
Prof. Shahram Latifi
IEEE Fellow, University of Nevada, USA
Speech Title: Smart Is Not Enough: Taming the Risks of Artificial Intelligence
Abstract: Over the past two decades,
artificial intelligence has advanced at an
extraordinary pace. Breakthroughs in Deep
Learning, Generative Adversarial Networks,
Transfer Learning, and Large Language Models
have not merely accelerated progress—they have
fundamentally reshaped how we live, work, and
make decisions. Nearly every sector has felt the
impact: education, healthcare, aerospace,
manufacturing, national security, e-commerce,
and the arts have been transformed in ways
difficult to imagine just a generation ago.
Yet with these achievements come serious
responsibilities. Whose data trains these
systems, and whose voices are missing? How do we
protect individual privacy in a world where
every digital interaction leaves a trace? And
most urgently—how do we ensure that as AI
systems grow more autonomous and consequential,
humans remain meaningfully in control of
critical decisions?
This talk offers a concise overview of AI,
Machine Learning, and Deep Learning—where the
field has been, where it stands, and where it is
heading. It examines the technical and ethical
challenges of building not just capable AI, but
systems that are safe, transparent, and
trustworthy. It also surveys national and
international efforts to establish responsible
AI frameworks—because getting this right is not
optional, and the window for shaping it wisely
may be narrower than we think.
Short bio: Shahram Latifi received his M.S. and Ph.D. degrees in Electrical and Computer Engineering from Louisiana State University in 1986 and 1989, respectively. He is a Professor of Electrical Engineering at the University of Nevada, Las Vegas (UNLV), where he also serves as Co-Director of the Center for Information Technology and Algorithms (CITA). For nearly four decades, Dr. Latifi has designed and taught a wide range of undergraduate and graduate courses spanning Computer Science, Computer Engineering, and Electrical Engineering. He is an internationally recognized educator and researcher who has delivered invited keynotes, plenary lectures, and seminars on Machine Learning, Artificial Intelligence, and Information Technology across the globe. Dr. Latifi has authored more than 300 technical publications in networking, AI/ML, cybersecurity, image processing, biometrics, fault-tolerant computing, parallel processing, and data compression. His research has been supported by major federal agencies and industry leaders, including NSF, NASA, DOE, DoD, Boeing, and Lockheed Martin. He has held several prominent leadership roles, including Associate Editor of the IEEE Transactions on Computers (1999–2006), IEEE Distinguished Speaker (1997–2000), Co-founder and Chair of the IEEE International Conference on Information Technology (2000–2004), and Founder and Chair of the International Conference on Information Technology – New Generations (2005–present). Dr. Latifi is the recipient of numerous research awards, most recently the Barrick Distinguished Research Award (2021). In 2020, he was recognized among the top 2% of researchers worldwide, according to the Stanford/Elsevier global citation database. He is a Fellow of the IEEE (elected 2002), a Fellow of AAIA and a Registered Professional Engineer in the State of Nevada.

Prof. Xiaowen Chu
(IEEE Fellow, AAIA Fellow, Acting Head, Artificial
Intelligence Thrust)
The Hong Kong University of Science and Technology
(Guangzhou), China
Speech Title: Efficient LLM Serving via Compression-Centric Optimizations
Abstract: Large language model (LLM) serving is fundamentally constrained by GPU memory capacity and bandwidth. While model compression can alleviate these constraints, practical system-level speedups are frequently hindered by the computational overhead of decoding and data movement. This talk explores a compression-centric paradigm for efficient LLM serving, highlighting two synergistic systems: SpInfer and ZipServ. We demonstrate how hardware-aware format co-design bridges the gap between theoretical compression and practical acceleration. First, SpInfer optimizes sparsified LLM serving by redesigning sparse data structures to minimize indexing overhead, unlocking the efficiency of unstructured sparsity on GPUs. Second, ZipServ extends this philosophy to bit-exact inference via lossless compression, enabling on-the-fly decoding that strictly aligns with Tensor Core execution to eliminate redundant memory traffic. Ultimately, this talk illustrates that by co-designing compression formats and execution pipelines with GPU architectures, compression transitions from a mere storage-saving technique into a core systems-level optimization principle that simultaneously minimizes memory footprint and accelerates LLM inference.
Short bio: Dr. Xiaowen Chu is a Full Professor and Head of the Artificial Intelligence Thrust at The Hong Kong University of Science and Technology (Guangzhou). He has been the Acting Head and Head of Data Science and Analytics Thrust at HKUST(GZ) during 2023-2025. He received his Bachelor's degree from Tsinghua University and his Ph.D. from The Hong Kong University of Science and Technology. His research focuses on high-performance computing, machine learning systems, and distributed systems. He has received seven Best Paper Awards at international conferences, including EuroSys 2025 and INFOCOM 2021, and Distinguished Paper Award of ICDCS 2025. Dr. Chu has been recognized multiple times in the Stanford University World’s Top 2% Scientists List. He serves (or has served) as an Associate Editor or Guest Editor for IEEE Transactions on Cloud Computing, IEEE Transactions on Network Science and Engineering, IEEE Internet of Things Journal, IEEE Transactions on Big Data, IEEE Network, and IEEE Transactions on Industrial Informatics. He has served as an area chair for NeurIPS, ICML, and ICLR. He was the TPC Co-Chair or General Co-Chair of IEEE MetaCom 2025, IEEE/ACM IWQoS 2024, BigCom 2023, IEEE GreenCom 2022, IEEE HPCC 2021, IEEE DSS 2020, EAI QShine 2019, etc. He is a Fellow of IEEE and AAIA.

Prof. Guoping Qiu
The The University of Nottingham, UK
Speech Title: Rethinking Image Processing Research in the AI Era: A Problem-First Framework for Scientific Progress
Abstract:: Modern AI has greatly expanded the capabilities of
image processing, enabling powerful methods for restoration,
enhancement and computational photography. However, the
availability of pretrained models, public datasets and benchmark
leaderboards can encourage research to begin with an
architecture and a dataset before the underlying imaging problem
is fully understood. Improvements in benchmark scores may
consequently provide limited evidence of progress under real
imaging conditions. In this talk, I present a problem-first
framework that distinguishes the physical imaging problem,
solution principle, statistical estimator and computational
implementation. Through case studies in super-resolution and
low-light enhancement, I examine how image formation, sampling,
dynamic range and noise determine what information is available,
what has been lost and what can reasonably be inferred. These
examples illustrate how benchmark construction and
reference-image selection can change the task being solved, and
why visually convincing results do not necessarily demonstrate
faithful recovery of scene information. I then introduce a
six-stage research workflow that connects the intended
application and acquisition process to information-loss
analysis, prior knowledge, uncertainty, evaluation and model
selection. The framework provides practical guidance for
choosing and using modern AI, designing informative experiments,
and making reproducible claims supported by appropriate
evidence. The talk concludes with implications for research
training and practice, highlighting opportunities to advance
image processing through better problem formulation,
acquisition, dataset design and evaluation, alongside
improvements in models.
Short bio: Professor Guoping Qiu is Professor of Computer Science at the University of Nottingham, UK, and the University of Nottingham Ningbo China, where he also serves as Vice Provost for External Relations. His research spans more than three decades and encompasses neural networks, machine learning, image processing, computer vision and computational photography. Beginning with Hopfield neural networks for image coding in 1991, his early research explored neural-network approaches to image compression, super-resolution and compression artefact removal. He subsequently developed early learning-based methods for high dynamic range (HDR) tone mapping. His work on computational tone mapping for HDR photography received the Best Paper Award at the International Conference on Pattern Recognition in 2006. More recently, he led research on smart point-and-shoot photography, using AI to guide users towards improved composition before the shutter is pressed. Professor Qiu has published more than 300 papers and supervised more than 30 PhD students to completion. His current research focuses on using modern AI to address challenging and practically important imaging problems, with particular emphasis on understanding their physical and statistical foundations and developing useful imaging technologies.

Assoc. Prof. Lu Wang
Shenzhen University, China
Short bio: Wang Lu is an associate professor at the
College of Computer Science and Software Engineering at
Shenzhen University. Dr. Wang Lu is an associate professor
at the College of Computer Science and Software Engineering
at Shenzhen University. She received her bachelor's degree
from the School of Information Science and Technology at
Nankai University in June 2009 and her Ph.D. from the
Department of Computer Science and Engineering at the Hong
Kong University of Science and Technology (HKUST) in January
2014. Following her doctorate, she continued at HKUST as a
postdoctoral fellow until February 2015. In June 2015, she
was recruited as an overseas high-level talent by the
Shenzhen municipal government and currently serves as an
associate professor at Shenzhen University. Her primary
research interests lie in wireless networks and mobile
computing, with specific focus on the Internet of Things
(IoT), artificial intelligence, wearable computing, wireless
perception computing, and wireless big data. Over recent
years, Dr. Wang has published more than 40 papers in major
international academic journals and conferences. Among
these, 15 publications have appeared in top-tier journals
indexed by SCI, including the IEEE Transactions on
Networking, with nine of them being either first-authored or
co-correspondent. She has also presented over 30 papers at
premier international conferences such as IEEE INFOCOM and
IEEE ICNP.