Smart Nation and Digital Economy (SNDE)

Combining the best of both classical and quantum computing, a new mathematical approach promises faster solutions for complex modelling of real-world phenomena.

A new lithium niobate nanophotonic device efficiently produces correlated photon pairs on chips, paving the way for compact quantum communication systems.

Computational models offer an AI boost to logistics planners by identifying the most efficient transport routes through cross-problem learning.

By introducing tiny magnetic whirlpools to existing spin-based electronics, researchers pave the way for faster, more compact and more energy-efficient computing.

New decision-making support tools aim to help air traffic controllers safely manage the complex navigational space around airport terminals.

The discovery of a 2D material with electrically-tuneable light-bending properties could lead to more compact and efficient optical components in future electronics.

A new benchmark for multilingual artificial intelligence tackles biases and inconsistencies to foster more inclusive global communication.

A new thin film technology harnesses a unique nanoscale phenomenon to achieve exceptional electromechanical responses, potentially raising the speed limits of tomorrow’s wireless communications.

New acoustic filters could support faster future mobile communications by tapping into underused higher frequency bands, reducing congestion in existing channels.

A new dynamic, context-aware machine learning model aims to support safer navigation through busy seaports by predicting ship movements in real time.

A new computational model refines the art of predicting how proteins interact, creating a robust tool to explore complex biological systems even with limited data.

A new optical nanoantenna design provides fine control of light emissions from quantum dots, honing their tunability for more robust, energy-efficient optoelectronics.