Batteries

A*STAR researchers demonstrate a fully solid-state battery from a dynamic polymer electrolyte, unlocking new possibilities for lithium-ion batteries.

A nanoscale investigation reveals how ‘whiskery’ metal deposits in magnesium batteries disrupt their performance, offering new design principles for more stable battery systems.

A newly developed additive for magnesium-based batteries brings them a step forward as safer, high-performance alternatives to lithium-ion systems.

Dual-atom catalysts overcome a significant barrier in lithium-sulfur battery performance, opening a new paradigm for catalyst design in next-generation batteries.

Through a unique molecular clamping effect, a novel organic-inorganic composite material offers a performance boost for next-generation batteries.

A new high-performance lithium-ion battery blends robust energy storage capabilities with flexibility to power the next generation of wearable technologies.

Embedding chemical impurities into zinc-ion batteries boosts their performance and prolongs battery life.

Half
a century since the earliest lithium-sulfur batteries were invented, an
A*STAR team is leading the race to bring them to the masses.

Tired of running out of charge on your smartphone? The hunt is on for a longer-lasting battery

An oxide/carbon composite outperforms expensive platinum composites in oxygen chemical reactions for green energy devices