
Prof. Hao Zhang
Fellow of American Statistical Association and an Elected Member of the International Statistical Institute
Michigan State University, USA
Biography: Hao Zhang is Professor and Chair at the Department of Statistics and Probability at Michigan State University. He is Fellow of American Statistical Association and an Elected Member of the International Statistical Institute. He has served editorial boards of Journal of the American Statistical Association, Statistica Sinica, Environmetrics, and Statistics & Probability Letters. His research interests are primarily in spatial and spatio-temporal statistics. His work includes both theoretical investigation into asymptotic properties of machine learning methods for spatial data and development of algorithms for the analysis of big spatial data. He collaborates with researchers in ecology, environmental sciences, climatology, natural resources and health sciences.

Prof. Ji Wei
Shandong University, China
Speech Title: ISAC networks based Fiber and
Photon-assisted Millimeter Wave Technology
Abstract: We
propose an Integrated Sensing and Communication (ISAC)
architecture simultaneously performing Distributed Acoustic
Sensing (DAS) and Distributed Temperature Sensing (DTS) in
single-mode fiber. Furthermore, the integration of
Photon-assisted millimeter-wave system achieves ISAC in wireless
domain. The system achieves parallel multi-parameter sensing
based on phase sensitive optical time-domain reflectometry
(ϕ-OTDR) and Raman OTDR (ROTDR). We design a customized
polarization beam splitter-arrayed waveguide grating to realize
a low-complexity polarization wavelength multiplexed integrated
sensing and communication system.
By employing an
amplitude bit mapping mechanism, the bit inversion probabilistic
shaping (BI-PS) scheme dynamically adjusts the probability
distribution of constellation points, allowing for seamless
conversion between quadrature amplitude modulation (QAM) and
phase shift keying (PSK). The Photon-assisted 40-GHz MMW ISAC
simulation and experimental systems are established. Through
hybrid amplification techniques such as Raman distributed
amplification and superposition amplification, we amplify
communication signals while reducing ROTDR detection power to
100 mW, sharing the same narrow-linewidth laser source with
ϕ-OTDR. To mitigate the degradation of signal-to-noise ratio
(SNR) in Rayleigh scattering signals within the ϕ-OTDR caused by
excessive peak pulse power triggering nonlinear effects,
polarization diversity reception and coherent amplification were
employed to enhance signal SNR and improve vibration signal
detection sensitivity.
Biography: Ji Wei received his M.S. degree in BeiJing Institute of Technology in 2003 and his Ph D degree in 2006 from Beijing University of Posts and Telecommunications. He is working as a professor in Shandong University. In 2012.9-2013.9, he worked as visiting scholar in Queen’s University Canada. His researching interests include: Artificial Intelligence, Data Center Networking, High speed optical switching and networking, Optical access networking.

Prof. Kwok L. Chung
Stanford/Elsevier World's Top 2% Scientist
Guangzhou Institute of Science and Technology, China
Speech Title: Optically Transparent
Antenna-Thin Film PV Integration: Recent Advances, Core
Bottlenecks, and Future Prospects
Abstract: Amid the
deep integration of green communication and renewable energy,
optically transparent antenna-thin film photovoltaic (PV)
integration technology has become critical for resolving
conflicts between energy self-sufficiency, space saving, and
functional integration in smart terminals, building-integrated
photovoltaics (BIPV), and satellite communications. This paper
concisely reviews global research progress, focusing on material
system innovation (e.g., diversified transparent conducting
oxides), multi-band communication adaptation, scenario-targeted
application verification, and integrated structure optimization.
Cutting-edge designs revolve around material diversification,
structural collaboration, multi-band compatibility, and
coordinated optical-electrical-electromagnetic performance. Key
bottlenecks include material performance trade-off, integration
compatibility contradiction, immature large-scale preparation,
and insufficient long-term stability. It also prospects future
directions centered on material collaboration,
structural/process innovation, and standardized testing,
providing a comprehensive compact reference for in-depth
research and industrial application of this pivotal technology.
Biography: Kwok L. Chung (Senior Member, IEEE) earned his Ph.D. in electrical engineering from the University of Technology Sydney, Australia, in 2005. He subsequently directed the Civionics Research Laboratory at Qingdao University of Technology (2015-2021), leading cross-disciplinary work on structural health monitoring, and later served as Distinguished Professor at Huizhou University (2021-2024). Since September 2024 he holds a Distinguished Professorship at Guangzhou Institute of Science and Technology (GZIST). With ~250 peer-reviewed papers spanning electrical and civil engineering, his current research focuses on kesterite-based photovoltaic solar antennas, wireless sensors, and reconfigurable intelligent surfaces. Prof. Chung chairs the IEEE Qingdao AP/MTT/COM Joint Chapter, sits on the International Steering Committee of the IEEE iWEM workshop (General Chair, 2019), and is an Associate Editor of the Alexandria Engineering Journal (Elsevier). A Stanford/Elsevier World’s Top 2% Scientist in both single-year and career-long impact since 2020—the only GZIST faculty currently so recognized—he actively reviews for IEEE, Elsevier, IOP and other leading publishers.

Prof. Laxmisha Rai
Fellow of the Royal Statistical Society (FRSS), UK
Shandong University of Science and Technology, China
Speech Title: Learning Edge: Model-based Edge Learning through Prompt Engineering for Personalized Education
Abstract: The growth of Large Language Models (LLMs) and the influence of Generative Artificial Intelligence (GenAI) tools have given rise to novel learning paradigms for educators. In this paper, we propose Model-based Edge Learning (MbEL), an “edge learning” framework that shifts learning from centralized, human-centric institutions to the “edge” of the network, where individual users interact conversationally with a pre-trained foundational model to acquire knowledge and skills. Unlike traditional edge computing, which focuses on data processing, MbEL emphasizes cognitive offloading and personalized knowledge acquisition. This paper conceptualizes MbEL, illustrating its principles through case studies conducted with the DeepSeek model using prompt engineering methods such as zero-shot, few-shot, and chain-of-thought (CoT) prompting. As this study focuses exclusively on personalized learning through prompt engineering, to ensure response quality, we established a benchmarking system using LLM-as-a-Judge framework with structured prompt templates. This allows learners to systematically evaluate and verify the answers generated by the model. The proposed method is tested for generation, and evaluation of standard algorithms taught in the undergraduate Data Structures course serving as the evaluation domain. Furthermore, we discuss its profound implications for education, including the shift from knowledge retrieval to reasoning development, and challenges such as model bias and academic integrity. However, ethical considerations such as model hallucinations and trusting incorrect answers remain critical, underscoring the continued necessity of human oversight in guiding the student learning process.
Biography: Laxmisha Rai is a professor at College of Electronic and Information Engineering, Shandong University of Science and Technology, Qingdao, China. He received Ph.D degree in Electronics from Kyungpook National University, South Korea. He worked as a Post-Doctoral Fellow, at Intelligent Robot Research Center, Soongsil University of South Korea. He is a Senior Member of IEEE, Senior Member of ACM, and Fellow of the Royal Statistical Society (FRSS), UK. His research interests include generative artificial intelligence, autonomous mobile robots, real-time systems, embedded systems, Internet of Things (IoT), wireless sensor networks, MOOC, and Bilingual Education. He is the author of over 80 publications including patents, books, book chapters, book reviews, international journal articles, international conference proceedings, and magazine articles. He is currently serving as Associate Editor of IEEE Access Journal, Editorial Board Member of Journal of Information Systems Education, and Editorial Review Board Member of Social Sciences & Humanities Open (Elsevier) Journal. His papers appeared in reputed journals such as Knowledge-Based Systems, IEEE Transaction on Intelligent Transportation Systems, IEEE Potentials, IEEE Sensors Journal, IEEE Transactions on Systems, Man, and Cybernetics, Part A: Systems and Humans etc.

Prof. Jiehan Zhou
Director of the International Education and Research Collaboration Office in the School, Chair of IEEE-Qingdao CH10879
Shandong University of Science and Technology, China
Biography: Professor Jiehan Zhou is a Ph.D.
supervisor and a professor at the School of Computer Science and
Engineering, Shandong University of Science and Technology
(SDUST), the Director of the International Education and
Research Collaboration Office in the School, the Chair of
IEEE-Qingdao CH10879, an affiliate research fellow of the
Middleware Systems Research Group (the MSRG Lab), University of
Toronto since 2010, the Docent (Adjunct Professor) at the
Department of Information Technology and Electrical and
Engineering, University of Oulu, Finland. He received his Ph.D.
in Mechanical Automation from Huazhong University of Science and
Technology in 2000 under the supervision of Prof. CAS
academician Shuzi Yang (Former President of HUST) and his Ph.D.
in Computer Engineering from the University of Oulu in 2011.
Professor Zhou has worked at top universities and research
institutions worldwide, including Tsinghua University, VTT
Technical Research Centre of Finland, INRIA in France,
Luxembourg Institute of Science and Technology (LIST),
University of Oulu, and the University of Toronto. With over 20
years of international research and industrial experience, he
has held positions such as Senior Scientist, Team Leader,
Laboratory Director, General Manager, and Principal Engineer at
Huawei Canada. He has also served as visiting professors at
several universities in China.
Professor Zhou is
dedicated to research in the fields of intelligent
manufacturing, system modeling and simulation, industrial
internet, industrial big data, industrial large models, and
digital twins. He has led or participated in numerous research
projects funded by China, EU, and Canada, including the ERCIM
Fellowship Program, the EU FP6-Amigo Project, and the EU
ITEA4-CAM4Home Project. To date, he has published over 150
research papers in these areas.

Prof. Botao Feng
Stanford/Elsevier World’s Top 2% Scientist
Shenzhen University, China
Speech Title: High-Efficiency, Compact Dual-Wideband Circularly Polarized Antenna for GPS and BeiDou Navigation Applications
Abstract: In this report, we introduce a novel compact antenna engineered for simultaneous GPS and BeiDou satellite navigation. The design combines a metallic radiator, realized through an integrated stamping technique, with a feed network and ground plane implemented on a single low-cost FR-4 substrate. To expand the operational bandwidth and improve impedance matching, a recessed gradient-support structure is strategically placed beneath the radiator. A defected ground structure further enhances radiation efficiency, achieving over 62% in both lower and upper frequency bands. The antenna generates right-handed circular polarization (RHCP) with 3-dB axial-ratio bandwidths spanning 1.10–1.23 GHz and 1.54–1.61 GHz, covering GPS L1/L2/L5 and BeiDou B1C/B2a/B2b frequencies. Measured realized gains exceed 3 dBic across both bands. Its highly compact form factor (0.17×0.17×0.04 λ0³) and small ground plane footprint (0.29×0.29 λ0²) make it well suited for integration in vehicle-mounted navigation systems. This work demonstrates a practical pathway toward high-performance, dual-band circularly polarized antennas for next-generation satellite navigation applications.
Biography: Dr. Botao Feng (Senior Member, IEEE) is a Tenured Associate Professor at Shenzhen University and Director of the Laboratory of Wireless Communications, Antennas, and Propagation. He received his Ph.D. in Communication and Information Systems from Beijing University of Posts and Telecommunications.
His research focuses on advanced antenna technologies, RF systems, and key enabling techniques for next-generation mobile communications, with an emphasis on system-level electromagnetic design and engineering implementation. He leads a research team at the National Key Laboratory of RF Heterogeneous Integration, spanning fundamental theory, device development, system integration, and engineering prototyping, supported by Sub-6 GHz, millimeter-wave, and emerging high-frequency measurement and simulation platforms.
Prior to academia, Dr. Feng worked at Nokia and China Unicom in mobile communication system engineering and network optimization. He actively promotes industry–academia collaboration, translating research outcomes into practical antenna systems, RF modules, and large-scale wireless coverage solutions.
He has authored over 220 technical publications, two academic books, and holds more than 80 granted patents, several of which have been industrialized. His contributions to 5G/6G antenna and RF system integration have directly supported real-world system deployments and large-scale engineering applications.
Dr. Feng has been listed in the Stanford/Elsevier World’s Top 2% Scientists since 2021. He serves the international research community as Associate Editor for several SCI journals, Technical Program Committee Chair and General Chair for IEEE international conferences, and as an expert reviewer for government agencies, industry organizations, and research funding programs.

Prof. Xingquan Wang
Gannan Normal University, China
Speech Title: Circuit design of all solid-state pulsed plasma power supply with high repetitive frequency
Abstract: Plasma technology has a wide range of applications in the fields of electronics and communications, such as plasma electro-optic modulation, plasma antenna, plasma etching, chip manufacturing, plasma stealth and so on. Plasma power supply is the key component to get various plasmas for different applications. Pulsed power supply can offer higher discharge efficiency and smaller energy loss compared to conventional supply. The development of pulse power supply is technically demanding and difficult, so there are few mature and universal products. The key to pulsed power supply lies in the design of switching circuits. The performance of switching devices determines the repetition rate, output power level, and lifespan. In high-voltage pulsed power supply, a variety of switching devices are used, such as gas switches, liquid switches, solid switches, and plasma switches. The solid-state replacement will enhance the reliability and lifespan. Based on a high-performance solid-state switch, we developed a fully solid-state pulsed plasma power supply with high-repetition-rate, addressed issues such as signal generation, isolation, protection, and DC voltage equalization, then getting a high-voltage pulsed output with adjustable parameters of frequency and duty cycle.
Biography: Xingquan Wang was born in October 1980. He currently serves as the head of the Master's degree program in Electronic Science and Technology, the chairman of the Physics Society of Ganzhou City, and the member of the Council of Jiangxi Province's Physical Society. He received his Ph.D. degree in optics from Changchun University of Science and Technology in 2010. Following his graduation, he worked as a postdoctor in the Institute of Physics, Chinese Academy of Sciences. In 2012, he became a teacher in Gannan Normal University. He visited Australia as a government-sponsored visiting scholar at Queensland University of Technology for one year in 2016. He engaged in the fundamental research in low-temperature plasma discharge technology and electronic technology applications, publishing over 50 SCI/EI indexed papers and holding more than 30 authorized patents. He has led eight teaching and research projects at or above the provincial level, including projects funded by the National Natural Science Foundation, and has been awarded the Jiangxi Provincial Natural Science Award.

Assoc. Prof. Chuanting Zhang
Shandong University, China
Biography: Chuanting Zhang is an associate professor at Shandong University, Jinan, China. He previously worked as a senior postdoctoral researcher at the University of Bristol and a postdoctoral researcher at King Abdullah University of Science and Technology (KAUST). His research interests encompass spatiotemporal data mining and intelligent networks. He has led several projects, including those funded by national talent programs, the National Natural Science Foundation of China, and the Shandong Province Excellent Youth Science Fund Project. He has proposed a series of wireless traffic prediction algorithms, with publications in top-tier journals and conferences, including IEEE JSAC and IEEE INFOCOM. His research achievements have been recognized with awards such as the IEEE ICCT Young Scientist Award, the Shandong Province Excellent Doctoral Dissertation Award, the Excellent Doctoral Dissertation Award of the Shandong Artificial Intelligence Society, and the Best Paper Award at IEEE SmartData. He is a Senior Member of IEEE, a Member of ACM, and a committee member of the CCF Technical Committee on Network and Data Communications.
Personal Website: https://faculty.sdu.edu.cn/ctzhang

Associate Researcher Shuai Ma
Peng Cheng Laboratory, China
Speech Title: Theory and Key Technologies of
Reliable Semantic Communication for 6G
Abstract: Semantic
communication focuses on semantic-level representation and
transmission of information, which provides a potential solution
for the sustainable development of 6G. However, its practical
applications are facing serious challenges , such as the lack of
semantic channel capacity theory and low reliability of the
target semantic information extraction and transmission. To
address the above challenges, we derived a semantic channel
coding theorem, proposed a robust information bottleneck theory
, proposed an Alpha-Beta-Gamma (ABG) formula to model the
relationship between the end-to-end measurement and SNR, and
developed a semantic feature division multiple access (SFDMA)
paradigm for multi-user semantic networks.
Biography: Shuai Ma received the B.S. and Ph.D. degrees in communication and information systems from Xidian University, Xi'an, China, in 2009 and 2016, respectively. From 2014 to 2015, he was a Visiting Scholar with the Department of Electrical and Computer Engineering, Texas A&M University, College Station, TX, USA. From 2016 to 2019, he has been an associate Professor with the School of Information and Control Engineering, at the China University of Mining and Technology, Xuzhou, China. From 2019 to 2022, he worked as a Postdoctoral Fellow with Telecom Paris, France. Since 2023, he has been an Associate Researcher at Peng Cheng Laboratory, Shenzhen, China. His research interests include semantic communications, visible light communications, and network information theory.

Assoc. Prof. Mingjie Shao
Academy of Mathematics and Systems Science, Chinese Academy of Sciences, China
Speech Title: Quantized Signal Processing in
Massive MIMO: Identifiability, Optimization, and Deep Learning
Algorithms
Abstract: In this talk, we introduce quantized
signal processing in massive MIMO systems, driven by the need to
use low-resolution DACs/ADCs to reduce power consumption.
However, coarse quantization results in the loss of amplitude
information from communication signals, making signal estimation
and detection challenging. We present formulations for
maximum-likelihood estimation (MLE) and discuss the associated
challenges with integrals and nonsmooth objective functions.
Identifiability conditions for quantized signal sensing are
introduced, quantifying the relationship between the number of
measurements and the parameter dimension. Then, we propose novel
global optimization algorithms for both signal detection and
channel estimation. To enhance performance and efficiency, we
incorporate a deep unfolding adaptation, supported by a
theoretical analysis of the activation function. Simulation
results demonstrate the effectiveness of our approaches.
Biography: Mingjie Shao received a bachelor’s degree from Xidian University, China, in 2015, as part of the “Excellent Engineer Education Program.” In 2020, he earned a Ph.D. in Electronic Engineering from the Chinese University of Hong Kong, supported by the “Hong Kong PhD Fellowship Scheme (HKPFS)” under the supervision of Prof. Wing‑Kin Ma (IEEE Fellow). From 2020 to 2023, he worked as a postdoctoral researcher in the Department of Electronic Engineering at the Chinese University of Hong Kong. He was then a Professor, awarded “Qilu Young Scholar”, in the School of Information Science and Engineering at Shandong University during 2023‑2024. Currently, he is an Associate Professor in the State Key Laboratory of Mathematical Sciences, Academy of Mathematics and Systems Science (AMSS), Chinese Academy of Sciences (CAS), and has been awarded the “Chen Jingrun Future Star.”
His main research interests include: 1) Signal processing for wireless communication; 2) Optimization and statistical methods in signal processing and machine learning; 3) Cross‑disciplinary research in deep learning and signal processing. In recent years, he has published over 40 SCI/EI papers in top journals and conferences such as IEEE TSP、IEEE JSTSP、IEEE TIFS and IEEE ICASSP. Several of his papers have been recognized multiple times in the “Top 50 Popular Articles” list of IEEE journals.

Assoc. Prof. Qiang
He
Northeastern University, China
Biography: Qiang He received the Ph.D. degree
in computer application technology from the Northeastern
University, Shenyang, China in 2020. He also worked with School
of Computer Science and Technology, Nanyang Technical
University, Singapore as a visiting PhD researcher from 2018 to
2019. He is currently an Associated Professor at the College of
Medicine and Biological Information Engineering, Northeastern
University, Shenyang, China. His research interests include
machine learning, social network analytic, data mining, health
care, infectious diseases informatics, etc. He has published
more than 70 journal articles and conference papers, including
IEEE Transactions on Knowledge and Data Engineering, IEEE
Transactions on Neural Networks and Learning Systems, IEEE
Transactions on Cybernetics, IEEE Transactions on Cloud
Computing, IEEE Transactions on Computational Social Systems,
IEEE Transactions on Cognitive and Developmental Systems.
Qiang He is with the School of Medicine and Biological
Information Engineering, Northeastern University, Shenyang
110169, China, e-mail:
heqiang@bmie.neu.edu.cn

Assoc. Prof. Xiangping Zhai
Nanjing University of Aeronautics and Astronautics, China
Biography: Dr. Xiangping Bryce Zhai is currently an Associate Professor at Nanjing University of Aeronautics and Astronautics, China. He received his PhD from City University of Hong Kong in 2013. His research interests include the Internet of Intelligent Things, edge computing, resource optimization, communication networks, and smart cooperation. He has published over 60 relevant papers in international journals such as JSAC, TON, TMC, TCOM, and TWC. He has received several awards, including the Second Prize for Young Science and Technology from the Jiangsu Association for Information Technology Applications, the China’s Top 100 Most Influential International Academic Papers Award, and Outstanding Teacher Award for Computer Science Majors in Colleges and Universities by the Ministry of Education. Meanwhile, he has participated in many national and Jiangsu provincial key R&D plans, National Natural Science Foundation, Civil Aviation Administration of China, and other projects.

Assoc. Prof. Wei Yang
Shenzhen Technology University, China
Biography: Wei Yang, Ph.D., Associate Professor of Engineering, IEEE Member. He received the Ph.D. degree in information and communication engineering from Beijing University of Posts and Telecommunications (BUPT), Beijing, China. He was also a Research Fellow with the State Key Laboratory of Networking and Switching Technology, BUPT, China. He has served as the TPC of IEEE ICCT (2021-2024), the Session Chair of IEEE WCCCT 2025, and also served as a reviewer for multiple well-known international academic journals and conferences. His research interests include intelligent wireless communication, cyber-physical system, information security and fusion.

Assoc. Prof. Liwei Yang
China Agricultural University, China
Speech Title: State-Aware Multi-Service
Scheduling for VLC/WiFi Heterogeneous Networks Based on
Reinforcement Learning(SMASS-QL)
Abstract: Addressing the
challenges of fairness, latency, and throughput balancing in
multi-service scheduling within VLC/WiFi heterogeneous networks,
as well as the limited adaptability of existing algorithms, this
paper proposes a state-aware multi-service scheduling algorithm
(SMASS-QL) based on reinforcement learning. This algorithm
models the scheduler as an agent, constructing a state space by
discretizing queue head delay urgency, queue congestion status,
and channel quality. It integrates four classical scheduling
strategies to form the action space and designs a composite
reward function incorporating incentive mechanisms, achieving
dynamic optimization through Q-Learning. Simulation results
demonstrate that SMASS-QL maintains a Jain fairness index
consistently above 0.985, achieves average packet delays as low
as 0.004–0.008 ms, and attains a system throughput approaching
4000 Mbps. By ensuring fairness and low latency while
sacrificing only minimal throughput, it provides an efficient
solution for resource scheduling in heterogeneous networks.
Biography: Dr. Liwei Yang, professor of China Agricultural University. She received the B.E. degree in Telecommunication Engineering from Chongqing University of Posts and Telecommunications, China, and the Ph.D. degree in Information and Communications Engineering from Beijing University of Posts and Telecommunications, China. From 2009 to 2011, she was a Postdoctoral Research Fellow with the Department of Electronic Engineering, Tsinghua University, China. In 2015, she joined the faculty of the College of Information and Electrical Engineering, China Agricultural University. Her research interests include optical networks, optical wireless communications and visible light communication. She participated in a number of national projects and published more than 100 papers. She served as a TPC member of several international academic conferences and a reviewer for several international journals.

Assoc. Prof. Danyang
Zheng
Southwest Jiaotong University, China
Biography: Dr. Danyang Zheng is an Assistant Professor at Southwest Jiaotong University. He serves as a Young Editorial Board Member for the journal Big Data Mining and Analytics (Impact Factor: 7.7, SCI Q1 Top). He earned his Bachelor's degree in Computer Science and Technology from the University of Electronic Science and Technology of China in 2016. As a China Scholarship Council awardee, he pursued his PhD at Georgia State University under the supervision of Professor Yi Pan and Professor Xiaojun Cao. He received his doctorate in May 2021, graduating as Outstanding PhD Graduate (top-ranked among 400+ candidates). In August 2021, he joined Soochow University as a University Distinguished Young Scholar. Since January 2023, he has held his current position at Southwest Jiaotong University. He has published over 60 high-impact SCI/EI papers in leading venues including IEEE/ACM ToN, IEEE TDSC, IEEE TCoM, IEEE TNSM, IEEE TCE, IEEE TNSE, IEEE Internet of Things Journal, Computer Networks,IEEE INFOCOM,IEEE ICC,IEEE GLOBECOM, IEEE ICCCN, WCCCT, ICCC. He also serves as the software testing skill competition manager for WorldSkill 2026 Shanghai.

Assoc. Prof. Chengzong Peng
Chengdu University of Information Technology, China
Speech Title: k-Connected Slice
Protection for Heterogeneous Concurrent Attacks on AIGC
Services
Abstract: Artificial Intelligence Generated
Content (AIGC) services offer significant advantages in
enhancing creativity, optimizing decision-making, and reducing
costs. However, the inherent complexity of AIGC deployment,
coupled with the diversity and dynamism of attack vectors,
poses major challenges to traditional security mechanisms.
Among these challenges, heterogeneous concurrent attacks,
which target multiple different types of objectives
simultaneously, represent the greatest threat. To address this
issue, we propose the k-connected AC Slice (KS) strategy, a
specialized security architecture designed to resist such
attacks while minimizing resource overhead. We formulate this
security configuration task as the AIGC Component Security
Deployment (ACSD) problem and prove it's NP-hard. To solve the
ACSD problem, we introduce a novel optimization algorithm, the
Bandwidth-optimized KS Deployment (BKS-D) heuristic.
Representative simulations are conducted to evaluate the
proposed algorithm, benchmarking it against the SACD and SFSE
algorithms across multiple performance metrics. The
experimental results demonstrate that the proposed BKS-D
algorithm significantly
outperforms state-of-the-art
methods in both protection effectiveness and bandwidth
resource consumption.
Biography: Chengzong Peng, Ph.D., Associate professor, IEEE member, CCF member. His research focuses on network reliability, cyberspace security, artificial intelligence. He has published over 30 SCI/EI papers, including IEEE INFOCOM, IEEE TNSM, IEEE IoTJ, and Computer Networks. He is currently leading/working on multiple national and provincial-level scientific research projects. He is serving as the TPC of ICNC 2025, and has served as the Session Chair of WCCCT 2024, WCCCT 2025, and the Talk Chair of ACM TURC 2024. He has also served as a reviewer for multiple well-known international academic journals and conferences, such as Big Data Mining and Analytics, Expert System with Applications, and Computer Network.

Assoc. Prof. Dongyang Li
China University of Petroleum (Huadong), China
Biography: Dongyang Li is currently an Associate Professor with the College of Oceanography and Space Informatics, China University of Petroleum (Huadong). He received the Ph.D. degrees in information and communication engineering from the School of Information Science and Engineering, Shandong University, Jinan, China, in 2023. He is also with the Shandong Key Laboratory of intelligent Communication and Sensing-Computing Integration, China. He has served as TPC members of ICC'25, ICCC'25. His research interests include AI-enhanced wireless communications, edge computing/caching and UAV Communications.

Assoc. Prof. Azhar Imran
Beijing University of Technology, China
Speech Title: Computational Intelligence in
Healthcare: Navigating hope vs hype in China
Abstract:
Computational Intelligence (CI) has emerged as a transformative
force in healthcare, promising unprecedented advances in
diagnosis, treatment, and personalized medicine. Techniques such
as machine learning, deep learning, natural language processing,
and evolutionary algorithms are redefining how clinicians
interpret medical data and make decisions. However, alongside
the optimism lies considerable hype exaggerated claims, ethical
concerns, data biases, and limited clinical validation that
often hinder real-world impact. This speech, Computational
Intelligence in Healthcare: Hope vs. Hype, explores the fine
balance between technological promise and practical limitations.
It highlights success stories in predictive diagnostics, drug
discovery, and medical imaging while critically addressing
challenges related to data quality, model interpretability,
regulatory compliance, and patient trust. The discussion aims to
separate genuine innovation from inflated expectations, urging
researchers and policymakers to adopt a responsible,
evidence-driven approach to integrating CI into healthcare
systems. Ultimately, the talk emphasizes that the true hope of
computational intelligence lies not in replacing clinicians but
in empowering them through transparent, ethical, and
human-centered AI.
Biography: Dr. Azhar Imran is an Associate Professor of Computer Science at Beijing University of Technology (BJUT), China, and a Senior Member of IEEE. He has over 13 years of academic and research experience in Artificial Intelligence, Data Science, and Machine Learning, with a strong focus on AI-driven healthcare and cybersecurity applications. Dr. Imran has published over 85 research articles in reputed international journals and conferences and has delivered keynote speeches at prestigious AI and biomedical events. He has received several awards, including the Outstanding Graduate Award, Best Researcher Award, and the Embassy Honored Award from the Pakistan Embassy in Beijing. His current research explores explainable AI, multimodal medical imaging, and computational intelligence frameworks for disease prediction and early diagnosis. More about his work can be found at https://sites.google.com/view/azharimran.

Assoc. Prof. Hongwei Wang
University of Electronic Science and Technology of China, China
Speech Title: Compressive Near-Field Wideband
Channel Estimation for THz Extremely Large-scale MIMO Systems
Abstract: We consider the channel acquisition problem for a
wideband terahertz (THz) communication system, where an
extremely large-scale array is deployed to mitigate severe path
attenuation. In channel modeling, we account for both the
spherical wavefront and beam-splitting phenomena of the wideband
near-field channel. We propose a frequency-independent
orthogonal dictionary that generalizes the standard discrete
Fourier transform (DFT) matrix by introducing an additional
parameter to capture near-field effects. This dictionary enables
an efficient two-dimensional (2D) block-sparse representation of
the wideband near-field channel. By leveraging this structured
sparsity, the wideband near-field channel estimation problem can
be effectively solved within a customized compressive sensing
framework. Numerical results demonstrate the significant
advantages of our proposed 2D block-sparsity-aware method over
conventional polar-domain-based approaches for near-field
wideband channel estimation.
Biography: Hongwei Wang received the B.S. and
Ph.D. degrees from Northwestern Polytechnical University, Xi’an,
China, in 2013 and 2019, respectively. From December 2019 to
July 2024, he was a Post-Doctoral Researcher with the University
of Electronic Science and Technology of China, where he is
currently an Associate Professor. His research interests include
statistical signal processing, compressed sensing and sparse
theory, and mmWave/THz wireless communications.

Lecturer Ruihong
Jiang
Beijing University of Posts and Telecommunications,
China
Speech Title: Spaceborne Reconfigurable
Intelligent Surface-Enabled Reflective Communications: Modeling
and Performance
Abstract: As satellite networks evolve
toward 6G integration, Reconfigurable Intelligent Surface
(RIS)-enabled spaceborne reflective communication has emerged as
a transformative paradigm to enhance coverage and energy
efficiency through intelligent, passive signal reflection from
orbit. This talk explores the theoretical foundations and
performance benchmarks of such systems. We begin by establishing
a robust channel model tailored to the unique orbital dynamics
and atmospheric propagation constraints of space-to-ground
links. Based on this, we derive closed-form outage probability
expressions and characterize fundamental performance limits for
multi-user scenarios under random channel realizations.
Furthermore, we address practical implementation challenges,
particularly performance degradation under imperfect channel
state information, and discuss how AI-driven channel prediction
can mitigate these effects. We also outline emerging
opportunities in multi-satellite cooperative RIS networks as a
key direction for future research. This session aims to provide
a comprehensive roadmap for deploying RIS in next-generation
satellite constellations.
Biography: Ruihong Jiang received the Ph.D. degree from the School of Computer and Information Technology, Beijing Jiaotong University (BJTU), Beijing, China, in 2021. She has been a lecturer at Beijing University of Posts and Telecommunications since 2022. Her current research interests include satellite/UAV communications, AI-assisted communication, reflection communication, and wireless power transfer communication. She leads a National Natural Science Foundation of China (NSFC) Young Scientists Fund project and has participated in multiple national key projects. She has published over 30 papers and received Best Paper Awards at IEEE PACRIM 2024, IEEE ICC 2021, and CIEIT 2018. She is the author of one academic monograph and holds two granted patents. She serves as Guest Editor for the journal Electronics, Chair of IEEE ICCC ws 2024, and TPC member for IEEE PACRIM 2024 and ICCC 2024, and regularly reviews for leading IEEE journals, including IEEE TWC, IEEE TCOM, and IEEE JSAC, as well as flagship conferences such as IEEE Globecom and IEEE ICC.

Lecturer Jiachi Zhang
Shandong
Police College, China
Biography: Dr. Jiachi Zhang received the
B.Sc., M.Eng., and Ph.D. degrees in Communication Engineering
and Communication and Information Systems from Beijing Jiaotong
University, Beijing, China, in 2013, 2016, and 2023,
respectively. He is currently a lecturer with the School of
Police Information at Shandong Police College (SDPC), where he
teaches cybersecurity and law enforcement–related courses. He
concurrently serves as a police officer within the Shandong
public security system. He is also affiliated with the Low
Altitude Safety Research Institute and the Shandong Engineering
Research Center for Deterministic Network Information Security
at SDPC.
Dr. Zhang has authored more than 30
peer-reviewed papers as the first author in leading journals and
conferences, including IEEE Transactions on Antennas and
Propagation, IEEE Transactions on Vehicular Technology, and IEEE
International Conference on Communications, etc. He also holds 9
granted Chinese invention patents (as an inventor or
co-inventor). He has served as a principal researcher in
sub-projects of national key R&D programs, projects funded by
the National Natural Science Foundation of China, the Beijing
Natural Science Foundation, and open research projects of
national key laboratories. He has been invited to deliver
presentations at international academic conferences. In 2025, he
received the Second Prize of the Shandong Province Science and
Technology Progress Award as a contributing member.
His
current research interests focus on wideband channel measurement
and modeling for mobile communication systems, including
satellite communications, vehicular communications, high-speed
railway communications, unmanned aerial vehicle communications,
and advanced signal processing techniques.

Asst. Prof. Pan Yi
Shenzhen Technology University, China
Biography: Dr. Pan Yi is an Assistant
Professor at Shenzhen Technology University, with a doctoral
degree in Engineering and postdoctoral research experience at
Tsinghua University.
His research focuses on IoT systems,
image and positioning perception processing algorithms, and
lightweight deployment and optimization of edge AI models. He
has published over 10 academic papers in domestic and
international journals and conferences, and delivered oral
presentations at multiple international conferences. He has
presided over and completed projects including an edge AI box
for smart logistics canteen supervision, a multi-modal fusion
safe driving vehicle-mounted system, WiFi/UWB-based positioning
algorithms, and the eNDOS collaborative IoT operating system.
The achievements of these projects have achieved industrial
transformation with a scale of over 10 million yuan.

Asst. Prof. Chen Yang
Southwest
Jiaotong University, China
Speech Title: Communication-Efficient
Satellite-Ground Federated Learning
Abstract: With the
explosive growth of Low Earth Orbit satellite constellations,
Earth observation systems are generating massive volumes of
data. However, limited bandwidth, short communication windows,
and bursty packet loss make the traditional
“sense-then-transmit” paradigm increasingly inefficient.
Satellite–Ground Federated Learning enables collaborative
onboard model tuning on resource-constrained satellites, but its
performance is fundamentally restricted by communication
bottlenecks. To overcome these limitations, we propose a
communication-efficient and packet-loss-tolerant SGFL framework
that improves both efficiency and robustness. The framework
integrates bandwidth-aware progressive quantization with
loss-aware parameter chunking and scheduling. By adaptively
assigning heterogeneous bit-widths to model blocks and
dynamically coordinating transmission with predicted stable link
windows, our approach maximizes bandwidth utilization while
mitigating bursty packet loss. Extensive experiments show that
our method accelerates convergence by up to 2.8× under bandwidth
constraints, improves accuracy by 9%–38% in lossy scenarios, and
reduces overall completion time by up to 20× compared with
baselines.
Biography: Chen Yang received Ph.D. degree in computer science at the State Key Laboratory of Networking and Switching Technology, Beijing University of Posts and Telecommunications, in 2025. Currently, he is an assistant professor in School of Computing and Artificial Intelligence, Southwest Jiaotong University. He has published papers in Mobicom, TMC, TSC, etc. His research interests include edge intelligence, federated learning and service computing. He serves as a TPC member for the International Conference on Network and Parallel Computing, and acts as a reviewer for leading international journals/conferences, including IEEE Transactions on Mobile Computing, IEEE Transactions on Services Computing, IEEE International Conference on Web Services.

Prof. Qian Sun
China Waterborne Transport Research Institute, Ministry of Transport, China
Speech Title: Development of Maritime Radio
Communication and Navigation Technology and International
Compliance
Abstract: Addressing the special topic of
"Maritime Communication, Sensing, and Computing Integration" at
the 2026 IEEE WCCCT, this paper systematically analyzes the
evolution path and international compliance practices of
maritime radio communication and navigation technologies. The
report focuses on the technical substance of the VHF Data
Exchange System (VDES) amendments (expected to enter into force
in 2028) and the new performance standards (MSC.511/512) for
MF/HF and VHF equipment. Targeting the formulation of
performance standards for Dual-Frequency Multi-Constellation
Satellite-Based Augmentation Systems (DFMC SBAS) and Advanced
Receiver Autonomous Integrity Monitoring (ARAIM), which are set
to be initiated at NCSR 13 in 2026, the paper discusses
technical upgrade directions for shipborne satellite navigation
receivers combined with the application of the BeiDou System
(BDS). Simultaneously, it interprets the Guidelines for Software
Maintenance of Shipborne Communication and Navigation Equipment,
which is to be submitted by the International Maritime
Organization (IMO) for consideration at MSC 111 in May 2026,
analyzing key compliance points regarding remote maintenance,
cybersecurity, and lifecycle management. Furthermore, in
conjunction with maritime radio spectrum planning and the
International Telecommunication Union (ITU) framework, the paper
dissects the practical challenges of equipment type approval and
multi-standard compliance (e.g., IEC 60945, FCC Part 80), and
proposes an integrated solution for communication and navigation
systems incorporating edge computing and the Marine Internet of
Things (MIoT). Finally, the paper shares China's practical
experience in standardization under the frameworks of the IMO
and the International Association of Marine Aids to Navigation
and Lighthouse Authorities (IALA), providing a technical path
and implementation reference for the global shipping industry to
address digital transformation and international compliance.
Biography: Dr. Sun Qian, female, graduated
from Beihang University in 2012. She is currently a Chief
Research Fellow at the China Waterborne Transport Research
Institute, Ministry of Transport. She also serves as a member of
the Leading Group for Radio Management of the Ministry of
Transport, a member of the Maritime Communication Counterpart
Group of the Ministry of Industry and Information Technology,
and a member of the National Technical Committee on BeiDou
Satellite Navigation Standardization. She has long been involved
in meetings of international organizations such as the
International Maritime Organization (IMO), the International
Association of Marine Aids to Navigation and Lighthouse
Authorities (IALA), and the International Telecommunication
Union (ITU), responsible for issues related to maritime
communication, navigation, and information security.
She
currently serves as Vice Chair of the IALA Engineering Committee
on Navigation. She is also a member of the Sub-committee on
International Maritime Safety of Navigation, Communications and
Search and Rescue, the Sub-committee on Maritime Radio
Communication, the Sub-committee on Satellite Technology
Application, the Sub-committee on Navigational Warnings, and the
Aids to Navigation Sub-committee of the Ministry of Transport.
Her main research interests include satellite communication and
navigation technology for waterborne transport, maritime
navigation safety supervision and guarantee technology, BeiDou
application and internationalization in waterborne transport,
international rules and coordination for maritime navigation,
and new-generation waterborne dedicated digital communication.
She has presided over or participated in more than 60 national
and ministerial-level research projects, won 3 first prizes, 2
second prizes, and 1 third prize of ministerial-level science
and technology awards. She has published more than 30 academic
papers, presided over the formulation of 13 international
standards and 8 national standards, and obtained 13 authorized
national invention patents.

Dr. Yanqing Xu
The Chinese University of Hong Kong, Shenzhen, China
Speech Title: Environment-Aware Network-Level
Design for Generalized Pinching-Antenna Systems
Abstract:
Generalized pinching-antenna (GPA) systems enable a
reconfigurable radiation point along a guided medium, offering a
new degree of freedom beyond conventional fixed-aperture
deployments. While most existing studies focus on link-level
optimization for quasi-static users, such designs typically
require frequent re-computation as users move or enter/leave the
network, and they do not directly capture area-oriented
objectives (e.g., region-wide coverage and hotspot service) that
evolve on a longer time scale. This talk presents an
environment-aware, network-level design framework for GPA
systems that shifts the objective from serving specific
instantaneous users to shaping area coverage and hotspot service
over longer time scales. In particular, we consider two
representative settings: traffic-aware and geometry-aware. In
the traffic-aware case, we model spatial demand using slowly
varying hotspot profiles and optimize the activation/positioning
of pinching points to align the radiated energy with traffic
intensity, together with resource allocation to balance hotspot
performance across the service region. In the geometry-aware
case, we incorporate site-map information such as obstacles and
visibility constraints into the network metric, and optimize
pinching-point deployment to mitigate blockage-induced coverage
holes. For each setting, we formulate a network-level
optimization problem, develop low-complexity
structure-exploiting algorithms, and quantify the
performance–overhead tradeoff associated with antenna
reconfiguration. Simulation results demonstrate that
environment-aware GPA design can substantially improve
region-wide coverage and hotspot service quality compared to
fixed-aperture baselines and user-driven link-level heuristics,
especially in obstructed environments or highly non-uniform
traffic scenarios.
Biography: Yanqing Xu received the Ph.D. degree in communication and information system from the State Key Laboratory of Rail Traffic Control and Safety, Beijing Jiaotong University, Beijing, China, in 2019. He was a senior engineer with Huawei Technologies Company Ltd., from July 2019 to July 2020. From September 2020 to August 2022, he was a PostDoc researcher with The Chinese University of Hong Kong, Shenzhen, where he is currently working as a research assistant professor. He is also with the Shenzhen Research Institute of Big Data. Dr. Xu’s current research interest lies in distributed signal processing algorithm designs for large-scale antenna systems. Dr. Xu served as a special session co-organizer and chair in IEEE SPAWC 2024. He was a recipient of the Shenzhen Overseas High-Caliber Personnel, and the Top 3% Paper Recognition of the IEEE ICASSP 2023. Several of his research outcomes have been successfully deployed in Huawei’s base stations, for which he has received the Huawei Technical Cooperation Achievement Transformation Award (1st Prize) in 2024, the Huawei Wireless Product Line Outstanding Technical Cooperation Project Award in 2024, and the Huawei Technical Cooperation Achievement Transformation Award (2nd Prize) in 2022. He is currently serving on the Editorial Board of EURASIP Journal on Wireless Communications and Networking.

Senior Engineer Kaikai
Liu
Chongqing University of Posts and Telecommunications, China
Speech Title: Millimeter-Wave ISAC for
Millimetre-Level Deformation Monitoring and Landslide Early
Warning
Abstract: A narrowband millimeter-wave ISAC
system is proposed for micro-deformation monitoring and
landslide early warning. Unlike wideband radars, the proposed
system operates with only ~200 MHz bandwidth yet achieves
sub-millimeter precision (~0.5 mm @ 100 m) through advanced OFDM
carrier-phase estimation. A robust signal processing pipeline
that includes CSI correction, coarse displacement estimation,
and fine interferometric recovery with atmospheric phase
compensation overcomes the centimeter-level limit of traditional
narrowband systems. Based on spatio-temporal displacement maps,
a dual-CNN model is employed to perform risk classification for
early warning. The proposed system is 5G-compatible, low-cost,
and scalable, enabling real-time monitoring in landslides,
mining, and critical infrastructure where detecting
millimeter-level deformation can prevent catastrophic failures.
Biography: Kaikai Liu is a Doctoral
Supervisor and Senior Engineer at Chongqing University of Posts
and Telecommunications (CQUPT), China. He obtained his doctoral
degree from CQUPT.
With long-term dedication to the field of
mobile communications, he has solid industry-academia-research
integration experience. He previously held positions at Datang
Mobile Communications Equipment Co., Ltd. and China Mobile Group
Design Institute Co., Ltd. Chongqing Branch. His current
research interests focus on wireless sensing, integrated
communication and sensing, and the Internet of Things (IoT).
He has led a series of research projects, including one General
Program of the National Natural Science Foundation of China, one
Key Program of the Natural Science Foundation of Chongqing, and
multiple horizontal projects. He has published over 40 papers
indexed by SCI/EI, been granted multiple invention patents, and
participated in the formulation of 2 group standards.

Dr. Feng Wang
Singapore University of Technology and Design, Singapore
Speech Title: Non-Terrestrial Networking:
Evolution, Opportunities, and Future Directions
Abstract:
From 5G onward, Non-Terrestrial Networks have emerged as a
foundational element of future global networking
infrastructures. Powered by large-scale Low Earth Orbit
satellite constellations, NTNs are transforming satellites from
isolated communication platforms into a fully connected space
Internet, enabling seamless coverage across land, sea, air, and
remote regions. However, building such a highly dynamic,
large-scale satellite network introduces profound networking
challenges. The rapid movement of LEO satellites, frequent
topology changes, and heterogeneous service demands
fundamentally reshape how NTN connectivity should be designed.
In this speech, I will discuss NTN evolution from a networking
perspective, highlighting key mechanisms in radio resource
management, mobility-aware networking, and dynamic network
slicing for 6G systems. Finally, I will outline open research
challenges and future directions toward scalable, resilient, and
intelligent NTN architectures.
Biography: Feng Wang
received the B.S. and Ph.D. degrees from University of
Electronic Science and Technology of China (UESTC) in 2016 and
2022, respectively. He is currently a Research Fellow with
Information Systems Technology and Design Pillar at the
Singapore University of Technology and Design (SUTD), Singapore.
His research interests include non-terrestrial networking (NTN),
satellite mobility management, and NTN service orchestration. He
was a keynote speaker at SIMUtools 2020 and a tutorial speaker
at ICCT 2024, 2025. He received the Best Paper Award at
SIMUtools 2019. He has orgnized multiple NTN-related symposia
and workshops at international conferences. He served as a Guest
Editor of Electronics and is currently a member of Youth
Editorial Board of Journal of Information and Intelligence
(JII).

Dr. Xiangyi Chen
Southwest Jiaotong
University, China
Speech Title: Model Migration in Digital
Twin-Empowered Vehicular Edge Computing
Abstract: The
accuracy of digital twin models hinges on the prompt collection
of information from the vehicular environment. However, the high
mobility of vehicles and the dynamically changing network
environment pose significant challenges. Dynamic twin model
migration can reduce the Age of Information (AoI) by bringing
twin models closer to their vehicles. Existing works rarely
consider the inherent differences in optimization cycles between
digital twin model migration and data upload, which potentially
leads to suboptimal cost efficiency and information freshness.
Specifically, real-time vehicular data must be rapidly uploaded
to edge servers to ensure the accuracy and timeliness of digital
twin models, while frequent migration of twin models over short
periods incurs substantial costs. Therefore, we propose a
dual-timescale bilevel learning approach, where the upper-layer
learning optimizes twin model migration decisions on a long
timescale to achieve forward-looking model migration, and the
lower-layer learning optimizes data upload and resource
allocation decisions on a short timescale to ensure the accuracy
and timeliness of digital twin models. Then, we design a
multi-agent selective parameter sharing approach based on
spatiotemporal dependency correlations to accelerate model
convergence and reduce communication costs among agents.
Moreover, through a rigorous theoretical analysis, we prove the
convergence of the dual-timescale bilevel learning with broad
applicability, and extensive experimental results demonstrate
the effectiveness of the proposed approach.
Biography: Her research interests include
multi-access edge computing, edge intelligence, and deep
reinforcement learning. She has published numerous SCI-indexed
journal and conference papers in high-impact venues such as IEEE
Journal on Selected Areas in Communications (JSAC), IEEE
Transactions on Mobile Computing (TMC), IEEE Transactions on
Computers (TC), IEEE Transactions on Services Computing (TSC),
IEEE Transactions on Network Science and Engineering (TNSE),
IEEE Internet of Things Journal (IoTJ), IEEE Systems Journal
(SJ), and IEEE Global Communications Conference (GLOBECOM).
She has led several research projects, including the National
Natural Science Foundation of China, the China Postdoctoral
Science Foundation, the Natural Science Foundation of Sichuan
Province, and the Fundamental Research Funds for the Central
Universities. She also participates in major national-level
programs such as the National Key R&D Program of China and the
National Natural Science Foundation of China (NSFC).
She
serves as a TPC member for the 23rd IEEE International
Conference on Ubiquitous Computing and Communications (IUCC 2024
Workshop) and acts as a reviewer for leading international
journals, including IEEE Transactions on Mobile Computing (TMC),
IEEE Transactions on Wireless Communications (TWC), IEEE
Transactions on Network Science and Engineering (TNSE), IEEE
Transactions on Vehicular Technology (TVT), and IEEE Network.

Asst. Prof. Xiaoyi Wang
Sichuan
University of Media and Communications, China
Speech Title: Design and Implementation of an
LLM-Based Prompt Chain Framework for Automated Econometric
Analysis: A Case Study in Corporate Sustainability
Abstract: Large Language Models (LLMs) are accelerating the
democratization of complex data analytics, yet deploying them
for rigorous econometric tasks remains a significant challenge
due to computational inconsistencies. This study proposes and
implements a novel, automated analytical framework based on
Prompt Chain Engineering. Utilizing corporate sustainability
data (ESG and green innovation) as a complex, high-dimensional
testbed, we design a systematic, multi-stage prompt workflow.
This pipeline automates data preprocessing, statistical
computation, and complex quantitative modeling without relying
on traditional econometric programming. The established
framework explicitly defines operational pipelines,
context-aware prompt templates, and reasoning constraints. To
rigorously evaluate the system's reliability, we benchmark the
LLM-generated outputs against standard Stata software results.
Experimental validation confirms strong alignment in core
metrics, including coefficient estimation, significance levels,
and robustness checks, thereby demonstrating the framework's
computational accuracy. Furthermore, the system extends
traditional analytical boundaries by integrating an automated
semantic generation module that translates numerical outputs
into professional economic interpretations. This dual
capability—statistical consistency paired with automated
interpretive depth—proves that structured prompt engineering can
effectively transform LLMs into highly reliable, accessible, and
end-to-end analytical engines for complex domain data.
Biography: Xiaoyi Wang is an Assistant Professor at the School of Communication, Economics & Management, Sichuan University of Media and Communications. She earned her Bachelor's degree in Financial Management from Sichuan Normal University in 2017, followed by a Master's in Agricultural Management from Sichuan Agricultural University in 2022, and a Ph.D. in Management from Angeles University Foundation in 2024. Her research focuses on applying artificial intelligence and machine learning to risk prediction and financial investment, including related areas like AI tool implementation and prompt chain design. Dr. Wang has led and participated in multiple research projects at the provincial and municipal levels in Sichuan, and has contributed to several textbook compilations. Additionally, she serves as a reviewer for international academic journals.