
How click chemistry learned to snap molecules together inside living cells
A review reveals how click chemistry evolved from copper-catalysed bench reactions to ultrafast, spring-loaded tools that run safely inside living organisms.
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A review reveals how click chemistry evolved from copper-catalysed bench reactions to ultrafast, spring-loaded tools that run safely inside living organisms.

Machine learning tools can match top scores by spotting who published a paper rather than grasping chemistry.

Researchers paired generative AI with active learning to sculpt nanoscale carbon lattices that are lighter yet up to 23% stiffer and 40% stronger than standard designs.

A comprehensive review outlines how chemical separation strategies, from peeling apart physical layers to pulling out individual elements, are needed for effective battery recycling.

A review shows how machine learning mimics slow quantum physics to model larger battery parts without losing fine detail.

A robotic system uses mechanical kneading on a semi-solid paste to run chemical reactions with minimal solvent, skipping messy liquid clean-ups.

A review reveals how thin coatings at internal borders help solid-state lithium batteries block destructive metal spikes during fast charging.

Treating waste shells from Calophyllum inophyllum nuts with common chemicals turns them into porous carbon capable of storing rapid bursts of electrical charge.

Adding a chemical layer called MGDA beneath solar films anchors moving molecules, creating smoother crystals and boosting efficiency up to 25.50%.

Scientists have packed tiny, liquid-filled capsules into a solid battery electrolyte that burst open during extreme heat to actively smother flames. This two-part safety shield stops catastrophic battery fires while still letting the cell store and deliver power normally.