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Clean Mobility: Electrifying Transport for Lower Emissions

Semiconductor Solutions for Electric Vehicle Charging Infrastructure

The transport sector remains heavily reliant on fossil fuel–powered vehicles, ships and aircraft, which together are responsible for around 8 gigatonnes of CO₂ emissions per year according to the IEA. To reach net-zero, emissions from the global transportation system must fall by about 25 percent to roughly 6 gigatonnes by 2030. This makes clean mobility and the electrification of transport critical levers for reducing carbon emissions across all major industry sectors.

EBV Elektronik supports this transition with semiconductor solutions for electric vehicle charging infrastructure, traction inverters and intelligent control systems.

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Engineering Challenges & Pain Points

Charging Throughput

Developing public charging points that support high-speed charging while maintaining grid stability.

 

System Reliability

Ensuring power electronics can withstand vibration, temperature fluctuations, and moisture in outdoor environments.

 

Time-to-Market

Balancing custom innovation with the need for fast deployment in a competitive global EV market.

 

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Road Transport Offers the Greatest Potential for CO₂ Reduction

Most transport-related greenhouse gas emissions stem from road traffic, so transport electrification and the rollout of robust electric vehicle charging infrastructure offer the greatest potential to reduce co2 emissions. Electric cars and commercial EVs are no longer a niche: in 2024, global EV sales reached a new record. According to consultancy Rho Motion, around 17.1 million electric vehicles were sold worldwide – including both battery electric vehicles (BEVs) and plug-in hybrids (PHEVs).

As public charging points, home chargers and high-power EV charging networks expand, drivers can rely on more accessible vehicle charging infrastructure with higher charging speeds. This helps local authorities, fleet operators and OEMs accelerate their clean mobility strategies and reduce carbon emissions from road transport.
 

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Efficiency of Drive Systems Compared (Example: Lorries)

Compared to other drive technologies, battery-electric lorries convert energy into motion with far fewer losses, resulting in much lower carbon emissions at the vehicle level. This is reflected in the efficiency factor, which indicates how much of the energy input is converted into motion:

  • Battery-electric drive: 75%
  • Fuel cell: 26%
  • eFuels: 14%

[Source: Technical University of Munich]

 

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Focus Applications

From home wallboxes to ultra-fast public charging networks, the demand for efficient power conversion and secure communication is surging.

  • Key Needs: High-voltage switching, secure billing communication, and modular hardware.
  • EBV Value: Guidance on modular designs that can shorten development cycles by 3–6 months.
  • Solutions: [Produktlösungen] from [Linecard-Hersteller].

The heart of the electric vehicle requires maximum power density and thermal efficiency to extend range and performance.

  • Key Needs: SiC/GaN power stages, high-performance MCUs for motor control, and functional safety (ISO 26262).
  • EBV Value: Access to the latest WBG (Wide Bandgap) technologies.
  • Solutions: [Produktlösungen] from [Linecard-Hersteller].

Reference Material

Source Reference: Original Doc Section 1

Detailed analysis of the 8 gigatonnes of CO2 emissions currently produced by the transport sector. Includes the roadmap to reducing these to 6 gigatonnes by 2030 and the specific impact of road traffic vs. aviation and shipping.

Source Reference: Original Doc FAQ / Section 6

Explains the technical advantages of modular vs. white-label designs. Focuses on the 3–6 month reduction in time-to-market and the flexibility provided by pre-configured controllers, HMIs, and software stacks.

 

 

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Compact Technology–Application Matrix

Application Technology Segments
 

Analog & Power

Connectivity & Peripherals

Embedded Processing

Partner Solutions

EV Charging Infrastructure SiC Power Modules, Isolated Gate Drivers PLC (Power Line Comm), RFID/NFC MCUs for Load Management & HMI [sponsoring partner solution]
Traction Inverters High-Voltage SiC MOSFETs CAN-FD, Automotive Ethernet Real-time Motor Control MPUs [sponsoring partner solution]
Battery Management (BMS) Cell Balancing ICs, High-Side Switches Wireless BMS Modules Safety-certified MCUs (ASIL-D) [sponsoring partner solution]

 

 

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Accelerate Your Mobility Innovation

EBV’s Field Application Engineers (FAEs) are ready to support your design process
with deep technical knowledge and a leading semiconductor linecard.

 
 

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TQ of Future Mobility

Innovative semiconductor-based technologies will do more than make vehicles smarter – they will fundamentally change the way we see and use transportation. That holds great prospects for both the semiconductor industry and manufacturers who develop mobility solutions. As a passionate semiconductor distributor, EBV Elektronik would be more than happy to help you make the most of these opportunities. It’s time to immerse yourself in the world of future mobility!

Topics:

  • The most important innovations of our time
  • No highly automated driving without AI
  • Urban high flyers
  • Cars for everyone
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EV Charging: The Power of Three

Discover how to shorten your time-to-market with end-to-end EV charging infrastructure solutions from EBV, Avnet Abacus and Avnet Embedded.

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Where Direct Electrification is Not Feasible

Not every mode of transport can be directly electrified. Long-haul aircraft and deep-sea vessels would require battery capacities so large that their use would be economically unfeasible – or physically impossible due to weight constraints. In such cases, hydrogen and eFuels produced using renewable energy offer alternative paths to reduce carbon emissions.

Promising marine options include ammonia and methanol propulsion, while in aviation, hydrogen-powered concepts and Sustainable Aviation Fuel (SAF) are being explored. EBV supports these technologies indirectly through high-efficiency power electronics, control systems and sensing solutions that increase the efficiency and safety of next-generation propulsion platforms.
 

From E-Bikes to Electric Construction Vehicles – Semiconductor Technology for Innovative Mobility Solutions

EBV Elektronik draws on decades of experience serving the world’s leading automotive brands and their system integration partners. Our offering goes beyond internal combustion engine (ICE) and EV passenger cars and includes motorcycles, mopeds, e-bikes, construction vehicles, agricultural machines, forklifts and commercial vehicles.

Find the right components and systems for your innovative and sustainable mobility solutions – and benefit from EBV’s expertise in clean mobility and transport electrification.

 

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Frequently Asked Questions:

 

Lithium iron phosphate (LFP) is currently the best choice due to its robustness, safety and cost-efficiency. Nickel manganese cobalt (NMC) offers higher energy density but comes with safety and cost trade-offs. Solid-state and sodium-ion batteries are promising future options.
Key measures include stable cell chemistry (e.g. LFP), flame-retardant electrolytes, pressure relief valves and a BMS for real-time monitoring. Additional protection comes from fuses, high-voltage breakers and insulation monitoring.
Use reinforced housings, damping systems and IP67/IP68 sealing. Cooling and heating systems ensure temperature stability. Relevant standards include UN 38.3, IEC 62619 and ISO 26262.
Automation enables smart load management, time-shifted charging and integration of EVs as mobile storage (vehicle-to-grid). This stabilises the grid but requires standardised interfaces, data management and cybersecurity.
Artificial intelligence enables added services like remote monitoring, security, facial and vehicle recognition, and energy recovery – benefitting both operators and users.
By utilizing modular or semi-modular designs, developers can save 3–6 months of development time. This approach allows for flexible assembly from pre-validated components like controllers and software modules, unlike restrictive white-label platforms.
Safety is achieved through stable cell chemistry (e.g., LFP), real-time monitoring via advanced Battery Management Systems (BMS), and mechanical protection like pressure relief valves and insulation monitoring.
AI enables value-added services such as predictive maintenance, vehicle recognition for automated billing, and smart energy recovery, benefiting both operators and end-users.

 

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