Technical domains, methods, and tools developed at TerraIO
Generating accurate 3D terrain and subsurface models from LiDAR, point clouds, and survey data. Methods include digital terrain modelling, surface reconstruction, and ground characterisation for stability and excavation analysis.
Building tailored web and desktop applications that make complex engineering data interpretable and interactive. Focus on high-performance 3D rendering, real-time dashboards, and domain-specific visualisation workflows.
Processing large-scale LiDAR and photogrammetry datasets into structured engineering outputs. Capability areas include classification, filtering, automated feature extraction, change detection, and volumetric analysis.
Developing automated data processing and analysis pipelines that reduce manual overhead and improve consistency. Includes custom scripting, sensor data integration, and end-to-end workflow automation for geotechnical teams.
Integrating geological, geotechnical, and spatial datasets into unified analytical environments. Methods include GIS-based mapping, multi-source data fusion, and spatial querying for site-scale decision support.
Applying machine learning, computer vision, and UAV-based acquisition to non-standard geotechnical problems. Current focus includes semantic segmentation of point clouds, automated joint orientation extraction, and drone-based terrain monitoring.
Active areas of development include deep learning applications for geotechnical risk assessment, real-time point cloud streaming for remote collaborative access, and WebGPU techniques for high-performance in-browser data visualisation.
Longer-term interests include integrating IoT sensor data with traditional geotechnical monitoring systems, developing AR tools for field investigation workflows, and advancing AI-based semantic segmentation methods for underground point cloud datasets.