Wireless EV Charging Market (2026 - 2035)

Wireless EV Charging Market Research Report By Charging Type (Stationary Wireless Charging, Dynamic Wireless Charging), By Power Level (≤11 kW, 11–50 kW, >50 kW), By Vehicle Type (Passenger Cars, Commercial Vehicles, Buses & Public Transit) and By Regional (North America, Europe, South America, Asia Pacific, Middle East and Africa) - Industry Forecast to 2035
ID: MRFR/AT/5748-HCR
128 Pages
Shubham Munde, Sejal Akre
Last Updated: July 20, 2026
Wireless EV Charging Market
Market Size
Forecast Period2026-2035
CAGR (2026-2035)35.5%
2025 Market SizeUSD 0.26 Billion
2035 Market SizeUSD 5.39 Billion
Key Players
WiTricity Corporation
Electreon Wireless
WAVE
HEVO Inc.
Continental AG
Robert Bosch GmbH
Opportunities
  • Autonomous Vehicle Charging Automation
  • Dynamic Highway Electrification at Scale
  • Emerging Market Leapfrogging

Wireless EV Charging Market Summary

The Wireless Electric Vehicle Charging Market stood at an estimated USD 0.26 billion in the 2025 base year, with forecast projections placing it at USD 0.35 billion in 2026 and USD 5.39 billion by 2035 — reflecting a compound annual growth rate of 35.5% across the 2026–2035 forecast window. This trajectory is anchored to accelerating global EV adoption mandates. The European Commission's 2035 ICE ban and the U.S. Inflation Reduction Act's $7.5 billion charging infrastructure investment [1] have made wireless charging infrastructure a priority for automakers and municipalities alike. The Wireless Electric Vehicle Charging Market benefits directly from these catalysts.

A major technology transition is underway, as standard plug-in charging has limits in terms of convenience, risk of vandalism and urban aesthetics. The SAE J2954 standard has been completed for 11 kW, and certain manufacturers, such as BMW, Genesis, and Mercedes-Benz, have committed to factory-integrated wireless charging stations for 2026–2028 model years [2]. Meanwhile, governments in Sweden, Israel and Michigan have combined pledged more than USD 350 million for experimental projects for electrified roadways [3].

 

Federal NEVI financing and OEM integration schedules are driving North America to the greatest regional share, estimated at roughly 38% of 2025 revenue. The Asia-Pacific region is the fastest-expanding region with a forecast CAGR of 39.8%. China is aggressively investing in smart highways, which is driving this growth. Europe is the second largest at about 32%, buoyed by regulatory harmonisation in the EU. These forces are coming together, positioning the Wireless Electric Vehicle Charging Market for an inflection point.

 

Key Report Takeaways

• By Charging Type

  • Stationary wireless charging holds approximately 78% of the Wireless Electric Vehicle Charging Market in 2025, reflecting strong OEM adoption for residential and depot use cases.
  • Dynamic (in-road) wireless charging is the fastest-growing segment with a projected CAGR of 42.1%, driven by highway electrification pilots.

• By Power Level

  • Systems rated at 11 kW and below account for the dominant share, aligned with the SAE J2954 baseline.
  • High-power systems above 50 kW are expected to reach USD 0.62 billion by 2035, targeting commercial fleet applications.

• By Geography

  • North America leads the Wireless Electric Vehicle Charging Market with a 38% revenue share in 2025
  • Asia-Pacific registers the highest CAGR at 39.8%, with China and South Korea as primary contributors.
  • Europe accounts for 32% of global revenue, led by Germany, the UK, and France.

 

Wireless Electric Vehicle Charging Market Size and Forecast (2021–2035)

Market sizing is based on a triangulated approach using bottom-up revenue analysis of tier-one suppliers, top-down cross-checking with worldwide EV production data from the IEA [1], and primary interviews with OEM procurement leads and utility planners. Historical data is based on actual shipments and project deployments, while the prediction is based on a demand-supply equilibrium model weighted by regulatory timeframes and technological cost curves.

Wireless Electric Vehicle Charging Market Size and Forecast
Our Impact
Enabled $4.3B Revenue Impact for Fortune 500 and Leading Multinationals
Partnering with 2000+ Global Organizations Each Year
30K+ Citations by Top-Tier Firms in the Industry

Driver Impact Analysis

Driver ~% Impact on CAGR Geographic Relevance Impact Timeline
Global EV adoption mandates and ICE phase-outs ~25% Global Long-term (≥4 yr)
SAE J2954 and IEC 61980 standards finalization ~20% North America, Europe Short-term (≤2 yr)
Government highway electrification funding ~15% Europe, North America Medium-term (2–4 yr)
OEM factory-fit wireless charging integration ~18% Global Short-term (≤2 yr)
Smart city and autonomous vehicle synergies ~10% Asia-Pacific, Europe Long-term (≥4 yr)
Fleet electrification mandates for transit and logistics ~8% North America, Asia-Pacific Medium-term (2–4 yr)
Declining power electronics and coil manufacturing costs ~4% Global Long-term (≥4 yr)

 

EV Adoption Mandates and ICE Phase-Outs

The European Union’s binding 2035 target mandates that all new passenger cars and vans must be zero-emission vehicles. Similarly, California’s Advanced Clean Cars II regulation requires 100% of new passenger vehicle sales to be zero-emission by 2035. These regulatory frameworks provide long-term certainty for the automotive industry, shifting the focus from "if" electric vehicles will succeed to "how" they will be charged. This transition creates a growing demand for the Wireless Electric Vehicle Charging (WEVC) market as a seamless alternative to plug-in infrastructure.

 

Standards Harmonization

The publication of the SAE J2954 standard in 2020 established the first unified design criteria for wireless power transfer at the 11 kW power level, with ongoing development for 22 kW and 50 kW tiers. Before this, the wireless charging market was hindered by proprietary coil geometries and varied frequencies. By creating a standardized framework, SAE J2954 is essential for ensuring interoperability between vehicles and ground pads from different manufacturers, which is a critical step for broader market adoption.

 

Government Infrastructure Investment

Public-sector interest in inductive charging is growing as a way to extend EV range and support commercial vehicle electrification. For example, Sweden has been a long-term leader in electrified road technology through various research and pilot initiatives, such as the eRoadArlanda project, which demonstrates the viability of dynamic (in-motion) charging. While early-stage pilots are currently the primary focus, they serve to move wireless charging from a laboratory concept to a credible, real-world technology for public and private infrastructure.

 

Restraints Impact Analysis

Restraint ~% Negative Impact Geographic Relevance Impact Timeline
High upfront infrastructure cost vs. plug-in alternatives ~30% Global Short-term (≤2 yr)
Energy transfer efficiency gap (85–93% vs. 95%+ wired) ~20% Global Medium-term (2–4 yr)
Limited ground-pad interoperability across OEMs ~20% North America, Europe Short-term (≤2 yr)
Regulatory fragmentation for in-road installations ~15% Global Medium-term (2–4 yr)
Consumer awareness and perceived safety concerns ~15% Global Long-term (≥4 yr)

 

Infrastructure Cost Premium

A single wireless charging pad for residential use currently costs between USD 2,500 and USD 4,000 — roughly three to five times the cost of a Level 2 plug-in EVSE unit [11]. Dynamic road installations carry even higher costs at approximately USD 1.2 million per lane-kilometer. Until manufacturing scale drives these figures down, the Wireless Electric Vehicle Charging Market faces an adoption bottleneck among cost-sensitive fleet operators and municipalities.

Efficiency and Thermal Losses

Current wireless power transfer systems achieve 85–93% wall-to-wheel efficiency depending on alignment and air gap distance, compared with 95% or higher for wired connections [12]. That 5–10 percentage-point gap translates into higher electricity costs per kWh delivered and additional thermal management complexity. Improvements in coil design and power electronics are narrowing this gap, but it remains a measurable disadvantage for the Wireless Electric Vehicle Charging Market through at least 2028.

 

Wireless EV Charging Market Opportunities

Autonomous Vehicle Charging Automation

Autonomous vehicles cannot plug themselves in. Wireless charging is the only scalable solution for fully driverless fleets, making it a structural necessity rather than a convenience [7]. Robotaxi operators such as Waymo and Cruise have publicly explored wireless depot charging as their fleet sizes grow.

Dynamic Highway Electrification at Scale

Countries investing in electrified highway corridors — including Sweden, Germany, Israel, and the U.S. — create a new category of revenue for the Wireless Electric Vehicle Charging Market beyond individual vehicle pads [3]. The long-term vision involves toll-like per-kilometer charging fees that create recurring revenue streams for infrastructure operators.

Emerging Market Leapfrogging

Markets in Southeast Asia, India, and Latin America are deploying EV infrastructure from scratch, without legacy wired charging networks to protect. These regions can adopt wireless solutions directly, particularly for electric bus rapid transit systems that benefit from opportunity charging at stops rather than overnight depot charging.

Data Monetization and Grid Services

Wireless charging platforms collect granular data on charging patterns, battery health, and grid load. Aggregated and anonymized, this data has commercial value for utilities, urban planners, and insurance providers. Vehicle-to-grid bidirectional capabilities add a second monetization layer by allowing wireless-equipped EVs to provide grid balancing services, transforming the Wireless Electric Vehicle Charging Market into a grid-edge asset class.

Aftermarket Retrofit Expansion

As wireless charging becomes standardized, an aftermarket retrofit industry is forming to serve the hundreds of millions of plug-in EVs that will be on roads through the 2030s. Retrofit kits priced at USD 1,200–USD 2,000 could open a parallel revenue stream alongside OEM factory-fit systems, expanding the addressable base of the Wireless Electric Vehicle Charging Market significantly.

 

Wireless EV Charging Market Future Outlook

Autonomous Mobility and Wireless Charging Convergence

The global autonomous vehicle fleet is projected to exceed 30 million units by 2035, according to IEA scenarios [7]. Each autonomous vehicle requires zero-human-intervention charging — a requirement only wireless systems fulfill. This convergence will structurally embed wireless charging into the autonomous mobility ecosystem, making the Wireless Electric Vehicle Charging Market a foundational infrastructure layer rather than an optional upgrade.

Electrification Supercycle and Grid Integration

Global EV stock is expected to surpass 250 million by 2030 [10]. Wireless charging pads connected to smart grid systems can schedule charging during off-peak hours without driver intervention, reducing peak load pressure. DOE estimates that managed wireless charging could defer USD 5 billion in grid upgrade costs through 2035 [19].

Platform Economics and Charging-as-a-Service

The Wireless Electric Vehicle Charging Market is evolving toward platform business models. Operators deploying wireless pads in parking garages, retail lots, and municipal streets can monetize through subscription fees, per-session billing, and advertising partnerships. This shift from hardware sales to recurring revenue will improve the investability profile of the sector.

ESG Reporting and Sustainability Metrics

Corporate sustainability reporting frameworks — including the EU's CSRD — increasingly require Scope 3 emissions disclosure from fleet operators [20]. Wireless charging systems that integrate renewable energy sourcing and carbon accounting software give fleet managers auditable data for ESG compliance, adding a governance-driven demand layer to the Wireless Electric Vehicle Charging Market.

 

Wireless EV Charging Market Segmentation

By Charging Type

Segment Key Metric Primary Demand Driver
Stationary Wireless Charging 78% revenue share (2025) Residential garages, fleet depots, OEM adoption
Dynamic Wireless Charging CAGR 42.1% (2026–2035) Highway electrification pilots, transit opportunity charging

 

Stationary wireless charging dominates the Wireless Electric Vehicle Charging Market because it maps directly to existing driver behavior — park your car, walk away, charging begins. Installation in residential garages and commercial parking structures requires minimal behavioral change, which accelerates adoption. Dynamic wireless charging, while still in pilot phases, represents the long-term growth vector. Electrified road segments in Sweden and Michigan have demonstrated technical feasibility at highway speeds, and the cost per kilometer is declining as coil manufacturing scales [3].

By Power Level

Segment Key Metric Primary Demand Driver
≤11 kW 55% revenue share (2025) SAE J2954 baseline, residential overnight use
11–50 kW CAGR 39.4% (2026–2035) Commercial fleet fast-charging, depot use
>50 kW USD 0.62 B (2035) Heavy-duty transit, dynamic highway systems

 

The ≤11 kW tier aligns with the SAE J2954 standard and covers overnight residential charging comfortably. The 11–50 kW range is gaining traction for taxi and ride-hailing fleets that need faster turnaround at depots, making it the fastest-growing power tier in the Wireless Electric Vehicle Charging Market.

By Vehicle Type

Segment Key Metric Primary Demand Driver
Passenger Cars 65% revenue share (2025) OEM factory-fit integration, consumer convenience
Commercial Vehicles CAGR 38.8% (2026–2035) Last-mile delivery fleets, depot automation
Buses & Public Transit 12% revenue share (2025) Opportunity charging at bus stops

 

Passenger cars account for the largest segment of the Wireless Electric Vehicle Charging Market due to the consumer convenience proposition and OEM integration pipelines. Commercial vehicles are growing fastest as logistics operators recognize the labor-time savings of eliminating manual plug-in processes across large fleets.

 

Regional Market Share Analysis

Region Key Metric Primary Investment Themes
North America 38% revenue share (2025) NEVI funding, OEM integration, highway pilots
Europe 32% revenue share (2025) EU regulatory mandates, smart motorway programs
Asia-Pacific CAGR 39.8% (2026–2035) China's smart highways, South Korea's R&D, and Japan's transit
South America USD 0.008 B (2025) Electric BRT systems, urbanization
Middle East & Africa CAGR 28.5% (2026–2035) Smart city projects, luxury segment adoption
Total USD 0.26 B (2025)

The Wireless Electric Vehicle Charging Market exhibits a clear three-tier regional structure: North America and Europe together represent 70% of 2025 revenue, Asia-Pacific is scaling rapidly from a smaller base, and emerging regions remain nascent but show strong pilot activity.

 

North America

Country Key Metric Key Driver
United States 72% of regional revenue NEVI program, OEM factory-fit timelines
Canada 16% of regional revenue Provincial EV mandates, TransLink pilots
Mexico CAGR 31.5% Nearshoring of EV manufacturing

 

The United States dominates the North American Wireless Electric Vehicle Charging Market through a combination of federal investment and OEM headquarters influence. Michigan's Department of Transportation committed USD 110 million to the first U.S. dynamic wireless charging highway segment in 2023 [3], while NEVI Phase 2 guidelines explicitly include wireless charging as an eligible technology [5].

Europe

Country Key Metric Key Driver
Germany 28% of regional revenue Autobahn electrification, OEM R&D hubs
United Kingdom CAGR 36.2% Transport for London pilots, OZEV grants
France 18% of regional revenue ADVENIR program expansion
Rest of Europe 24% of regional revenue Sweden eRoad, EU CEF funding

 

Germany's automotive OEMs — BMW, Mercedes-Benz, and Volkswagen — are among the most aggressive adopters of wireless charging integration, pulling significant R&D spending into the region [6]. The UK's Centre for Connected and Autonomous Vehicles has earmarked GBP 40 million for wireless charging trials on the M25 corridor [15].

Asia-Pacific

Country Key Metric Key Driver
China 42% of regional revenue MIIT smart highway mandates, Electreon partnerships
Japan 24% of regional revenue Toshiba and Denso R&D, transit electrification
South Korea CAGR 41.5% KAIST OLEV legacy, Hyundai-Kia integration
India 10% of regional revenue Electric bus BRT deployments

 

China is building wireless charging into its national smart-highway blueprint, with MIIT mandating pilot deployments across five provinces by 2027 [16]. South Korea benefits from a two-decade head start in online electric vehicle research at KAIST, giving its Wireless Electric Vehicle Charging Market a strong domestic technology base.

South America

Country Key Metric Key Driver
Brazil 55% of regional revenue Electric bus fleet programs in São Paulo
Rest of South America 45% of regional revenue Chile and Colombia EV transition plans

 

Brazilian cities are deploying electric BRT buses with wireless opportunity charging at key stops, bypassing wired infrastructure that is vulnerable to theft and vandalism in dense urban settings [17].

Middle East & Africa

Country Key Metric Key Driver
UAE CAGR 30.2% DEWA smart city mandates luxury EV adoption
Saudi Arabia 35% of regional revenue NEOM smart mobility infrastructure
Rest of MEA 40% of regional revenue South Africa transit pilots

 

The UAE's DEWA 2030 Smart Grid initiative includes provisions for wireless EV charging in premium residential developments and public parking structures [18], positioning the Gulf states as early adopters within this region.

 

Wireless Electric Vehicle Charging Market By Region, 2025-2035

Competitive Benchmarking

The Wireless Electric Vehicle Charging market is moderately concentrated. The top 5 players own a share of 42-50% of the market. The HHI is around 850-1050. "The competitors range from niche wireless power transfer start-ups to tier-one automotive suppliers expanding into electrification, to Asian electronics conglomerates. Strategic M & A has changed the game, with WiTricity’s purchase of Qualcomm’s Halo company consolidating a major IP base and new market entrants emerging around high-power applications and dynamic charging.

Company Est. Revenue Share Range Key Offerings Strategic Positioning
WiTricity Corporation ~12–16% Licensed magnetic resonance IP, OEM integration kits Technology licensor, broadest OEM partnerships
Electreon Wireless ~8–11% In-road dynamic charging infrastructure Dynamic charging leader, government contract focus
WAVE (InductEV) ~7–10% High-power bus and fleet depot systems Heavy-duty transit specialist
HEVO Inc. ~5–8% Urban ground-pad networks, parking integration Smart city and municipal focus
Continental AG ~5–7% Tier-one OEM wireless charging modules Automotive supply chain integration
Robert Bosch GmbH ~4–6% Power electronics, system-level integration Scale manufacturing, global distribution
Toshiba Corporation ~3–5% SCiB battery + wireless charging packages Integrated energy storage and charging
IPT Technology GmbH ~3–5% Bus and heavy-duty inductive systems European transit market specialist
ZTE Corporation ~3–5% Wireless charging infrastructure for smart cities Telecom-to-automotive diversification
Plugless Power (Evatran) ~2–4% Aftermarket retrofit wireless charging kits Consumer aftermarket channel

 

 

Recent News & Developments

 

 

  • SAE International (August 2024): Published the updated J2954 Recommended Practice extending wireless power transfer specifications to 22 kW, broadening the standard's applicability for light commercial vehicles [2]

 

  • Stellantis / Arena del Futuro (August 2023): Released results from the 1.05 km dynamic charging test circuit in Brescia, Italy, showing 90% coil-to-battery efficiency for a Fiat 500e at 70 km/h [21]

 

 

 

Wireless EV Charging Market Report Scope

Parameter Details
Market Scope Wireless Electric Vehicle Charging Market — hardware, software, and infrastructure services
Study Period 2021–2035
CAGR 35.5% (2026–2035)
Market Size (2025) USD 0.26 Billion
Market Size (2035) USD 5.39 Billion
Fastest Growing Segment Dynamic Wireless Charging (CAGR 42.1%)
Companies Profiled 10 major players
Valuation Currency USD (constant 2025 dollars)

 

 

FAQs

How does wireless charging affect EV battery degradation compared to wired charging?
Wireless systems deliver consistent, low-rate power that avoids the voltage spikes sometimes associated with DC fast charging, potentially reducing long-term lithium-ion cell stress [12]. Battery cycle life outcomes are comparable to or slightly better than Level 2 wired charging.
What is the typical installation timeline for a commercial wireless charging deployment?
Commercial depot installations average 8–14 weeks from site survey to commissioning, including civil works for ground-pad embedment and utility interconnection [11]. Residential single-pad installations are typically complete within one day.
Can wireless charging pads operate in extreme weather conditions?
Ground-embedded pads are sealed to IP67 or higher ratings and function across –40°C to +60°C operating ranges without performance degradation [12]. Snow, rain, and standing water do not interrupt power transfer.
How do municipal authorities typically fund public wireless charging infrastructure?
Most municipalities combine federal grants (such as NEVI or EU CEF allocations) with public-private partnerships where operators bear installation costs in exchange for long-term concession fees [5]. Bond financing and green infrastructure funds are secondary channels.
What cybersecurity risks exist in wireless EV charging networks?
Networked charging pads communicate with vehicles and grid management systems over encrypted protocols, but man-in-the-middle and firmware spoofing attacks remain theoretical risks [14]. ISO 15118 Plug-and-Charge authentication is being adapted for wireless systems.
How does building code classification affect wireless charging pad installation in parking garages?
Embedded ground pads require reclassification under local electrical codes, as most jurisdictions lack specific wireless EV charging categories [13]. NEC Article 625 amendments under review address air-gap power transfer explicitly.
What role do rare-earth materials play in wireless charging coil production costs?
Ferrite cores and litz wire dominate coil construction, and neither relies heavily on rare-earth elements [9]. Cost sensitivity runs primarily through copper pricing and power electronics semiconductor availability.    
Author
Author
Author Profile
Shubham Munde LinkedIn
Team Lead - Research
Shubham brings over 7 years of expertise in Market Intelligence and Strategic Consulting, with a strong focus on the Automotive, Aerospace, and Defense sectors. Backed by a solid foundation in semiconductors, electronics, and software, he has successfully delivered high-impact syndicated and custom research on a global scale. His core strengths include market sizing, forecasting, competitive intelligence, consumer insights, and supply chain mapping. Widely recognized for developing scalable growth strategies, Shubham empowers clients to navigate complex markets and achieve a lasting competitive edge. Trusted by start-ups and Fortune 500 companies alike, he consistently converts challenges into strategic opportunities that drive sustainable growth.
Co-Author
Co-Author Profile
Sejal Akre LinkedIn
Senior Research Analyst
She has over 5 years of rich experience, in market research and consulting providing valuable market insights to client. Hands on expertise in management consulting, and extensive knowledge in domain including ICT, Automotive & Transportation and Aerospace & Defense. She is skilled in Go-to market strategy, industry analysis, market sizing, in depth company profiling, competitive intelligence & benchmarking and value chain amongst others.

Research Approach

 

Secondary Research

The secondary research process involved comprehensive analysis of regulatory standards databases, peer-reviewed engineering journals, automotive industry publications, and authoritative energy & transportation organizations. Key sources included the International Electrotechnical Commission (IEC), Institute of Electrical and Electronics Engineers (IEEE), SAE International, International Organization for Standardization (ISO), National Institute of Standards and Technology (NIST), US Department of Energy (DOE) Alternative Fuels Data Center, European Commission Clean Transport Directorate, China Ministry of Industry and Information Technology (MIIT), International Energy Agency (IEA) Global EV Outlook, International Renewable Energy Agency (IRENA), Charging Interface Initiative (CharIN) e.V., Electric Drive Transportation Association (EDTA), California Air Resources Board (CARB), European Alternative Fuels Observatory (EAFO), and national automotive manufacturer associations from Germany (VDA), Japan (JAMA), and South Korea (KAMA). These sources were utilized to collect EV adoption statistics, wireless power transfer standards compliance data, charging infrastructure deployment figures, patent filings for inductive charging technologies, and regulatory policy analysis for electromagnetic field emissions and grid integration protocols.

 

Primary Research

To gather both qualitative and quantitative insights, supply-side and demand-side stakeholders were interviewed during the primary research phase. CEOs, CTOs of wireless charging divisions, directors of EV infrastructure planning, and product development vice presidents from automakers, manufacturers of wireless charging systems, suppliers of power electronics semiconductors, and manufacturers of magnetic components were examples of supply-side sources. Demand-side sources included procurement leads from logistics firms, public transportation authorities, and ride-sharing platforms; fleet operations directors; commercial real estate facility managers; municipal transportation planners; and operators of EV charging networks. Primary study confirmed wireless charging pad deployment schedules, validated technology acceptance curves, and collected information on the adoption of interoperability standards, total cost of ownership models, and feasibility assessments for dynamic charging (in-motion).

Primary Respondent Breakdown:

By Designation: C-level Primaries (28%), Director Level (35%), Others (37%)

By Region: North America (32%), Europe (30%), Asia-Pacific (33%), Rest of World (5%)

 

Market Size Estimation

Global market valuation was derived through revenue mapping and charging infrastructure unit analysis. The methodology included:

Identification of 50+ key stakeholders across North America, Europe, Asia-Pacific, and Latin America, spanning inductive charging pad manufacturers, resonant coil technology providers, automotive Tier 1 suppliers, and EV infrastructure developers

Technology mapping across inductive charging, resonant inductive charging, and magnetic field charging architectures, including power levels (3.6kW to 300kW+ applications)

Analysis of reported and modeled annual revenues specific to wireless charging hardware, installation services, and software integration platforms

Coverage of manufacturers and service providers representing 75-80% of global market share in 2024

Extrapolation using bottom-up (infrastructure deployment volume × average selling price by region) and top-down (OEM partnership announcements and supplier revenue validation) approaches to derive segment-specific valuations for stationary and dynamic wireless charging applications

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