PhDWire

Optimization of NC-LSPR coupling for high-performance wide-spectrum MoS2 phototransistors

South China University of Technology Publishes Major Perovskite Breakthrough in Nature

Chip Highlights Bao Wenzhong's Team's Breakthrough: Universal Optoelectronic Imaging Platform Using 2D Semiconductors

Twist-tunable polaritonic crystals manipulating Bragg resonance

UCLA and the Chinese University of Hong Kong (Shenzhen) recently published a Nature paper: Creating designable quantum solids through layered hybrid superlattices

A method and application prospect for inserting atoms and molecules into the van der Waals gaps of layered two-dimensional atomic crystals to construct layered hybrid superlattices (LHSLs)

Nature Nanotechnology: Precision polymer synthesis provides unlimited possibilities!

Core-shell fiber wet gas generator via synergistic complex coacervation and built-in potential

A novel composite coacervation and built-in potential strategy for developing high-performance uniaxial MEG

Nature University of Pennsylvania: Electrically driven long-range solid-state amorphization in ferroic In2Se3

Recently, Nature published online a research paper by Ritesh Agarwal of the University of Pennsylvania and Pavan Nukala of the Indian Institute of Science , titled " Electrically driven long-range solid-state amorphization in ferroic In 2 Se 3

Small: Chemical-physical synergistic assembly of MXene/CNT nanocoatings in silicone foam for reliable piezoresistive sensing in harsh environments

Robust MXene/CNT nanocoated PDMS foam sensors offer high sensitivity, stability across temperatures (-60-210°C), and fire resistance, advancing flexible sensor technology.

Nature Communications, a new strategy for gas sensing!

Organic surface modification of ZnO nanowires with ODPA enhances VOC sensing by reducing catalyst deactivation and recovery time. Lower desorption temps improve efficiency.

Nature | Flatband titanium-based photothermal evaporator

Method to significantly increase the density of states (JDOS) by introducing a flat band electronic structure to improve the interfacial evaporation performance

A new strategy for ultra-thin ion gel, only 16 microns thick!

Soft electronic skin (e-skin) and ultrathin ionogels enable continuous biological monitoring, offering potential for health, robotics, and human-machine interfaces.