What must move?
Define the vehicles, loads, schedules and daily energy demand.
Frequently asked questions
Understand how wireless energy transfer works, which vehicles can use it and what road operators must consider—from weather and safety to maintenance.
How vehicles receive energy and what equipment is required.
It is a road with equipment beneath the surface that can transfer energy inductively to a compatible receiver on a vehicle. Supporting electronics control when and where transfer takes place.
No. A vehicle needs a compatible receiver, suitable power electronics and system authorisation. Vehicles without that equipment can still use the road normally but do not receive energy.
Transfer depends on the vehicle's receiver being correctly positioned over an active road segment. Control systems coordinate activation, while the precise operating behaviour depends on the installation.
Not necessarily. Stored energy supports travel beyond equipped sections and helps manage changing demand. The appropriate battery size depends on route coverage, vehicle use and the wider charging strategy.
How embedded technology fits into an everyday carriageway.
The inductive components are installed beneath the finished surface, leaving no exposed charging rail or overhead conductor in the lane. Other supporting equipment is positioned according to the route design.
The road remains a shared transport surface. Energy segments are controlled for compatible vehicles; every project must also meet the relevant requirements for road use, access and electrical safety.
The road structure, drainage, sealing, electrical equipment and controls must be designed for local moisture and temperature conditions. Weather resilience is an engineering requirement, not an optional feature.
Maintenance planning should identify component depth, access points, monitoring needs and resurfacing limits before construction. Road and electrical teams need coordinated procedures throughout the installation's life.
Questions about power demand, control and suitable routes.
No. A segmented design activates relevant sections when an authorised, compatible receiver is detected in the correct position. Inactive segments do not need to transfer energy.
The road system connects to the electricity network through power-conversion and control equipment. Supply capacity, grid connection and energy management need to be assessed for the specific route.
Useful candidates may include routes with repeatable vehicle movements, high daily energy demand and coordinated infrastructure planning. Vehicle schedules, grid access, road works and maintenance all affect suitability.
The approaches can complement one another. Stationary charging can serve depots, stops and parked vehicles, while dynamic charging may deliver energy during travel on equipped sections.
Begin with the transport need and duty cycle. Then examine route conditions, compatible vehicles, energy supply, construction, safety, maintenance and how performance will be monitored.
How to read a proposal
A credible electric-road discussion starts with the transport task. Technology selection follows only after the route, vehicles and operating conditions are understood.
Define the vehicles, loads, schedules and daily energy demand.
Map repeatable routes, stops, road conditions and planned works.
Assess grid access, control equipment and expected demand.
Plan monitoring, road access, maintenance and performance review.
About this FAQ
Smartroad Gotland is an editorial resource for understanding wireless electric-road technology. This FAQ gives concise, system-level explanations while recognising that each route requires its own technical and operational assessment.
When comparing a project, look for evidence that the whole operating environment has been considered.
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