Blogs, Case Studies, and White Papers

This white paper discusses three different BMS hardware design approaches: fully wired, far field wireless, and near field contactless, and investigates and compares cost-efficiency, safety, and reliability aspects of each.

From residential to grid-scale projects, ultimately each one must begin at the micro scale – the humble battery cell. By improving the monitoring, performance and safety at the cell-level, the advantages cascade into all parts of the larger project for the entirety of the system’s lifetime.  

While there are voltage measurements on every cell, only one or two current sensors are present per battery pack, and the number of temperature sensors can vary greatly. In this blog we demonstrate why putting a temperature sensor on every cell is crucial to battery safety, reliability and performance.

C-SynQ® is Dukosi’s proprietary communication protocol that is designed specifically for large networks in safety-critical environments, i.e. large battery-packs.

As with most products, an EV battery is more sustainable the longer it can be used. Reuse and recycling of battery cells is increasingly important due to the increasing proliferation of electric vehicles.

Reducing battery weight improves the efficiency and sustainability of electric vehicles, and Dukosi’s technology can help hit ambitious targets for next-gen vehicles.

Second-life applications are integral to building a sustainable battery supply chain, so enabling cell provenance and understanding how they’ve been used and stored is critical to ensuring it.

In the modern ESS platform, data movement, interpretation, and ability to execute specific actions are vital to understanding how and when to charge and discharge a battery, and identify potential problems quickly.

A prime function of a battery monitoring system (BMS) is to maintain safe charge and discharge, reducing risk of cell degradation, damage and even fire. The benefits go beyond that though…