LHD machines combine a front loading bucket, articulated chassis and a low profile suitable for underground headings. They collect blasted rock at the face or drawpoint, travel to an ore pass, truck loading area or crusher, and tip the material. Unlike surface loaders, underground machines must work within strict height, width and turning limits. The operator or automation system must manage bucket fill, traction, braking and safe travel speed. The machine is selected according to ore density, bucket capacity, drift geometry, gradient and haul distance. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Underground haul trucks use compact, low-profile frames and articulated steering to negotiate restricted drifts and tight corners. Their payload, engine or traction system, retarder and braking performance must suit the ramp gradient and mine ventilation capacity. Designers protect critical components from rock impacts and provide access for inspections in constrained workshops. Truck dimensions must allow clearance at intersections, passing bays and loading points. A truck that carries more tonnes is not necessarily the most productive if it cannot circulate efficiently through the mine. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Battery-electric loaders replace diesel engines with electric traction motors and onboard energy storage. They eliminate local diesel exhaust emissions during operation and can reduce heat and ventilation demand, although the mine must still control dust and other contaminants. Electric drives can deliver strong low-speed torque, useful during bucket penetration and uphill travel. Their operational constraints include charging access, battery capacity, shift planning and emergency procedures. A successful conversion therefore requires evaluating the complete duty cycle rather than comparing only machine specifications. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Electric underground trucks use battery-powered traction systems to transport ore or waste along declines and ramps. Electric motors provide controlled torque, and suitable systems can recover energy while travelling downhill. The energy balance depends on grade, payload direction, distance, stops and auxiliary loads. Mines must provide charging or battery exchange facilities without obstructing traffic. Operators should evaluate haulage productivity, electrical infrastructure, ventilation benefits and battery life together. Charging arrangements need to fit the operating schedule rather than creating an additional queue. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Regenerative braking converts some of the kinetic or gravitational energy of a moving electric truck into electrical energy during deceleration. On suitable downhill routes, traction motors act as generators and return energy to the battery, subject to battery state of charge and system limits. Regeneration does not replace service, emergency or parking brakes. The amount recovered depends on speed, gradient, load and route profile. Mines should validate braking capacity and thermal performance for worst-case operating conditions, especially when a fully loaded vehicle descends a ramp. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Autonomous loading and hauling combines onboard sensing, machine control, mapped routes and a supervisory system. A loader may follow a defined travel path, collect material through automated or assisted bucket filling, and discharge it at a designated point. A supervisor manages production tasks, access permissions and exceptions rather than steering every movement. Automation can support operation during shift changes or in restricted areas, but it requires dependable communications and disciplined segregation from people and manually driven equipment. Mine-specific risk assessments determine which functions can run unattended. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Autonomous routes are defined using surveyed mine geometry, permitted travel corridors, speed limits, stopping areas and operating boundaries. Supervisory software allocates machines to tasks and monitors status, while onboard controls handle navigation and local obstacles. Any change to a drift, intersection or loading point may require a map update and controlled commissioning. Operators also need rules for vehicle recovery, communication loss and manual intervention. Clear responsibility for route changes is essential because an outdated map can undermine otherwise capable automation. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
LiDAR measures distances by emitting laser light and detecting reflected signals, creating a three-dimensional representation of the surroundings. Underground autonomous vehicles can use these measurements for localization, obstacle detection and mapping where satellite positioning is unavailable. Performance depends on sensor placement, dust, water spray, reflective surfaces and the geometry of the workings. LiDAR is normally combined with other sensors, vehicle odometry and supervisory controls. Its contribution is not merely detecting an obstacle but helping the machine understand where it is relative to a permitted route. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Mixed fleets combine autonomous equipment with manually operated vehicles and mobile workers. Safe integration begins by identifying shared routes, crossings, loading points and maintenance access. Mines may use physical separation, access permissions, traffic signals and operational procedures to prevent conflicting movements. Digital systems can display machine status, but they must not be treated as a substitute for engineered safeguards. Commissioning should include unusual scenarios such as breakdown recovery, contractors entering a level and changes to traffic direction. Clear handover procedures are needed when a machine changes operating mode. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Underground battery charging may use fixed charging stations, opportunity charging during breaks or battery swapping where the equipment design supports it. The best approach depends on shift length, available electrical capacity, machine utilization and the time needed to restore energy. Charging bays need safe vehicle access, appropriate fire protection, ventilation considerations and maintenance arrangements. Fleet planning should include spare capacity for unexpected delays. Operators must evaluate the full charging cycle, including travel to the charger, connection, charging and return to production. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Diesel fleets depend on fuel supply, engine maintenance and ventilation capable of controlling exhaust and heat. Battery-electric fleets shift part of that burden toward electrical distribution, charging infrastructure and battery management. The comparison should include capital expenditure, energy prices, equipment availability, ventilation requirements and production duty cycles. Electric vehicles can reduce exposure to diesel particulate matter at the source, but they do not remove all underground air-quality hazards. A phased deployment helps mines test actual productivity and maintenance requirements before wider conversion. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Equipment diagnostics collect information about machine condition, operating hours, faults and component performance. For haulage fleets, useful signals include brake temperature, hydraulic pressure, battery health, engine alerts and repeated overloads. Maintenance teams can combine this information with inspections to identify emerging problems before failures interrupt production. Diagnostic alerts require prioritization because excessive low-value alarms can overwhelm operators. The strongest programs link fault information to maintenance work orders, repair history and verification that the machine is safe before returning to service. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Mine control rooms can display equipment identity, operating state and location at a level of detail supported by the installed infrastructure. A zone-based system may show that a vehicle has entered a haulage level or intersection area, while more precise positioning requires additional sensing and coverage. Dispatchers use this information to coordinate movements and investigate delays. The display should distinguish confirmed data from stale or missing updates. Visibility is most useful when connected to clear operating procedures rather than interpreted as an automatic guarantee that routes are clear. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Zone-based identification assigns personnel or equipment to defined mine areas when their tags are detected by installed readers or other infrastructure. In a mixed fleet, this can support entry logging, area occupancy awareness and workflows around controlled access. Its resolution is determined by zone design, coverage and update behavior, not by the precision of a map icon. It cannot reliably establish exact separation distance between a pedestrian and a vehicle unless a suitable proximity system is added. Operators should validate detection at boundaries and document the limits. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Digital safety systems can combine equipment events, personnel presence and operating rules to improve awareness of haulage-related risks. Examples include identifying workers in a restricted production zone, documenting entry authorization or supporting emergency accountability. Their value depends on reliable detection, appropriate alarms and disciplined responses by operators and supervisors. Safety-critical collision prevention requires dedicated design and validation; a general workforce accountability platform should not be assumed to stop a moving truck. Mines should integrate these systems with traffic management and emergency procedures. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
You as the operator of a large mine know best how difficult and stressful it can be to precisely locate your entire workforce in time with the blast schedule. Harsh environments like mines are places where safety matters most. Blocked tunnels, disrupted communication lines and blackouts will make an evacuation a chaotic nightmare even for a well-trained team. Locating employees in a timely manner is crucial.
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A loading and haulage cycle normally includes positioning, loading, loaded travel, dumping and empty return. Its duration also includes waiting at intersections, queues and operator handovers. The mine should map each stage and measure delays separately, because a faster truck does not improve output when the loader or dump point is the bottleneck. Dispatching and road maintenance influence the whole cycle. Consistent payload control and safe travel speeds are essential to maintaining production without increasing equipment wear or collision exposure. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Mine layout determines available drift width, turning radius, ramp gradient, passing opportunities and distances between production and discharge points. These constraints influence the choice of loader, truck, conveyor or rail haulage. Large machines can carry more material but may require expensive excavation or cause congestion. Planners should test alternative routes and equipment combinations against expected production rates and mine development stages. Ventilation, maintenance access and emergency egress also affect the preferred solution, especially as workings extend farther from the shaft or portal. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Bucket and truck payload determine the mass moved in each loading cycle, but practical productivity also depends on fill factor, rock density and matching equipment capacities. An undersized loader may need excessive passes to fill a truck, while an oversized bucket may exceed the truck rating or create spillage. Operators should monitor actual tonnes rather than nominal volume alone. Payload control protects tyres, brakes and structural components. Consistent loading practices reduce variability and help dispatchers predict when trucks will be ready to depart. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Dispatchers coordinate haul trucks and loaders by matching available vehicles to production points, travel times and dump capacity. Effective decisions consider queue lengths, route restrictions, equipment condition and changing ore priorities. Dispatching should avoid sending multiple trucks to a location where only one can be loaded or turned safely. Real-time status data can help, but the operating rules must account for delayed communications and manual overrides. Performance improves when dispatch decisions are reviewed against actual waiting time, tonnes moved and safety observations. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Loading delays often arise from insufficient blasted material, poor fragmentation, restricted access, equipment faults or truck queues. Improvement begins by recording the reason for each delay rather than treating all idle time alike. Better coordination between drilling, blasting, ground support and loading can ensure a production point is ready when equipment arrives. Maintaining turning space and a clear approach to the muckpile reduces maneuvering time. Autonomous operation may extend available hours, but it cannot compensate for blocked headings or unsuitable material conditions. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Haul-road conditions affect speed, traction, tyre damage, suspension loads and stopping distance. Water, loose rock, potholes and uneven grades can increase cycle time and make steering or braking less predictable. Mines need inspection routines, drainage, grading and prompt removal of spillage. Road geometry should suit the largest operating vehicle, including turning and passing requirements. Operators must reduce speed when conditions deteriorate. Road maintenance is therefore a production activity as well as a safety control, and its benefits should be measured through travel time and equipment damage. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Trucks offer flexible routing and can serve changing production headings without a continuous fixed installation. Conveyors are attractive where material flows are sustained along a stable route and high throughput justifies infrastructure. The comparison should include capital cost, energy, maintenance, transfer points, gradient, fragmentation and future mine development. A hybrid arrangement may use loaders and trucks for short collection distances followed by conveyor transport. Decisions should reflect the entire material handling chain, not simply the unit cost of moving a tonne over one segment. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Narrow-vein mining requires transport equipment compatible with restricted headings and selective extraction. Small loaders and trucks can reduce the excavation required for access, although their lower payload may increase trips. Mines must balance ore dilution, development costs and haulage capacity. Tight bends and steep grades make braking, visibility and traffic scheduling particularly important. Material may be moved to a central transfer point before entering a larger haulage system. Equipment selection should consider the complete development sequence, not only the dimensions of the first working area. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Autonomous haulage can increase productive machine hours by allowing equipment to work through some shift transitions and reducing variation in repetitive travel tasks. Gains depend on reliable routes, consistent material availability and effective supervision. Automation can also introduce downtime from network failures, access conflicts or map changes. Mines should compare productive tonnes per scheduled hour before and after deployment, including support labor and infrastructure costs. A realistic business case tests the operating system as a whole rather than assuming that removing an onboard driver automatically increases output. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Availability measures whether a machine is fit and ready for use during the defined time period. Utilization measures how much of that available time is actually spent performing productive or designated operating work. A truck may have high availability but low utilization if it waits for a loader, lacks an assigned route or is held during a blast. Both metrics require clear definitions for delays, standby and maintenance. An improvement program should identify whether the constraint is equipment reliability, dispatching, production readiness or transport capacity. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Electrification can reduce underground diesel exhaust and engine heat, potentially changing ventilation requirements and energy costs. The magnitude of savings depends on fleet composition, mine depth, airflow rules and electrical generation costs. Battery charging adds peak loads and may require substations, cabling and new operating procedures. Electric trucks can also have different maintenance and braking characteristics. A credible cost model includes equipment, batteries, infrastructure, ventilation, downtime and lifecycle replacement. Mines should validate actual energy consumption on representative gradients before scaling the fleet. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Maintenance scheduling protects haulage capacity by coordinating inspections and repairs with production demands. Planned servicing should consider operating hours, condition data, critical component life and availability of replacement machines. Removing too many trucks at once can create a loading bottleneck, while postponing brake or steering repairs creates unacceptable risk. Reliability teams should analyze repeat failures and verify the effectiveness of corrective work. The objective is not simply fewer maintenance hours but predictable safe equipment availability during the shifts when production needs it. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Vehicle visibility data can help control rooms identify where congestion is developing and how long equipment remains in defined operating areas. Useful indicators include queues at crushers, prolonged occupation of passing bays and unexpected vehicle movements. The resolution and update frequency of the system determine which conclusions are justified. Zone presence alone cannot reveal every vehicle-to-vehicle distance or collision risk. Mines should combine operational information with road design, traffic rules and direct communication to resolve congestion safely rather than encourage higher speeds. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Workforce accountability supports blast-related transport shutdowns by helping supervisors determine whether personnel have cleared designated areas before authorization is given. A typical workflow identifies the blast zone, restricts access, checks personnel status and records clearance decisions. Digital presence information can reduce manual reconciliation, but it must be supported by physical controls and established blasting procedures. Unknown tag status or incomplete coverage requires a conservative response. Haulage should resume only after the responsible personnel confirm that clearance, ventilation and re-entry requirements have been satisfied. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Haulage performance should be assessed using a balanced set of measures: tonnes moved, cycle time, payload, equipment availability, utilization, delays and safety events. Results should be segmented by route, shift and equipment class because aggregate averages can hide persistent bottlenecks. Mines need consistent data definitions and a baseline before introducing new dispatch or automation systems. Improvements must not come at the expense of speed control, maintenance or pedestrian separation. Regular review with operators helps explain unusual patterns and identify practical corrective actions. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Maintain visibility of all your staff members at all times during operations. Built according to strict industry guidelines and drawing on best practices, Crew Companion enables effective and reliable operations without needing any human interaction in day-to-day situations, as well as emergencies.
Crew Companion by Identec Solutions
Powered haulage hazards include vehicle collisions, pedestrian strikes, rollovers, loss of braking control, contact with fixed structures and conveyor entanglement. Underground mines intensify several of these risks through confined roadways, blind corners, gradients and limited visibility. Risk assessments should consider routine travel, reversing, loading, dumping and maintenance. Effective controls begin with route design, equipment suitability and separation of people from moving machinery. Warning systems and operator training support these controls but do not eliminate the need for safe traffic arrangements. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Vehicle-pedestrian interactions are dangerous underground because heavy equipment has substantial stopping distances and operators may have restricted sightlines. Noise, dust, curves and uneven lighting can prevent a worker from recognizing an approaching machine. Reversing and articulated movements create additional blind areas. Mines should establish pedestrian exclusion zones, designated crossings and communication rules before anyone enters a haulage area. Proximity detection may provide another layer of protection, but its detection coverage and response times must be verified under actual mine conditions. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Traffic separation rules should specify where pedestrians, light vehicles and heavy equipment may travel, cross or stop. A site-specific plan identifies one-way routes, passing bays, speed limits, right-of-way arrangements and controlled access areas. Physical barriers and separate walkways are preferable where feasible. Rules must also cover temporary roadworks, contractors and equipment recovery. Supervisors should verify that signs, lighting and communication arrangements match the current mine layout. Periodic audits and worker feedback help identify places where written rules do not reflect actual movement patterns. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Equipment inspections prevent accidents by identifying defects in brakes, steering, tyres, lights, alarms, guards and other critical systems before operation. Pre-start checks should be simple enough to complete consistently and specific to the machine type. Serious defects require isolation and repair rather than informal acceptance. Maintenance personnel need suitable test procedures after safety-critical work, especially on braking and steering systems. Inspection records should reveal recurring failures and support preventive action. A signed checklist alone is insufficient unless faults are corrected and machines are verified safe before returning to traffic. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Blind-spot risk is reduced by improving visibility and limiting situations in which people or vehicles can enter areas the operator cannot see. Controls include cameras, mirrors, lighting, route separation, clear intersections and reversing procedures. Operators must understand the limitations of each aid, including dirt on lenses and poor visibility in dust. Mines should test sightlines with representative vehicles and actual loading configurations. Spotters require formal communication rules and safe positions. Technology is most effective when combined with speed control and the elimination of unnecessary pedestrian exposure. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Proximity detection systems use sensors or tags to recognize people, equipment or obstacles within defined ranges. Depending on design, they may warn the operator, reduce machine speed or initiate a stop. Underground performance can be affected by metal structures, sensor placement, occlusion and complex vehicle geometry. The mine must define the hazardous scenarios the system is intended to address and test them at relevant speeds. Workers also need training about blind zones, nuisance alarms and system faults. Proximity technology is an additional safeguard, not permission to enter an otherwise unsafe operating area. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Conveyor transfer points require guarding against access to moving belts, pulleys and nip points. Material spillage, dust and blocked chutes can create further hazards during cleanup. Emergency stops, pull cords and safe access routes must be designed for the specific installation and maintained in working order. Guards should prevent contact during normal operation and be removed only under an authorized isolation procedure. Regular inspections should look for damaged guarding, belt misalignment and unsafe accumulation of material. Supervisors must ensure that production pressure does not encourage workers to clear blockages while machinery is moving. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Conveyors must be isolated before maintenance because unexpected startup or stored mechanical energy can pull workers into moving components. Isolation procedures should identify all energy sources, including electrical drives, hydraulic systems, gravity-loaded tensioners and interconnected equipment. Workers should lock and tag the isolation, release or restrain stored energy and verify a zero-energy condition before starting work. Communication is essential when multiple teams are involved. Emergency stop devices are not substitutes for isolation. The conveyor should return to service only after guards are restored, personnel are clear and the responsible person authorizes startup. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Diesel exhaust exposes underground workers to harmful gases and particulate matter, particularly where engines operate in confined headings. Haulage fleets can be major contributors because they travel widely and may idle near loading points. Controls include ventilation, low-emission engines, exhaust treatment, maintenance and minimizing unnecessary idling. Exposure monitoring is needed to assess whether controls are effective. Vehicle electrification can reduce diesel emissions at the source, although dust and other airborne hazards remain. Mines should manage diesel exposure through an integrated air-quality program rather than relying on a single technology. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Battery-electric haulage changes the hazard profile by introducing high-voltage systems, stored electrical energy and battery-specific thermal risks. Mines need equipment-compatible isolation procedures, trained maintenance personnel and suitable emergency response arrangements. Charging stations must be designed for traffic flow, electrical protection and the battery technology in use. Damage after collision or water ingress requires a defined inspection process. Fire scenarios should be assessed with emergency services and ventilation specialists. Electric propulsion removes diesel exhaust from the vehicle but does not remove conventional braking, collision or ground-condition hazards. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Slips and falls occur when operators climb onto vehicles with muddy footwear, damaged steps or inadequate handholds. Mines should maintain non-slip access surfaces, lighting and three-point-contact arrangements where applicable. Equipment design must allow safe access for inspections and refueling or charging tasks. Operators should avoid jumping from machines and keep access areas clear of tools and debris. Regular checks of ladders, rails and steps are as important as mechanical inspections. Good access design also reduces fatigue and the temptation to take unsafe shortcuts during repeated entries and exits. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Autonomous haulage zones require controlled boundaries, clear access authorization and procedures for switching between automatic and manual modes. Mines should define who can enter, how machines are stopped and how a person confirms that movement is inhibited. Barriers, signs and access-control systems may support segregation, but procedures must address failures and recovery operations. Maps and operating limits must be updated after road changes. Commissioning should test credible fault scenarios, including communication loss and unexpected personnel entry. A supervisory display alone is not an adequate safeguard against unintended vehicle movement. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Personnel accountability supports emergency response by identifying who may be present in affected haulage areas and helping reconcile evacuation status. Following a collision, fire or blocked decline, responders need to know which levels were occupied and where access routes remain usable. A digital system can support that assessment, but missing tags, damaged infrastructure and delayed updates must be treated as uncertainties. Emergency plans should define manual confirmation methods and responsibilities for resolving unknown status. Accountability information is most valuable when practiced during drills and integrated with established incident command procedures. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Control rooms can use personnel detection and zone occupancy information to identify workers who may be near active haulage routes. The usefulness of this information depends on reader coverage, update latency and the size of the defined zones. A zone-based indication does not establish exact pedestrian-to-vehicle separation or replace a certified collision avoidance function. Operators should respond according to agreed procedures, such as contacting a supervisor or restricting access. Clear displays should show unknown or stale status explicitly. Regular testing helps ensure that operating decisions reflect the system’s actual capabilities. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Haulage safety performance should be assessed through leading and lagging indicators rather than accident counts alone. Useful measures include traffic rule compliance, critical defect closure, near-miss reporting, route inspection findings and the completion of corrective actions. Investigations should examine road geometry, supervision, equipment design and organizational pressures instead of focusing solely on driver error. Audits need to verify how controls perform during night shifts, breakdowns and abnormal operations. Management should review trends with the workforce and confirm that corrective measures have reduced the underlying risk. In practice, the mine should document the operating assumptions, assign clear responsibility for checks and review performance after changes to equipment or layout. Training, maintenance and operating procedures must reflect actual site conditions rather than generic manufacturer ratings. ref
Where difficult conditions exist and your nearest exit is kilometres away, Crew Companion is the answer for the safety of your staff: a scalable and customisable personnel monitoring solution specifically designed to meet your organisation’s safety needs in the mining industry. Ensure your underground and open-pit operations are visible and therefore manageable – all in line with the most advanced HSE and business requirements.
Crew Companion by Identec Solutions
Mining Industry:
Underground Mining | Surface and Open-Pit Mining | Hard-Rock Mining | Coal Mining | Metal and Non-Metal Mining | The Mining Lifecycle | Mining Companies and Stakeholders | Mining Jobs and Roles | Digital Mining and Mine Automation | Sustainable and Responsible Mining
Production Process:
Mineral Exploration and Resource Definition | Mine Planning and Design | Underground Mine Development | Drilling and Blasting | Underground Mining Methods | Loading, Hauling and Transportation | Material Handling and Conveying | Crushing, Grinding and Mineral Processing | Waste Rock and Tailings Management | Mine Closure and Rehabilitation
Safety:
Mine Safety Management | Workforce Accountability | Underground Access and Qualification Control | Emergency Preparedness and Response | Mine Evacuation and Mustering | Mine Rescue Operations | Blast Clearance and Re-Entry | Vehicle Collision Avoidance | Ventilation and Gas Monitoring | Ground Control and Rock-Fall Prevention
Geographical Areas and Regions:
Mining in Australia | Mining in Canada | Mining in Sweden and the Nordic Region | Mining in Chile | Mining in Peru and the Andes | Mining in Southern Africa | Mining in the United States | Mining in Central and Western Europe | Mining in West Africa | Mining in Arctic and High-Altitude Regions
Mining Equipment and Technology:
Drilling Rigs and Mining Jumbos | Load–Haul–Dump Machines | Underground and Surface Haul Trucks | Continuous Miners and Roadheaders | Crushers, Conveyors and Hoisting Systems | Mine Ventilation and Dewatering Equipment | Personal Protective and Self-Rescue Equipment | Underground Communication Networks | Personnel Positioning and Proximity Detection | Autonomous and Remote-Controlled Mining Equipment | Underground Network