AFIR’s 2026 milestones mean distributors need to source higher-power DC chargers with standardized connectors and verified grid-load compatibility now, not after national permitting rules catch up, because production and certification lead times for compliant hardware already eat into the window before the deadline. If your sourcing roadmap still treats 2026 as a far-off planning horizon, you’re behind. The hardware decisions that satisfy AFIR’s power thresholds and connector requirements need to be locked in months before a station goes live, and that clock is already running.
Key takeaways
Strip away the legal language and AFIR comes down to two numbers distributors actually need: spacing and power. By 2026, electric vehicles should be able to find a charging station every 60 km along the main EU routes, a target built around the TEN-T core road network. That spacing requirement is what drives site selection for highway operators and the distributors bidding to supply them.
Power thresholds step up alongside spacing. 2026 and 2028 both function as milestone years where minimum power output per site increases, pushing corridor stations toward higher-kW DC pools rather than the lower-power units that served earlier deployment phases.
AFIR sets EU-wide minimums, but permitting, grid connection approval, and site allocation remain national responsibilities. A spacing or power figure that’s correct under the regulation doesn’t guarantee a smooth path to actually energizing a site in any given member state.
Treat any specific kW or km figure in this article, or any other, as a snapshot. EU AFIR (Alternative Fuels Infrastructure Regulation) mandates public charging deployment and supports infrastructure investment across all EU member states, but the regulation itself gets refined through delegated acts and national transposition notices. Check Regulation (EU) 2023/1804 directly, or your national ministry’s published guidance, before you finalize a bid.

The 2035 phase-out of new petrol and diesel car sales sets a distant horizon, but it also front-loads demand well before that deadline arrives. Distributors who wait for 2028’s thresholds to firm up before committing to a sourcing strategy are competing against everyone else for the same production slots at the same deadline. That’s a bad position to be in.
Fleet operators converting ahead of the ban are already pulling demand forward. Depot charging and highway charging for early-adopter fleets are live procurement categories right now, which is exactly why AFIR’s 2026 milestone matters more for near-term sourcing decisions than the 2035 phase-out itself. The phase-out sets direction; 2026 sets your actual delivery schedule.
CO2 targets for vans and trucks are tighter on a faster timeline than passenger car rules, which pushes logistics fleets toward electrification earlier than the broader passenger market. That shifts near-term demand toward higher-power DC infrastructure sooner than a passenger-only reading of AFIR would suggest. If you’re sourcing for a logistics hub or corridor site that serves mixed vehicle classes, size for the heavier end of that demand curve, not the average.

Stop comparing hardware purely on kW rating and start matching power tier to site type, because AFIR doesn’t treat all sites the same.
These need DC fast chargers scaled toward the top of the AFIR power pool. The regulation itself sets the bar: fast charging stations along the TEN-T core network must reach a minimum power output of 400kW by 2026, with the requirement scaling further by 2028. That figure comes from the regulation, not from a generic industry rule of thumb, and it’s what corridor-site specs should be measured against.
Dwell time and vehicle mix are different here. Take a hypothetical retail site with moderate daily traffic and shorter dwell times: it can often justify a lower DC power tier than a highway corridor site, without over-specifying hardware the location doesn’t need. AFIR’s power minimums apply specifically to corridor sites, so the right tier for an urban or retail location depends on actual vehicle mix and turnover rather than a fixed regulatory number.
These answer to AFIR indirectly, through grid connection and permitting rules rather than the spacing mandate. Spec decisions here should follow duty-cycle logic, which we cover in our fleet charging infrastructure guide, not corridor logic.
CCS2 is the de facto standard under AFIR for passenger and light-commercial vehicles across the EU, separate from NACS or GB/T considerations relevant to other markets. See our breakdown of connector standards for 2026 for the cross-market picture.
AiPower’s DC EV Charger European Standard line, including the 30kW power module configuration, illustrates how modular power scaling lets distributors match a single platform to different site tiers instead of stocking separate hardware families for each power class. The DC EV Charger spans a Power Range of 30KW to 480KW on 380V±15% three-phase input, which covers the full range from urban hub to corridor-grade deployment on one architecture.
Hitting AFIR’s 400kW minimum by 2026 isn’t a procurement checkbox, it’s a grid capacity problem first. A charging pool built to that threshold draws load comparable to a small industrial facility. Distributors quoting corridor projects need to ask about substation capacity before they specify hardware, not after.
Modular power module architecture lets a site scale output over time, adding modules as the grid connection gets upgraded, instead of over-provisioning hardware on day one that the local grid can’t actually support yet.
AiPower’s DC EV Charger features 8-layer protections covering over-current, under-voltage, and related fault conditions. That depth matters more at high-power corridor sites, because fault conditions scale with power density: the higher the output a site runs, the faster a fault can propagate through the system if protection layers aren’t built in from the start.
Load balancing and dynamic power sharing across multiple stalls at one site is often the practical way to meet AFIR’s per-site power minimum without triggering a full grid upgrade immediately. We’ve covered the mechanics of this in our piece on comparing chargers beyond raw kW figures, which is worth reading alongside this one: why kW alone doesn’t tell you enough.

Certification and permitting eat far more of the calendar than most distributors budget for.

The decision sequence is straightforward even if the regulation isn’t: confirm the site type and power tier you actually need, check grid capacity realistically before committing to a spec, verify current regulatory figures at the official source, then lock in a supplier with the certification and production capacity to match your timeline. Skip any one of those steps and you’re sourcing against a moving target.
Modular DC platforms that scale from lower kW configurations up toward the 480kW range give distributors flexibility to meet different AFIR site tiers without redesigning a sourcing strategy for every individual project. That’s the practical advantage of a single product family over stocking separate hardware lines for each power class.
If you’re evaluating specs against AFIR site requirements, AiPower’s AC EV Charger European Standard, with a power range of 7kW, 11kW, and 22kW, and the DC EV Charger European Standard, scaling from 30kW to 480kW, are a reasonable starting point for that comparison. No one can promise the regulatory figures won’t shift again, but a modular, certified hardware base gives you room to adjust without starting the sourcing process over.
AFIR targets a charging station roughly every 60 km along main EU TEN-T routes by 2026, alongside minimum power output thresholds per site that step up through 2028. These are EU-wide minimums; actual permitting and grid connection approval still depend on national rules, so always verify current figures against the official regulation text before finalizing a bid.
CCS2 functions as the de facto standard under AFIR for passenger and light-commercial vehicle charging across the EU, supporting cross-border roaming compatibility. Other connector types like NACS or GB/T remain relevant for different markets outside the EU regulatory scope, but EU corridor deployments should default to CCS2 compliance.
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