energy storage

How Pure Lithium Brine to Battery Technology Improves Energy Storage, Manufacturing

Pure Lithium’s Brine to Battery™ technology fundamentally changes the way rechargeable batteries are made, from the materials used to the methods of production. The result is a lithium-metal (Li-M) battery delivered at a lower cost with significantly higher energy density than lithium-ion (Li-ion), the dominant battery on the global market today. The Brine to Battery method turns lithium-containing brines into 99.9% pure, battery-ready Li-M anodes, using sophisticated electrochemistry.

7th Battery and Energy Storage Conference

The Battery and Energy Storage Conference will engage scientists, engineers, and policy makers working in the fields of energy storage and relevant technologies to identify, communicate, and explore current advancements in storage materials, devices, and systems.

Presentations and conversations will be around the most cutting-edge advancements to achieve reliable and cost-effective energy storage— focusing on innovative strategies involving artificial intelligence, grid resiliency, critical materials, recycling, materials scaling and device manufacturing.

Biomass-Derived Electrode and Electrolyte for Sustainable Solid-State Supercapacitor

Supercapacitors, celebrated for their high power density and rapid charge-discharge capabilities, represent a promising solution to meet the increasing demand for sustainable energy storage systems. This research adopts a sustainable approach to develop green supercapacitors by leveraging biomass-derived materials for both electrodes and electrolytes, thereby aligning with global efforts toward green energy technologies and the circular economy.

Enhancing Interfacial Capacitance in Ionic Liquid Electrolyte Blends

The acceleration of climate change due to carbon emissions has generated an imminent need to transition towards renewable energy sources. However, the intermittent nature of renewable sources like wind or solar energy necessitates breakthroughs in energy storage devices that can rapidly charge and discharge. This poster presents research on the improvement of capacitance in ionic liquid electrolytes by tuning electrochemical interfaces.

Theoretical-Experimental Study of Carbon Electrode Porosity in Sodium and Lithium Batteries

Addressing the growing energy demand in a sustainable manner is one of the most pressing global challenges today. Achieving this requires optimizing the efficiency of energy storage and conversion systems while aligning with green chemistry principles to minimize environmental impact. In this context, this work explores both theoretically and experimentally how the structure of porous carbon materials, synthesized from renewable or low-impact precursors, and used as electrodes in metal-air batteries (e.g., Na-air, Li-air), affects the physicochemical properties of confined electrolytes.

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