#material-science

#material-science

Carbon’s unique atomic properties allow it to form complex bonds and self-assemble into structures, making it essential for life and diverse material applications.

Recent research indicates that intermetallic compound particles (ICPs) in aluminum alloys can effectively trap hydrogen, but their effectiveness is limited due to conflicting solubility and structure requirements.

Ferrocene, a highly versatile and stable compound, demonstrates numerous synthetic pathways, providing insights into its structural properties and potential applications in various fields.

The structured inference results into triples enable a clear relationship description between materials by defining core labels, which allows for improved data retrieval and analysis.

The unexpected behavior of oil and water mixed with magnetic nickel particles reveals new insights into fluid dynamics and shape formation, challenging established norms in material science.

The article explores the design and modeling of a polyethylene-based metamaterial for achieving advanced acoustic control through a relaxed micromorphic framework tailored for finite size materials.

The theoretical framework for generalized nonlinear conductivity has been developed, which provides profound insights into the fundamental aspects of material behavior under extreme conditions.