HomeElectronicsBattery and Energy StorageQuickly configurable battery test bench for security and function tests on automotive...

Quickly configurable battery test bench for security and function tests on automotive high-voltage batteries

Cost-efficient electric car battery tests in automotive development and production

For fast quality testing of battery cells, GÖPEL electronic has developed a powerful and quickly configurable battery test bench that features a modular design and high flexibility. The system consists of a central measurement technology unit with a computer and monitor, a control cabinet, and a unit with all the power electronics, and can be adapted to the user’s needs in a modular fashion.

The battery test bench offers a power range up to 500 kW and tests in the voltage range up to 1,000 V DC with test currents of up to 800 A DC. Insulation tests can be performed with up to 7.5 kV. Thanks to its regenerative capability, the test solution is also designed to be highly energy-efficient. The scope of services includes safety tests and functional tests. These tests evaluate the condition of the cells, the impedance of the battery under alternating current, and the alternating current dynamics of the cell, and detect critical defects. The test results provide information about electrochemical processes in the cell, aging effects, and internal resistance fluctuations across different frequencies.

As part of the functional test, the GÖPEL electronic test system communicates with the battery management system (BMS) via CAN-BUS. The battery is charged with a prescribed and defined charging pulse, discharged, and finally the “state of charge” is checked. After the battery is discharged, the energy required for this is fed back into the power grid by the test solution, ensuring high energy efficiency and cost savings.

At the end of the security and functional tests, all test results are automatically exported to a database in the production department in individually configurable reports. Before delivery, the system checks the quiescent current to ensure that no unnecessary consumers can drain the battery. In addition, the desired state of charge is ensured, the final sensor data is read out, error memory entries are compared, and finally, the end customer software is flashed onto the battery.

Related News

Must Read

Emerson Extends RF Test Capabilities to New Multiport and MIMO Test Applications

Global automation leader Emerson today announced new radio frequency...

Top 10 AI Agent Frameworks for Developers in 2026

​AI is no longer just creating chatbots; now it...

Advancing Cyber Posture, Governance and Skill Development in India and Beyond

Rapid technological acceleration and shifting regulatory landscapes warrant robust...

Infineon introduces 27 kW three-phase PSU solution for next- generation AI server power architectures

Artificial intelligence workloads are redefining the power requirements of...

PRAMA Showcases Intelligent and Indigenous Transport Security Solutions at Traffic Infratech Expo

India’s premier indigenous video security brand, PRAMA displayed its...

The Evolution of Automotive Safety and the Sensors Driving It

Automotive safety has grown up in layers. Passive safety,...

AI Agents Explained: How Planning, Memory, Tools and Reasoning Work

AI is transitioning from answer-providing computer programs to the...

DigiKey Webinar Shows How My Lists Tool Simplifies Parts Management and Quoting

DigiKey, the global distribution leader of electronic components and...