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Will AI replace loading and moving machine operators, underground mining?

Nah.

Most of the shift is driving and clearing loads by hand in cramped, shifting underground headings, which AI can only assist with. This job scores 87 out of 100 on (higher is safer). Today people do 3% of the work with AI’s help, and 97% still needs a person.

Updated 3 October 2026 47-5044 8132 2026-Q4
Construction and ExtractionLoading and Moving Machine Operators, Underground Mining47-5044 · 2026-Q4
0% AI does it3% AI helps97% needs a human
Your job's name, lit by the work that still needs a human.Needs a human 97%AI helps 3%AI does it 0%

AI does it: AI can do the task largely by itself. AI helps: a person still does it, faster with AI. Needs a human: AI can do little of it yet.

Short answer: the hero above gives the verdict for this job, and the reason is the work itself. Loading and moving ore underground means driving a scoop, shuttle car, or load-haul-dump machine through tight headings, over broken floor, under a roof that changes shift by shift. Software can plan a haul route. It still needs a person in the seat or on the remote to handle the heading in front of them. So when people ask whether AI will replace moving machine operators, the honest answer here is task erosion, not a job disappearing.

Why the seat stays with a person

This job is built on reading ground. Operators position the machine by feel, back out of a blind heading, and judge whether a rib looks solid before rolling under it. Prying loose rock from the roof and ribs before loading is not a scripted step. It is a decision made from what you see, hear, and smell in that one place, at that one hour.

The second half of the job is keeping the machine running. Operators check equipment for defects, grease and oil moving parts, free a jammed bucket, move cables clear of the tires, and signal other crew when sight lines vanish. Each of those tasks happens in dust, water, and noise, in a space built for coal or ore rather than for sensors.

Underground conditions also strip away what most autonomous systems lean on. There is no satellite positioning below ground. Radio links drop. Mud coats cameras and lidar within a shift. Those are the practical blockers listed above, and they are the reason the task split leans the way it does rather than any claim that heavy machines cannot drive themselves. On haul loops that repeat without change, they already can.

What AI runs, what it assists, and what the crew keeps

Work that software handles on its own is narrow here. The share AI does alone, from the split above: 0%. It sits with the paperwork side of the shift, such as logging tons moved and machine hours, and flagging a fault code from onboard monitoring before anyone walks the machine down.

Assistance is where the real change shows. The assisted share: 3%. Proximity detection and collision avoidance help an operator place a machine near a rib or another worker. Teleremote control lets a loader be driven from a safe spot outside the heading, with software smoothing the tramming between muck pile and dump point. The operator still decides when to load, when to stop, and when the ground is wrong.

The rest belongs to people. Human-only task time, from the split: 97%. That is the hands-on block: scaling loose rock, spotting a bad roof, repairing and lubricating the machine mid-shift, and working with the face crew when the plan changes. How that share rolls up into the headline figure is set out on the Still needs a human page, and the whole scoring approach sits in our published method.

What the evidence actually shows

There is no direct head-to-head test of an AI system against a trained underground loader operator on this job’s tasks. That is why the evidence grade above reads D, our lowest confidence tier, and why no quality-parity number is given. We do not put a figure on something no one has measured. The way we grade capability against a working professional is explained under Is it better than a person?, and what the capability share means under Can AI do it?

A test that would settle it is easy to describe. Run an autonomous or teleremote loader and a qualified operator on the same production heading across full shifts. Measure tons moved, machine damage, unplanned stops, and how often a person had to walk in to recover the machine. Until something like that is published and repeatable in a working mine rather than a demonstration drift, the honest position is uncertainty.

The market facts around the job are firmer. The Bureau of Labor Statistics counts about 5,930 of these operators in the United States, with median pay of $74,500 a year, and projects employment down 15.8% between 2025 and 2035 (BLS, 2025). That decline is driven by mine closures, ore demand, and consolidation as much as by anything a machine learns to do.

When the picture could change

Most likely after 2048 (8 in 10 of our scenarios). What that window measures, and how it is built, is set out under When could it be replaced?

Two things could pull it earlier. First, the robotics side of this job is dominated by mobile machines rather than fixed arms, and mobile mining equipment is already the most automated hardware class in the industry; progress on underground navigation without satellite positioning transfers straight across. Second, the hourly cost gap shown above is wide, so any operation running a stable, repeating haul loop has a clear reason to fit automation kits to the fleet.

Two things hold it back. Capital cycles in mining are long, and a loader bought today may run for a decade before it is replaced. And the recovery problem is stubborn: when an automated machine gets stuck, buried, or damaged in a confined heading, a person still goes in to fix it, so crews cannot shrink as fast as the equipment catalog suggests.

Good to know: automation in underground mining has mostly moved people away from the face rather than off the payroll, turning seat time into remote and supervisory time.

How to stay needed

Lean into the parts of the shift that stay human. Ground awareness comes first: scaling and assessing roof and rib conditions is a judgment call that carries the crew’s safety with it. Second, machine care, because the operator who diagnoses a hydraulic or drive fault and fixes it underground keeps production moving. Third, crew coordination at the face, where signals and timing between loading, bolting, and haulage decide the shift.

Two skills are worth adding now. One is teleremote and semi-autonomous operation, including the setup, exclusion zones, and handover steps that come with it. The other is reading machine data: fault logs, production dashboards, and condition monitoring, so you can tell a supervisor what the numbers mean before a breakdown.

Close jobs worth comparing are continuous mining machine operators, roof bolters, and surface mining excavating and loading operators, where remote and autonomous equipment is further along. You can also see the wider picture on the extraction workers family page, the mining, oil and gas sector page, and our list of jobs that mostly need a person (our top band, Nah.). To weigh two paths side by side, put this job against another in the compare tool.

Frequently asked questions

Are heavy equipment operators going to be replaced by AI?

Not as whole jobs, on the evidence available. Autonomous and remote-controlled equipment is real, and it works best on repeating routes in controlled areas. The parts that resist it are ground assessment, mid-shift repair, and working around other crew in changing conditions. The task list above shows how this job’s time divides between work AI does, work it assists with, and work that stays with people.

Is autonomous loading equipment already used underground?

Yes, in parts of large mechanized mines. Teleremote loaders and automated tramming between a muck pile and a dump point are in service, often so operators can work away from the face after a blast. Most installations still need a person to load, to handle exceptions, and to recover a machine that stops. The blockers section above lists why coverage underground lags surface operations.

What jobs will be gone by 2030 due to AI?

We do not publish a list of jobs disappearing by a fixed date, because the evidence does not support one. What the data does support is task erosion inside jobs and fewer openings at the entry level. For any single job, the replacement-year range on its page gives a median with an eighty percent window, rather than one confident date.

Does mining automation make the work safer?

That is the main reason operators adopt it. Moving a person out of a freshly blasted heading, or off a machine working under unsupported ground, removes exposure to rockfall, dust, and collisions. The trade is new skills: exclusion zones, remote station discipline, and fault recovery procedures. Safety gains are also why automation often appears first on the most hazardous tasks rather than the whole shift.

Is underground mining employment growing?

No. The Bureau of Labor Statistics projects employment for this occupation to fall 15.8% between 2025 and 2035, from a base of about 5,930 workers, with median pay of $74,500 a year (BLS, 2025). Commodity demand, mine closures, and bigger equipment drive most of that, so the hiring picture can tighten even where the day-to-day work still needs a person.

What should a loader operator learn to stay valuable?

Start with remote and semi-autonomous operation on your own fleet, including setup and handover steps. Add equipment diagnostics, so you can read fault codes and condition data rather than only reporting a problem. Keep building ground awareness and mentoring ability, because fewer entry-level hires means experienced operators get asked to train, plan, and supervise more often.

Each ridge is a slice of the job's task time.Needs a human 97%AI helps 3%AI does it 0%
The job’s mark

No two jobs leave the same print

Every job gets its own fingerprint, drawn from its code. The amber ridges are the share of task time that still needs a person. Below them, the same ridges are written out in ones and zeros: slate for the work AI helps with, white for the work AI can do.

Loading and Moving Machine Operators, Underground Mining, O*NET-SOC 47-5044. 97% of the job’s task time still needs a human, so 97 of every 100 ridges are amber; slate is what AI helps with, white what AI can do.

What AI can and cannot do

The tasks that make up the job, from , and where AI stands on each today: , (a person does it, with AI speeding it up) or . 97% of the still needs a human.

Each block is one task; its height is its share of working time.Needs a human 97%AI helps 3%AI does it 0%
The job's task list: the parts AI can do are blacked out.Needs a human 97%AI helps 3%AI does it 0%
Handle high voltage sources and hang electrical cables.Needs a human
Drive loaded shuttle cars to ramps and move controls to discharge loads into mine cars or onto conveyors.Needs a human
Pry off loose material from roofs and move it into the paths of machines, using crowbars.Needs a human
Move trailing electrical cables clear of obstructions, using rubber safety gloves.Needs a human
Control conveyors that run the entire length of shuttle cars to distribute loads as loading progresses.Needs a human
Observe hand signals, grade stakes, or other markings when operating machines.Needs a human
Examine roadway and clear obstructions from the path of travel.Needs a human
Drive machines into piles of material blasted from working faces.Needs a human
Operate levers to move conveyor booms or shovels so that mine contents such as coal, rock, and ore can be placed into cars or onto conveyors.Needs a human
Clean, fuel, service, and perform safety checks on all equipment, and repair and replace parts as necessary.Needs a human
Clean hoppers, and clean spillage from tracks, walks, driveways, and conveyor decking.Needs a human
Oil, lubricate, and adjust conveyors, crushers, and other equipment, using hand tools and lubricating equipment.Needs a human
Monitor loading processes to ensure that materials are loaded according to specifications.Needs a human
Measure, weigh, or verify levels of rock, gravel, or other excavated material to prevent equipment overloads.Needs a human
Replace hydraulic hoses, headlight bulbs, and gathering-arm teeth.Needs a human
Stop gathering arms when cars are full.Needs a human
Move mine cars into position for loading and unloading, using pinchbars inserted under car wheels to position cars under loading spouts.Needs a human
Advance machines to gather material and convey it into cars.Needs a human
Signal workers to move loaded cars.Needs a human
Guide and stop cars by switching, applying brakes, or placing scotches, or wooden wedges, between wheels and rails.Needs a human
Observe and record car numbers, carriers, customers, tonnages, and grades and conditions of material.Needs a human
Read written instructions or confer with supervisors about schedules and materials to be moved.Needs a human
Maintain records of materials moved.AI helps
Direct other workers to move stakes, place blocks, position anchors or cables, or move materials.Needs a human
Push or ride cars down slopes, or hook cars to cables and control cable drum brakes, to ease cars down inclines.Needs a human

Is it better than a person? The evidence

No direct test against people in this job yet. Every study is , and vendor studies are labelled as such.

When could it be replaced?

When AI could largely do this job: no sooner than 2048, most likely after 2060

Most likely after 2048 (8 in 10 of our scenarios). A range from our of how fast AI improves, how fast employers take it up and what holds it back, not a forecast that the job ends. “” has a strict meaning here. Today’s answer is at the top of the page; this is how it could change.

The sand is the human working years left, measured in the same 40-year glass for every job, so a safe trade starts nearly full and an exposed job with a thin layer.

The sand is the human working years left, in the same 40-year glass for every job.Years still needing a humanYears run out

How this job could shift, year by year

Where the job could sit on our scale each year to 2060, across the ten behind its .

Today
Will AI replace this job?
Nah.
By 2045
10%
of our scenarios have AI largely doing this job by 2045 (Largely.)
90% still have it mostly needing a person (A little. or Nah.)
By 2060
10%
of our scenarios have AI largely doing this job by 2060 (Largely.)
90% still have it mostly needing a person (A little. or Nah.)

We run this job as ten scenarios spread across its replacement range. In each, the score moves towards the bottom band (Largely: AI could largely do the job) by the year that scenario reaches it, slowly at first and faster later, as adoption usually goes. Each bar splits the ten by the band they put the job in. The model stops at 2060. How the timeline works

Share of this job's scenarios in each verdict band, today to 20600%25%50%75%100%2026: 100.0% of scenarios: this job mostly needs a person (Nah.)100%Today2030: 100.0% of scenarios: this job mostly needs a person (Nah.)100%20302035: 90.0% of scenarios: this job mostly needs a person (Nah.)90%2035: 10.0% of scenarios: AI could do a little of this job (A little.)10%20352040: 90.0% of scenarios: this job mostly needs a person (Nah.)90%2040: 10.0% of scenarios: AI could mostly do this job (Mostly.)10%20402045: 90.0% of scenarios: this job mostly needs a person (Nah.)90%2045: 10.0% of scenarios: AI could largely do this job (Largely.)10%20452050: 90.0% of scenarios: this job mostly needs a person (Nah.)90%2050: 10.0% of scenarios: AI could largely do this job (Largely.)10%20502055: 90.0% of scenarios: this job mostly needs a person (Nah.)90%2055: 10.0% of scenarios: AI could largely do this job (Largely.)10%20552060: 90.0% of scenarios: this job mostly needs a person (Nah.)90%2060: 10.0% of scenarios: AI could largely do this job (Largely.)10%2060
Will AI replace the job?Largely.Mostly.Partly.A little.Nah.
Share of this job's scenarios in each band, year by year. Updated with every release.
Show the data
YearLargelyMostlyPartlyA littleNah
Today (2026)0.0%0.0%0.0%0.0%100.0%
20300.0%0.0%0.0%0.0%100.0%
20350.0%0.0%0.0%10.0%90.0%
20400.0%10.0%0.0%0.0%90.0%
204510.0%0.0%0.0%0.0%90.0%
205010.0%0.0%0.0%0.0%90.0%
205510.0%0.0%0.0%0.0%90.0%
206010.0%0.0%0.0%0.0%90.0%

What’s stopping AI taking over?

The things that keep this work with people, strongest first. Each is scored 0 to 100 from work context, licensing and the evidence we have.

Evidence gapNo study yet compares AI with people doing this job, so employers have no proof it is good enough.
RegulationWorkers rate responsibility for others' health and safety 4.2 out of 5; the sector has its own rules on who may do the work.
LiabilityMistakes are rated 3.6 out of 5 for consequence and decisions 3.2 out of 5 for impact; someone has to answer for them.
Physical work78% of the task time is physical; robots have been shown on 82% of that time.
Clients want a personFace-to-face contact is rated 4.5 and physical closeness 3.2 out of 5; caring for or serving people is 2.2 out of 5 in importance.
LicensingUsual entry requirement (BLS): no formal educational credential, then short-term on-the-job training.

What would it cost to hand the work to AI?

The share of the year AI could handle (64 of 2,080 hours a year), priced two ways. Both are ranges, not quotes.

AI model usage, a year
$10–$640
A person’s wage for the same hours
$1,610–$2,720

AI cost covers model usage only: no integration, licences, oversight or the human time still needed to review the work. Human cost is the wage for the same hours, without benefits or overheads. As of 2026-10.

Robots and humanoids

AI software can only take the work at a screen. The rest needs a robot that can do it.

78%
of the task time is physical work
Mobile robots
the kind of robot the physical work would need
Commercial in warehouses, hospitals and some outdoor sites; hands are still limited.

Source: Anthropic Economic Index, 'What work can robots do?' (30 September 2026); O*NET 31.0 task weights.

Which AI skills does this job lean on?

The job’s task time split by what an AI model would need to be good at, and where models stand today.

Each star is a task, grouped by the AI skill it leans on.Needs a human 97%AI helps 3%AI does it 0%
Writing · 7% of time
Strong
Drafts, edits and translates most routine documents at professional quality.
Analysis · 0% of time
Strong
Reliable on structured data and rules; uneven on judgement calls with thin information.
Coding · 0% of time
Strong
Agents complete many routine software tasks end to end; larger systems still need people.
Vision and design · 0% of time
Good
Reads documents, images and layouts well; specialist imaging needs dedicated, approved tools.
Speech · 0% of time
Good
Voice agents handle routine calls and live interpreting; complex or sensitive calls still go to people.
Planning and agents · 3.9% of time
Emerging
Multi-step agents work in narrow, well-tooled workflows; open-ended coordination is unreliable.
Physical manipulation · 86% of time
Early
Robots handle structured, repetitive handling; general dexterity outside fixed settings is not commercial.
Care and persuasion · 3.1% of time
Limited
Can script, coach and advise; trust, presence and accountability still need a person.
Amber matter holds its orbit, slate circles the inner disc, white falls in.Needs a human 97%AI helps 3%AI does it 0%
How exposed is it?

Still needs a human: 87/100↑ safer

The amber matter on the outside holds its orbit: that is the task time that still needs a person. The slate matter circling the inner disc is the work AI helps with. The white matter is the share AI can do; it spirals in and is gone over the edge.

The matter follows the job’s task split: 97% needs a human, 3% AI helps, 0% AI does it. Still needs a human: 87/100 ↑ safer. Will AI replace them? Nah.

What the AIs say

We asked four AI assistants the same question: will AI replace this job in the next 10 years? One word (Yes, Partly or No), then one sentence. Our own answer, from the data: Still needs a human: 87/100 ↑ safer. Will AI replace them? Nah.

ChatGPTPartly

AI and automation will take over some routine moving-machine tasks, but human operators will still be needed for oversight, complex conditions, safety, and exceptions.

gpt-5.5-2026-04-23 · asked 2026-10-03
ClaudeNo

Moving machine operators (such as those operating heavy equipment for construction, warehousing, or logistics) require physical dexterity, real-time judgment in unpredictable environments, and spatial reasoning that current AI and robotics are far from replicating reliably, so while automation will assist and augment their work, full replacement within 10 years is unlikely.

claude-sonnet-5 · asked 2026-10-03
GeminiPartly

While autonomous systems will increasingly take over routine tasks in controlled environments, human operators will still be required for complex, unpredictable sites and safety oversight.

gemini-3.8-flash · asked 2026-10-03
PerplexityPartly

AI will automate repetitive moving tasks, but human operators will remain necessary for complex, unpredictable work and supervision over the next decade.

sonar · asked 2026-10-03

Assistants answer from what they learned in training (Perplexity also searches the web), so they can be confidently wrong, and the same question can get a different answer tomorrow. Our score is built from task data and graded evidence. Answers collected through DataForSEO.

Cite this page

NeedsAHuman.com (2026). Will AI replace Loading and Moving Machine Operators, Underground Mining? Nah. Still needs a human: 87/100, higher is safer; release 2026-Q4. https://needsahuman.com/jobs/loading-and-moving-machine-operators-underground-mining/ (accessed 4 October 2026).

Scores change with each , so cite the release. The data is open under : credit NeedsAHuman.com with a link. Open data · Press

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Sources

  • Tasks and work context: 31.0, ().
  • Jobs, pay and projections: US , and 2025–35.
  • How AI is used today: ; Microsoft Research, .
  • What AI can do: our task ratings ( r1) and the quality evidence register.
  • UK names and employment: coding index and .

How each score is built: methodology. Every figure on this page: open data. Release 2026-Q4.