Institute of Sustainability for Chemicals Energy and Environment (ISCE²)

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.

Serving as atomic architects, A*STAR scholars Rebecca Khoo and Kang Rui Garrick Lim are designing novel materials that can shape a more sustainable future.

The A*STAR researchers in NRF Singapore’s class of 2024.

From production to storage and usage, A*STAR research institutes are tackling challenges in sustainable energy to meet the needs of the 21st-century.

A common waste material from municipal incinerators shows potential as an effective catalyst to upcycle waste single-use plastics into valuable chemicals.

A groundbreaking method to incorporate copper into graphene-like coordination polymers (GCPs) can unlock exciting possibilities for electronics, energy storage and materials science.

New electromechanically active thin films can revolutionise how devices respond to electrical signals for diverse industrial applications.

An innovative genomic approach speeds up the search for new fungal enzymes to sustainably create industrial products ranging from perfumes to jet fuel.