Blogs & White Papers

SoH is critical for safe and effective lifecycle management of electric vehicle and energy storage batteries. This white paper examines technological innovation that streamlines producing and sharing SoH with stakeholders.

This prestigious award recognizes groundbreaking innovations within the automotive industry that are poised to make a significant impact on the market. We are immensely proud and honored by this recognition.

This white paper examines why battery SoH is critical for safe and effective lifecycle management of electric vehicle and energy storage batteries, to which stakeholders it applies, and the newest technological innovation that makes producing and sharing this data with all these stakeholders, and thus regulatory compliance, seamless.

Industrial and commercial vehicles move trillions of dollars in materials and goods and are essential to global economies. However, these vehicles are also currently a major contributor to greenhouse gases (GHG). Embracing electrification of industrial vehicles, particularly when supported by green energy generation, can significantly drive decarbonization efforts.

Whether designing a new battery with cylindrical, pouch, or prismatic cells, Dukosi Cell Monitors can be applied to every cell, parallel group, and even traditional cell modules, streamlining design, validation, and manufacturing costs.

This infographic outlines three different BMS architectures: fully wired, far field wireless, and near field contactless, and compares the scalability, cost-efficiency, safety, and sustainability aspects of each.

Earth Day 2024: Focusing on scaling sustainable energy technologies available today will help achieve global net-zero goals tomorrow. It is time to reassess our approach to technological innovation.

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.