A*STAR Institute of Materials Research and Engineering (A*STAR IMRE)

The structural order of multi-metal alloy catalysts influences their capacity to boost the efficiency of chemical reactions in renewable energy systems.

Researchers pioneer new pathways towards miniaturised electronics with a scalable, high-efficiency liquid-printing technology for semiconductor manufacturing.

An in-depth review of catalysts used in clean energy generation reveals valuable insights on the dynamics between particle size, structure and their reaction efficiencies.

A new study challenges current paradigms in two-dimensional semiconductor design by introducing wave-like structures to improve the flow of electrons.

With their unique optical properties, customisable ultrathin metasurfaces can enable the next wave of high-performance optoelectronics devices.

Wastewater surveillance in epidemiological studies can help researchers better understand and control COVID-19 outbreaks.

Using novel dual-layered memristor designs, researchers solve processing speed and reliability issues faced by a promising new class of computing devices.

In a comprehensive review, researchers explore how manufacturing defects can power up catalysts that transform carbon dioxide into alternative solar fuels.

Researchers develop a new class of recyclable polymer-based nanofibres with exceptional strength and durability.

At A*STAR’s Institute of Microelectronics, Yao Zhu, Head of the Micro Electro Multiphysical Systems (MEMS) Department, hopes to contribute in making Singapore a global centre of piezoelectric MEMS technologies.

With its long-standing expertise and working partnerships, A*STAR continues pushing forward with chip technologies beyond the transistor scaling paradigm.

Researchers take a deep dive into the current state of the art of iridium-based catalysts for green hydrogen production.