Page 13: Research news on Crystal phenomena

Crystal phenomena as a research area investigates the physical behaviors and properties that arise from the ordered atomic or molecular arrangements in crystalline solids, including symmetry-governed effects and defect-related responses. It encompasses studies of phase transitions, lattice dynamics, crystallographic defects (dislocations, vacancies, interfaces), anisotropic mechanical, thermal, and electronic behavior, as well as optical and dielectric responses governed by crystal symmetry and band structure. The field integrates experimental techniques such as X-ray and neutron diffraction, electron microscopy, and spectroscopies with theoretical and computational methods to elucidate structure–property relationships, enabling the design and control of functional materials in electronics, photonics, mechanics, and quantum technologies.

Revealing the effect of AIN surface pits on GaN remote epitaxy

Remote epitaxy has been gaining attention in the field of semiconductor manufacturing for growing thin films that copy the crystal structure of the template, which can later be exfoliated to form freestanding membranes. However, ...

Improving crystal engineering with DNA

Northwestern investigators have demonstrated that fine-tuning DNA interaction strength can improve colloidal crystal engineering to enhance their use in creating an array of functional nanomaterials, according to a recent ...

3D-snapshots of nanoparticles

X-ray diffraction has been used for more than a hundred years to understand the structure of crystals or proteins—for instance, in 1952 the well-known double helix structure of the DNA that carries genetic information was ...

A crystal shape conundrum is finally solved

A crystal's shape is determined by its inherent chemistry, a characteristic that ultimately determines its final form from the most basic of details. But sometimes the lack of symmetry in a crystal makes the surface energies ...

Developing strategies for high-quality crystal growth

Transition metal dichalcogenides (TMDCs) are a class of materials with physical properties that make them ideally suited for use in flexible optoelectronic applications, such as light detectors, light-emitting diodes and ...

page 13 from 15