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Sustainability in electromobility is a major challenge

To make electromobility sustainable, second-life concepts and efficient recycling of lithium-ion batteries and lithium-ion polymer batteries will play a key role in the very near future. Completely new industries and companies are emerging to take on this task.

Optimize your battery recycling

Delivering high-efficiency energy recovery and battery testing systems that optimize every stage of the battery recycling process.

For second-life applications, our bidirectional DC power supplies enable precise testing and reconditioning of used batteries, returning over 96% of energy to the grid. When it’s time for final recycling, our regenerative electronic loads ensure safe, complete battery discharge while recovering residual energy—reducing risk and energy waste.

These technologies help recyclers lower costs, improve safety, and support a more sustainable, circular battery economy.

Battery lifecycle graph

Second-life use

Bidirectional DC lab power supplies test the remaining capacity of your batteries

The primary goal is to find a second use for the batteries from electromobility after they have been used in the vehicle (second-life use). For example, as energy storage for solar power or wind energy. When testing the remaining capacity, the battery is first fully charged and then discharged in a controlled manner. The capacity (SOC) and state of aging (SOH) are measured and the energy is fed back into the power grid with an efficiency of over 96%.

Battery reuse diagram showing different energy systems for reuse
Battery with car, wind, recycle icons next to a Power Supply

Bidirectional programmable DC power supplies

For this application, it makes sense to use bidirectional laboratory power supplies for further investigation. With only one device, it is possible to test whether older batteries from electrically powered vehicles can still be used in other applications. If these applications are predominantly static and if the residual capacity is sufficient, these batteries will find their second-life use e.g. in stationary energy storage systems.

In this test, the battery is first fully charged with the bidirectional power supply and then discharged in a controlled manner with the same device. The capacity (SOC) and state of aging (SOH) are measured and the energy is fed back into the power grid with an efficiency of over 96%.

Final recycling

Efficient, safe and sustainable

In order to make the recycling or reusability of lithium-ion batteries economical, all processes must run with maximum efficiency. Since lithium-ion batteries and lithium-ion polymer batteries should never be fully discharged during their service life, it can be assumed that most batteries end up for disposal with residual capacity. Before the batteries are subjected to the actual recycling process, they must be fully discharged.

Battery recycling and reuse process in a flowchart
EA-PSB Bidirectional Power Supplies being used by an engineer

Electronic loads with mains feedback for the complete discharge of your accumulators

After the second-life cycle, the rechargeable batteries are subjected to final recycling. This process attempts to recover as many components of a lithium- ion battery as possible as raw material for new batteries. Before the batteries are disassembled into their individual parts, they must be fully discharged. This is done in order to avoid the risk of contact-hazardous voltage or fire and to use the residual energy still stored in the battery.

EA Elektro-Automatik’s regenerative electronic loads are a very efficient solution for this purpose.

Advantages of bidirectional programmable DC power supplies

High efficiency and higher safety when testing the battery capacity

Bidirectional programmable DC power supplies from EA Elektro-Automatik ensure the maximum possible charge and discharge of the batteries. With precise tests, detailed data about the remaining capacity is provided for the DUT.

Economy through time savings

The time saved in charging and discharging the lithium-ion batteries using the high input powers of up to 15kW in 3U enclosures or 30kW in 4U enclosures increases cost-effectiveness. In addition, the devices can be combined to form high-performance switchgear cabinet systems with a total output of up to 1.92MW.

Elektroautomatik’s 60kW 6U bidirectional power supplies support parallel operation up to 3.84MW, offering efficient energy recovery and high-throughput testing in compact, modular configurations.

Amortization through power regeneration

The bidirectional programmable DC power supply from EA Elektro-Automatik takes its energy from the connected battery during the discharge process and converts it into AC voltage with an efficiency of up to 96%. This is then fed back into the local power grid and reused, thus amortizing the purchase price via reduction of electricity costs.

High flexibility in use

Versatile and flexible: Due to true autoranging capability of the device series from EA Elektro-Automatik, battery storage systems with different system voltages can be charged and discharged with only one bidirectional programmable DC power supply. For example, full power is available with one device for both a 400V and 800V system.

可再生能源测试与模拟设备

EA-EL-ELR-Electronic-Loads

EA‑EL/ELR 电子负载

  • EL能量消耗型;ELR能量再生型电子负载,可向电网回馈96%能量
  • 自动量程技术,实现更宽电压电流测试范围
EA-PSB_Bidirectional-Power-Supplies

EA‑PSB 双向电源

  • 高压电源内置负载功能,支持96%效率的双向供电
  • 自动量程功能,在额定电压或电流的1/3处仍能提供最大功率
  • PSB 20000 系列具备三路快速精准输出通道
EA-PUB/PUL/PU Industrial Power Units

EA-PUB/PUL/PU 工业电源单元

  • 模块化扩展的高功率密度设计
  • 双向高效与能量回馈能力
  • 无缝集成的统一平台架构
EA-High-Power-DC-Racks

EA大功率直流机架系统

  • 紧凑空间实现MW级功率扩展
  • 一体化整合控制解决方案
  • 多重安全防护与定制化方案