By 2040, an estimated 240 million passenger electric vehicles will be on the world's roads. Accounting for only 1% of new car sales globally in 2015, the latest figures already show 14 million EV sales globally in 2023, representing around 18% of new vehicle sales worldwide. That is a fourteen-fold surge in less than a decade — and it is accelerating. Yet the defining constraint on this transformation is not battery range, vehicle affordability, or even consumer sentiment. It is infrastructure. Specifically, the fundamental question of whether the roads beneath those vehicles are built for the electric age — or are stranded relics of a fossil-fuel era that is rapidly closing.
EV-ready roads are no longer a futuristic concept reserved for Scandinavian pilot projects or Silicon Valley test corridors. They are becoming the operational standard by which smart cities are being designed, evaluated, and financed globally. From London to Detroit, Oslo to Lagos, forward-looking governments and infrastructure investors are embedding EV charging capability directly into the fabric of their road networks — because the cost of retrofitting tomorrow what should have been built today is always higher, and cities that wait are already falling behind.
For Nigeria — and Lagos specifically — this question is not theoretical. It is urgent.
What Are EV-Ready Roads and Why Do They Matter?
✨ EV-ready roads are road networks designed or retrofitted to support electric vehicle charging infrastructure — ranging from buried conduit and pre-wired kerbside charging points to advanced dynamic wireless charging systems embedded in the asphalt itself — enabling cities to scale EV adoption without the disruption and expense of repeated road reconstruction. ✨
At the entry level, EV-ready road design means installing electrical conduit, grid connections, and smart metering capacity during the initial construction of roads, car parks, and urban corridors — so that charging hardware can be added later with minimal civil works. At the advanced end, it means embedding inductive charging coils directly beneath the road surface, creating electric corridors that charge compatible vehicles as they drive or park.
The distinction matters enormously for city planners. The cost of retrofitting EV charging infrastructure into an existing road is three to five times higher than building that capability in from the start. For rapidly urbanising cities constructing new expressways, bridges, and transit corridors right now — as Lagos is — every kilometre of road laid without EV-ready design is a kilometre that will need expensive remediation within the next decade.
The Global Shift: EV-Ready Roads as Smart City Policy
The global policy environment is moving decisively toward mandating EV-ready road infrastructure. The EU's Alternative Fuels Infrastructure Regulation and the United States' National Electric Vehicle Infrastructure Formula Program both require charging stations to have contactless, open-loop payments as standard, aiding convenience and driving EV adoption.
The US Infrastructure Investment and Jobs Act established a $5 billion formula grant programme within the Department of Transportation to deploy publicly accessible EV charging infrastructure along the national highway system, primarily along designated alternative fuel corridors. All fifty US states have now submitted deployment plans for this programme — a signal of how quickly EV-ready road infrastructure has moved from aspiration to statutory obligation.
Cities worldwide, from Portland to Barcelona to Tokyo, have already set out strategies for EV charging. London launched its EV Infrastructure Strategy outlining a vision for charging, with forecasts for EVs and public chargers needed by 2030, and a commitment to unlock city-owned land for charging. In 2023, Transport for London awarded three contracts to a charging operator to install rapid chargers across more than 100 bays.
Oslo stands as a global leader in electric mobility, with electric vehicles accounting for 40% of all private cars and 90% of new car sales in 2024. Its automated toll system, the Oslo Toll Ring, actively encourages zero-emission vehicles and funds eco-friendly transportation projects. Oslo's model — where road pricing policy and EV infrastructure investment are explicitly linked — is precisely the kind of integrated smart city framework that cities like Lagos should be evaluating for adoption.
Explore how integrated road pricing and smart mobility investment are reshaping Lagos's transport funding model at the Connect Lagos Traffic blog.
The Technology Stack: How EV-Ready Roads Actually Work
Level 1: EV-Ready Conduit Infrastructure
The baseline standard for EV-ready roads involves installing electrical conduit, earthing systems, and smart meter connectivity during road construction. This adds approximately 2–5% to base road construction costs but eliminates the need to excavate and reconstruct roads when charging hardware is deployed later. New York's S01736 legislation ensures that new construction projects with off-street parking are equipped to meet the needs of an electrified future — requiring residential and commercial buildings to dedicate a percentage of parking spaces to EV charging infrastructure, including EV-ready wiring of Level 2 charging stations.
Level 2: Kerbside and Corridor Fast Charging
Between 2020 and 2023, the number of public charging stations in the US more than doubled from 28,851 to 64,641, and the number of individual charging ports increased by three-quarters. By January 2025, 75,107 public charging stations were available across the United States, with a total of 207,227 charging ports — 75% Level 2 and 25% DC fast.
DC fast chargers — capable of delivering 100–200 kW — are the standard deployment target for major urban corridors and highway networks. For cities like Lagos, deploying DC fast charging along the Apapa–Oshodi Expressway, Lagos–Ibadan Expressway, and Third Mainland Bridge approaches would directly support commercial fleet electrification — the highest-volume, highest-impact segment of Nigeria's EV market.
Level 3: Dynamic Wireless Charging Roads
The frontier of EV-ready road technology is dynamic wireless charging — roads that charge vehicles without cables, plugs, or stops. Dynamic wireless power transfer enables EVs to receive a steady flow of electricity wirelessly through embedded charging coils in the road that transmit energy to receivers on the vehicle, via high-frequency inverters and electromagnetic induction creating an alternating magnetic field across an air gap.
Detroit became the first US city to deploy a public wireless EV charging roadway, with a quarter-mile segment of 14th Street equipped with inductive charging coils by Electreon — running alongside the Michigan Central mobility innovation district and testing Ford's EV Transit shuttle for public transportation applications.
The wireless EV charging market was valued at around $1.17 billion in 2024 and is projected to grow to over $4.12 billion by 2034, at a CAGR of 13.64%. This growth trajectory signals that dynamic wireless charging is transitioning from experimental pilot to deployable infrastructure within the planning horizon of roads being designed today.
Leading Vendors in EV-Ready Road Infrastructure
The vendor landscape for EV-ready road infrastructure spans hardware manufacturers, charging network operators, software platform providers, and engineering consultancies.
| Vendor | Solution | Core Technology | Best For |
|---|---|---|---|
| Electreon | Dynamic Wireless Charging | In-road inductive coils | BRT corridors, bus routes |
| WiTricity | Halo Wireless System | Magnetic resonance charging | Parking, urban kerbside |
| ABB | Terra DC Fast Chargers | 150–350 kW DC fast charging | Highways, logistics hubs |
| Siemens | eMobility Infrastructure | Smart grid-integrated charging | City-scale deployments |
| InductEV | High-Power Stationary Charging | 300 kW+ bus & truck charging | Transit depots, ports |
By early 2026, Stockholm's Smart District completed total integration of wireless power across public transit buses, delivery fleet logistics hubs, and street-side public parking — spreading energy demand across a city-wide network rather than concentrating it at large charging hubs that create localised grid strain.
This distributed charging model — where the road itself becomes part of the charging infrastructure — is particularly relevant for Lagos, where grid reliability remains a constraint and large centralised charging hubs carry operational risk. Compare EV road infrastructure vendors and their smart city deployment models at the Connect Lagos Traffic blog.
The Problem–Solution Framework: Lagos's EV Road Opportunity
The Problem: While Nigeria has around 27,000 fuel stations spread across its 195,000 km road network, public EV charging infrastructure is nearly nonexistent. As of late 2025, only 12 EV charging and battery-swapping sites exist nationwide, with most concentrated in Lagos and Abuja. This infrastructure desert is the single greatest constraint on Nigeria's EV transition — more limiting than vehicle cost, consumer awareness, or policy readiness.
The Cost of Inaction: Every kilometre of major Lagos road constructed today without EV-ready conduit, smart metering, or charging provision is a future liability. Lagos State is currently expanding and reconstructing multiple arterial corridors, including the Lekki-Epe Expressway and inner-city BRT lanes. Building EV-ready infrastructure into these projects now costs a fraction of what remediation will cost in five years — when Nigeria's projected EV fleet has scaled from 20,000 to hundreds of thousands of vehicles.
The Smart Solution: Nigeria's 2025 Green Mobility Bill offers VAT waivers and mandates EV chargers at fuel stations — a direct policy trigger for standardising EV-ready infrastructure across the road network. SAGLEV's Imota plant in Lagos, the first EV assembly facility in Sub-Saharan Africa, is designed to scale to 10,000 units annually, creating direct local demand for accessible charging corridors.
Measurable ROI:
- 40–60% reduction in EV infrastructure retrofit costs when conduit is built-in from the start
- 25–35% improvement in commercial fleet operating costs through electrification of BRT and logistics vehicles
- Measurable fuel import savings at a national level as the fleet electrifies — directly relevant to Nigeria's post-subsidy fuel cost environment
- Revenue generation through EV charging tariffs on state-managed road corridors
Implementation Path: In 2024, the Lagos State Government announced a $260 million investment to expand the LagRide fleet, with 1,000 of the new vehicles designated as electric, delivered in partnership with CIG Motors — positioning Lagos as one of the most ambitious subnational governments in Africa in embracing electric transport as policy-backed infrastructure. The logical next step is extending that ambition from the vehicle fleet to the roads those vehicles travel.
Find out how Lagos State's electric mobility investment connects to its wider smart city roadmap at the Connect Lagos Traffic blog.
Implementation Costs and Financing Models
EV-ready road infrastructure investment scales significantly based on technology tier and corridor scope:
- EV-ready conduit only (new construction): 2–5% premium on base road cost
- Kerbside DC fast charging deployment: $50,000–$150,000 per charging bay
- Dynamic wireless charging corridor: $1–3 million per kilometre
- City-scale smart EV charging network: $50 million–$500 million+
Nigeria's National Action Plan, combined with its EV tax incentives, targets 13 million electric vehicles on Nigerian roads by 2050 and a 60% EV market share by 2030. The African EV market is projected to expand from $15.80 billion in 2024 to $25.40 billion by 2030.
Financing models for emerging markets are evolving rapidly. The African Development Bank, IFC, and development finance institutions are actively co-financing EV infrastructure projects across the continent. The World Economic Forum's Global New Mobility Coalition has launched a roadmap for cities providing guidance on how to attract private sector investment to scale EV charging while reflecting the limited finances of many cities — identifying provision of publicly-owned land as one of the most impactful actions a government can take.
Lagos State's existing land bank along major road corridors represents precisely this kind of leverageable public asset — particularly along the Eko Atlantic access roads, Lekki Free Zone corridors, and BRT trunk routes.
Future of EV-Ready Roads in Smart Cities
Emerging research presents scalable Electric Road System architectures that enable dynamic wireless charging of EVs during motion, integrating inductive charging coils embedded in road pavement with real-time power management systems — with simulation results indicating potential reductions in range anxiety and increases in battery lifespan due to frequent shallow charging cycles.
Several transformative trends will define the next generation of EV-ready road infrastructure:
Solar-Integrated Road Surfaces: Smart pavement combining EV charging coils with embedded photovoltaic cells will allow roads to generate the electricity they dispense — reducing grid load and enabling off-grid charging solutions that are particularly well-suited to Nigeria's constrained power environment. In Lagos, Foltï Technologies launched eDryv in April 2025 — Nigeria's first ride-hailing platform powered almost entirely by solar energy, operating electric MPVs and SUVs supported by solar charging hubs and a 460 kWh energy storage system.
Charging as a Service (CaaS): The Electreon model — where road authorities pay a per-kilometre service fee rather than purchasing infrastructure outright — is making dynamic wireless charging deployable even in budget-constrained environments. This CaaS model transforms EV road infrastructure from capital expenditure into operational expenditure, unlocking it for cities that cannot commit large upfront investment.
V2G (Vehicle-to-Grid) Road Networks: EV-ready roads will increasingly support bidirectional energy flow — where parked or stationary EVs feed surplus power back into the city grid during peak demand periods. For a city like Lagos, where grid instability is a persistent economic liability, V2G-capable road infrastructure could eventually function as a distributed energy buffer for the entire city.
5G-Connected Smart Corridors: Smart pavement embeds not only charging coils but also sensors and fibre optic cables to collect and transmit data, alongside 5G and Wi-Fi capability — turning road infrastructure into a data platform for traffic management, vehicle monitoring, and smart city analytics simultaneously.
People Also Ask
What makes a road "EV-ready" and what does it involve? An EV-ready road is designed or retrofitted to support electric vehicle charging infrastructure. At minimum, this means installing electrical conduit, grid connections, and smart metering during road construction — so charging hardware can be added later without excavating the road. At the advanced level, it includes embedding inductive wireless charging coils in the asphalt itself, enabling vehicles to charge while driving or parked.
How much does it cost to deploy EV-ready road infrastructure? Costs range from a 2–5% premium on new road construction for conduit-only EV-readiness, to $1–3 million per kilometre for dynamic wireless charging corridors. DC fast charging bays typically cost $50,000–$150,000 each. The key insight for city planners is that building EV-ready infrastructure during original road construction is three to five times cheaper than retrofitting it later.
Which companies provide EV-ready road technology and wireless charging solutions? Leading vendors include Electreon (dynamic wireless charging), WiTricity (magnetic resonance systems), ABB (DC fast charging), Siemens (smart grid-integrated EV infrastructure), and InductEV (high-power bus and truck charging). The optimal vendor depends on use case — bus corridors, highway charging, urban kerbside, or logistics depot — and available grid capacity.
Is Nigeria ready to deploy EV-ready road infrastructure in Lagos? Nigeria is at an inflection point. With 15,000–20,000 EVs already on the road, local EV assembly in Lagos, new EV fiscal incentives, and the 2025 Green Mobility Bill mandating chargers at fuel stations, the policy and market foundations are forming. Lagos State's current road construction activity across multiple major corridors — combined with the LagRide fleet electrification programme — creates the perfect entry point for embedding EV-ready standards into new road contracts immediately.
What is the difference between static and dynamic wireless EV charging? Static wireless charging occurs when a vehicle is parked over an embedded charging pad — similar in principle to a wireless phone charger, but scaled for vehicles. Dynamic wireless charging occurs while the vehicle is in motion, with charging coils embedded beneath the road surface transmitting power continuously to a receiver on the vehicle. Dynamic charging is more expensive to deploy but eliminates range anxiety entirely and significantly reduces the battery size vehicles need to carry.
Conclusion
The road beneath your wheels is about to become one of the most intelligent pieces of infrastructure in your city. EV-ready roads are not a distant aspiration — they are the standard being written into building codes, procurement guidelines, and smart city masterplans across every major economy right now. For Lagos, which is simultaneously reconstructing its road network, scaling a ride-hailing electric fleet, incentivising local EV manufacturing, and expanding its public transport system, the window to build EV-readiness into the foundations of those roads is open — and it will not stay open indefinitely.
Cities that embed EV-ready infrastructure today will attract the EV manufacturers, fleet operators, and charging network investors of tomorrow. Cities that wait will pay three to five times more to catch up — and lose the competitive positioning that comes with being first.
Discover how Lagos is building the infrastructure foundations of its electric mobility future, compare EV road infrastructure investment models, and evaluate smart city road standards suited to Nigeria at the Connect Lagos Traffic blog. Explore how Lagos's road, rail, water, and air transport networks are converging into a single intelligent mobility system in our latest infrastructure articles, and find out what smart road investment means for Lagos's economic future here.
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