Science and Technology of Advanced Materials

A new technique allows researchers to map how the cellular ‘skeleton’ adapts to external stress.

Researchers develop a technique to allow fragile objects to be transferred and released by robotics, without damage, while using a gecko inspired adhesive.

Specially coated surfaces help scientists investigate what happens when cell clusters are turned upside down.

Shaking the compact, lightweight device generates enough electricity to power 100 LEDs.

Researchers are working to overcome challenges in order to bring wearable, electric, wound-healing devices to clinical practice.

Hi-tech electrocatalysts made from seashells and waste animal blood could help build sustainable batteries, fuel cells and other electrochemical systems.

2.5-dimensional materials promise new applications for artificial intelligence, electronics, automobiles and the energy sector.

Scientists at Tokyo Medical and Dental University have discovered a new type of bone repairing material that could be used to more precisely fix bone defects.

An international collaboration is developing coating materials that could make windows better insulators.

A new coating for tiny packages called liposomes could allow them to carry vaccines and drugs into and around the body more safely.

Devices that can see shortwave infrared light, which is invisible to the naked eye, could soon become cheaper and more accessible to a broader consumer base.

A nanoparticle’s size is fine-tuned to offer high-resolution images before and during surgical procedures.

A magnetic hybrid system generates electricity day and night with radiative cooling and solar heating.

A novel biomaterial promotes bone tissue regrowth, showing promise for surgical procedures.

A magnetic field could boost blood vessel growth to regenerate damaged tissue.

Neurone-like junctions made of mixed oxide-based materials could reduce the massive energy consumption of artificial intelligence operations.

The compact, lightweight device generates electricity when shaken and can power 100 LEDs.

Sea pineapples are a delicacy in Japan and the Tohoku region is renowned for its extensive sea pineapple industry. Soon they might not only be fueling our appetites, but helping power our future too. A research group demonstrated that the carbonization of cellulose nanofibers within sea pineapple shells produces high-quality carbon that, when mixed with blood waste from the livestock industry, boasts electrical performances similar to that of rare metals.

Researchers are working to overcome challenges in order to bring wearable, electric, wound-healing devices to clinical practice.

Scientists in Korea make hand-drawn and flexible pressure sensors that can control a phone from underwater.

An injection made of a hydrogel containing stem cells could treat damaged tissue following a heart attack.

Magnetic layers interact with sunlight differently, creating a temperature gradient that generates electricity day and night.

Neurone-like junctions made of mixed oxide-based materials could reduce the massive energy consumption of artificial intelligence operations.

Controlling the organization of molecules within polymer membranes could lead to more efficient fuel cells.

Ion-conducting gels that repair themselves following damage are under development for wearable electronics.

Heusler alloys are promising contenders for faster and more energy-efficient computing and memory storage devices.