News & Stories

The Hong Kong University of Science and Technology (HKUST) has shone in the second round of Research, Academic and Industry Sectors One-plus (RAISe+) Scheme launched by Innovation and Technology Commission’s (ITC), securing grants for seven teams – the highest number among local institutions.  The seven funded projects encompass a diverse array of innovative research and development efforts. Three projects focus on health and medical innovation, addressing areas spanning diagnostics, medical treatment and gene therapy.  Three others focus on AI chips, semiconductors and their materials, while the remaining one explores novel displays and optoelectronic technology.

The Hong Kong University of Science and Technology (HKUST) has emerged as the top-performing local institution in the second round of the Innovation and Technology Commission’s (ITC) Research, Academic and Industry Sectors One-plus (RAISe+) Scheme, securing funding for seven projects. Spanning health and medical sciences, artificial intelligence (AI) and robotics, advanced manufacturing, and electrical and electronic engineering, these projects underscore HKUST’s leadership in transforming pioneering research into real-world applications.

In a breakthrough set to revolutionize the semiconductor industry, the School of Engineering of the Hong Kong University of Science and Technology (HKUST) has developed the world’s first-of-its-kind deep-ultraviolet (UVC) microLED display array for lithography machines. This enhanced efficiency UVC microLED has showcased the viability of a lowered cost maskless photolithography through the provision of adequate light output power density, enabling exposure of photoresist films in a shorter time.  Conducted under the supervision of Prof. KWOK Hoi-Sing, Founding Director of the State Key Laboratory of Advanced Displays and Optoelectronics Technologies at HKUST, the study was a collaborative effort with the Southern University of Science and Technology, and the Suzhou Institute of Nanotechnology of the Chinese Academy of Sciences.

A research team at The Hong Kong University of Science and Technology (HKUST) has developed a new electrode design that is set to enable the rechargeability of alkaline zinc batteries, one of the most common types of non-rechargeable batteries used in our daily lives, shedding light on a wider application of rechargeable batteries. Batteries are ever important in the age of smart cities and global digitalization. Yet, a majority of batteries in the market are not rechargeable, or called primary batteries. They are disposed after a single use, an unsustainable practice that poses a serious threat to the environment.

Liquid Crystals (LC) are widely deployed in display technology and optical fibres. From smartphones in your pockets to large screen TVs, LCs are everywhere, as this special state of matter has been found in colorful soap bubbles as well as certain living tissues.

The ability to undertake in vivo imaging of a living brain in a mammalian animal model is crucial for elucidating how the brain functions. However, the brain consists of tens of billions of neurons, each connected with thousands of others via synapses, the sites of communication between neurons that allows transmission of information. Thus, to truly understand the dynamics of neuronal synaptic interactions, the capacity for morphological and functional imaging of the brain at high spatial and temporal resolution is required.  

IAS Bank of East Asia Professor Ching Tang is awarded 2019 Kyoto Prize in Advanced Technology

By Mow Wai-ho, Associate Professor of Electronic and Computer Engineering, HKUST Compared with the mainland, Hong Kong seems to be lagging behind in adopting QR codes for financial transactions. However, innovators in Hong Kong are not standing still in developing the next generation of barcodes that can revolutionize the way we do business. For example, my research team is continuing to work on PiCode, a barcode variant that utilizes images instead of the black-and-white lines and blocks that comprise conventional barcodes and QR codes. We have spent almost five years researching picture- and video-embedded codes, and are now in the demonstration phase. Picture-embedded barcodes offer considerable potential in consumer marketing. Many people may find regular barcodes intrusive, and businesses have searched for ways to transmit data and information to consumers in a more pleasing format.