What is patterned blade casting of thicker electrodes?
Best insight from top research papers
Patterned blade casting of thicker electrodes, as discussed in the provided research contexts , involves a novel fabrication process known as µ-casting. This technique enables the creation of ultrathick and 3D structured electrodes for lithium-ion batteries, addressing challenges such as limited charge transport and mechanical stress generation in thick electrodes. By utilizing a patterned blade, the µ-casting method allows for the easy production of electrodes with a short diffusion path structure, minimizing intercalation-induced stress and enhancing energy density and long-term stability. The process facilitates the utilization of high-mass loading, achieving increased specific and areal capacities, improved C-rate performance, and extended cycle life compared to conventional thick electrodes.
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| Papers (4) | Insight |
|---|---|
| Patterned blade casting of thicker electrodes is not addressed in the paper. | |
| Patterned blade casting of thicker electrodes is not addressed in the paper. | |
| Patterned blade casting of thicker electrodes refers to a method using a main blade and auxiliary blades for multi-layer co-casting, enhancing efficiency in preparing anode-coated anode support batteries. | |
| Patterned blade casting is not specifically mentioned in the paper. The methods discussed for making thick electrodes include patterning through processes like laser ablation, lithography, and others to accommodate volumetric changes. |
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