Detailed visualization and documentation of drilling operational footprints, access track development, and terrain marking patterns
Combining satellite imagery, aerial observation, and field measurement to create comprehensive operational footprint maps.
Precise boundary mapping of disturbed zones, documenting total area affected by operational activity, equipment placement, and associated infrastructure.
Multi-temporal analysis of track formation, showing width development, surface compaction extent, and long-term pathway persistence.
Visual representation of ground compression zones based on vehicle traffic density, heavy equipment positioning, and load distribution.
Pre-operational imagery analysis to establish natural terrain conditions, existing vegetation coverage, drainage patterns, and surface topography before drilling activity commences.
Regular satellite and aerial observation during active operations to track surface disturbance progression, access corridor expansion, and temporary installation placement patterns.
Comprehensive mapping of final operational footprint, documenting total area affected, surface marking intensity, and persistent terrain changes following equipment removal.
Comparative overlay of baseline and post-operational imagery to quantify total surface transformation, identify areas of severe disturbance, and map visible terrain alteration.
Detailed documentation of specific terrain features and physical changes resulting from operational presence.
Multi-layer analysis providing comprehensive terrain impact visualization.
Classification of terrain marking severity: minimal surface contact, moderate compression and clearing, severe excavation and ground disruption.
Time-series visualization showing footprint expansion during operational phases and persistence of surface marks following activity cessation.
Documentation of plant coverage removal, showing cleared areas, vegetation damage extent, and comparison to baseline coverage.
Mapping of altered drainage patterns, new pooling locations, erosion channel development, and water flow redirection.
Contour change analysis documenting earth movement, grading impact, excavation depth, and surface elevation modifications.
Location mapping of fuel storage, temporary structures, containment systems, and support equipment positioning.
We utilize multi-spectral satellite imagery from various providers, with resolution ranging from 30cm to 10m depending on analysis requirements. Multi-temporal datasets enable change detection over extended periods.
Different spectral bands reveal surface features not visible in standard photography—including vegetation health indicators, moisture content variations, and bare soil exposure.
Field GPS measurements validate satellite observations and provide precise boundary delineation. Ground-level photography documents features too small for satellite detection.
Integration of ground control points ensures accurate georeferencing and enables precise area calculation for footprint quantification.
Footprint area measurements are accurate to within ±5% for areas larger than 1 hectare. Linear feature mapping (access tracks) achieves ±2m positional accuracy. Temporal analysis requires imagery captured under similar conditions to ensure valid comparison.
How surface mapping supports responsible planning and environmental management.
Comparative footprint analysis of different site configurations enables planners to select approaches that minimize total surface disturbance while maintaining operational efficiency.
Detailed footprint maps identify specific areas requiring remediation, documenting disturbance intensity to guide appropriate restoration techniques and resource allocation.
Accurate area calculations and change detection analysis provide evidence-based documentation for environmental reporting and regulatory compliance verification.
Repeat mapping enables tracking of reclamation progress, natural recovery rates, and persistence of surface marks—supporting adaptive management approaches.
Our comprehensive surface mapping capabilities support informed decision-making for site planning, environmental management, and infrastructure placement.