Engineering the Hand
Out of Harm's Way:
A Framework for Reducing Hand Exposure in Australian Mining
From injury statistics and regulators' "Hands Free" mandates — to task-level exposure mapping, engineered separation and the Last 300 mm.
Queensland's Resources Safety & Health Queensland — having recorded 55 serious finger accidents at coal mines since 2021, including 28 in a single year — directed all Site Senior Executives to implement a "Hands Free" work initiative: identify tasks where hands are involved and alternate methods that eliminate or reduce the need for hands in pinch and crush points; establish work registers for hands-free tasks with supporting procedures; and provide suitable tooling.
This paper is a practical framework for doing exactly that. It is organised around the same logic as the regulator's direction: find the task, find the hand, find a way to move the hand away.
The Evidence: Hand Exposure as a Systematic Operational Risk
Australia operates one of the world's most technically sophisticated mining industries. Advanced lifting systems, remote operations, precision automation, engineered guarding and mature critical-risk programmes have substantially changed how mines manage major hazards. The industry's long-term safety trend reflects that investment.
Yet one of the oldest forms of workplace exposure has remained persistently resistant to the same engineering discipline: the worker's hand is still routinely used as the final interface between a mechanical task and a hazardous energy source.
This is not a behaviour problem. It is an engineering gap — and the data from Australian regulators is now specific enough to treat it as one.
Western Australia
WorkSafe WA's safety performance data for the Western Australian mineral industry in 2022–23 recorded 1,456 lost-time and restricted-work injuries across the sector. Of these, 26% involved the hand — making it the most frequently injured body location in the dataset. A quarterly incident snapshot for the same period placed hands at 28% of injuries, again the leading body part.
These figures describe the distribution of reported injuries. They do not capture the far larger number of hand-exposure events — tasks where a worker's hands entered a hazardous position without an injury resulting. The exposure is occurring at a rate that is many multiples of the recorded injury rate.
Queensland: From Statistics to Regulatory Direction
Queensland's data is older but analytically richer, and the regulatory response it generated in 2023 is highly specific. RSHQ's earlier Mines Safety Bulletin 133 (2013) reported that hand injuries were the second most commonly reported lost-time injury in Queensland mining, accounting for approximately 16% of all lost-time injuries between 2007 and 2012. In that period, four injury types accounted for nearly 80% of serious hand injuries: fractures (30%), lacerations and open wounds (25%), crush injuries (15%), and traumatic amputations (9%).
Maintenance activities contributed over half of those injuries. The largest single proportion — 44% of serious hand injuries — occurred while working on equipment. The most common injury mechanisms were: trapped between stationary and moving objects (29%); hit by moving objects (19%); hit by falling objects (10%); and trapped by moving machinery (10%).
RSHQ's 2013 bulletin reached a conclusion that is directly relevant to this paper. It stated that risk controls should focus on lowering the exposure of hands to hazards, and explicitly noted that gloves — which most hand-safety guidance recommends as the primary control — are the least desirable control option. The bulletin found that although gloves can significantly reduce lacerations, cuts and burns, they do not lower the risk of fractures, crush injuries or amputations, which together made up over 50% of serious hand injuries in Queensland mines.
"Risk controls need to focus on lowering the exposure of hands to hazards that can cause serious hand injury. Although gloves can significantly lower the risk of lacerations, cuts, burns and chemical exposures, they do not lower the risk of fractures, crush injuries or amputations."
By October 2023, the same regulator had recorded 55 serious finger accidents at Queensland coal mines since 2021. The response was Bulletin 216 — not a reminder to wear gloves, but a specific directive to mines to implement a structured Hands Free work initiative, establish task registers, and provide suitable tooling. That directive is the engineering framework this paper supports.
National Severity Picture
Safe Work Australia's national data for 2023–24 recorded approximately 3,300 serious workers' compensation claims in mining — an incidence rate of around 14.9 per 1,000 workers. The median time lost per serious claim was 11.1 weeks, with median compensation of approximately A$36,400. Mining's median time lost and compensation costs are substantially above many other industries. Hand and finger injuries, which tend to involve surgery, rehabilitation and permanent functional impairment, sit at the more serious end of the compensation spectrum.
These figures should be read alongside RSHQ's observation that nearly 9% of all permanent incapacities reported by Queensland mines in 2011–12 were associated with hand-related injuries. A serious hand injury is frequently not fully reversible — hands are complex structures that do not always perform the same way after significant trauma, even following rehabilitation.
Why Hands Remain Exposed Despite Mechanised Mining
Australian mining has mechanised the high-energy part of almost every major task. Cranes lift. Hoists carry. Conveyors transport. Remote systems blast. Automated drills bore. The industry has invested billions in removing people from the highest-consequence energy zones.
Yet at the final act of almost every mechanised task, a person reaches in to complete it. A component is lowered — but a worker steadies it. A load is positioned — but a hand guides the last 200 mm. A sling is released — but a worker walks into the landing zone to retrieve the line. A pin is being driven — but a holder keeps their fingers near the struck face.
This pattern — mechanised task, manual final act — is not accidental. It reflects a structural feature of how mining operations develop: the primary task receives engineering investment, but the interface tasks around it accumulate without the same scrutiny. The result is a class of exposures that are highly repetitive, largely normalised, and almost entirely preventable.
"Machine movement → final manual intervention → hand exposure. Mining mechanises the lifting. It has not yet systematically mechanised the last act."
Why the Behaviour Develops and Persists
Workers reach in to steady, guide, retrieve and hold because these actions are effective. Without an engineered alternative, the hand remains the most precise, adaptable and responsive interface available. It provides feedback — load movement, contact, resistance — that no other available tool was providing. The worker who reaches in is not cutting corners; they are solving a real control problem with the only tool they have been given.
Training and procedure can describe a preferred method, but if that method requires the worker to accept a worse outcome for the task — load swings uncontrolled, component is misaligned, tagline remains snagged — the behaviour will revert. This is not a culture problem. It is an interface problem.
"Instructions not to touch the load — without providing a tool that replaces the guidance function — simply ask the worker to accept a worse outcome for the same task. The load still needs to be guided."
The Exposure That Injury Statistics Do Not Show
Injury databases capture incidents where something went wrong. They do not capture the thousands of times that workers place their hands into equivalent positions without an injury resulting. A mine that records five hand injuries in a year has workers placing their hands in comparable positions many thousands of times. The recorded injury is the rare adverse outcome of a routine exposure.
This matters for two reasons. First, an organisation that waits for injury frequency before investigating an exposure is using a lagging indicator for something that is directly observable right now. Second, the absence of recent injury provides no assurance about the exposure — it may simply mean the probability has not converted to an event recently.
- Where injuries occurred after they happened
- Which body part was injured
- What the mechanism was
- What the severity was
- Nothing about unreported near-misses
- Nothing about routine exposure that didn't result in injury
- Every task where a hand enters a hazardous zone
- The function the hand is performing each time
- Whether an engineered alternative exists
- How frequently the exposure occurs per shift
- Progress toward engineering each exposure out
- Observable before any injury occurs
A hand-exposure register, specifically recommended by RSHQ in October 2023, converts a lagging-indicator programme into an active exposure-reduction programme. The methodology for building one is described in Section 4.
What the Queensland Incidents Reveal About Hand Functions
RSHQ Bulletin 216 described 28 serious finger accidents at Queensland coal mines in 2023 alone. Each incident is a case study in the hand-function that put the worker in the exposure position. Reading them as engineering failures — rather than as individual events — reveals a consistent pattern.
The following selections from the 2023 incident record illustrate four of the eight hand functions that account for most mining hand exposure. In each case, the hand's function is identifiable — and in each case, an engineered alternative to that hand function is either available or foreseeable.
RSHQ's review of investigation reports for the 2023 incidents identified three factors present across the majority of cases: inadequate job planning and provision of suitable tools; inadequate assessment of risks and implementation of controls; and inexperienced persons undertaking tasks with inadequate supervision. The first two of these — inadequate job planning and inadequate tooling — are engineering and systems failures, not individual failures.
The regulator's response was specifically tooling-focused: provide suitable tooling to eliminate the need for hands in any pinch points or crush zones; implement a Hands Free initiative; establish work registers; and provide supporting procedures. This is the language of task-level engineering, not behavioural safety.
Where Mining Hand Exposure Concentrates
Suspended Load Guidance & Control
Workers approach crane and hoist loads to steer, steady or direct them during travel, descent and final approach. The hand is on or adjacent to a moving mass. Load swing, rotation or sudden shift brings the hand into a crush zone between the load and a fixed surface.
Load Landing & Final Alignment — The Last 300 mm
As a load approaches its landing or mating surface, precision demand increases. Workers instinctively move closer and use the hand for fine alignment. The hand is now between a moving load and a fixed receiving surface — the gap closing to zero as the load contacts. This is the Last 300 mm: a particularly critical crush-risk moment that occurs at the end of nearly every lift.
Tagline Handling & Line Retrieval
Taglines help maintain separation during a lift — but the line must be managed throughout the task and retrieved after landing. Workers often approach a recently landed load to recover a fallen or pinned tagline. This secondary approach — after the perceived danger of the lift has passed — frequently bypasses the discipline applied during the lift itself.
Component Removal During Maintenance
When a heavy component separates from its mount under crane tension, it swings, tilts and travels unpredictably in the final phase of extraction. Workers steady, guide and receive the component as it clears the structure. The hand is in contact with a moving load near the mounting structure — a classic crush zone.
Component Reinstallation & Alignment
Reinstallation is more hazardous than removal. The component moves toward a fixed structure, requiring alignment with bores, flanges or keyways. Workers guide the component into position while the crane holds it above the mating surface — hand between the descending component and the fixed mount. The closer the component gets to its seat, the narrower the gap and the more concentrated the exposure.
Pins, Drifts & Struck-Tool Operations
One of the most consistently identified hand-exposure patterns in Queensland's incident record: one worker holds a punch, drift pin or chisel while another delivers hammer blows. The holder's hand is positioned near the struck face. Striker fatigue, tool deflection or communication failure can direct the full hammer energy onto the holder's hand. The exposure recurs on every pin, every drift, every chisel task — across equipment maintenance, shutdown work and fabrication.
Steel Guards, Covers & Ferrous Panel Handling
Fixed plant, mobile equipment and workshop environments all require routine removal and reinstallation of heavy steel guards, access covers, grating and wear liners. These are typically flat ferrous panels — often 50–200 kg — handled by a hand grip on the panel edge. A tilt, slip or unexpected shift concentrates the drop-crush risk at the worker's grip point. Gloves reduce laceration risk from sharp edges but provide no protection against the panel's mass.
Pipe, Tubular & Cylindrical Component Handling
Pipe sections, hydraulic cylinders, drill rods, shaft sections and similar components share a geometry that creates consistent hand exposure: smooth, round surfaces that offer no natural grip resistance to rotation. Any shift in the load's balance point during handling can cause the component to roll or swing — with the worker's hand on its surface. The Queensland 2023 incidents include a partial amputation during drill rod insertion into a mast, a pattern that recurs across various tubular-handling tasks.
Tyre & Wheel Assembly Maintenance
Tyre and wheel assemblies on large mining equipment are among the heaviest component-handling tasks in the industry. Removal and installation involve crane assistance and a worker guiding the assembly clear of the hub or onto the hub mating surface. The assembly is large, the access is constrained, and the consequences of a sudden swing or shift onto the worker's guiding hand are severe.
Truck & Trailer Loading / Unloading
Mine sites receive and despatch large components continuously — replacement parts, fabricated structures, motor assemblies, skids and pipe. Each arrival or despatch creates a loading or unloading sequence. Workers stand alongside the trailer, hands on the descending component, guiding it toward the trailer deck. The trailer deck is a fixed structure. The component is moving. As the component approaches the deck, the gap closes — with the guiding hand in it.
Conveyor & Fixed-Plant Component Handling
Fixed plant — conveyors, crushers, screens, feeders — requires regular maintenance. Wear liners, guards, screen decks and pump components are routinely removed and reinstalled. The specific hand exposure here is component handling and positioning within the fixed-plant environment — not the broader conveyor safety picture (nip points, stored energy, LOTO) which requires different controls entirely.
Awkward Manual Handling & Grip-Geometry Exposure
Not all hand exposure involves crane loads or high-energy strike operations. Some components create exposure because their geometry makes them difficult to grip — smooth surfaces, unbalanced loads, unusual profiles, no natural hand hold. The worker's improvised grip forces the hand into an exposed position. Each rebalancing adjustment during a lift is an additional exposure moment. Weight may be manageable; geometry may still be the hazard.
The Hand-Exposure Register: From RSHQ Directive to Site Practice
RSHQ's October 2023 directive specifically recommended that mines establish work registers for hands-free tasks. The following nine-step methodology converts that recommendation into a practical site system.
Why Gloves Cannot Finish the Job
High-performance gloves are not the problem. Cut-resistant gloves, impact-protection gloves, chemical-resistant gloves and task-specific glove selection all have important and irreplaceable roles in mining hand safety. This section is not an argument against gloves.
It is an argument about the limits of what gloves can do — and about where those limits sit relative to the injury types that are causing the most serious outcomes in Australian mines.
RSHQ's Mines Safety Bulletin 133 stated it directly: gloves are the least desirable primary risk control for serious hand injuries. The bulletin found that while gloves significantly reduce lacerations, cuts, burns and chemical exposures, they do not lower the risk of fractures, crush injuries or amputations. Those three injury types accounted for 54% of serious hand injuries in Queensland mines between 2007 and 2012.
"Most information for preventing hand injuries recommends the selection and use of gloves as the primary risk control. However this is the least desirable control option."
— RSHQ Mines Safety Bulletin 133, 2013
The engineering reason is straightforward. A glove can resist cutting force up to its rated resistance level. It cannot create clearance between a hand and hundreds of kilograms of moving steel. When a suspended component swings toward a fixed structure, the crush energy that is available — the component's mass multiplied by its acceleration — will compress whatever is between them. A glove may affect the surface injury characteristics of that compression event; it cannot prevent the compression.
This is exactly why the hierarchy of controls places PPE at the foot of the pyramid. It is the final protective layer — essential when all other controls have been applied and residual exposure remains. Using it as the primary layer against a crush or fracture mechanism is not the same as controlling the risk.
The False Finish Line
Organisations that have invested in glove selection programmes, hand-safety campaigns and procedure compliance sometimes reach a point where they believe the hand-safety problem has been substantially addressed. The WA injury distribution — hands consistently accounting for 26–28% of mining injuries despite mature glove programmes — suggests that this perception is not always aligned with the evidence.
The glove programme addresses the hand-contact layer of exposure. The exposure itself — the hand entering the hazard zone — remains. Until that exposure is reduced at the task level, the hand-injury distribution is unlikely to move substantially.
Organising Interventions by Engineering Function
PSC's product range is most useful when organised not by product name but by the engineering function each tool provides. The following mapping connects the hand functions identified in the exposure register to the appropriate engineering response.
Applying the Hierarchy — Hand Exposure as an Engineering Problem
The hierarchy of controls, applied specifically to task-level hand exposure. The strongest programmes address as many levels as possible for each identified exposure — they do not stop at administrative controls or PPE.
Australian Mining Is Well Positioned
to Lead the Next Step
Australia has the safety systems, engineering capability and operational maturity to take hand safety beyond the glove programme. The regulatory direction is already there. Queensland's regulator has mandated Hands Free initiatives, task registers and suitable tooling. The injury data from both WA and Queensland tells us why urgency is warranted.
The next evolution does not require a new safety programme. It requires applying existing engineering discipline — the same discipline that mechanised the primary task — to the manual final acts that surround it.
Walk the task. Find where the hands go. Ask what they are doing. Ask whether an engineered interface can do the same thing while the hand stays farther away. Document the result — whether the answer is yes or no.
Sometimes the answer is yes. When the answer is no, there is an opportunity to engineer the exposure out of the task. That is where serious hand-injury prevention moves beyond PPE — and becomes engineering.
PSC Hand Safety India — Australian Mining
PSC works with mining, resources and heavy-industry operations to identify recurring hand-exposure tasks and evaluate practical stand-off, load-control, magnetic, retrieval, pipe-handling and striking solutions.
Sites can share task photographs, short videos or task descriptions for an initial application review. Solutions are then field-trialled with operators and HSE teams before wider adoption.
handsafetyfirst.in · pschandsfree.com
The short companion article Beyond Gloves is available separately as an executive summary of this paper's core argument.
PSC/HSF Range — by Engineering Function
Stand-off load control: HSF RiggerSafe® · PSC LoadGuider® · PSC Guide-It®
Remote load orientation: PSC LoadGuider® Anti-Tangle Tagline · PSC Tagline Retriever
Remote engagement: HSF LoadGrab®
Ferrous surface interface: PSC Load-It® · PSC MagHead
Tubular geometry: PSC Handle-Tech Pipe Lifter · PSC Tubular Guider · PSC GasGrab®
Strike-zone separation: PSC FingerSaver® · StrikeSafe® (TechMRO) · PSC Chisel & Punch Holder
Lift assist: PSC Lift Assist · PSC Ezy-Lift