Materials Horizons

The study from National Taiwan University reveals a single-layer zigzag-type metallic glass film with precisely tunable emissivity for thermal infrared camouflage technology.

Integrating an emission gain layer in perovskite LEDs enhances Förster resonance energy transfer and the Purcell effect, achieving high luminance and efficiency.

Combining metallic glass with the Berreman mode of epsilon-near-zero (ENZ) thin films achieves a dual-function system for infrared camouflage and thermal management within an identical wavelength region of the atmospheric window. Metallic glasses were selected for their tunable optical properties, providing adjustable emissivity for versatile thermal camouflage while maintaining effective thermal management.

- A joint research team led by DGIST Professor Kang Hong-gi and KIST Dr. Chung Seung-jun develops high-speed powerless photothermal effect temperature sensor technology using a transparent polymer thermoelectric material printing process - Opens up the possibility of direct high-resolution measurement of nano-photothermal phenomenon without interference of light, proposed for brain stimulation, cancer treatment, and ultra-fast PCR, etc.... Published online in ‘Materials Horizons’ in October

Testing a large library of compounds reveals an easy-to-make lipid that can carry genetic code into the lung to treat disease.

A recent study, affiliated with South Korea's Ulsan National Institute of Science and Technology (UNIST) has introduced a pressure-free approach for creating synthetic graphite with well-oriented crystallites.