Wireless EV Battery Monitoring Market Size - By Component, By Communication Technology, By Battery Chemistry, By Vehicle, Growth Forecast, 2025 - 2034

Wireless EV Battery Monitoring Market Size

The global wireless EV battery monitoring market size was estimated at USD 543.7 million in 2024. The market is expected to grow from USD 608 million in 2025 to USD 2.07 billion in 2034, at a CAGR of 14.6% according to latest report published by Global Market Insights Inc.

The automotive industry is redesigning the EV platform for weight reduction, pack flexibility, and energy density improvement. Wireless battery monitoring does without heavy wiring, speeds up assembly, and enables modular architecture. As new vehicles transition toward lighter, software-centric designs, wireless BMS becomes a preferred solution for next-generation electric platforms directly boosting adoption.
 

According to EAFO data, more than 632,423 public charging points were in operation as of 2023, and in 2023 alone, about 153,000 public points were added to the network.  European Commission AFIR’s goal of 3.5 million public charging points by 2030 will encourage various policies, funding and infrastructure to quickly grow public charging networks.
 

US light-duty EV sales in 2024 reached 3.2 million units, representing greater than 20% of light-duty vehicle sales (2024).  Demand for smart charging services will develop from large fleets and individual EV consumers that require optimized energy delivery. This rapid expansion creates substantial demand for wireless battery monitoring to manage high-power charging safety, thermal management, and battery degradation tracking.
 

Software-defined vehicles call for deeper data visibility, remote update capabilities and secure cloud-connected energy management. Wireless battery monitoring provides richer telemetry and seamless OTA integration necessary for predictive analytics and advanced safety modeling. As OEMs move to data-centric architectures, wireless BMS naturally aligns with their long-term roadmap and reinforces its strategic importance.
 

It is also becoming important to monitor the health, balance mixed-condition modules, and ensure safety in second-life EV battery applications for grid, home, and industrial storage. Wireless systems can be configured flexibly without rewiring, which reduces integration cost and complexity. As the energy storage ecosystem is still growing, adaptable wireless monitoring solutions are in continuous demand.
 

Wireless EV Battery Monitoring Market Trends

The wireless EV battery monitoring industry is expanding because of the rapid electrification of transportation and the trend towards making charging systems digitally coordinated. Wireless architecture creates high-resolution data streams that feed AI models to predict degradation, optimize thermal factors and detect anomalies. Automakers increasingly use predictive intelligence as a means of assuring improved safety, extending the life span of batteries and minimizing warranty costs. AI-enabled functionality is definitely one of the major differentiators in wireless battery monitoring ecosystems.
 

3.2 million light duty EVs were sold in the US in 2024, about 20 percent of the total light-duty vehicle sales. This number continues to grow demand for battery monitoring systems, which consider residential and commercial needs in a manner that optimizes energy distribution, is usable for fleet use and represents the person interested in simply charging an electric vehicle.
 

The advancement of the grid and electrification of fleets are determining the features that networks must possess. Smart charging networks provide real-time energy optimization, demand-response and renewable alignment. Networks that leverage AI will be able to ensure smart networks, energy management, and cybersecurity, alongside V2G capabilities to grow scalable, interoperable, and resilient infrastructure.
 

EMs are steadily moving from partial or hybrid wireless solutions to fully wireless battery packs. Improvements in signal reliability, energy efficiency, and safety certification further accelerate the shift. Greater design freedom, faster assembly and modular pack configurations are all supported by the transition and position wireless architectures as the long-term norm for advanced EV platforms.
 

Wireless architecture creates high-resolution data streams that feed AI models to predict degradation, optimize thermal factors and detect anomalies. Automakers increasingly use predictive intelligence as a means of assuring improved safety, extending the life span of batteries and minimizing warranty costs. AI-enabled functionality is definitely one of the major differentiators in wireless battery monitoring ecosystems.
 

Increasingly demanding cybersecurity requirements are reforming wireless BMS design. Manufacturers integrating encrypted communication layers, intrusion detection, secure boot, and hardware-rooted authentication. As vehicles gradually turn into connected devices and with increasingly stringent regulations, the cyber-secure supply of wireless energy systems is gaining high momentum for continuous upgrade cycles.
 

While the entire bus, truck, and industrial EV sector is moving toward wireless monitoring because of the simplification in maintenance and large, high-power battery system support, the trend also falls in line with zero-emission regulations and the greater electrification of logistics. Ease of integration and improved reliability make wireless BMS increasingly attractive for heavy-duty platforms.
 

In June 2025, Delta Electronics showcased at E-Mobility Taiwan 2025 its Megawatt Charging System supporting up to 1,500 A and 1,250 V delivering 1 MW per charging post with modular scalability exceeding 3 MW.
 

Wireless EV Battery Monitoring Market Analysis

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Based on components, the wireless EV battery monitoring market is divided into hardware, software, and services. Hardware segment dominated the market in 2024, accounting for 57% share of total revenue.
 

• The increasing electrification and rising complexity of high-capacity battery packs drive the hardware segment as the physical backbone of wireless EV battery monitoring systems. With EV platforms increasingly migrating toward larger cell counts and modular designs, robust sensor nodes, gateway modules, antenna systems, and processing units that can resist unforgiving automotive environments are in higher demand.
   
• This adoption is supported by the evolution toward lighter, safer and more flexible battery architectures, while performance and reliability improvements in wireless chipsets and low-power electronics further enable the sector. However, intense cost pressures push suppliers to innovate in energy efficiency, manufacturing integration and design standardization if they want to stay competitive.
   
• As automakers move toward software-defined vehicle platforms, the software sector is becoming the strategic center of wireless battery monitoring. The need for sophisticated diagnostics, real-time battery health modeling, data orchestration, cybersecurity and seamless over-the-air updates is driving growth.
   
• Richer telemetry streams made possible by wireless architectures enable software to continuously optimize charging behavior, thermal management, and degradation prediction across a variety of chemistries.
   
• In February 2025, Siemens Smart Infrastructure announced a five-year order from Aral pulse to deploy Electrification X to monitor, control, and optimize Aral e-mobility charging infrastructure in real time across 300 Aral charging stations in Germany.
   

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Based on communication technology, the wireless EV battery monitoring market is segmented into short-range wireless (bluetooth), long-range / LPWAN, proprietary RF stacks and hybrid architectures. The short-range wireless segment dominated the market in 2024 and is expected to grow at a CAGR of 11.9% from 2025 to 2034.
 

• The short-range wireless platforms of Bluetooth, BLE and other low-power protocols remain relevant due to their efficiency and mature development ecosystems for internal battery-pack communications. Such technologies apply to localized sensor clusters that require little power and stable data exchange within confined spaces. Their compact footprint and flexibility support modular battery designs. Also, in EV applications, there are challenges related to electromagnetic interference and an increase in cell count as well as increased safety requirements.
   
• As EVs incorporate deeper connectivity into their vehicles through fleet management systems, cloud platforms, and charging networks, long-range wireless technologies continue to gain traction. Real-time telemetry uploads, remote diagnostics, and smooth over-the-air software updates are all made possible by these communication layers. It's increasingly important for commercial EVs and second-life energy storage deployments were centralized monitoring drives operational efficiency.
   
• Proprietary RF stacks address applications for which standardized wireless protocols cannot meet the very high safety, latency and reliability demands of automotive battery systems. Vendors implement customized communication layers optimized for deterministic performance in metal-dense and interference-prone battery housings.
   
• These systems often include advanced fail-safe mechanisms, high-integrity data validation and enhanced security tailored to functional-safety compliance. Their flexibility provides an opportunity to differentiate both in performance and system architecture. Also, closed ecosystems and limited interoperability create challenges to adoption.
   
• In December 2024, IEEE Spectrum reported NXP Semiconductors developed an ultra-wideband wireless battery-management system for electric-vehicle battery packs. The UWB system encodes low-energy pulses across approximately 500 MHz bandwidth with approximately 2-nanosecond pulse durations enabling precise time-of-arrival measurements to distinguish direct versus reflected multipath signals.
   

Based on deployment, the wireless EV battery monitoring market is segmented into lithium-ion battery, lead-acid battery, nickel-metal hydride battery, solid-state battery and others. The lithium-ion battery segment dominated the market, accounting for share of 42% in 2024.
 

• Lithium-ion batteries remain the primary driver of wireless monitoring adoption as their high energy density and narrow safety envelope require precise, real-time cell supervision an area where wireless systems excel by delivering granular insights without the packaging constraints of wired harnesses.
   
• Lead-acid batteries continue to perform a restricted yet resilient duty in the larger electrification environment as their main uses are auxiliary power systems, low-voltage architectures and certain industrial EV applications.
   
• Wireless battery monitoring enhances their reliability through improved fault detection, charge balancing, and state-of-health visibility-areas where traditional systems often struggle. Although inefficient for traction duties in modern EVs, the lead-acid pack remains integral for safety-critical backup functions that rely on predictable performance data.
   
• Nickel-metal hydride batteries still have their value in hybrid cars where durability, resistance to temperature variations, and proven safety are more important than achieving high energy density.
   
• Wireless battery monitoring contributes to extending the life of these batteries through enhanced thermal profiling, charge control, and degradation assessment. These include emerging chemistries like sodium-ion, lithium-sulfur, and next-generation hybrid systems, all of which introduce unique challenges in terms of monitoring and system integration.
   

Based on vehicle, the wireless EV battery monitoring market is segmented into passenger cars and commercial vehicles. The passenger cars segment dominated the market, accounting for share of 68% in 2024.
 

• Passenger EVs represent the broadest use case for wireless battery monitoring, as global adoption accelerates and consumers demand longer range, improved efficiency and seamless digital experiences. Wireless architectures reduce weight, simplify pack design and support high-resolution monitoring that enhances safety and performance.
   
• Additionally, their integration with vehicle-to-grid services, smart-charging ecosystems, and intelligent energy-management software creates a sound basis for their future relevance. While cost sensitivity is still an issue, technology improvements and optimizations at the platform level are relentlessly bridging that gap.
   
• As next-generation EVs focus on modularity and connectivity, wireless battery monitoring will be a key enabler of flexible design and real-time performance optimization.
   
• Commercial EVs are some of the most important adopters of wireless battery monitoring as these focus on uptime, fleet efficiency, and lifecycle cost control.
   

Wireless systems provide support for predictive maintenance, more accurate state-of-health tracking, and automatic depot-level charging management each of which is a critical factor in logistics, transit, and heavy-duty vehicle operations. Large battery packs benefit from reduced wiring complexity and improved fault detection.
 

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US dominates the North America wireless EV battery monitoring market accounting for 75.8% share in 2024 and generating USD 142.6 million in revenue.
 

• The U.S. market is growing quickly due to robust federal and state support for adopting electric vehicles (EVs). In 2024, 3.2 million light-duty EVs were sold-about 20% of the total light-duty vehicle sales--which stimulated demand for public and residential charging solutions.
   
• Federal programs like the Infrastructure Investment and Jobs Act (IIJA) and Inflation Reduction Act (IRA) provide substantial incentives for EV adoption and charging infrastructure deployment. The U.S. Department of Energy's Vehicle Technologies Office has established aggressive targets including battery pack costs below USD 100/kWh and 15-minute charging, creating technology pull for advanced monitoring capabilities.
   
• Residential charging still represents the largest deployment market in the U.S. because most EV owners still charge overnight at home. Utilities are increasingly deploying smart meters along with home energy management systems to actively manage load, optimize electricity prices, reduce peak demand on distribution networks and preserve the reliability of electricity proper battery monitoring system.
   
• The U.S. Department of Energy's advanced wireless strategy emphasizes private 5G networks, multi-access edge computing and zero trust cybersecurity architectures for distributed energy resources including EV charging. These policy frameworks create favorable conditions for wireless battery monitoring adoption by establishing technical requirements and funding mechanisms for advanced wireless deployments.
   
• In September 2024, Siemens announced intention to carve out its eMobility (EV charging) business to create a dedicated legal structure combining Siemens eMobility and recently acquired Heliox. The carve-out aims to provide entrepreneurial freedom, agility, and readiness to pursue partnerships while accelerating profitability by focusing on high-potential segments and strategic geographies.
   

The wireless EV battery monitoring market in Germany is expected to experience robust growth 13.9% from 2025 to 2034, supported by expanding public charging corridors, strong policy incentives, and rising residential smart charging adoption.
 

• Germany's market for wireless EV battery monitoring is rapidly expanding due to the country's ambitious electrification targets and favorable government policies. By 2023, Germany had around 63,000 publicly accessible charging locations, with more than 15,000 added that year, demonstrating the accelerating pace of infrastructure development.
   
• The EU's Alternative Fuels Infrastructure Regulation (AFIR) mandates smart-capable chargers and establishes interoperability requirements that drive adoption of standardized wireless monitoring interfaces. The EU Batteries Regulation establishes comprehensive lifecycle requirements including digital battery passports, recycling targets, and due diligence for sustainable sourcing, creating regulatory drivers for wireless monitoring systems that can track battery provenance and enable second-life certification.
   
• Federal programs through the German National Platform for Electric Mobility (NPE) and the Charging Infrastructure Act promote the rapid adoption of battery monitoring system chargers in homes, businesses and public sites. These policy tools include funding for fast-charging corridors by federal, state and municipal governments and charging installation incentives for the private and workplace sectors.
   
• Siemens announced in February 2025 deployment of Electrification X dynamic load management across 300 Aral charging stations with over 3,000 ultra-fast chargers up to 400 kW. The system provides real-time monitoring, central operation, and cybersecurity including SIEM for attack detection and NIS-2 compliance.
   

The wireless EV battery monitoring market in China is expected to experience effective growth from 2025 to 2034, driven by rapid EV penetration, and government-backed smart grid integration.
 

• The wireless EV battery monitoring market in China is growing rapidly as the country leads the world in the adoption of EVs. In 2023, China had more than 1.6 million public charging points available to the public, signifying a major infrastructure expansion to service the EV fleet.
   
• Chinese battery prices reduced approximately 30% in 2024 faster than somewhere else driven by manufacturing scale, supply chain integration and chemistry shifts toward LFP which reached approximately 75% of China's domestic battery demand. This cost leadership creates opportunities for wireless monitoring adoption as the incremental cost becomes reduced relative to total battery pack costs.
   
• Government policies that fall under the New Energy Vehicle strategy and the auspices of the Ministry of Industry and Information Technology, have been implemented to facilitate broad deployment of fast-charging corridors, residential and commercial charging stations, and interoperability standards, with additional subsidies and incentives for private operators.
   
• Commercial deployment is also accelerating, explicit for fleet electrification, logistics, and public transit strategies. Many commercial vehicles have battery monitoring systems that leverage networked management applications to increase predictive maintenance uptime, significantly optimize energy and minimize downtime as fleet vehicle operational efficiency scales up to support more vehicles on the road.
   
• Network interoperability and software-driven management are incredibly important in China. Roaming solutions, connected charging platforms and payments, predictive analytics will continue to ensure a seamless charging experience while enabling grid quality of supply assurance and optimistically scalable EV infrastructure charging capability to accommodate millions of additional EVs on the road over the next decade.
   

The wireless EV battery monitoring market in the UAE is anticipated to register consistent growth from 2025 to 2034, fueled by national electrification initiatives, commercial fleet charging expansion, and investments in smart city infrastructure.
 

• The UAE wireless EV battery monitoring Market is experiencing consistent growth based on the push for sustainable mobility and carbon neutrality within the country. The UAE Green Mobility Strategy, among other government initiatives, is leading to investments in public and private charging infrastructure throughout urban areas and highways.
   
• The IEC Global Impact Fund pilot project in Kenya demonstrates application of second-life battery rehabilitation for off-grid solar PV with real-time remote monitoring of performance and environmental factors. This use case illustrates wireless battery monitoring's potential in emerging markets for both transportation and stationary energy storage applications.
   
• Residential charging is also starting to gain traction in the UAE as high-income households and private villa communities adopt EV technology. Smart home chargers are being connected with energy management systems to better utilize electricity and optimize off-peak tariffs, thus providing efficiency and convenience for the consumer.
   
• Commercial charging installations are also on the rise, particularly in corporate campuses, shopping malls, and hubs for public transportation. Fleet operators and governmental organizations are increasingly implementing fast chargers and networked management systems to maintain vehicle availability on operability which require battery monitoring technology.
   

The Brazil wireless EV battery monitoring market is anticipated to grow at a robust pace of 11.4% from 2025 to 2034, supported by increasing EV uptake and expansion of urban public charging networks.
 

• The Brazil EV battery monitoring Market is growing due to the government encouraging electrification to mitigate emissions and reliance on fossil fuels. Government-sponsored national programs are focusing on both private and public investment in charge infrastructure to support the increased adoption of electric vehicles within urban areas and on highways.
   
• Residential charging is starting to grow in urbanized and suburban areas, with new housing developments and apartment complexes starting to add AC charge points. Greater integration of smart homes has allowed consumers to better utilize electricity, take advantage of cheaper off-peak tariffs, and make battery monitoring more convenient overall.
   
• Commercial deployment is starting to become more important, especially for logistics, public transport, and general fleet use. Battery monitoring or connected management systems are being installed at fleet depots, shopping centers and transportation hubs to ensure vehicle readiness for daily use and to maximize operational efficiency.
   
• Operatives in Brazil are focusing on interoperability and user experience. Payment protocols and roaming functionality are being deployed to allow operators access across networks and inspire further electric vehicle adoption nationally.
   

Wireless EV Battery Monitoring Market Share

• The top 7 companies in the wireless EV battery monitoring industry are Analog Devices, Texas Instruments, LG Innotek, Marelli, NXP Semiconductors, Renesas and Visteon, contributing around 40% of the market in 2024.
   

• Analog Devices is positioned as a leading innovator in battery monitoring ICs, drawing on its rich legacy of precision sensing and mixed-signal engineering. The company is expanding into wireless BMS through high-reliability signal chains targeting premium EV platforms. ADI's ongoing R&D focuses on improved accuracy, functional-safety compliance, and energy-efficient wireless transceivers that strengthen its position in next-generation EV architectures.
   
• Texas Instruments leading competitive position is one it will continue to reinforce with its ASIL-D-certified, wireless BMS platform, which gained momentum among automakers looking for certified safety and long-term reliability. TI continues to refine low-power wireless communication and extend portfolio integration between battery gauges, monitoring ICs, and automotive MCUs. The scenario is favorable for the company as OEMs seek safety-certified, scalable wireless systems.
   
• LG Innotek is positioned as a strategic supplier of advanced battery modules and wireless sensing components, building on its close integration with Korean EV and battery makers. The company’s recent work has focused on miniaturized sensor designs, the development of improved thermal measurement capabilities and close cooperation with global EV platforms. Its scenario is strengthened by the rapid expansion of regional EV supply chains and vertically aligned partnerships.
   
• Marelli is expanding its presence in the EV electronics domain with a focus on modular battery management solutions that support both wired and emerging wireless frameworks. The company is working towards integrating wireless telemetry into its thermal and power electronics portfolio to improve EV efficiency. Marelli's scenario is driven by global OEM relationships and a focus on system-level integration.
   
• NXP is one of the most advanced players in wireless BMS, propelled by an ultra-wideband platform specifically designed for EV battery packs. Commercial readiness for mass-market deployment continues along with partnerships with leading automotive OEMs and functional-safety validation. NXP's scenario remains strong, with UWB poised to set performance benchmarks for high-data-rate, interference-resilient battery monitoring.
   
• Renesas is strengthening its market presence through integrated automotive MCUs, wireless communication processors and BMS chipsets designed for flexible architectures. The firm is well invested in the development of reference designs that simplify OEM adoption of hybrid and wireless battery monitoring topologies. Renesas' scenario continues to benefit from its broad automotive semiconductor ecosystem and growing collaborations with global EV manufacturers.
   
• Visteon Approaching the wireless BMS market from a systems-integration point of view, Visteon embeds wireless monitoring in broader cockpit, power electronics, and energy-management solutions. Ongoing programs are centered around platform-level connectivity, cloud integration, and predictive battery analytics. The scenario is favorable for Visteon as OEMs look for holistic, software-centric EV architectures that unite monitoring, diagnostics and vehicle intelligence.
   

Wireless EV Battery Monitoring Market Companies

Major players operating in the wireless EV battery monitoring industry are:

• Analog Devices
• Texas Instruments
• LG Innotek
• Marelli
• NXP Semiconductors
• Renesas
• Visteon
• ABB E-mobility
• BP Pulse
• Siemens eMobility
   
• The wireless EV battery monitoring market is rapidly growing as more people become electrified worldwide and governments tighten regulations to encourage greener transportation. Demand for advanced systems intended to improve longevity, safety and energy efficiency is being driven by increasingly widespread adoption in both the passenger and commercial segments. OEMs are being forced by safety requirements and regulatory incentives to develop more intelligent and networked battery architectures made possible by real-time wireless telemetry, cloud analytics and predictive health assessment.
   
• Rapid development in automotive electronics and battery intelligence is shaping the market conditions. Advancements in high-voltage architectures, fast-charging capability and vehicle-grid integration require highly accurate low-latency wireless monitoring systems to ensure cell-level safety and stability. The adoption of centralized energy and battery health management solutions by fleet operators and commercial vehicle platforms reduces downtime and extends battery life.
   
• Also, ultra-wideband communication developments have improved the reliability and scalability of functional-safety frameworks and cybersecurity protocols. Wireless BMS has become a critical enabler for traceability, diagnostics, and long-term lifecycle management as sustainability goals push OEMs toward second-life batteries and circular energy.
   

Wireless EV Battery Monitoring Industry News

• In August 2025, ChargePoint announced a joint product with Eaton, ChargePoint Express Grid, powered by Eaton an ultrafast DC V2X-capable charging architecture delivering up to 600 kW for passenger EVs and megawatt-class charging for heavy-duty commercial vehicles. The modular DC-grid design claims approximately 30% lower capex, approximately 30% smaller footprint, and up to 30% reduction in ongoing operational costs.
   
• In September 2024, Schneider Electric completed acquisition of EV Connect, providing a comprehensive cloud-based charging management platform serving over 150,000 charging ports, strengthening Schneider’s software capabilities and North American market position in EV charging infrastructure.
   
• In August 2024, Blink Charging deployed AI-powered charging management systems across its network to optimize energy distribution and reduce operational costs, using machine learning algorithms to predict charging demand and adjust power allocation.
   
• In May 2024, ChargePoint announced a partnership with General Motors to provide home and workplace charging solutions for GM EV customers, including integrated mobile app experience and preferred pricing for vehicle owners.
   
• In April 2024, Engie initiated liquidation proceedings for its EVBox subsidiary, creating uncertainty about the company’s future operations and reflecting challenges in the EV charging market including high capital requirements and competitive pressures.
   
• In March 2024, SAE International published J3400 standard for North American Charging Standard (NACS), formalizing Tesla's connector design as an industry standard, with major automakers announcing adoption for future vehicles.
   

The wireless EV battery monitoring market research report includes in-depth coverage of the industry with estimates & forecasts in terms of revenue ($ Mn/Bn) and volume (Units) from 2021 to 2034, for the following segments:

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Market, By Component

• Hardware
• Software
• Services

Market, By Communication technology

• Short-range wireless (Bluetooth)
• Long-range / LPWAN
• Proprietary RF stacks
• Hybrid / wired+ wireless architectures

Market, By Battery chemistry

• Lithium-ion battery
• Lead-acid battery
• Nickel-metal hydride battery
• Solid-state battery
• Others

Market, By Vehicle

• Passenger Cars
  • Hatchback
  • Sedan
  • SUV
• Commercial Vehicles
  • Light duty
  • Medium duty
  • Heavy-duty

The above information is provided for the following regions and countries:

• North America
  • US
  • Canada
• Europe
  • Germany
  • UK
  • France
  • Italy
  • Spain
  • Russia
  • Nordics
• Asia Pacific
  • China
  • India
  • Japan
  • Australia
  • South Korea
  • Singapore
  • Thailand
  • Malaysia
• Latin America
  • Brazil
  • Mexico
  • Argentina
• MEA
  • South Africa
  • Saudi Arabia
  • UAE