Fourteen million hours of operational data. That's what it took to train the machine learning system now classifying load and dump events across Australian mines operated by Glencore, NRW Holdings, and Macmahon. The system, built by MaxMine using more than 14 million hours of labelled operational data, has been fully operational for six months , according to International Mining. The scale signals something fundamental: AI in mining has crossed from experimental to essential.
The system has reduced workloads for site teams by cutting missed or incorrect loads and improving production tracking accuracy, particularly in more complex operating scenarios , MaxMine reported. But the real story isn't efficiency gains at three Australian operations. It's that the industry's data problem—the one that killed 60% of AI projects before they reached production, per Gartner—may finally be yielding to brute-force solutions built on massive, ground-truthed datasets.
Can AI Actually Find What's Left to Find?
The exploration challenge is getting harder. Traditional exploration methods, while proven over decades, face mounting pressure from economic constraints and the urgent need to discover critical mineral deposits , according to industry analysis. Enter computational discovery.
Botswana Minerals reported that an AI-assisted exploration study discovered 36 copper anomalies within two of its eight northern Botswana licences, organised into six exploration corridors , Mining Technology reported this week. The company isn't alone in betting on algorithms over boots on the ground. MinersAI, a computational discovery partner for the global resources sector, announced its official expansion into the Asia-Pacific region, opening its headquarters in Perth, Western Australia , per International Mining.
The Perth move matters. Western Australia sits at the center of global critical minerals supply chains, and MinersAI's expansion suggests the computational approach has moved beyond North American and European markets. A recent report found that the adoption of artificial intelligence in mineral exploration is gaining strong momentum, with 77 per cent of respondents reporting some level of use of AI tools in their exploration operations , according to the 2025 Mineral Exploration Tech Report conducted by Ipsos for VRIFY Technology.
Yet momentum doesn't equal results. The application of machine learning in mineral exploration has garnered significant attention and investment, yet greenfield mineral deposit discovery rates remain unchanged, stemming from challenges such as low data quality outside existing mines, inconsistent sampling, limited interdisciplinary collaboration, and the unique complexity of geoscientific problems , research published in January 2026 noted. The gap between hype and discovery persists.
What Happens When Drills Run Themselves?
Autonomous drilling technology is no longer waiting for 2030. Master Drilling targets commissioning of a complete autonomous drilling system before the end of 2026, representing a measurable development milestone for the industry , according to industry reports. The South African mining services company isn't making empty promises— Master Drilling reported record revenue of $292 million in 2025 alongside a billion-dollar order book for 2026, with operating profit increasing by 57.2% to $46.5 million .
Hardware is arriving on site. Sandvik Mining completed delivery of a DR410i rotary drill rig to Mariana Minerals' Copper One operation in Utah, with the equipment arriving on-site during the first quarter of 2026 and commissioning of the AutoMine surface drilling system currently underway , the Canadian Mining Journal reported.
The economics are compelling, but the deployment reality remains modest. Despite the compelling business case, the current state of autonomous deployment in mining is far more modest than industry rhetoric might suggest, with approximately 3% of mobile mining equipment operating autonomously as of recent industry assessments . That 3% figure—roughly 97% of mining equipment still requires human operators—underscores the gap between conference presentations and pit-floor reality.



