Nanyang Technological University, Singapore (NTU Singapore) has launched the Quantum Science and Engineering Centre (QSec), which aims to develop devices and technologies powered by quantum science - the study of how particles behave at the atomic level. The centre, the first of its kind in Singapore, will conduct research on developing and producing quantum chips using semiconductor fabrication technologies. These chips form the backbone of quantum devices such as quantum chip processors, networks, and sensors. They hold important applications in many areas such as quantum computing, communication, cryptography, cybersecurity, and sensor technology. The opening ceremony for QSec was witnessed by Mr Chan Chun Sing, Minister for Education and NTU President Professor Subra Suresh. The Centre aims to train skilled manpower for quantum engineering, the application of quantum science to real-world scenarios, and to promote and develop Singapore’s quantum industry. Housed at NTU’s College of Engineering, the cutting-edge research centre’s current projects include research into quantum chip processors, quantum chip networks, and quantum chip sensors.

Recent theoretical breakthroughs have settled two long-standing questions about the viability of simulating quantum systems on future quantum computers, overcoming challenges from complexity analyses to enable more advanced algorithms.

Understanding which types of landscapes people prefer when enjoying the outdoors is important information for managers and planners tasked with protecting and maintaining these resources. Now identifying which landscapes are preferred by outdoor recreationists has gotten easier with a system that automatically classifies content from social media photographs.

A new technology developed at Tel Aviv University will make it possible, using artificial intelligence, to identify patients who are at risk of serious illness as a result of blood infections. The researchers trained the AI program to study the electronic medical records of about 8,000 patients at Tel Aviv’s Ichilov Hospital who were found to be positive for blood infections.

Researchers inspired by natural cells are developing their own materials made of interconnected microscopic shapes. But synthetic materials can’t be reshaped as many ways as biological materials without breaking apart and being rebuilt from scratch. This study introduces a new way to manipulate a material’s arrangement of cells at the microscale using a simple liquid, opening new possibilities for innovative materials.