Conveners
[CM1] Advancements in Battery Technology: From Materials to Applications: [CM1] Advancements in Battery Technology: From Materials to Applications
- Juhan Lee (Project Manager, Heraeus Battery Technology GmbH)
Description
From fulfilling individual needs for the small-scale storage of electricity in household gadgets to providing larger-scale storage capacities in electric vehicles, batteries have become an intrinsic part of human activities. The global demand for battery systems has led to an increase in research into the development of materials, devices, manufacturing & production processes, and battery management systems. Also, recyclability is getting more and more critical for the sustainable use of battery components and materials in the near future. Accordingly, this section is devoted to recent advances and progress in the development of battery materials, manufacturing from cell to pack systems, production processes, management & operation technologies, recycling strategies & technologies, and analytical techniques as well as elucidating fundamental electrochemical mechanisms and reactions.
As we navigate an era defined by the urgent need for sustainable and energy-efficient solutions, rechargeable energy storage systems, particularly batteries, have become an indisputable keystone. The successful evolution of such systems necessitates agile collaborations spanning universities, research institutes, and both public and industrial sectors.
In response to this need, the Korean...
The field of battery research continually seeks to improve energy storage capabilities while addressing sustainability concerns. This applies in particular to the exploration and development of novel materials, such as the promising material group of MXenes. MXenes, known for their two-dimensional morphology, vast chemical composition range, and excellent electrical conductivity, require the...
Pseudocapacitance is a mechanism that describes Faradaic charge storage reactions with an electrical signature closely resembling electric double-layer capacitance, holding promise to combine high specific energy and power.[1] It has been observed for electrode materials with certain intrinsic structural features, such as wide interlayer galleries in Ti3C2Tx MXenes offering facile diffusion...
Lithium-metal batteries (LMBs) are among the most promising next-generation energy storage systems. In such systems, the anode is composed of lithium (Li) metal, ideally originating from the cathode active material in order to avoid the initial presence of metallic lithium when assembling the cells (also referred to as “zero excess” LMBs). Generally, Li metal offers a high theoretical capacity...