KULR Technology Group, Inc. products

Modular battery management system platform is KULR’s next generation battery safety technology for e-mobility, energy storage and fleet applications.

Thermal runaway shield acts as a heat sink during normal lithium-ion battery pack operation but also prevents thermal runaway propagation, which is a serious concern for aerospace and defense customers and electric vehicle manufacturers. A vaporizing thermal capacitor that provides passive prevention of thermal runaway propagation (TRP) in lithium-ion battery packs. Thermal runaway can occur spontaneously in a Li-ion cell due to a short. This can trigger an explosive release of electric energy that ruptures the end cap resulting in a flare and combustion of cell materials. Released heat drives the triggered cell temperatures to > 500°C, causing a dramatic increase in neighboring cell temperatures. Temperatures above the critical 130°C greatly increases the chance for a short in adjacent cells and result in TRP. This product keeps neighboring cell temperatures from rising above 100°C (well below the 130°C threshold) and prevents TRP.

Utilized to mitigate Thermal Runaway providing for safe and sustainable storage and transportation of Lithium-Ion Cells and Battery Packs up to 2.5KWh per Case

A carbon fiber infused heat sink utilizing phase change materials (PCM) to absorb or provide heat. It successfully reduces system temperature excursions and extends both the life of key components in your product as well as overall operating times. Due to its low mass, it saves on weight and volume by reducing or even eliminating the need for active cooling.

Thermal runaway shield acts as a heat sink during normal lithium-ion battery pack operation but also prevents thermal runaway propagation, which is a serious concern for aerospace and defense customers and electric vehicle manufacturers. A vaporizing thermal capacitor that provides passive prevention of thermal runaway propagation (TRP) in lithium-ion battery packs. Thermal runaway can occur spontaneously in a Li-ion cell due to a short. This can trigger an explosive release of electric energy that ruptures the end cap resulting in a flare and combustion of cell materials. Released heat drives the triggered cell temperatures to > 500°C, causing a dramatic increase in neighboring cell temperatures. Temperatures above the critical 130°C greatly increases the chance for a short in adjacent cells and result in TRP. This product keeps neighboring cell temperatures from rising above 100°C (well below the 130°C threshold) and prevents TRP.