Scientists demonstrated the enhancement of higher-order harmonics from Ni-doped CsPbBr3 nanocrystals plasma plumes

Scientists improved higher-order harmonics generation from silver plasma plumes ablated by femtoseconds laser pulses

Researchers propose unit optimization method for super-broadband geometric phase devices

In recent years, the study of in-plane anisotropic optoelectronic thin film materials has attracted a great deal of attention in the field of polarized optoelectronic applications due to their ability to be integrated and miniaturized. The existing anisotropic two-dimensional materials are limited in variety and mostly mechanically exfoliated, making it difficult to achieve large-area material preparation, which greatly limits their application in practical applications. Therefore, it is necessary to explore an artificial anisotropic thin film material with excellent anisotropic optoelectronic properties to overcome the above problems.

Scientists demonstrated the enhancement of higher-order harmonics from plasma plumes of perovskites nanocrystals and silver nanoparticles

High harmonic generation (HHG) from gaseous targets has been demonstrated to be an attractive method to generate ultra-short coherent radiation in the extreme ultraviolet spectral range and attosecond pulses. Over the last decade, laser-induced plasma plumes (LIPs) produced from solid surfaces have been recognized as alternative media for HHG. It has been found that the generation efficiencies and cut-off photon energies vary significantly among different target species, and interesting

Researchers propose unit optimization method for super-broadband geometric phase devices

In recent years, the study of in-plane anisotropic optoelectronic thin film materials has attracted a great deal of attention in the field of polarized optoelectronic applications due to their ability to be integrated and miniaturized. The existing anisotropic two-dimensional materials are limited in variety and mostly mechanically exfoliated, making it difficult to achieve large-area material preparation, which greatly limits their application in practical applications. Therefore, it is necessary to explore an artificial anisotropic thin film material with excellen

Researchers propose a method for fabricating GO film materials that exhibit artificial optoelectronic anisotropy

In recent years, the study of in-plane anisotropic optoelectronic thin film materials has attracted a great deal of attention in the field of polarized optoelectronic applications due to their ability to be integrated and miniaturized. The existing anisotropic two-dimensional materials are limited in variety and mostly mechanically exfoliated, making