A*STAR Institute of Sustainability for Chemicals Energy and Environment (A*STAR ISCE²)

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.

A*STAR researchers unearth new electrochemical insights on carbon capture with desalination brine, optimising the recovery of valuable minerals while reducing climate-changing emissions.

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

Atomic simulations reveal new insights into iron-based catalysts for an efficiency and sustainability boost to carbon capture efforts.

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

Innovative designer molecules called stapled peptides effectively target and block cancer processes, promising a new therapeutic approach.

Enzymes from soil bacteria can effectively break down some of the toughest plastic pollutants, offering a promising approach to tackling plastic waste.

The innovative integration of robotics and machine learning accelerates the development of efficient, sustainable hydrogen catalysts.

Researchers transform common plastic waste into exceptional water-repelling materials, inspired by the natural properties of lotus leaves.

A breakthrough approach integrates light-responsive molecules into polymers to advance biomedical applications.

A novel approach for sequencing custom-built synthetic peptide rings opens up new drug discovery possibilities.

Researchers reach a new understanding of how synthetic enzymes can be optimised as alternatives to naturally derived metalloenzymes.