Materials Science – News and Features

Researchers have offered new insights into the physical mechanisms behind collective cell division and movement during embryonic development.

Researchers have created a new aluminum-scandium alloy that is 5x more resistant to hydrogen embrittlement and 40% stronger than past alloys – creating an ideal material for the hydrogen economy.

New research has found that adding IL-12, a cytokine produced by various immune cells, to mRNA vaccines improves T-cell responses. This could make the benefits of vaccines last longer.

Inspired by the way viruses attach to cells, scientists have developed a method for engineering ultra-selective aptamers. These synthetic molecules bind to specific targets like viral spike proteins, making them useful for diagnostics and treatments.

Researchers have developed new "electron shower" technique which can produce even high-quality thin films at relatively low temperatures – a first for the field.

Researchers have developed a new way to safely heat up specific areas inside the body, using biodegradable polymers that contain tiny water pockets that are activated by near-infrared laser. The technology could lead to precise treatments for cancer.

Researchers have used electrospinning to produce polymer mats containing the antibacterial drug metronidazole. These mats could be used as active wound dressings, as their structure lets them release drugs in a controlled manner.

Researchers have developed a new type of exotic quantum material, and a method that uses magnetism to create stability. This breakthrough could make quantum computers significantly more resilient.

Researchers have developed advanced MXene-coated contact lenses that shield the eyes against electromagnetic radiation while maintaining hydration and high optical clarity. This breakthrough opens new possibilities for safer, next-gen eyewear.

Researchers have discovered that mixing small particles between two solid electrolytes could improve the performance of solid-state batteries. This mixing creates a "space charge layer" effect which makes it easier for ions to move across interfaces.