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The ceramic is a novel magneto-dielectric ceramic with both high permeability and good dielectric properties, which might be a good candidate for the applications in novel electronic devices.
Therefore, this ceramic is a good candidate material in low-temperature co-fired ceramic multilayer devices.
The approach opens new opportunities for the sintered ceramic as a proppant material since the ceramic system displays low acid solubility and good flexural strength.
The performance of the new method compares favourably with existing Fry methods.
As a result, the KNLN?CT ceramic is promising candidate material for piezoelectric devices.
The results show that KNN–LT is a kind of good lead-free piezoelectric ceramic.
The composite ceramic does not react with the commonly used electrode material silver and is a promising candidate for low-temperature cofired ceramic applications.
The results show that this newly-developed ceramic composite achieves satisfactory strength and tribology properties compared with the traditional ceramic self-lubricated composites.
All the results indicate that the Ba2LaV3O11 ceramic might be a promising candidate for low temperature cofired ceramic technology.

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Carbon black (BC) plays a crucial role in wave absorption in various applications. BC, with its diverse morphologies and compositional heterogeneity, enhances light absorption capabilities significantly. When used in composites, such as CB/SiO2, BC content influences microwave absorption performance, with higher content leading to improved absorption at elevated temperatures. Additionally, the absorption enhancement of partially coated BC is influenced by the absorbing volume fraction of the coating, with absorptive coatings reducing BC absorption enhancement. Understanding the impact of BC on wave absorption is essential for developing effective materials for applications requiring wave absorption, such as in microwave technologies and environmental studies.
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