Blogs, Case Studies, and White Papers

In the coming decade, humanoid robotics and physical AI are tipped to become another transformative technology. They require substantial onboard power, which means highly effective battery technologies are a critical enabler.

Electrification is transforming indsutries worldwide ahead of NZE2050. However, uneven global battery regulations create both challenges and opportunities, but technologies already exist to get ahead, improving traceability, extending battery life, and enabling more efficient material recovery.

Dukosi recently collaborated with STMicroelectronics on a turnkey end-to-end secure Battery Passport-ready battery management solution. The design utilizes the Dukosi chip-on-cell technology with C-SynQ® proprietary communications with ST’s MCU and Secure Element.

Dukosi DK-NFLNK™ is a highly reliable battery communication solution designed to upgrade modular battery architectures based on multi-channel AFEs to a safer and more scalable architecture.

The battery landscape is highly diverse, shaped by applications across global automotive, industrial, and consumer markets. Each electrified application has distinct requirements for design, performance, safety, regulatory compliance, reliability, and supply chains.

Dukosi Cell Monitors can simultaneously perform an internal resistance (DCIR) test and uniquely capture a direct external temperature reading, providing complementary, synchronous data on cell state, deepening the understanding of how cells generate and propagate heat.

Training the largest, most advanced AI models creates massive and unpredictable demands on power systems. Battery Energy Storage Systems (BESS)  is therefore an essential component in AI Data Center design, and DKCMS® can maximize operational performance, reliability, safety, deployment speed, and much more.

Hyundai-Kia Motor Group, in partnership with Dukosi, retrofitted a Kia EV3’s battery with Dukosi Cell Monitors, which provided cell-level data storage for both static and dynamic data, including State of Health (SoH).

Immersion cooling offers a compelling alternative to standard thermal management techniques. By directly submerging cells in a non-conductive fluid it achieves uniform thermal transfer across their full surface area. Among battery architectures, DKCMS® is best suited to this due to its simpler battery architecture that still ensures essential aspects, like safety and reliability.

This technical paper examines why battery SoP is critical o maximize battery pack performance and safety. This paper provides an evaluation of the performance of SoP estimation algorithms versus the integrity of the measurements provided by the cell voltage, current, and temperature sensors.