A*STAR Institute of Materials Research and Engineering (A*STAR IMRE)

A new iron-based electrode material keeps lithium ions flowing freely in lithium-ion battery systems, boosting their capacity for energy storage.

Through its focus on attracting, developing and retaining talents in science and technology, A*STAR is helping to build a rich national ecosystem of research, innovation and enterprise.

A new sustainable method of breaking down plastics could transform landfill-bound waste into valuable resources.

Improving the efficiency and lifespan of aluminium-ion batteries may lead to more sustainable, cost-effective energy storage solutions.

A new thin-film technology solves the challenge of creating rich, durable colours, offering a more efficient and adaptable solution for next-generation displays.

A new class of heat-cured polymers proves both durable and recyclable, which can drastically reduce landfill waste from disposed household items and industrial parts.

Driven to materialise sustainable energy practices, SINGA scholar Kivanc Saglik is developing thermoelectric semiconductors to generate power from waste heat sources.

Through advanced chemistries in materials and process engineering, A*STAR lends its support to national development goals for a more circular economy.

A new optical nanoantenna design provides fine control of light emissions from quantum dots, honing their tunability for more robust, energy-efficient optoelectronics.

Departing from costly simulations and trial-and-error methods, researchers harness machine learning and automation to efficiently discover new recipes for green hydrogen catalysts.

Complex magnetic particle arrangements, called skyrmions, can transform computing by making data storage and processing more efficient and energy-saving.

A new molecular framework design boosts the stability and sensitivity of enzyme biosensors in wearable health monitors.