The cables may be installed in open trenches, ducts, plowed routes, drilled crossings, or mixed construction sections. Several cables may run in parallel, and power networks may share the same construction corridor with fiber, street lighting, or other utilities.
Groundhawk lets the construction team document the power network while the installation is still visible.
Find the planned route and visualise it in Groundhawk. No paper map to carry or re-draw. Find cadastral property borders to avoid digging on the wrong property by mistake.
Groundhawk lets field teams document the installed network as construction progresses. Instead of relying on the planned alignment, the record carries the deviations, crossings, obstacles and changes made on site.
Groundhawk supports not only new construction documentation, but the gradual improvement of legacy network information through maintenance and repair activity.
An FTTH/X (Fiber to the Home / Fiber to the X) network is a high-speed broadband communication system that uses fiber-optic cables to replace traditional copper wires for all or part of the "last mile" connection to end users.
Fiber construction covers three broad situations that share the same documentation problem: backbone routes between cities, exchanges, data centres, and mobile sites; fiber-to-the-home rollouts made up of large numbers of short connections; and dedicated business or industrial connections to offices, factories, hospitals, campuses, and data centres.
The physical network is largely the same in all three. It includes fiber cables, main ducts and sub-ducts, chambers, handholes, cabinets, splice locations, road crossings, building-entry points, façade sections, indoor terminations, and connection points to other networks.
A single project commonly combines several installation methods. Open trenching may be used along one section, plowing along a rural roadside, horizontal directional drilling beneath a road, impact moling beneath a driveway, and existing ducts within an urban area.
Work is usually divided between several contractors and crews operating at the same time, across long rural distances on backbone projects, across hundreds or thousands of addresses on access projects, and inside controlled private sites on business connections. The final record must still form one continuous and coherent dataset.
Deviations from plan are normal. Routes change because of landscaping, underground obstacles, property-owner requirements, existing ducts, dense industrial infrastructure, or a different building-entry point than the one designed.
The main documentation challenge is therefore consistency: recording the actual installed route and every significant asset the same way across long distances, high connection volumes, and changing construction conditions.
Underground power distribution networks include low-voltage and medium-voltage cables, communication cables, grounding conductors, ducts, cabinets, joints, transformers, protection structures, and warning systems.
The cables may be installed in open trenches, ducts, plowed routes, drilled crossings, or mixed construction sections. Several cables may run in parallel, and power networks may share the same construction corridor with fiber, street lighting, or other utilities.
The installation is completed in stages. These may include excavation, bedding material, cable placement, cable separation, protective slabs or pipes, warning tape, backfill, and surface restoration.
Once the trench is covered, much of the construction information is no longer visible. A conventional route line does not show the cable arrangement, separation, protection, crossings, or surrounding conditions.
Groundhawk enables the construction team to document the power network while the installation is visible.
For example, a trench containing three medium-voltage cables and one communication cable can be documented as separate route records. The cable types, identifiers, protection, and depth can be associated with each route.
A joint can be captured as a coded POI with photographs, asset information, and 3D coordinates. This supports remote inspection, quality assurance, contractor handover, and future maintenance.
Overhead power distribution networks consist of poles, conductors, transformers, switches, cabinets, service connections, and transitions between overhead and underground sections.
Construction may involve new pole lines, replacement of old poles, conversion of overhead networks to underground cables, or refurbishment of existing routes.
Documentation requirements include the geographic location of each pole, pole identifiers, equipment, network connectivity, cable spans, customer connections, and underground transition points.
Groundhawk can record each pole as a 3D POI with a defined type, code, asset identifier, condition, and photographs.
For example, a newly installed rural pole line can be mapped pole by pole. Photographs can document the equipment on each pole, while route information can describe the connection between poles.
Where an overhead line transitions to an underground cable, both network sections can be linked in the same dataset. This information supports inventory management, inspection, vegetation-management planning, maintenance, and future network upgrades.
Wind farms, solar parks, battery-storage facilities, and Transformer stations projects include extensive power cable and often also other networks.
The projects often cover large areas and contain several parallel networks, including medium-voltage cables, low-voltage cables, fiber, communication cables, control cables, and grounding systems.
Groundhawk can document the network during construction and keep an always up-to-date accurate as-build of the build-out where same places might be dug up in different phases of the project.
For example, the route between a wind turbine and a substation can be mapped together with the associated fiber and control cables. A road crossing can be documented separately and connected to the surrounding route.
The resulting record supports project handover, maintenance planning, fault localisation, future expansion, and asset management.


Cabinets, customer drop-offs and customer end points. Marker balls, connection points and any other point of interest. 3D position and photo evidence recorded together at the point.
Walk through the installation techniques field teams actually use and see how Groundhawk captures accurate as-built data at each stage, regardless of construction method.
No separate surveying visit to schedule, wait for or pay for. The mapping cost comes out of the work that is already happening.
Easily exportable, or integrated into your own system through the API. Nothing is left in a phone gallery or a glovebox.
What was done, when it was done and how it was done. Visible to the project manager and the network owner without a phone call.
Knowing what is in the ground removes the need for test digging. No new ducts installed where spare capacity already exists. Picking up a drop-off point is easy when you know exactly where it was left. Hours saved per connection.
Book a online demo session with us and you'll discover how leading contractors across the Europe are transforming their approach to surveying and documentation using real-time 3D scanning technology – saving time, cutting costs, and protecting underground assets.