This data set was collected with the UtilityScan system and Emild Reach GNSS receiver with NTRIP corrections to get the most accurate location for the utility mark out.

A ‘random walk’ looping pattern was done to collect the data outside of GSSI. This method drastically cuts down the data collection time compared to collecting data using a traditional grid method. 

In this image, utilities were interpreted in 3D space and classified based on in-field context clues. Data was brought into Geolitix where it was sliced using the easy “Suggest parameters” tool.  In Geolitix software, interpretations can be exported in various formats, or a Public Link can be created to share the interactive 3D project directly with clients.

This entire process, from field collection to a shareable 3D model, demonstrates a highly efficient workflow for modern utility locating and damage prevention using GSSI GPR and Geolitix.

A large concrete grid, with 269 individual profiles totaling 4GB, was collected with Flex NX and assembled in Geolitix.

The data revealed highly detailed information about previous saw cuts and wire mesh layout, and helped to visualize an area of thicker concrete with rebar or conduit running along the bottom of an area of dipping mesh. Below the slab were multiple PVC pipes and a rodent burrow.

The Multislice feature in Geolitix provided a full top-to-bottom view of the GPR slices by assigning different colors to targets at various depths. The resulting image provided a powerful mission-planning tool for any subsequent cutting, coring, or drilling projects.

This data was collected to investigate the stratigraphic relationship between late Pleistocene dunes and deltas in Merrimack, New Hampshire.

200 HS GPR profiles were collected with a RTK GPS, then imported into Geolitix where they were displayed in a 3D fence diagram with a satellite image for context. Digitization of major GPR reflectors was instrumental in fully visualizing and interpreting the stratigraphic sequence.