Ms. Runjie Wang | Photogrammetry and Remote Sensing | Best Researcher Award

Ms. Runjie Wang | Photogrammetry and Remote Sensing | Best Researcher Award

Beijing University of Civil Engineering and Architecture | China

Ms. Runjie Wang is an associate researcher specializing in photogrammetry and remote sensing, with a focus on high-precision and high-dynamic micro-deformation monitoring of urban infrastructure. Serving concurrently as Deputy Director of the Research Institute of Science and Technology Development at Beijing University of Civil Engineering and Architecture and Secretary of the Undergraduate Party Branch of Remote Sensing Science, she also contributes internationally as Secretary of the International Science Council GeoUnions Standing Committee on Disaster Risk Reduction. Her research centers on non-contact, high-frequency, and ultra-high-precision monitoring using ground-based SAR, addressing long-standing challenges in atmospheric disturbance correction, noise separation, and micro-deformation signal reliability for existing bridges and high-rise buildings. Through innovative atmospheric parameter optimization techniques, progressive denoising strategies, and a high-dynamic structural damage detection model based on instantaneous frequency–total energy integration, she has advanced methods for precise decomposition of linear and nonlinear vibrations and significantly improved the credibility of structural health assessments. Ms. Wang has independently led multiple research projects, including a national natural science foundation youth program, open laboratory funding, institutional capacity-building grants, and industry collaborations, contributing to a cumulative funding portfolio of over half a million RMB. Her academic output includes 17 peer-reviewed publications in journals such as Measurement, ISPRS International Journal of Geo-Information, and Remote Sensing, with 12 SCI papers as first or corresponding author, as well as three granted invention patents and one monograph. Her scholarly influence is evidenced by 90 citations, 77 citing documents, 35 total publications, and an h-index of 6, reflecting the growing recognition of her contributions to urban infrastructure monitoring and remote sensing methodology. A recipient of a competitive young talent support honor, Ms. Wang continues to advance high-dynamic remote sensing technologies that enhance the safety, reliability, and cost-effectiveness of critical urban infrastructure monitoring.

Profile: Scopus

Featured Publications

 Subway line settlement monitoring and analysis based on PS-InSAR technology and wavelet packet decomposition

 Phase noise model construction and denoising method for dynamic infrastructure measurement in 5G base station

 Real-time bridge dynamic deflection monitoring using 5G-integrated sensing and communication

Dr. Xiaochao LI | Renewable Energy Technologies | Best Researcher Award

Dr. Xiaochao LI | Renewable Energy Technologies | Best Researcher Award

China Institute of Water Resources and Hydropower Research | China

Dr. Xiaochao Li is an emerging and multidisciplinary researcher in hydraulic and hydropower engineering, demonstrating exceptional academic achievement, technical innovation, and leadership potential. He is currently affiliated with the China Institute of Water Resources and Hydropower Research, where his work focuses on impact turbine operation characteristics, sediment erosion analysis, and intelligent construction in hydropower systems. Dr. Li earned his bachelor’s and master’s degrees in Energy and Power Engineering and Hydraulic Engineering from North China University of Water Resources and Electric Power, where he graduated with top academic rankings. His research emphasizes fluid dynamics, hydro-turbine performance, and sediment–flow interactions, contributing valuable insights to sustainable energy and water resource management. He has authored six scientific papers indexed in SCI, EI, and CSCD, accumulating nine citations from nine documents and holding an h-index of 1, reflecting the growing academic impact of his research. Beyond research, Dr. Li has participated in major projects under the National Natural Science Foundation and several industrial collaborations in hydropower development with China Three Gorges Corporation. His academic excellence has been recognized with numerous honors, including the National Scholarship for Doctoral Students, Outstanding Graduate Leader, and awards from institutions such as Tsinghua University and Beijing Normal University. A member of several prestigious organizations including the International Association for Hydro-Environment Engineering and Research (IAHR) and the Chinese Society for Hydroelectric Engineering, Dr. Li integrates engineering innovation with environmental responsibility. Through his strong foundation in both theory and practical hydropower systems, Dr. Xiaochao Li continues to advance the development of intelligent, efficient, and sustainable hydropower technologies in China and beyond.

Profile: Scopus

Featured Publications

Li, X. (2024). Advancements in cavitation and noise research of waterjet pumps. Journal of Hydraulic Engineering and Fluid Machinery.

Li, X. (2024). Analysis of the development of tidal energy and its implementation. Renewable Energy Research Journal.

Assoc. Prof. Dr. Xiao-Chen Sun | Physics and Astronomy | Best Researcher Award

Assoc. Prof. Dr. Xiao-Chen Sun | Physics and Astronomy | Best Researcher Award

Nanjing University | China

Assoc. Prof. Dr. Xiao-Chen Sun is an accomplished researcher and Associate Professor at the College of Engineering and Applied Sciences, Nanjing University, renowned for his pioneering work in topological photonic and acoustic materials. He earned his Ph.D. in Materials Science and Engineering from Nanjing University and further expanded his academic expertise through postdoctoral research at the National Institute for Materials Science (NIMS), Japan. Dr. Sun’s research focuses on exploring topological physics in artificial materials, particularly the realization of non-Abelian acoustic phases, topological slow waves, and acoustic topological alloys. His innovative studies have significantly deepened the understanding of topological behaviors in photonic and acoustic systems, providing the foundation for next-generation compact, low-loss acoustic and photonic devices. As a prolific scientist, Dr. Sun has authored 40 peer-reviewed papers, including publications in prestigious journals such as Nature Materials, Nature Communications, and Physical Review Letters. His outstanding research contributions have earned him 3,015 citations from 2,224 documents, reflecting his global academic influence and recognition, with an impressive h-index of 19. In addition, his Google Scholar h-index is 22, further attesting to the depth and consistency of his impact across multiple scientific disciplines. Dr. Sun has also led and participated in numerous research projects focusing on the development of innovative topological materials and their technological applications. His ability to combine theoretical insights with experimental realization distinguishes him as a forward-thinking scholar. Through his visionary approach and sustained excellence, Assoc. Prof. Dr. Xiao-Chen Sun continues to drive innovation in materials science and engineering, positioning himself as one of the leading figures in the emerging field of topological acoustics and photonics.

Profiles: ScopusGoogle scholar

Featured Publications

Sun, X.-C. (2024). Exploring non-Abelian topological phases in acoustic systems: Revealing novel mechanisms beyond conventional band topology. Physical Review Letters, 132, 216602.

Sun, X.-C. (2023). Exploring acoustic ideal topological insulator and topological slow-waves: Offering new routes for compact and low-loss acoustic devices. Nature Communications, 14, 952.

Mr. Cui Fangke | Agricultural and Biological Sciences | Excellence in Innovation

Mr. Cui Fangke | Agricultural and Biological Sciences | Excellence in Innovation

College of Ecology and Environment | Xinjiang University | China

Mr. Cui Fangke is a promising early-career researcher at the College of Ecology and Environment, Xinjiang University, where he holds a doctoral qualification and specializes in forest ecology and agricultural ecology. His research focuses on the ecological restoration and environmental sustainability of complex ecosystems, particularly in arid regions and subtropical coastal zones. Mr. Cui has conducted comprehensive studies on plant-soil-microbial interactions and their role in rehabilitating degraded ecosystems, contributing valuable insights into the mechanisms that support soil fertility and ecological balance. His research combines remote sensing techniques with field monitoring, offering innovative perspectives on ecosystem management and agricultural adaptation under changing climatic conditions. As the principal or co-author of significant publications in high-impact journals such as Catena and Scientific Reports, Mr. Cui’s work has attracted increasing academic attention. His recent studies include pioneering research on pioneer tree species facilitating coastal ecosystem restoration and the spatial heterogeneity of soil physical and chemical properties in coastal agricultural zones. Despite being in the early stages of his career, his scholarly output reflects a growing influence in ecological sciences, with 3 citations from 3 documents, 1 published paper, and an h-index of 1. Through his dedication to advancing ecological resilience and environmental sustainability, Mr. Cui Fangke exemplifies the qualities of an emerging leader in environmental and agricultural research, making him a commendable candidate for recognition in scientific achievement and research excellence awards.

Profile: Scopus

Featured Publications

Xiuyu, X., Cui, F., Liyong, F., et al. (2024).A pioneer  tree species rapidly facilitating ecosystem restoration in coastal regions depends on soil traits. Catena, 238, 107825.

Cui, F., Xu, X., Wang, M., et al. (2025). The spatial heterogeneity of soil physical and chemical properties and comprehensive fertility in the Leizhou Peninsula coastal region. Scientific Reports, 15, 37178.