Anisotropy
Researchers at the National Academy of Sciences of Ukraine have made a significant discovery regarding the influence of flexoelectric coupling on the fluctuations of electric polarization and elastic strains in van der Waals ferrielectrics. According to their study, the dispersion law of soft optical and acoustic phonons (flexophonons) and ferrons
Anisotropy
Recent research from Johns Hopkins University has proposed an anisotropic damage modeling framework to predict the uniaxial compressive strength of heterogeneous brittle materials under strain-rate loading. The framework accounts for the effect of interaction stress fields produced by pre-existing defects on cracks in brittle material, allowing for the incorporation of
Anisotropy
Recent research from Johns Hopkins University has proposed an anisotropic damage modeling framework to predict the uniaxial compressive strength of heterogeneous brittle materials under strain-rate loading. The framework accounts for the effect of interaction stress fields produced by pre-existing defects on cracks in brittle material, allowing for the incorporation of
Anisotropy
Researchers from Northwestern Polytechnic University have developed a machine learning-based data-driven approach to model anisotropic and tension-compression asymmetry behavior of elastoplastic materials using limited experimental data. This innovative technique utilizes artificial neural networks to improve the predictive capability under unknown large deformations. The proposed approach has been successfully applied to
Technical institutes
Researchers from Northwestern Polytechnic University have developed a machine learning-based data-driven approach to model anisotropic and tension-compression asymmetry behavior of elastoplastic materials using limited experimental data. This innovative technique utilizes artificial neural networks to improve the predictive capability under unknown large deformations. The proposed approach has been successfully applied to
Anisotropy
Researchers at Shenyang National Laboratory for Materials Science have made a groundbreaking discovery in the field of superconducting materials. Through a series of experiments, they have observed a unique two-fold symmetry of transport anisotropy associated with the crystallographic directions in 2D ultrathin MoC superconducting crystals. This finding has significant implications
Electromagnetism
Researchers from the Chinese Academy of Sciences have made significant strides in developing carbon aerogels with ultra-wide effective absorption bandwidths and robust attenuation capacities. These innovative materials have the potential to revolutionize electromagnetic protection technologies, particularly in military and advanced electronic applications. The study, supported by the Natural Science Foundation
Electromagnetism
Researchers at the Beijing Technology and Business University have made a significant breakthrough in the development of a new composite material that offers enhanced electromagnetic shielding capabilities. According to the study, the material, dubbed "CX1CX2MY," has been designed to meet the growing need for effective shielding against electromagnetic
Thin films
Researchers at Kyushu Sangyo University have developed a novel strategy for improving anisotropic critical current density of YBa2Cu3Oy films through ab-plane oriented columnar defects. This breakthrough research has significant implications for the field of applied physics, particularly in the development of superconducting materials. By introducing columnar defects using 200 MeV
Electromagnetism
Researchers from the Chinese Academy of Sciences have made significant strides in developing carbon aerogels with ultra-wide effective absorption bandwidths and robust attenuation capacities. These innovative materials have the potential to revolutionize electromagnetic protection technologies, particularly in military and advanced electronic applications. The study, supported by the Natural Science Foundation
Electromagnetism
Researchers at the Beijing Technology and Business University have made a significant breakthrough in the development of a new composite material that offers enhanced electromagnetic shielding capabilities. According to the study, the material, dubbed "CX1CX2MY," has been designed to meet the growing need for effective shielding against electromagnetic
