Welcome

Inspiring a culture for sustainable innovation.

Pushing the boundaries of innovation, making new discoveries and establishing new research paradigms.

About the school
Committed to pursuing cutting-edge research, making groundbreaking discoveries and establishing new research paradigms.
Our quality and well-balanced education places particular emphasis on grit, curiosity and creativity…
At the School of Science, we promote a vibrant and dynamic environment that emphasizes academic excellence, scholarship, innovation and collaboration.
Yung Hou WONG
DEAN OF SCIENCE
Events
Seminar, Lecture, Talk | 10 Nov 2023
IAS / School of Science Joint Lecture – Biochemical Mechanisms of Plant NLRs
Abstract Plant nucleotide binding and leucine-rich repeat (NLR) receptors mediate specific recognition of pathogen effectors to trigger defense responses against invading pathogens. NLRs, largely comprised of coiled coli NLRs (CNLs) and toll-interleukin 1 receptor NLRs (TNLs), have a central role in plant immunity. Signaling mechanisms of plant NLRs have remained elusive until recently. Direct or indirect recognition of pathogen effectors induces oligomerization of plant NLRs, forming large protein complexes termed resistosomes. CNL resistosomes function as calcium-permeable channels to initiate NLR-mediated immunity. The channel activity of CNLs is evolutionarily conserved. By contrast, TNL resistosomes are NADase holoenzymes that catalyze production of nucleotide-derived small molecules. Structural and biochemical evidence indicates that these small-molecules act as second messengers to activate assembly and channel activity of resistosomes of helper NLRs, a subgroup of the CNL family. The speaker will present evidence of how plant NLRs assemble resistosomes in response to pathogen effectors and how resistosomes converge on calcium signals.   About the Speaker Prof. CHAI Jijie completed his PhD study in Peking Union Medical College in 1997 and conducted his postdoctoral research in Princeton University from 1999 to 2004. He joined National Institute Biological Sciences (NIBS) in 2004 to establish an independent laboratory there. After his promotion from an assistance to an associate investigator in 2009, he moved to Tsinghua University. In 2017, he made a second move to join University of Cologne in Germany as an Alexander von Humboldt Professor/W3 Professor. In 2023, he relocated to Westlake University as a chair professor. Prof. Chai is a pioneer in the plant immune response and has been engaged In the structural and mechanistic of plant immune receptors for a long time. He has published more than 100 papers, including 28 in top journals like Cell, Nature, and Science. In the plant innate immunity field, Prof. Chai made many fundamental contributions: he coined the concept “resistosome”, discovered a class of second messengers that regulating plant innate immunity, and unravel the underlying molecular mechanism by determining a series of high-resolution structures. His research has filled an existing gap in the plant immune system and shed lights on molecular mechanism of plant response to pathogen attack. Prof. Chai received plenty of prestigious awards, including Max Planck Fellow, Alexander von Humboldt Professional Award, The 2020 CAS Outstanding Scientific and Technological Achievement Award, Top Ten Progresses in Life Sciences in China (2019), Second Prize of National Natural Science (2017), National Outstanding Youth Award (2011), and so on. In addition to making great achievements in research, Prof. Chai is an excellent mentor by supervising more than 50 students and postdocs, including those who have become independent faculties in top universities like USTC, SCU, SJTC.   For Attendees' Attention Seating is on a first come, first served basis.
Seminar, Lecture, Talk | 07 Nov 2023
IAS / School of Science Joint Lecture - Mechanisms of Selective Protein Secretion
Abstract Secretory and membrane proteins account for a third of the eukaryotic proteome, and play important roles in tissue organization, nutrient uptake and cell-cell communication. To function in these roles, each protein must be correctly folded, post-translationally modified and delivered to the appropriate compartment. The speaker’s long-term aim is to define the mechanisms by which protein synthesis and vesicle formation machineries are tuned to match the specific physiological needs of a cell. In this talk, she will describe the recent work on the mechanisms by which an export receptor, SURF4, bridges interactions between soluble secretory proteins within the lumen of the endoplasmic reticulum (ER) and the vesicle budding machinery that delivers cargo to the Golgi. SURF4 recognizes a hydrophobic sorting motif on its client cargo via a membrane-embedded pocket, and interacts with the SEC24 cargo adaptor component of the COPII budding machinery by multiple cytoplasmic signals. The research team used a small molecule that occludes the site of interaction between SEC24 and SURF4 to show that this drug reduces secretion of a subset of the secretome, raising the exciting possibility that protein secretion can be selectively drugged for therapeutic benefit. About the Speaker Prof. Elizabeth Ann MILLER is one of the leading experts in the field of membrane trafficking, particularly in the area of ER export and the quality control checkpoint during membrane protein biogenesis. She gained her Bachelor's degree in Botany and Zoology at the University of Melbourne, Australia and PhD degree in Cell Biology at La Trobe University, Melbourne, Australia. She worked with the Nobel laureate Prof. Randy SCHEKMAN at the University of California at Berkeley as a postdoc working on molecular mechanisms of cargo sorting at the endoplasmic reticulum. Prof. Miller joined the faculty of Department of Biological Sciences, Columbia University as an Assistant Professor in 2005 and Associate Professor with tenure in 2013. In 2015, she became the Programme Leader of the MRC Laboratory of Molecular Biology. She is currently Professor of Molecular Cell and Developmental Biology at University of Dundee. Prof. Miller's research focuses on understanding the basic mechanisms of secretory protein biogenesis, focusing on protein quality control within the endoplasmic reticulum. Her lab uses the budding yeast as a model system, and has discovered new pathways and dissected mechanisms that may be directly relevant to a number of human diseases, most notably cystic fibrosis and similar diseases of protein misfolding. For Attendees' Attention Seating is on a first come, first served basis.
No. 25
Science Focus
Science Focus is specially written and designed by HKUST science undergraduate students under the guidance of our faculty and staff. It aims to stimulate and nurture students’ interest in science and scientific research through interesting articles.
Study at the
School of Science
Undergraduate
Programs
Offering diverse, interdisciplinary and inquiry-driven undergraduate education in an intellectually stimulating environment.
Postgraduate
Programs
Providing students with exposure and hands-on training in innovative, cutting edge methodologies and technologies via research and taught postgraduate education.
Academic Units
Chemistry
Life Science
Mathematics
Ocean Science
Physics
Chemistry
The Department of Chemistry has dynamic, friendly and cooperative faculty members active in all areas of chemical research and whose research is internationally recognized.
Life Science
The mission of the Division of Life Science is to facilitate the advancement of both research and education in the field of biological sciences.
Mathematics
Excellence in research and a commitment to deliver effective and quality teaching programs, are the two pillars on which the Department of Mathematics is based.
Ocean Science
The Department of Ocean Science aims to lead in understanding ocean science and technology, marine conservation, global climate change, management of marine resources, socio-economy and sustainable development.
Physics
The mission of the Department of Physics is captured by the triangle of teaching, research and innovation.
Research
Pushing the boundaries of innovation, making new discoveries and establishing new research paradigms.