EV Charging Statistics 2026
By Axis Intelligence Research
Co-author: Aidan Jad | Last updated: July 19, 2026 | License: CC BY 4.0
Quick Answer
The global public EV charging network crossed 7 million charging points at end-2025, with nearly 1.8 million added in that year alone — a 33% expansion in twelve months, per IEA’s Global EV Outlook 2026. China accounts for more than 65% of those points. The US holds just 3% of the global stock while carrying 10% of the global EV fleet. Public fast charging costs US drivers $0.45–$0.55 per kWh on average, versus $0.17–$0.18 per kWh at home. One in seven public charging attempts in the US still fails.
Key Findings
- The global public EV charging stock surpassed 7 million points at end-2025, growing 33% in one year, with China contributing more than 75% of that single-year growth — the largest annual infrastructure expansion in the history of electric mobility, per IEA Global EV Outlook 2026.
- Axis Intelligence Research calculates that the US carries 3.3× its proportional share of the global charger gap: the US holds 10% of the global electric LDV stock but only 3% of global public charging points — and its CCRI™ score of 6.9 (vs the global average of 30.6) reflects a structural infrastructure deficit that the NEVI program has so far barely dented.
- Public fast charging in the US costs approximately 2.7× the home rate ($0.47–$0.53 per kWh for DC fast versus $0.17–$0.18 per kWh residential), meaning EV drivers who rely exclusively on public fast charging lose their cost advantage over gasoline, per US EIA residential rates and Paren public charging network data.
- The global average charging capacity per EV is 4.5 kW, but the US lags at just 1.5 kW per EV — one-third the global norm and four times below Korea’s 9 kW, making power density a more critical gap metric than raw connector count, per IEA 2026.
- First-time charge success rates fall from 85% at new stations to below 70% by year three, exposing a hidden reliability crisis beneath headline uptime figures — and as of 2025, 14% of US EV owners report leaving a public charging station without successfully charging, per J.D. Power 2025 EVX Public Charging Study.
Axis Intelligence Research: The Charging Coverage Ratio Index (CCRI™)
Axis Intelligence Research developed the Charging Coverage Ratio Index (CCRI™) to provide a single, comparable metric for how well a country’s public charging infrastructure serves its electric fleet — going beyond raw connector count to capture power density and fleet-ratio simultaneously.
Formula:
Each component is first min-max normalized to a 0–10 scale across the observed country range, then averaged with equal 50% weights, then multiplied by 10 to produce a 0–100 score:
norm_kW = (kW_per_EV − 0.3) / (9.0 − 0.3) × 10
inv_ratio = 100 / EVs_per_public_charger
norm_ratio = (inv_ratio − 3.03) / (50.0 − 3.03) × 10
CCRI™ = (norm_kW × 0.50 + norm_ratio × 0.50) × 10
Where:
- kW per EV = total estimated rated public charging capacity (kW) ÷ electric LDV stock (IEA methodology)
- EVs per public charging point = electric LDV stock ÷ public charging points; inverted so that fewer EVs per charger scores higher
- Normalization bounds derived from the six-country dataset: kW range [0.3, 9.0]; inverted ratio range [3.03, 50.0]
- Final index on a 0–100 scale; Korea anchors at 100 (best across both dimensions in dataset); US anchors near 0 on fleet-ratio component
2025 CCRI™ readings (Axis Intelligence Research, Python-verified, as of end-2025):
| Country / Region | kW per EV | EVs per charger | CCRI™ | Rating |
|---|---|---|---|---|
| Korea | 9.0 | ~2 | 100.0 | Exceptional |
| China | 6.0 | 10 | 40.2 | Developing |
| Global average | 4.5 | 11 | 30.6 | Adequate |
| Europe (EU avg.) | 3.0 | 11 | 22.0 | Below par |
| India | ~0.3 | ~5 | 18.1 | Infrastructure nascent |
| United States | 1.5 | 33 | 6.9 | Critical gap |
Sources: IEA Global EV Outlook 2026; Axis Intelligence Research formula and calculations. Korea figure per IEA 2026 country data. All readings as of end-2025.
Korea’s CCRI™ of 100 anchors the top of the dataset — combining the highest kW-per-EV ratio (9 kW) with the lowest vehicle-to-charger ratio (~2:1) of any major market. The US score of 6.9 is not a ranking artifact — it captures that American EV drivers have both the least public charging capacity relative to fleet size (1.5 kW/EV) and the worst fleet-to-charger ratio (33:1) of any major economy analyzed, despite large absolute connector numbers.
Formula rationale: kW per EV receives 50% weight because a 350 kW ultra-fast charger can serve roughly seven times as many vehicles per hour as a 50 kW fast charger; raw connector count treats them identically. The inverted EVs-per-charger ratio receives the other 50% to penalize high-contention networks regardless of charger speed.
Axis Intelligence Research establishes this index as first-published July 2026. Licensed CC BY 4.0 with attribution.
How Many EV Charging Stations Are There Worldwide?
The global public EV charging stock reached more than 7 million charging points at end-2025, per IEA’s Global EV Outlook 2026. That headline masks an extraordinary concentration: one country built more than three-quarters of everything added in 2025.
Nearly 1.8 million public charging points were added globally during 2025 alone — more than the entire global public stock in 2019. As a reference point, the total additions in 2024 equalled the complete 2020 global stock. The network is not expanding linearly; it is compounding.
Global Public Charging Points by Region (end-2025)
| Region | Public charging points | Share of global stock | EVs per public charger |
|---|---|---|---|
| China | >4.7 million | ~65% | ~10 |
| Europe | ~1.3 million | ~18% | ~11 |
| United States | ~235,000 | ~3% | ~33 |
| Rest of world | ~765,000 | ~11% | Varies |
| Global total | >7 million | 100% | ~11 |
Source: IEA Global EV Outlook 2026. Retrieved July 2026.
Alongside the 7+ million public points, the global private charging stock (home and workplace) reached more than 43 million by end-2025 — roughly six private points for every public one. That ratio matters because home charging remains the cheapest and most convenient option, and policies across the EU, Brazil, Kenya, and India are now mandating charging-ready infrastructure in new buildings to preserve that advantage as apartment living grows.
Aidan Jad’s read on the global picture: these numbers look impressive until you run the arithmetic on what’s coming. The IEA projects that public charging capacity for light-duty EVs needs to grow nearly ninefold by 2030 under stated policies. From 7 million points today, that implies adding roughly 56 million more in five years — or more than the entire current public stock every six months, sustained for half a decade. The infrastructure is scaling fast. It’s just not scaling fast enough.
China EV Charging Statistics: How One Country Built the World’s Network
China doesn’t just lead the EV charging market — it effectively is the global EV charging market for now, with a scale that distorts every aggregate figure.
China’s public charging infrastructure grew from nearly 3.4 million charge points at end-2024 to over 4.7 million at end-2025, per IEA Global EV Outlook 2026. That single-year addition of roughly 1.3 million points exceeded the total US public charging stock by a factor of more than five.
By May 2026, independent data from EV Volumes put China’s public charging count at 4,005,618 stations, representing 83.1% of global public charging infrastructure — though growth is slowing, with the 28% year-on-year gain in May 2026 trailing the 40.2% increase recorded in May 2025.
China’s Fast Charger Buildup
The most consequential shift is in charger speed composition. China’s fast and ultra-fast charger stock grew 40% in 2025, from 1.5 million to 2.2 million units — meaning the world’s largest charging network is simultaneously becoming the world’s fastest charging network. The estimated average charging speed across China’s public network exceeded 55 kW at end-2025, above the global average of roughly 50 kW, per IEA 2026.
The country’s government has announced plans to expand the national charging network by more than 60% compared to 2025 levels by end-2027. BYD’s flash charging technology, unveiled in early 2026, delivers up to 1.5 MW — enough to charge a passenger EV from 10% to 70% in approximately five minutes. The company is deploying more than 4,000 megawatt charging stations across China to support next-generation vehicles.
Despite the scale, there’s a structural tension worth noting: only around 50% of Chinese EV owners have home chargers, compared to much higher rates in Norway and the US, per a 2025 Roland Berger EV Charging Index survey. The public network is therefore carrying more of the charging load per vehicle than in Western markets — which is why density and speed matter more there than raw connector count alone.
Europe EV Charging Statistics
Europe’s public charging stock grew approximately 20% in 2025, reaching roughly 1.3 million points across the continent by year-end, per IEA Global EV Outlook 2026.
Top European Countries by Public Charging Points (end-2025)
| Country | Public charging points (end-2025) | vs. end-2024 |
|---|---|---|
| Netherlands | 210,000 | +26,000 |
| Germany | 196,000 | +36,000 |
| France | 185,000 | +30,000 |
| United Kingdom | ~116,000 | +30% YoY |
Source: IEA Global EV Outlook 2026. Retrieved July 2026.
Five EU countries — Denmark, Estonia, Latvia, Lithuania, and Romania — saw their public networks grow by more than 50% in 2025, partly driven by the EU-funded EXPAND-E project, which channeled over €70 million across 23 member states for LDV charging infrastructure.
The EU’s Alternative Fuels Infrastructure Regulation (AFIR) mandates fast-charging stations of at least 150 kW every 60 km along major highways, with each station delivering a minimum of 400 kW total output (rising to 600 kW by end-2027). As of 2025, the EU’s ultra-fast charger count (≥150 kW) grew 30% year-on-year, though these units still represent a small share of the total network.
The UK’s public network reached 116,052 charging points at end-2025, per Zapmap data — a 13% year-on-year increase. Ultra-rapid chargers (≥150 kW) hit 9,893 devices, up 41% in one year, with 3,425 added during 2025 alone. The UK had 748 charging hubs with six or more rapid devices at a single site.
The EU average stands at 11 EVs per public charging point — close to the global average — but public charging capacity sits at only ~3 kW per electric LDV, less than the global 4.5 kW norm. Europe’s network is wide in coverage, thin in power density.
US EV Charging Statistics
The United States presents the starkest gap between EV ambition and charging reality of any major economy.
As of early 2026, the US had more than 80,000 EV charging stations with over 248,000 charging ports, per US DOE Alternative Fuels Data Center. The US added roughly 14,331 charging stations between July 2025 and May 2026, representing 20% growth. DC fast charger deployment grew faster: 17,418 ports added, a 31% increase.
But those additions barely moved the structural needle. The IEA puts the US public charging stock at approximately 235,000 points at end-2025 — supporting an EV fleet with a 33:1 vehicle-to-charger ratio, three times the global average of 11:1. The US represents just 3% of global public charging points while carrying 10% of the global electric LDV stock.
The NEVI Gap
The $5 billion National EV Infrastructure (NEVI) Formula Program, created by the 2021 Bipartisan Infrastructure Law, was designed to close that gap by funding 150 kW DC fast chargers every 50 miles along Alternative Fuel Corridors. As of April 2026, approximately 550 NEVI-funded fast charging points were operational across 19 states, per IEA analysis of FHWA data — a fraction of what was promised.
The program was paused from February 2025 to January 2026 following a federal court order reversing the Trump administration’s freeze. In August 2025, the FHWA issued new interim guidance giving states broader flexibility, including the ability to use NEVI funds for medium- and heavy-duty chargers once corridor coverage was established. By mid-2026, 42 states had FY 2026 plans approved, with roughly 1,000 additional charging points fully awarded funding from FY 2022–25 budget allocations.
Regional Charging Divide
The US charger coverage gap is not uniform. As of Q1 2025, 45% of rural counties had at least one fast EV charging port, versus 76.5% of metropolitan counties, per Paren data cited by The Daily Yonder. Urban charger utilization rates can reach 40% in major cities, while rural stations often run below 20%, creating a chicken-and-egg problem: low utilization discourages private investment in areas where coverage is most needed.
A 2024 CivicPulse analysis of DOE AFDC data found that 66% of counties with fewer than 25,000 residents had no public charging station at all as of mid-2024. Not a thin network — none. That is the charging desert.
Aidan Jad on the US situation: the NEVI slowdown isn’t just a policy story. Every year the US runs a 33:1 vehicle-to-charger ratio while China runs 10:1 is a year that range anxiety compounds into adoption friction for the next wave of buyers — the ones who don’t have a garage. The infrastructure lag doesn’t just inconvenience current EV owners; it actively delays the transition.
How Much Does EV Charging Cost?
Home vs. Public Charging
The economics of EV ownership shift dramatically depending on where you charge. At home, US drivers pay the residential electricity rate — $0.17–$0.18 per kWh on average as of early 2026, per US EIA — making EVs substantially cheaper to run than gasoline vehicles. The IEA calculates that in 2025, US BEV owners saved approximately $860 per year on running costs compared to gasoline ICE vehicles when charging primarily at home.
At public DC fast chargers, the equation changes. The IEA notes that public fast charging can run up to 240% higher than residential electricity tariffs. In practice:
Public EV Charging Costs in the US (2026)
| Charger type | Average cost range | Typical scenario |
|---|---|---|
| Home (Level 1 / Level 2) | $0.17–$0.18/kWh | Overnight, residential rate |
| Public Level 2 (AC) | $0.25–$0.40/kWh | Destination / workplace |
| Public DC Fast (50–150 kW) | $0.40–$0.55/kWh | Convenience fast charge |
| Public Ultra-Fast (≥150 kW) | $0.45–$0.70/kWh | Highway corridor |
Sources: US EIA residential rate data; Paren network pricing data (DC fast average $0.53/kWh); IEA Global EV Outlook 2026 (up to 240% markup for public fast charging). Retrieved July 2026.
An EV driver who commutes 13,489 miles annually (US average) and charges exclusively at home spends roughly $650–$700 per year on electricity. Relying exclusively on DC fast charging for the same miles runs approximately $2,000+ — and at those prices, the EV cost advantage over a comparably efficient gasoline car narrows to near zero.
The IEA’s own survey data confirms that EV owners globally charge privately (home or workplace) about 75% of the time, and use public fast chargers for only 10% of sessions. The public fast charging price point is a road trip and emergency cost, not a daily-use cost — for those who have home charging access. The 30% of US EV owners without dedicated home charging face a different math entirely.
The April 2026 oil price surge context: The closure of the Strait of Hormuz drove US retail gasoline prices to approximately $3.92/gallon by late June 2026, per AAA. The IEA calculates that this oil price shock increased BEV running cost savings by 20–45% across major markets. In the US, annual running cost savings increased from roughly $900 to approximately $1,300 per year compared to a gasoline vehicle — strengthening the case for home charging substantially.
EV Fast Charger Statistics: Speed, Power, and the Ultra-Fast Transition
The speed composition of the global public network shifted materially in 2025.
The number of global fast and ultra-fast chargers (>22 kW) grew faster than slow chargers in every major market. The average rated power of a public charging point worldwide rose from just over 40 kW in 2024 to nearly 50 kW in 2025 — a 15% increase in a single year, per IEA Global EV Outlook 2026.
Ultra-fast chargers (≥150 kW) are expanding at an accelerated rate. Europe’s ultra-fast stock grew 30% in 2025. In 2024 (the most recent full-year European data in the IEA 2025 Outlook), ultra-fast chargers in Europe grew 50%, with units providing ≥350 kW making up about 20% of the ultra-fast fleet.
However, the hardware is running ahead of the vehicles. As of 2025, only approximately 30% of battery electric cars globally can benefit from ultra-fast charging. Among the roughly 670 battery electric car models available, only about 160 models are capable of charging at speeds above 150 kW; above 250 kW, the count drops to 50 models — or 4% of all BEVs sold since 2010. Charging point operators including Fastned, BYD, Iberdrola, and BP Pulse are deploying ≥250 kW stations speculatively, anticipating the vehicle mix will catch up.
DC Fast Charging: What 15 Minutes Actually Gets You
At a 150 kW charger, a 15-minute session delivers approximately 180 km (112 miles) of range under mixed driving conditions, assuming the vehicle starts at 10% state of charge with a ~67 kWh pack, per IEA methodology. At 350 kW — now available from a growing subset of stations — the same 15-minute window theoretically delivers significantly more, though thermal limits on the battery mean real-world gains above 250 kW are vehicle-dependent.
BYD’s Flash charging system, unveiled in early 2026 at up to 1.5 MW output, can charge a compatible vehicle from 10% to 70% in roughly five minutes — approaching gasoline refueling time at a conceptual level. The bottleneck shifts from the charger to the vehicle’s own thermal management system.
EV Charging Reliability Statistics: The Uptime Illusion
The most underreported story in EV charging is the gap between infrastructure deployment and usable infrastructure.
Failed Charging Attempts
In 2025, 14% of US EV owners reported visiting a public charging station and leaving without successfully charging, per the J.D. Power 2025 U.S. Electric Vehicle Experience (EVX) Public Charging Study, based on data from 7,428 EV owners collected January–June 2025. That’s an improvement from 19% in 2024 and 20% in 2021 — but one-in-seven failed sessions still represents millions of failed attempts per year.
The primary cause: charger hardware being out of service or malfunctioning accounts for 60% of failed charging visits, per J.D. Power 2025.
The First-Time Charge Success Rate Problem
The ChargerHelp 2025 Annual Reliability Report exposes a deeper aging problem. New EV charging stations average an 85% first-time charge success rate (FTCSR). By year three, that rate falls below 70% — a 15-point decline that conventional uptime metrics (which measure whether a charger is technically “available”) fail to capture. A charger can be online and still fail to deliver a session due to broken payment terminals, software glitches, or connectivity dropouts.
Approximately 55% of all charger failures trace to network connectivity problems, often caused by poor or unreliable cellular reception at the station site, per ChargerHelp data. The implication: charger reliability is partly a telecommunications problem.
One clarifying note on the 97% uptime standard: the NEVI program requires chargers to be available 97% of the time. That sounds demanding. In practice, 97% uptime allows a charger to be completely non-operational for nearly 11 days per year — and that’s before accounting for sessions that technically start but fail to deliver power.
Network Customer Satisfaction (J.D. Power 2025)
For DC Fast Charging (J.D. Power 2025 EVX Study, 1,000-point scale):
- Tesla Supercharger: ranked first (score not published separately but consistently highest)
- EVgo: 95% session success rate in Q1 2025, up from 91% prior year
For Level 2 (AC) Charging:
- Tesla Destination Network: 661 points (ranked first, second consecutive year)
- ChargePoint: 628 points
- Industry average: 607 points
- Shell Recharge: 579 points
- Blink: 557 points
Tesla’s Supercharger network’s reliability advantage is structural: it was built as a vertically integrated system with proprietary hardware, software, and proactive maintenance. The rest of the industry is converging on that model; EVgo has upgraded, replaced, or decommissioned chargers at more than 600 locations since 2022.
Heavy-Duty Vehicle EV Charging Statistics
Electric trucks and buses are growing fast enough to make HDV charging infrastructure a supply-chain constraint, not an afterthought.
HDV Charging by the Numbers (end-2025)
- Estimated global public charging points accessible to heavy-duty vehicles: >70,000
- China’s electric truck stock: nearly 1 million (roughly 3% of its fleet)
- China’s estimated public HDV charging stations: 5,000–9,000, implying roughly 50,000–90,000 charging points
- EU public HDV charging points: >4,000, of which ~30% are exclusively dedicated to trucks; nearly two-thirds can charge at 350 kW–1 MW
- US public and semi-public HDV chargers: ~400 charging points (grew 30% in 2025)
Source: IEA Global EV Outlook 2026. Retrieved July 2026.
The IEA estimates that, globally, each HDV-accessible public charger must be shared among more than seven electric heavy-duty trucks. At current growth rates, HDV charging capacity will need to expand roughly sixfold by 2035 just to keep pace with the stated-policy deployment trajectory.
Germany alone has committed €1.6 billion (approved by the European Commission in December 2025) to deploy 725 ultra-fast and 685 megawatt charging stations for HDVs, as part of its obligations under AFIR’s TEN-T network requirements. By 2030, the TEN-T network must have HDV-capable charging stations at maximum 100 km intervals (60 km on the core network).
Depot charging is currently the dominant HDV charging model — representing 99% of HDV chargers in the IEA’s current policy projection through 2035. But depot charging has a hidden bottleneck: grid connection. Large depot charging installations can take several years to come online due to permitting, substation capacity constraints, and retrofitting complexity. Poorly optimised depot charging strategies can increase peak power demand substantially; shifting part of the load to off-peak periods can reduce maximum depot power demand by up to 60%, per ITDP analysis.
EV Charging Infrastructure Market Size Statistics
The EV charging infrastructure market is growing faster than most adjacent clean energy sectors, though analyst estimates vary considerably depending on methodology.
| Metric | Value | Year | Source |
|---|---|---|---|
| Global EV charging infrastructure market size | $40.22 billion | 2025 | Grand View Research (June 2026) |
| Projected market size | $238.82 billion | 2033 | Grand View Research (CAGR 25%) |
| Annual global charger spend (projected) | $300 billion/yr | 2040 | Wood Mackenzie (Aug 2025) |
| Cumulative public/private investment (EU + China + India) | >$120 billion | 2022–2025 | Datamintelligence analysis |
Note: Market size figures are from commercial research firms cited in plain text per Axis editorial policy; direct primary source data from IEA and government agencies is preferred for operational metrics throughout this article.
Wood Mackenzie projects global EV charging ports to grow at a 12.3% CAGR from 2026 to 2040, reaching 206.6 million total ports worldwide. Their analysis found that residential Level 2 charging will comprise approximately two out of every three charging ports globally through 2050 — making the home charger the quiet workhorse of the transition rather than the highway fast charger that gets the headlines.
EV Charging Outlook: What the Numbers Say About 2030
The IEA projects public charging capacity for light-duty EVs will need to grow nearly ninefold by 2030 under stated policies — from roughly 7 million public points today to something approaching 56 million. Under the Net Zero Emissions scenario, the number of public charging points would need to increase nearly fivefold between 2025 and 2035 alone.
Country-Level 2030 Targets vs. IEA Projections
| Country / Region | Government 2030 target | IEA CPS 2030 projection | Gap |
|---|---|---|---|
| France | 400,000 public stations | Not directly comparable | Roughly 2× current stock |
| UK | 300,000 public points | — | ~2.5× current stock |
| Germany | 1,000,000 public points | 380,000–680,000 (NLL range) | Target may overshoot need |
| Japan | 300,000 public chargers | ~61,000 (CPS) | Country target far exceeds projection |
| Indonesia | 32,000 public points | ~44,000 (CPS) | IEA above government target |
Sources: Government announcements cited by IEA Global EV Outlook 2026; IEA CPS projections. Retrieved July 2026.
The Japan discrepancy is notable: Japan’s government target of 300,000 public chargers by 2030 is nearly five times the IEA’s Current Policies Scenario projection of ~61,000. The reason is Japan’s high share of plug-in hybrids, which are less dependent on public fast charging than BEVs, and a historical reliance on home and destination charging.
Germany’s target — 1 million public points by 2030 — is contested by the country’s own energy industry, which estimates the actual requirement at 380,000–680,000 depending on private charging availability. A target three times the top of that range is fiscal ambition, not infrastructure planning.
Methodology
Data Collection
This article is based on a research pass conducted July 7–19, 2026. Primary sources fetched and read during production include:
- IEA Global EV Outlook 2026, Chapter 6 & 10: Electric Vehicle Charging (iea.org, retrieved July 2026). The IEA report is the principal source for global public charging stock, regional breakdowns, speed composition, kW per EV metrics, charging cost analysis, and scenario projections. The IEA’s data in turn draws on EV Volumes, EAFO, BNEF, US AFDC, and country submissions.
- US DOE Alternative Fuels Data Center (afdc.energy.gov): US public charging station and port counts; NEVI program status
- J.D. Power 2025 U.S. Electric Vehicle Experience (EVX) Public Charging Study: US failed charging attempt rates, network satisfaction scores (data from 7,428 EV owners, Jan–Jun 2025)
- ChargerHelp 2025 Annual Reliability Report (chargerhelp.com, published September 2025): First-time charge success rates by station age; root-cause analysis of charging failures
- Paren public charging network price data: DC fast average $0.53/kWh
- EV Volumes (cited via Autovista24, June 2026): China public charging count as of May 2026 (4,005,618 stations; 83.1% global share)
- Zapmap UK charging data: UK public charging stock at end-2025 (116,052 points)
- US EIA residential electricity rate data: $0.17–$0.18/kWh national average, early 2026
- AAA retail gasoline price data: ~$3.92/gallon, late June 2026
CCRI™ Formula and Inputs
The Charging Coverage Ratio Index was calculated using IEA 2026 country-level data for kW per EV and EVs per public charging point. Both components are normalized to 0–10 using linear interpolation relative to the observed range across countries in the dataset, then weighted 50/50 and multiplied by 10 to produce a 0–100 scale. The formula is versioned at v1.0 (July 2026). Axis Intelligence Research commits to not silently altering historical readings; any formula revision will be published with a new version number and re-baselining note.
Limitations
- Private charging stock estimates for individual countries are based on IEA modelling assumptions, not direct registry counts; figures may differ from national statistics.
- Market size figures (Grand View Research, Wood Mackenzie, Datamintelligence) are commercial research firm projections using proprietary methodologies that Axis Intelligence Research has not independently verified; they are cited for order-of-magnitude context only, not as primary data.
- NEVI operational count (550 fast charging points as of April 2026) reflects IEA analysis; the current FHWA operational tracker may differ slightly.
- Reliability data (J.D. Power, ChargerHelp) is US-specific and may not reflect global patterns.
- BYD Flash charging capabilities (1.5 MW) are manufacturer-stated specifications; third-party independent verification of real-world performance at scale was not available at time of publication.
About This Dataset
The Axis Intelligence Research EV Charging Statistics dataset covers global public and private charging infrastructure as of end-2025, including connector counts, power density metrics, cost benchmarks, reliability data, and 2030/2035 outlook scenarios. Data spans end-2024 to May 2026 depending on metric; as-of dates are specified per row in the accompanying CSV.
License: CC BY 4.0. Attribution: Axis Intelligence Research, EV Charging Statistics 2026, axis-intelligence.com/ev-charging-statistics/
Citation formats:
APA: Axis Intelligence Research & Jad, A. (2026). EV Charging Statistics 2026. Axis Intelligence Research. https://axis-intelligence.com/ev-charging-statistics/
MLA: Axis Intelligence Research and Aidan Jad. “EV Charging Statistics 2026.” Axis Intelligence Research, 19 July 2026, https://axis-intelligence.com/ev-charging-statistics/.
Chicago: Axis Intelligence Research and Aidan Jad. “EV Charging Statistics 2026.” Axis Intelligence Research. Last modified July 19, 2026. https://axis-intelligence.com/ev-charging-statistics/.
Frequently Asked Questions
How Many Public EV Charging Stations Are There in the World?
The global public EV charging stock surpassed 7 million charging points at end-2025, per IEA Global EV Outlook 2026. Nearly 1.8 million were added in 2025 alone — a 33% single-year increase. China accounts for more than 65% of the global total (over 4.7 million points); Europe has roughly 1.3 million; the US holds approximately 235,000.
How Much Does It Cost to Charge an EV at a Public Charging Station?
In the US, public Level 2 charging averages $0.25–$0.40 per kWh; public DC fast charging averages $0.45–$0.55 per kWh, with ultra-fast highway chargers reaching $0.55–$0.70 per kWh in high-cost states. Home charging averages $0.17–$0.18 per kWh nationally. A full DC fast charge on a 72–80 kWh battery costs roughly $32–$44 at national average rates.
How Reliable Are Public EV Chargers?
As of 2025, 14% of US EV owners report visiting a public charging station without successfully charging, per J.D. Power. That’s improved from 19% in 2024, but still represents one-in-seven attempts. First-time charge success rates drop from 85% at new stations to below 70% by year three, per ChargerHelp’s 2025 Reliability Report. Tesla Supercharger stations consistently rank highest for reliability and customer satisfaction.
How Many EV Chargers Does the US Have?
The US had approximately 235,000 public charging points and more than 248,000 total charging ports as of early 2026, per the US DOE Alternative Fuels Data Center. This represents just 3% of the global public charging stock, while the US holds roughly 10% of the global electric LDV fleet — a structural gap captured by the Axis Intelligence CCRI™ score of 16.7.
Which Country Has the Most EV Charging Stations?
China. With over 4.7 million public charging points at end-2025 — and 4,005,618 recorded in May 2026 per EV Volumes — China holds more than 83% of global public EV charging infrastructure. The Netherlands leads Europe with 210,000 public points, ahead of Germany (196,000) and France (185,000).
What Is the Difference Between Level 2 and DC Fast Charging?
Level 2 uses 240V AC current and delivers 20–44 miles of range per hour; it is the standard for home installation and destination charging. DC fast charging (Level 3) bypasses the vehicle’s onboard AC-to-DC converter and delivers 50–500+ kW directly to the battery, adding 100–250 miles of range in 20–40 minutes. Ultra-fast chargers (≥150 kW) are a subset of DC fast charging; only about 30% of EVs on the road today are capable of using them at their rated speed.
How Many EV Chargers Will There Be by 2030?
Under IEA’s Stated Policies Scenario, the global public charging stock would need to grow to approximately 56 million points by 2030 — roughly an eightfold increase from the 7 million in place today. The Net Zero Emissions scenario requires even more: nearly a fivefold increase in public charging points between 2025 and 2035. Annual investment in global charging infrastructure is projected to reach $300 billion per year by 2040, per Wood Mackenzie.
What Is the Rural EV Charging Coverage Gap?
As of Q1 2025, only 45% of rural US counties had at least one fast EV charging port, versus 76.5% of metropolitan counties, per Paren data. In rural areas, charger utilization rates often fall below 20% (versus up to 40% in major cities), creating a disincentive for private investment. The CivicPulse analysis of mid-2024 DOE AFDC data found that 66% of US counties with fewer than 25,000 residents had no public charging station at all.
Related Reading on Axis Intelligence Research
- Electric Vehicle Statistics 2026 — global EV sales, market share, battery costs, and the EVIS inflection index
- Level 1 vs. Level 2 vs. Level 3 EV Charging Explained — technical guide with cost calculations
- Best Home EV Chargers 2026 — scored comparison with real-world reliability data