Outstanding stability and great development potential.
The highly stable oxide electrolyte is used to replace flammable liquid polymer electrolyte to prevent or delay thermal runaway effect. The electrolyte material stability allows for the use of high-utilization cathode and anode materials to enable higher energy density in cells and lower manufacturing costs.
Solving conductivity and brittle issues of oxide electrolyte.
Ceramic oxide electrolyte is known for its superior stability. However, it also presents electrical and manufacturing challenges due to its other material characteristics, namely, low ion conductivity, brittleness, and poor interface contact.
ProLogium has developed several innovative technologies to solve the interface
Issues for solid-state battery. Our years of hard work earned us over 200 patents that enable fast charging, battery life, and low temperature performance. These advantages combined made it possible for PLG to create our unique lithium ceramic battery – LCB.
Components of LCB technology
CeramionTM ProLogium’s pioneering internal conduction technology solves initial weakness of higher inner resistance to enable 5C fast charge.
LogithiumTM Proprietary solid-state battery cell packaging technology that greatly enhances LCB’s bending capability while making it airtight and watertight, simultaneously improves LCB’s yield ratio. Logithium tech licensing is now open to SSB manufacturing customers. ProLogium can provide consulting services for product design and development.
Active safety mechanism going beyond intrinsic safety.
Thermal runaway is a series of heat generating reactions in which a vicious cycle of rapidly rising temperatures resulting in thermal reactions is triggered. PLG’s oxide solid-state electrolyte enables intrinsic safety and prevents fires or explosions.
The ASM, or active safety mechanism, on the other hand, is an “active” defense system. The battery cell, module, and pack will automatically shut down in case of abuse and break off the battery’s internal thermal reactions. As a result, energy is eliminated, and heat propagation is terminated. The system actively puts a stop to thermal runaway and ensures the safety of large capacity products.
MABTMThe ultimate solid-state battery packaging model
The ultimate solid-state battery packaging model
Higher assembly efficiency, longer range.
Building upon fundamental safety, the MAB battery pack’s extremely streamlined design enables exceptional assembly efficiency, which means achieving higher energy density and lower costs at the same time.
The combination of extremely simplified cell-to-pack packaging and BiPolar technology allows electrodes to be directly stacked in series and parallel. The number of cells are thus greatly reduced (8-12), eliminating the space and materials needed in external series and parallel stacking and greatly enhancing assembly efficiency. The MAB pack will be able to achieve long range that is unparalleled in conventional LiB.