Revealing Ice and Snow Structures safely, efficiently, and with centimeter-level precision

Conduct high-resolution subsurface surveys without walking on hazardous terrain.
Drone-mounted GPR empowers you to study snow layers, ice thickness, and subglacial features where traditional fieldwork is impossible.

Validated by Research Teams Worldwide

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Challenge

Traditional GPR Fieldwork is slow, risky, and limited by terrain.

Researchers studying glaciers, snowpack, and permafrost often face:

  • Dangerous access routes and crevasses
  • Limited coverage due to walking/ski-based GPR
  • Low repeatability of manual transects
  • Heavy equipment is unsuitable for steep or unstable surfaces

What if GPR could fly?

Solution

Extend Your Reach with Aerial GPR

Use GPR payload on a UAV using SPH Engineering’s SkyHub onboard computer and integration kit.

Plan precise flight lines with UgCS, follow glacier topography automatically with True Terrain Following (TTF), and collect continuous, georeferenced radar data — all without setting foot on the ice.

Key Benefits

  • Increased Safety
    No need to enter crevasse zones.
  • Full Coverage
    Uniform grid data over entire glacier surfaces.
  • Scientific Precision
    Georeferenced radargrams with centimeter-level altimetry.
  • Repeatability
    Automated survey paths ensure comparable datasets year to year.
  • Data Integrity
    Synchronization of radar, position, and altimeter data for post-processing in GeoHammer or any software such as Prism2.
Image courtesy of GEORESEARCH
Application Scenarios

Unlocking subsurface insights in glaciers, snowpacks, and permafrost with drone-mounted GPR.

Ice Thickness Measurement

Objective: Determine the total thickness of ice over glaciers, ice caps, frozen lakes, or river systems.

Applications: Glacier mass balance reconstruction, cryospheric modeling, and safety assessment for transport over frozen lakes.

Why UAV-based GPR: Enables rapid coverage of large areas without physical access to ice surfaces—safe, efficient, and repeatable.

Snow Layer Mapping

Objective: Detect and map snow and ice layering, including dust or ash horizons within snowpacks.

Applications: Understanding accumulation and melt processes, snowpack stability, and avalanche research.

Why UAV-based GPR: Captures undisturbed stratigraphy even across steep or inaccessible slopes.

Melt and Refreeze Zone Detection

Objective: Identify and monitor zones where snow and ice melt, refreeze, and evolve through the season.

Applications: Seasonal hydrology, meltwater modeling, and glacier runoff prediction.

Why UAV-based GPR: Allows time-lapse surveys of dynamic melt zones without risking personnel safety.

Internal Glacier Structure Mapping

Objective: Visualize internal glacier architecture, such as crevasses, water pockets, and deformation zones.

Applications: Glacier dynamics, ice flow modeling, and cryo-geophysical studies.

Why UAV-based GPR: Provides high-resolution internal imagery of glaciers where ground surveys are impossible.

Seasonal Monitoring and Change Detection

Objective: Track snow and ice thickness variations over time (monthly or annual intervals).

Applications: Water resource management, flood forecasting, and climate change observation.

Why UAV-based GPR: Enables automated, repeatable missions using pre-programmed flight paths (UgCS + SkyHub integration).

Ice Road Planning and Monitoring

Objective: Assess and continuously monitor the thickness, uniformity, and structural integrity of ice roads used for seasonal transportation and logistics.

Applications: Arctic and sub-Arctic road engineering, oil and gas operations, mining logistics, and community supply routes that rely on frozen lakes or rivers during winter.

Why UAV-based GPR: Provides precise ice-thickness data without deploying personnel on unstable ice. Detects weak zones, cracks, and air pockets that can compromise load-bearing capacity.

Case Studies
Payloads

Integrated Hardware & Software for Scientific Missions

Request System Configuration for Your GPR Model

And we will help you select the appropriate drone-based GPR for your application