A Persistent Problem That Deserves a Deeper Answer
In June 2026, Petroleum Australia published an article titled "Hand Injuries Still Plague Sector Despite Being Largely Preventable." Written by Berkay Erkan, it is a well-researched, industry-facing piece that draws on data from the International Association of Drilling Contractors (IADC), the US Centers for Disease Control and Prevention (CDC), Resources Safety & Health Queensland (RSHQ), Safe Work Australia, and the International Association of Oil & Gas Producers (IOGP). It calls for better hand injury prevention across oil and gas operations and makes a serious case for the industry to act.
The article is important. It deserves wide circulation across Australian offshore, LNG, drilling, well servicing, pipe yard, fabrication yard, marine support, shutdown and maintenance operations. Every HSE manager, site supervisor, drilling contractor and procurement team in Australian resources and energy should read it.
The Australian context is stark. Safe Work Australia recorded 188 traumatic workplace fatalities in 2024 and more than 146,000 serious compensation claims, with over half of all accepted claims involving upper-limb injuries. That is not a historical or overseas dataset. That is the Australian workers compensation system, right now, describing the cost of an industry that has not yet fully solved the hand exposure problem.
But this article argues that the Petroleum Australia piece, valuable as it is, points toward a question the industry has not yet fully answered: why are hands still in the hazard zone at all?
This is not a criticism of the original article. It is a progression of its argument. Better gloves, better inductions, better hazard awareness and better PPE selection are all necessary. But they are not sufficient. The fundamental issue is that across a wide range of oil and gas tasks — load landing, tubular handling, valve positioning, rigging, marine logistics and maintenance — the worker's hand remains the final control point. Until that changes, hand injuries will continue.
This is the Hand Safety First® position: the problem is not only hand injury. The problem is hand exposure.
What the Petroleum Australia Article Said: A Summary
The Petroleum Australia article makes several important findings that are directly relevant to Australian worksites. The following is a faithful summary of its key points, cited where appropriate.
High Risk Among Offshore and Well Service Workers
Oil and gas workers, particularly well service contractors working offshore, are exposed to greater risk of severe upper extremity injuries that can result in hospitalisation or amputation. The article is clear that these are not minor workplace incidents. They are serious, often life-altering injuries that can end careers and permanently affect quality of life.
Crush Injuries, Pinch Points and the Range of Hand Hazards
Along with cuts and lacerations, crush injuries are the most common type of injury and occur when body parts get caught in, on or between objects, which are referred to as 'pinch points'. This type of crush injury can be particularly severe if it involves heavy objects or if the worker is unable to promptly free their hand.
Impact injuries can cause fractures, dislocations, and deep tissue damage — impact injuries can also be caused by repetitive tasks such as hammering, a known source of carpal tunnel syndrome.
The article also identifies hazards specific to the oil and gas environment, including chemical corrosion and burns from sulphuric acid, nitric acid, toluene and similar substances, exposure to hazardous or radioactive substances, high temperature burns from hot steam or high-temperature liquids, and biological hazards such as harmful microorganisms.
The RSHQ Finger Crush Incident: Routine Work, Unfamiliar Equipment
The article refers to a finger crush injury investigated by Resources Safety & Health Queensland. Three key issues were identified: the worker had not identified that the equipment being used at a new site was different to that at his usual work location; the work conducted was a routine task by an experienced worker and no risks had been identified; and the site induction conducted prior to the worker commencing at the new site failed to identify the difference in the work environment.
This incident illustrates a pattern that appears across Australian oil and gas operations consistently: familiarity breeds exposure. Experienced workers, performing tasks they have done hundreds of times, in slightly changed environments, on slightly different equipment, remain at high risk precisely because the task feels known. The hazard is hidden inside the routine.
Recommendations included using mechanical aids and adding engineering controls for heavy lifting; importantly, it was recommended that repetitive and routine tasks were the subject of comprehensive risk assessments to identify and control hazards.
IADC Data: 43 Per Cent of Drilling Rig Incidents Involve Hands and Fingers
According to the International Association of Drilling Contractors, hand and finger injuries accounted for about 43 per cent of all recorded incidents on drilling rigs. That is not a niche safety issue. It is the dominant injury category on drilling rigs — and it has been for years.
The root causes cited in the article include inattention or lack of focus, inadequate assessment of risk, cutting corners and rushing, lifting or applying force incorrectly, and using the incorrect tool for the job.
CDC Data: Hands Dominate Severe Injury Statistics
Jan 2015 – Jul 2022 (US CDC data)
(43% of total)
(86.1% of upper extremity injuries)
The US CDC examined data from 32 jurisdictions to determine trends around severe injuries in the oil and gas sector between January 2015 and July 2022. A total of 2,101 severe oil and gas extraction-related injuries were reported during the period, with well service contract workers' injuries accounting for the highest number of amputations and hospitalisations.
Some 895 severe injuries — 43 per cent of the total — involved upper extremities, and 771 of those, representing 86.1 per cent, involved the hands. Machinery was found to be the leading source of injury among oil and gas contractors and operators, at 21.9 per cent.
The CDC research cited in the article also noted that contract workers in oil and gas support activities and personnel in the well-servicing sub-industry experience a greater number of severe work-related injuries, a finding that might be attributed to the temporary nature of most work in this sub-industry, which is largely without a social safety net, and consists of high-hazard jobs for which workers do not receive consistent training.
PPE Is the Last Line of Defence — The Article Says So
Personal protective equipment designed for hands, such as gloves, is the most common form of hand and finger protection across the oil and gas industry. The article cites an industrial safety product expert who described PPE and gloves as "the last line of defence" for workers' hands.
The expert also said that hand safety is frequently overlooked when we're in a rush, which is why Australia has such high rates of hand injuries, especially among industrial employees, and that the most important thing is making sure that gloves are fit for purpose — matching the right equipment to the right application.
The IADC Case Study: A Tripping Incident and an Absent Push-Pull Tool
The article also highlights an IADC safety alert that illustrates precisely where the no-touch tool gap becomes a serious injury. The alert describes an incident during tripping operations in which a worker was positioned in the derrick, tying a finger latch open, when the pipe-handling arm unexpectedly moved toward the fingerboard. With no hands-free tool available to maintain distance, the floorman's upper arm was caught between the equipment and the tubulars before an all-stop was called.
The IADC identified several contributing factors: unclear red-zone boundaries, inadequate maintenance of finger latches, and gaps in safety-critical communication. But the structural finding is unambiguous. A push-pull tool would have allowed the floorman to manipulate or stabilise tubulars from a safe distance rather than positioning himself directly on the fingers, where the pipe-handling arm could — and did — travel unexpectedly.
This is the Hand-as-Control problem made concrete. The worker was not inattentive. The worker was doing the job as it had been set up to be done. There was no alternative tool. The hand — and in this case the arm — was the only available control. The exposure was structural, not behavioural.
The article also cites field evaluation data showing that companies adopting no-touch tool programs have reported 30 to 50 per cent reductions in hand injuries. That is a significant and measurable outcome. It is also a direct validation of the exposure elimination approach: when the tool removes the hand from the hazard zone, injury frequency falls.
The article also acknowledges, through a safety expert, that seeing hand injury problems from a broader perspective can lead to identifying and designing out previously hidden risks and also toward applying more effective human factors prevention methods, including different approaches that have been shown to lead to better results on many levels.
That phrase — different approaches — is where Hand Safety First® begins.
The HSF Interpretation: The Real Issue Is Hand Exposure
Most companies measure hand injuries after they happen. The more important prevention question is: where did the hand enter the hazard zone before the injury happened?
Hand Safety First® Doctrine
The data presented in the Petroleum Australia article is compelling and correct. But it describes the outcome. It quantifies what happens when the exposure converts to injury. What it does not yet fully address is the upstream question: why was the hand in the hazard zone?
Before a crushed finger, there was a hand entering a pinch point. Before an amputation, there was a hand near moving machinery. Before a fracture from a suspended load, there was a hand in the load's travel path or landing zone. Before a laceration from a tubular, there was a hand steadying a pipe that had no engineered guide. Before a crush from a closing gap, there was a hand used to check clearance instead of a tool.
The problem is not only hand injury. The problem is hand exposure.
Hand exposure is the condition in which a worker's hand — or fingers, wrist, forearm — enters a zone where energy, mass, movement, pressure, heat, chemical or cutting hazard is present. Some exposure events result in injury immediately. Many do not — they are near-misses, unreported contacts, or minor incidents that do not make it into the statistics. But each one represents the same underlying condition: the task design, the work method or the absence of an alternative tool required the hand to be the contact point.
Exposure-first thinking asks a different set of questions from injury-first thinking. It does not start with "what PPE is required?" It starts with: does this task require the hand to enter a hazard zone? If yes: can the task be redesigned so that it does not? If not fully: what engineered distance control reduces or eliminates that exposure?
Hand Exposure Elimination: Engineer the Hand Out of the Hazardâ„¢
The safest hand injury is the one that never had the exposure opportunity in the first place.
Hierarchy of controls for hands: Elimination → Substitution → Engineering Controls → Administrative Controls → PPE
Gloves Are Necessary. But Gloves Cannot Create Distance.
This section is not an argument against gloves. It is an argument for clarity about what gloves can and cannot do.
Gloves are essential. In oil and gas, LNG, drilling, marine and maintenance operations, workers encounter cut hazards, impact hazards, heat, chemical exposure, abrasion, vibration, oil and grip requirements within minutes of starting a shift. The right glove, correctly selected and correctly worn, is a critical layer of hand protection. Impact-resistant gloves, cut-resistant gloves, chemical-resistant gloves, thermal gloves — each has a defined role, and deploying them correctly matters.
But a glove is a personal protective item. It reduces the severity of injury if contact occurs. It does not prevent contact from occurring.
Gloves reduce severity. They do not remove the hand from the line of fire.
That distinction is fundamental. And the Petroleum Australia article itself acknowledges it — describing PPE as "the last line of defence." The hierarchy of controls has not changed. Elimination and engineering controls precede PPE in every recognised safety framework. What the industry must examine is whether that hierarchy is being applied to hand exposure with the same rigour it is applied to other categories of hazard.
Consider these scenarios, which are common across Australian oil and gas operations:
A glove cannot stop a tubular from rolling if no tubular guiding tool is in use. A glove cannot stop a suspended load from swinging if no anti-tangle tagline system is deployed. A glove cannot create distance during the final landing of a basket onto a deck if no hands-free positioning method exists. A glove cannot replace a push-pull tool when a load needs to be guided from a standing worker. A glove cannot substitute for a magnetic load control tool during alignment of a heavy fabricated component. A glove cannot replace a hook engagement tool during rigging operations where the hand must otherwise approach the hook mouth.
In each of these scenarios, the hand is in the line of fire not because of poor PPE selection, but because no alternative has been provided. The task design still requires the hand as the final control. That is a work method problem. It is not a glove problem.
The Australian Oil and Gas Task Problem
Australia operates some of the world's most demanding hydrocarbon and energy infrastructure. Offshore platforms in the North West Shelf, Browse Basin and Bass Strait. LNG processing facilities at Karratha, Darwin and Gladstone. Drilling rigs across onshore and offshore basins. Well servicing crews across Queensland, the Northern Territory and Western Australia. Marine logistics fleets supporting platform supply and crew transfer. Pipe yards and fabrication yards across the country's resource corridors. Shutdown and turnaround programmes at refineries, gas plants and petrochemical facilities. Maintenance lifts on rotating equipment, pressure vessels and structural assets.
Across all of these environments, hands are used to perform a consistent set of task functions that rarely appear in formal risk assessments as exposure events in their own right. Workers use their hands to guide loads. To steady tubulars. To align flanges. To push or pull items into position. To catch movement. To hold components. To land baskets. To correct misalignments. To seat equipment. To check clearances.
When a task still depends on the worker's hand as the final control, PPE alone cannot solve the problem. No amount of glove selection closes the gap between what a glove does and what the task requires. The task must change.
The root causes identified by the Petroleum Australia article — inattention, rushing, cutting corners, using the wrong tool — do not arise in isolation. They arise because workers are attempting to complete tasks using their hands in situations where the task design provides no other option. When the pipe needs to be guided and there is no guiding tool, the hand becomes the tool. When the load needs to be slowed and there is no anti-tangle line, the hand becomes the brake. When the basket needs correcting on its final approach and there is no positioning aid, the hand becomes the corrector.
These are not lapses in concentration. They are rational responses to an absent engineered control. The task presented no alternative. The worker made the only adjustment available. The exposure happened.
The Last 300 mm: Where Most Serious Hand Injuries Occur
Across the body of hand injury incidents in oil and gas, a consistent spatial pattern emerges. Many of the most serious injuries — crushes, amputations, fractures, deep tissue damage — do not occur during the gross movement phase of a task. They occur in the final approach. The last 300 millimetres.
This is the zone where the load is nearly in place. The suspended pipe is almost aligned. The basket is almost landed. The skid is almost seated. The flange faces are almost matched. The valve is almost in position. The load is almost touching down. Workers instinctively reach in at this moment to correct, adjust, guide or hold — because the task has progressed to a point where everything looks nearly right, and a small manual correction seems to be all that is needed.
It is the word nearly that creates the exposure. Nearly means the hazard energy is still present. Nearly means the mass is still moving. Nearly means the gap has not yet closed and the pinch point is still active. Nearly means the load is still under gravitational potential that can be released by any disturbance.
The Last 300 mm Rule™: This final correction zone is where "keep hands clear" most often fails — unless the work method provides a practical alternative that removes the need for hand contact.
HSF Exposure Doctrine · The Last 300 mm Rule™
Verbal instruction alone does not solve this. Telling a worker to "keep hands clear" during final landing is reasonable as an instruction and correct as a principle. But it answers only half the question. The full question is: if the worker does not use the hand, what will control the load instead?
A real control must answer: if the worker does not use the hand, what will control the load instead?
In the absence of an engineered answer, the hand will fill the gap. Not because the worker is inattentive, not because the supervision is inadequate, and not because the glove is the wrong specification. Because there is no other option. The Last 300 mm Rule™ is the recognition of this structural gap — and the starting point for addressing it.
No-Touch Tools Are Exposure Controls, Not Accessories
There is a procurement and classification problem in how Australian oil and gas operations currently treat no-touch and hands-free tools. They are frequently categorised as accessories, specialty items, optional add-ons or niche equipment. They are purchased reactively — after an incident, after an audit finding, after a near-miss — rather than proactively as designed exposure controls.
This framing is wrong, and it is costly. No-touch and hands-free tools are engineered distance controls. They are the practical implementation of exposure elimination for hand-intensive tasks.
They do not remove the worker from the task. The worker still controls the task. The worker still guides the movement. The worker still applies judgement, experience and situational awareness. The worker still makes the final call. But the worker's hand is no longer the contact point. That is the difference. That is the exposure reduction.
Enable workers to guide, position and steady loads from a standing distance, removing the hand from the load's travel path and landing zone. Applied in load control, skid positioning, valve handling and equipment alignment.
Provide engineered hand-free guidance for drill pipe, casing and line pipe during make-up, lay-down and stabbing operations — the highest hand-exposure category in drilling and well servicing.
Engineered load control lines that maintain operator distance from suspended loads, removing hand contact from load rotation, swing and final approach. Essential for offshore, marine and structural lifts.
Provide hands-free connection and positioning of ferrous components during structural, fabrication and maintenance lifts, eliminating hand exposure to pinch points during magnetic engagement.
Allow workers to engage and disengage hook connections, shackles and rigging hardware without placing the hand near the hook mouth — a critical pinch point in routine rigging operations.
Hands-free devices for basket, skid, container and equipment positioning during final approach and landing — addressing the Last 300 mm zone directly across offshore, marine and maintenance tasks.
PSC and Hand Safety First® have developed a range of products across these categories: RiggerSafe® for rigging and load control, Load-it® as a hands-free load control system, TubularGuider® for drill pipe and casing handling, and the SafeGuider™ tagline system for suspended load management. These are not branded accessories. They are classified exposure controls designed for the task environments that generate the hand injury statistics cited in the Petroleum Australia article.
The procurement implication is significant. If no-touch tools are classified as commodities or optional items, they will not be specified in scope of work, will not be included in pre-mobilisation equipment lists, and will not be present on the worksite when the exposure event occurs. Correct classification — as engineered controls, not accessories — drives specification, procurement and deployment.
Questions Australian Oil and Gas Operators Should Ask
The IOGP, as cited in the Petroleum Australia article, recommended that operators focus on the highest-risk, safety-critical activities and reduce frontline exposure. The following audit questions operationalise that recommendation specifically for hand exposure risk:
Hand Exposure Audit: Australian Oil & Gas Operations
- Where are workers still guiding suspended loads by hand — during lift, travel or final landing?
- Where are tubulars being steadied manually during lay-down, pick-up, stabbing or make-up?
- Where are hands entering pinch points during final alignment of flanges, spools, valves or couplings?
- Where are taglines unavailable, absent, incorrectly deployed or introduced too late in the lift sequence?
- Where are workers pushing or pulling loads directly by hand in place of a push-pull tool?
- Where are hands being used to catch, slow or stop moving equipment or material?
- Where are skids, baskets, containers, valves or hoses being landed or positioned manually?
- Where are generic hand tools being used in place of engineered no-touch or hands-free tools?
- Where is procurement treating no-touch tools as optional accessories rather than specified controls?
- Where are supervisors accepting hand contact as normal, expected practice for routine tasks?
- Where are routine, repetitive tasks escaping formal risk assessment because "we have always done it this way"?
- Where is hand exposure data not being captured, because minor contacts and near-misses are not reported?
These questions are not rhetorical. They are field audit questions. The answers will reveal where hand exposure — not yet hand injury — is occurring on your worksite, today, in tasks that have been accepted as normal. That is where the work begins.
Building the Doctrine: From Hand Protection to Hand Exposure Elimination
The industry language around hand safety has evolved over the past two decades. It moved from "wear your gloves" to "hands out of the line of fire." That was a significant step. It introduced spatial thinking — the idea that the hand's position relative to the hazard matters, not just the quality of the glove covering it.
The next step is structural. It is not another phrase or poster campaign. It is a change in how hand hazards are analysed, how tasks are designed, how tools are specified and procured, and how compliance is measured.
Hand Safety First® proposes the following doctrine framework for Australian oil and gas operations:
1. Hand Exposure Elimination as the Primary Goal
The governing objective is not "reduce hand injuries." It is "eliminate hand exposure to hazard zones." Injury reduction is the outcome. Exposure elimination is the method. These are different targets, and they produce different interventions.
2. Engineer the Hand Out of the Hazardâ„¢
Every task that currently requires a hand in a hazard zone should be reviewed for engineering alternatives. Can a tool replace the hand? Can the task sequence be changed so the hand is never in the zone? Can the load be restrained before the hand enters the area? These are engineering questions, not behavioural ones.
3. The Last 300 mm Ruleâ„¢
Any task where the final phase involves a hand entering the load's path, closing gap, pinch point or contact zone must be treated as a Last 300 mm exposure event. Each one requires a specific engineered control for that final phase — not a verbal instruction and not a better glove.
4. Task-Based Hand Exposure Mapping
The traditional Job Hazard Analysis asks: what are the hazards in this task? The exposure mapping extension asks: at which specific moments in this task does the hand enter a hazard zone, and what controls prevent that entry? This mapping is a task-level analysis, not a generic risk category exercise.
5. The Hand-as-Control Problem
Many hand exposures occur not because the worker made an error, but because the task was designed — explicitly or implicitly — with the hand as the required control mechanism. Identifying and eliminating hand-as-control task design is a fundamental obligation for operators, contractors and equipment specifiers.
6. No-Human-Skin Zone
For defined high-risk task phases — suspended load landing, tubular stabbing, pinch-point approach, final alignment — the standard should be a No-Human-Skin Zone: a defined operating envelope in which no part of the worker's body should be present during active energy or load movement. The zone is enforced not by instruction alone, but by work method design and tool provision that makes it practical to maintain.
7. Exposure-First Measurement
Injury rate alone is a lagging indicator. Exposure frequency — how many times per shift, per task cycle, per day did a hand enter a defined hazard zone — is a leading indicator. Australian operators should begin measuring exposure frequency alongside injury frequency. The gap between them is the near-miss reservoir from which the next serious injury will come.
Conclusion: Australia Needs to Move the Question Forward
The Petroleum Australia article published in June 2026 is a valuable contribution to Australian oil and gas safety discourse. Its data is sobering. Its call for mechanical aids, engineering controls, comprehensive risk assessments and fit-for-purpose PPE is correct and consistent with best practice. It should be read, shared and acted upon.
But the deepest lesson in that article is not in its recommendations. It is in its data. When 43 per cent of all recorded incidents on drilling rigs involve hands and fingers — when 86 per cent of severe upper-extremity injuries in a seven-year CDC dataset involve hands specifically — the industry is being told something structural. The hand is systematically over-exposed. The task environments and work methods that generate these numbers have not yet been redesigned to the extent the data demands.
Australian operators should not only ask whether workers are wearing the correct gloves. They should ask why hands are still required in the hazard zone. They should ask what tool should be present but is not. They should ask which tasks are still designed around the hand as the final control. They should ask what happens in the last 300 millimetres of every high-exposure task — and whether their current work method has a practical, engineered answer to that question.
Exposure elimination is not a utopian standard. It is the correct application of the hierarchy of controls to hand safety. It does not require the worker to be replaced. It requires the work method to be improved, the right tools to be specified, and the industry's analytical framework to shift from measuring injuries to preventing exposures.
The safest hand injury is the one that never had the exposure opportunity in the first place.
Australia's oil and gas industry has the engineering capability, the procurement capacity and the safety leadership to make that shift. The data from IADC, CDC and RSHQ — cited in the Petroleum Australia article — makes the case that it is time to do so.
Hand Safety First® works with Australian operators, drilling contractors, LNG facilities, marine logistics providers and shutdown contractors to deploy engineered hand exposure controls across the full range of task environments described in this article. The conversation about hand safety in Australia needs to become a conversation about hand exposure elimination.
Contact: sales@pschandsafety.com · handsafetyfirst.in