Academic Excellence Meets Industry Innovation
Born out of cutting-edge research at the University of New South Wales (UNSW), SeeRock is a spin-off company grounded in both academic rigor and practical problem-solving. Our team is embedded within the School of Minerals and Energy Resources Engineering at UNSW Sydney, where we collaborate closely with world-leading researchers and industry partners.
SeeRock was founded by a group of specialists with deep expertise in geomechanics, computer vision, mining engineering, and artificial intelligence. With a strong foundation in academic research and a shared drive to tackle real-world geotechnical challenges, our team bridges the gap between the lab and the field. This unique position enables us to develop technologies that are not only innovative but also deeply aligned with industry needs in mining, geotechnical engineering, and energy resource exploration.
Our Expertise
At SeeRock, we bring together hardware systems, computer vision, and artificial intelligence to transform geotechnical data into actionable engineering insight. Our expertise lies in the integrated acquisition, interpretation, and modelling of rock mass information across laboratory and field environments. From vision-based fracture and mineralogical feature extraction to data-driven subsurface modelling and analysis, we deliver advanced tools that enable faster, more accurate, and scalable geoscience workflows.
Backed by years of research and real-world application at the intersection of mining engineering, rock mechanics, and AI, we provide practical, engineering-oriented solutions tailored to modern geotechnical challenges. Whether accelerating mine planning, enhancing rock mass characterisation, or reducing uncertainty in numerical modelling, SeeRock delivers precision and reliability through intelligent automation.
End-to-End Vision-Driven Rock Mass Characterisation - Our system provides a unified workflow that integrates digital core logging, excavation face mapping, and material-level interpretation. Using vision-based analysis, we automatically extract structural features, fracture networks, block geometry, and mineralogical characteristics from cores, exposed faces, and site imagery, delivering consistent, objective, and high-resolution rock mass descriptions without reliance on fragmented tools or manual interpretation.
AI-Enabled 3D Modelling and Engineering Analysis - Leveraging deep learning and generative modelling, we construct 3D rock mass representations, including Discrete Fracture Networks (DFNs) and block-based models, from sparse and heterogeneous input data. These models are designed to directly support downstream engineering analysis, such as rock mass classification, geomechanical assessment, and numerical simulation, enabling higher-resolution predictions and reduced geological uncertainty.
Industrial-Grade Automation & Scalability - Designed for deployment in real exploration and mining environments, our modular hardware platforms, automated analysis pipelines, and scalable system architecture support large-scale projects and continuous data acquisition, ensuring reliability, robustness, and seamless integration with existing engineering workflows.
Contact Us
Ready to up your game? Our team is available to discuss how our technology can address your specific needs. Whether you're looking for comprehensive solutions or targeted applications, we're here to help.
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