Fibre · BMC 09 Point-to-point microwave Ethernet · Fibre Site MQTT 5 with Sparkplug B Governed data store Versioned, correction-aware Wall displacement andvelocity maps with alarms Blast vibration andoverpressure reports Dust and particulate recordsat the boundary Piezometer and water levelseries Radio coverage and fleetnetwork performance 10 Solar array RS-485 11 Battery case USB 12 Telescopic mast Ethernet Ethernet RS-485 RS-485 Ethernet LTE/NR Ethernet Ethernet Microwave link From the instrument to the published product: each band is a tier, each connector names its interface, and the numbers match the bill of materials. Hover or focus a block to trace its path; scroll or step to follow one observation. | Item | Equipment | Data ports | Protocols | Power in | | --- | --- | --- | --- | --- | | 01 | **Surveillance radar (FMCW)** Short-range FMCW radar for perimeter, traffic, drone and water-surface detection. | Ethernet | MQTT 5, OGC SensorThings API | 12 V DC | | 02 | **GNSS geodetic station** Continuously operating GNSS station on a stable monument for geodesy, deformation and atmospheric water vapour. | EthernetGNSS antenna1PPS/10 MHz | NTP with NTS | 12 V DC | | 03 | **Vibration and condition monitor** Accelerometer-based vibration and temperature sensor for rotating machinery and structural condition monitoring. | Analogue I/ORS-485Ethernet | Modbus, OPC UA, MQTT 5 | 12 V DC | | 04 | **Air quality monitor** Particulate and gas monitor (PM, NO2, O3, CO, SO2) for outdoor or indoor air. | SDI-12RS-485Ethernet | SDI-12, Modbus, MQTT 5, OGC SensorThings API | 12 V DC | | 05 | **Edge node (Wedge)** Rugged edge node that boots from signed media, attests itself and establishes a site cell from little or no infrastructure. | EthernetFibreUSBRS-485BMC | MQTT 5, DMTF Redfish, IEEE 1588 PTP, NTP with NTS, OPC UA | 12 V DC, 24 V DC, 48 V DC, AC mains | | 06 | **Cellular modem/router** LTE or NR modem or router that uses a public carrier or private network as backhaul. | EthernetUSBRS-232 | 3GPP E-UTRA air interface, 3GPP NR air interface, OMA LwM2M | 12 V DC, PoE | | 07 | **Small cell (4G/5G)** Integrated base station (radio, baseband, antenna) for private LTE or NR on a local licence, shared-spectrum or leased route. A CBRS CBSD is a small cell that also registers with a spectrum access system. | EthernetFibreGNSS antenna1PPS/10 MHz | 3GPP NR air interface, 3GPP E-UTRA air interface, IEEE 1588 PTP, O-RAN E2, A1, O1 | PoE, 48 V DC, AC mains | | 08 | **5G core appliance (UPF/core)** Local 5G standalone core with user-plane function and local breakout, so site traffic stays on site. | EthernetFibreBMC | 3GPP 5G core service-based interfaces, DMTF Redfish | AC mains, 48 V DC | | 09 | **Point-to-point microwave** Licensed or licence-exempt point-to-point radio link between two sites with line-of-sight. | EthernetFibre | IEEE 1588 PTP | PoE, 48 V DC | | 10 | **Solar array** PV modules with charge controller sized to the site's load and climate. | RS-485 | Modbus | — | | 11 | **Battery case** Portable battery pack with DC outputs for field kits. | USB | Modbus | AC mains, HV DC, USB PD | | 12 | **Telescopic mast** Pneumatic or winch telescopic mast on a trailer, vehicle or base. | — | — | — | **05** From order to operation ## Every step, from the first call to a running site. The same crew and the same record carry the work from scope to maintenance. 1. 01 Order Scope the pit and its questions The engagement starts with the mine's own questions: which walls the slope design flags, how the fleet will be dispatched or automated, which neighbours a blast can reach and what the permit demands. Nexus Observatory Inc. returns a written scope with the monitoring plan, the radio approach, the evidence each regulator expects and a price per site. 2. 02 Survey Survey the rims, benches and boundary A crew walks the rims, ramps and boundary with the mine's geotechnical and survey teams. It measures radio coverage across the pit, confirms line of sight for radar, prisms and microwave, checks where solar works through the seasons and records every proposed position with photos and coordinates in the site record. 3. 03 Permits Spectrum, ground access and blasting rules Private LTE or 5G needs a licence, a shared-band authorisation or a lease through the national regulator, and the case is prepared from band tables and the measured survey. Blast monitoring follows the limits in the mine's permit and the applicable rules, and all work inside the pit follows the mine's own ground control and access procedures. 310 4. 04 Build Design, build and test before shipping The reference design becomes a bill of materials: radar and prisms, piezometer strings, blast monitors, dust and weather stations, the radio sites, the edge server and the power for each position. Stations are assembled and tested on the bench, enrolled with their identities and shipped with their configuration ready for the pit. 5. 05 Install Install around a working pit Installation is scheduled around blasting and haulage. Radio sites and the core go in first, then radar and total stations on the rim, prisms on the walls, piezometers in their boreholes and blast monitors at the agreed points. Each position is checked against the design and photographed for the site record. 6. 06 Commission Commission every node and every alarm Each node joins only after its identity is proven. Readings are then compared with references: survey control for prisms and GNSS, a stable target for the radar, calibration checks for dust and vibration. Alarm levels come from the geotechnical engineer and are tested end to end, from the wall to the phone in a supervisor's pocket. 7. 07 Operate Run the pit as one system The operations console shows every wall, every station and the radio network together. A displacement trend that accelerates raises an alarm with its data and its runbook, so the geotechnical engineer decides on clearing an area with the evidence in front of them. Each blast produces its vibration report automatically. 8. 08 Maintain Keep it true as the pit moves The pit changes every week, so monitoring moves with it. Prisms are re-surveyed, radar positions follow new walls, radio sites are added as benches deepen and software reaches the fleet in rings. Every visit and every change updates the site record that the next crew works from. **06** Data products and integration ## What it delivers, to whom, and into which systems. Data products - **Wall displacement and velocity maps with alarms** Geotechnical engineers, mine managers, shift supervisors - **Blast vibration and overpressure reports** Drill and blast engineers, community relations, regulators - **Dust and particulate records at the boundary** Environmental teams, regulators, neighbours - **Piezometer and water level series** Hydrogeologists and geotechnical engineers - **Radio coverage and fleet network performance** Mine technology and dispatch teams Integration - **Fleet management and dispatch** Coverage maps and wall alarms are offered to the dispatch system, so trucks can be held away from a flagged area. - **SCADA and historian** Readings are published over OPC UA and MQTT into the historian the plant already runs, with their quality flags. - **Mine planning and GIS** Displacement maps and instrument positions arrive as georeferenced layers in the mine's own coordinate system. - **Environmental reporting** Boundary dust and blast records are exported in the formats the permit and the regulator ask for. Exchanged through OPC UA (IEC 62541), OGC SensorThings API, 3GPP non-public networks. **07** Questions buyers ask ## Before you scope it. Does this replace our geotechnical engineer? No. The system measures and alerts; the engineer sets the alarm levels, interprets the trends and decides. Every alarm carries the data behind it, so the decision can be explained later. Can the private network carry autonomous haulage? The network is designed and measured for the coverage, capacity and latency the autonomy provider specifies, and the measurements are kept as evidence. The autonomy system and its safety case remain the provider's. What happens if a radar loses its link? The node keeps every reading and raises alarms locally; where a second path exists it fails over. Nothing is lost, and the gap is visible in the record. Can we keep the monitoring instruments we already own? Usually yes. Instruments with standard outputs such as SDI-12, RS-485, Modbus or Ethernet are read by the same base node, and their data joins the same record. Who owns the data? The mine does. Nexus Observatory Inc. delivers and operates the system under contract, and the data stays under the licence the mine chooses. **08** Resources ## The sources behind this page. Public standards, regulations and guidance, cited where they apply. Each applies only where its jurisdiction or scope does. 1. **1** [Guidelines for Open Pit Slope Design (Read and Stacey, eds.)](https://www.publish.csiro.au/) CSIRO Publishing · 2009 2. **2** [30 CFR Part 56: Safety and health standards, surface metal and nonmetal mines](https://www.ecfr.gov/current/title-30/part-56) US Mine Safety and Health Administration (eCFR) 3. **3** [30 CFR 816.67: Use of explosives, control of adverse effects](https://www.ecfr.gov/current/title-30/section-816.67) US Office of Surface Mining Reclamation and Enforcement (eCFR) 4. **4** [BS 7385-2: Evaluation and measurement for vibration in buildings, guide to damage levels from groundborne vibration](https://knowledge.bsigroup.com/) British Standards Institution 5. **5** [30 CFR Part 60: Respirable crystalline silica](https://www.ecfr.gov/current/title-30/part-60) US Mine Safety and Health Administration (eCFR) 6. **6** [Directive (EU) 2024/2881 on ambient air quality and cleaner air for Europe](https://eur-lex.europa.eu/eli/dir/2024/2881/oj) European Union · 2024 7. **7** [Guide to Instruments and Methods of Observation (WMO-No. 8)](https://library.wmo.int/) World Meteorological Organization 8. **8** [ISO 17757: Earth-moving machinery and mining, autonomous and semi-autonomous machine system safety](https://www.iso.org/search.html?q=ISO%2017757) International Organization for Standardization 9. **9** [TS 23.501: System architecture for the 5G System, including non-public networks](https://www.3gpp.org/DynaReport/23501.htm) 3GPP 10. **10** [47 CFR Part 96: Citizens Broadband Radio Service](https://www.ecfr.gov/current/title-47/part-96) US Federal Communications Commission (eCFR) **09** Related ## Use cases and solutions. [Use case Mine site private 5G and environmental monitoringA standalone 5G core, radios across the pit and edge compute for autonomy, with dust, vibration, slope and weather sensing for environmental records.The full use case →](https://observatory.global/use-cases/mine-5g/) [Use case Methane fenceline observatoryPoint sensors on the fenceline with optical gas imaging and quantification, feeding leak-detection reports.The full use case →](https://observatory.global/use-cases/methane-fenceline/) [Solution Mine, plant and port site monitoringSlope radar, tailings monitoring, dust and water, and site connectivity for operations and closure.Solutions for mining →](https://observatory.global/industries/mining/solutions/#industrial-site-monitoring) [Solution Private Wireless as a ServiceStandalone private 5G or LTE for a site, campus, port or mine: radios, core, SIMs, spectrum route and operations.Solutions for mining →](https://observatory.global/industries/mining/solutions/#private-wireless) [Solution Microgrids and off-grid site powerPV, storage and generator sizing for instruments and edge sites, with telemetry and remote control.Solutions for mining →](https://observatory.global/industries/mining/solutions/#site-power) **10** Mining: specialized fields ## Other fields of this industry. [Specialized field Underground hard-rock miningMicroseismic arrays, ventilation on demand, gas and refuge monitoring, people and vehicle tracking, and a private LTE or leaky-feeder backbone that follows the headings.The full field →](https://observatory.global/industries/mining/underground-hard-rock/) [Specialized field Underground coal miningMethane, airflow and carbon monoxide under explosion-protection rules, dust exposure, communication and tracking that survive an emergency, and methane drainage measured for safety and emissions.The full field →](https://observatory.global/industries/mining/underground-coal/) [Specialized field Placer and alluvial miningTurbidity and sediment downstream, mercury where amalgamation is used, settling pond stability and rehabilitation, with LoRaWAN and satellite links where nothing else reaches.The full field →](https://observatory.global/industries/mining/placer-alluvial/) [Specialized field In-situ recoveryWellfields that dissolve ore underground, watched through monitoring-well rings, wellhead flow and pressure, groundwater chemistry and leak detection, with every excursion caught and reported.The full field →](https://observatory.global/industries/mining/in-situ-recovery/) [Specialized field Quarrying and aggregatesBlast vibration and air overpressure at the neighbours, boundary dust, noise, discharge water and face stability, on simple, low-cost links for a site that sits next to a town.The full field →](https://observatory.global/industries/mining/quarrying/) [Specialized field Tailings storage facilitiesPiezometers, inclinometers, GNSS, satellite radar and water balance for tailings dams, with trigger levels from the engineer of record and evidence aligned to the global tailings standard.The full field →](https://observatory.global/industries/mining/tailings/) [Specialized field Seabed and marine mineralsEnvironmental baselines and plume monitoring for nearshore dredging and seabed mineral exploration: moored and seabed instruments, ocean-ready links and data that regulators and scientists can verify.The full field →](https://observatory.global/industries/mining/marine-minerals/) ### Bring us the site. 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