Urban Solutions and Sustainability (USS)

A new nanosheet-based catalyst for splitting water uses sunlight and electricity to efficiently produce clean hydrogen for energy applications.

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

A closer look at the molecular structure of catalysts revealed how pairing certain atoms can dramatically improve the speed and efficiency of critical chemical reactions.

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.

Statistical models show that urban spaces can strengthen social ties and promote healthier, more active lifestyles when designed with a focus on quality and inclusivity.

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

A new simulation platform helps assess the impact of public transport disruptions in cities like Singapore, ensuring smoother commutes even during major incidents.

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

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

A versatile film that adjusts its transparency in response to temperature, pressure and moisture can enhance the energy efficiency of buildings, making them more sustainable.

Anode-free magnesium batteries represent a potential next-generation energy storage solution, boasting superior energy density compared to lithium-based alternatives currently used.