Lijun Wang | Technology Innovations | Best Researcher Award

Published on by Technology Scientists

Best Researcher Award

Lijun Wang — Xi’an Jiaotong University, China

Lijun Wang
Affiliation Xi’an Jiaotong University
Country China
Scopus ID 57187379600
Documents 350
Citations 4,453
h-index 33
Subject Area Technology Innovations
Event Technology Scientists Awards

Lijun Wang is a researcher affiliated with Xi’an Jiaotong University whose documented scholarly record includes work involving plasma processes, magneto-hydrodynamic simulation, vacuum arcs, and related electrical and computational phenomena. The supplied academic record lists 350 documents, 4,453 citations, and an h-index of 33, providing quantitative indicators of publication activity and citation impact within the submitted profile.

Abstract

Lijun Wang, affiliated with Xi’an Jiaotong University, China, is associated with research addressing computational and physical phenomena in plasma and electrical systems. The supplied profile records 350 documents, 4,453 citations, and an h-index of 33. Selected research includes three-dimensional simulation of plasma diffusion in vacuum hydrogen ion sources, two-dimensional magneto-hydrodynamic analysis of breaking arcs in medium-voltage switchgear, and investigation of vacuum arc cathode spot crater formation using dynamic effective-radius modelling. These studies demonstrate the application of simulation and modelling approaches to technically complex problems involving plasma behaviour, switching phenomena, and vacuum arc processes.[1][2][3]

Keywords

Plasma simulation; vacuum hydrogen ion source; magneto-hydrodynamics; medium-voltage switchgear; breaking arc; vacuum arc; cathode spot; crater formation; dynamic effective radius; computational modelling; electrical engineering; technology innovations.

Introduction

Research into plasma and electrical switching phenomena combines physical modelling with numerical simulation to examine processes that are difficult to observe directly. Wang’s selected studies address plasma diffusion, breaking arcs, and vacuum arc cathode behaviour, linking computational methods with practical engineering problems in ion sources and switching equipment. [1][2][3]

Research Profile

The supplied profile identifies Lijun Wang with Xi’an Jiaotong University and the subject area of Technology Innovations. The reported bibliometric record contains 350 documents, 4,453 citations, and an h-index of 33. Selected publications indicate sustained engagement with computational analysis of plasma, arc, and switching phenomena using physics-based simulation approaches.[1][2][3]

Research Contributions

The selected research contributions concern numerical investigation of plasma and arc behaviour across different engineering settings. The reported studies examine plasma diffusion in a vacuum hydrogen ion source, breaking-arc characteristics in medium-voltage switchgear, and vacuum-arc cathode spot crater formation. Together, these topics illustrate modelling of transient physical processes relevant to electrical and plasma technologies.[1][2][3]

Publications

The supplied publication list includes studies on plasma diffusion, magneto-hydrodynamic simulation of breaking arcs, and vacuum arc cathode spot crater formation. These publications address distinct but related physical processes and employ simulation or modelling frameworks to investigate their behaviour. The topics collectively represent a research profile centred on computational analysis of complex electrical phenomena.[1][2][3]

Research Impact

The supplied bibliometric indicators report 4,453 citations across 350 documents, with an h-index of 33. These figures describe the citation and publication record provided for the researcher and should be interpreted in relation to database coverage, discipline, publication age, and citation practices. The selected studies further indicate continuing engagement with specialised computational engineering problems.[1][2][3]

Award Suitability

The submitted record provides several elements relevant to consideration for a Best Researcher Award, including substantial publication activity, reported citation impact, and an h-index of 33. The selected publications demonstrate research addressing technically specialised plasma and electrical phenomena through simulation and modelling. Final award assessment may additionally consider originality, methodological quality, contribution, and independent evaluation.[1][2][3]

Conclusion

Lijun Wang’s submitted profile combines a substantial bibliometric record with research concerning plasma diffusion, magneto-hydrodynamic arc simulation, and vacuum arc cathode phenomena. The three selected publications illustrate the use of computational approaches to examine complex physical processes. The documented record therefore provides a substantive basis for academic recognition subject to the award’s independent review criteria.[1][2][3]

References

  1. 3D simulation study on plasma diffusion process in vacuum hydrogen ion source. (n.d.). Researching.cn.
    https://www.researching.cn/articles/OJc5188649713e81e4
  2. Two-dimensional magneto-hydro-dynamic simulation of breaking arc characteristics in medium-voltage switchgear. (n.d.). Physics of Plasmas.
    https://pubs.aip.org/aip/pof/article-abstract/38/5/056116/3391645/
  3. Study of vacuum arc cathode spot crater formation with dynamic effective radius. (n.d.). Vacuum. ScienceDirect.
    https://www.sciencedirect.com/science/article/abs/pii/S0042207X26001934
  4. Elsevier. (n.d.). Scopus author details: Lijun Wang, Author ID 57187379600. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57187379600

Xinghua Zheng | Technology | Innovative Research Award

Published on by Technology Scientists

Innovative Research Award

Xinghua Zheng
University of Chinese Academy of Sciences, China

Xinghua Zheng
Affiliation University of Chinese Academy of Sciences
Country China
Scopus ID 35735654300
Documents 88
Citations 1,794
h-index 24
Subject Area Technology
Event Technology Scientists Awards

Xinghua Zheng is a technology researcher affiliated with +the University of Chinese Academy of Sciences, China. His scholarly work has contributed to advanced thermal materials, flexible sensing systems, energy transfer mechanisms, and multifunctional materials. With 88 indexed publications, 1,794 citations, and an h-index of 24, his research demonstrates substantial academic influence in emerging technology domains.[1]

Abstract

Xinghua Zheng has established an academic profile through interdisciplinary studies in thermal materials, flexible fiber sensors, directional heat transfer, and advanced porous composites. His research integrates material science, engineering design, and functional applications to address challenges in sensing technologies and energy management. The published works demonstrate innovative approaches to thermal regulation, thermal rectification, and multifunctional material systems with potential industrial and scientific applications. The researcher’s publication record, citation impact, and contributions to emerging technological fields reflect sustained scholarly productivity and international visibility within the broader technology research community.[1][2][3]

Keywords

Flexible Fiber Sensors; Thermal Management; Janus Materials; Thermal Rectification; Advanced Composites; Technology Research; Functional Materials; Energy Systems.

Introduction

Research in thermal materials and flexible sensing technologies has gained significance because of increasing demands for efficient energy systems and wearable devices. Xinghua Zheng’s work contributes to these areas through studies on functional materials, directional thermal transport, and sensor technologies, supporting advancements in modern engineering and applied sciences.[1]

Research Profile

Xinghua Zheng’s scholarly profile includes 88 indexed publications, 1,794 citations, and an h-index of 24. Affiliated with the University of Chinese Academy of Sciences, his research interests encompass flexible materials, thermal management, porous composites, and multifunctional technologies, reflecting a multidisciplinary approach to scientific investigation and technological innovation.[1]

Research Contributions

The researcher has contributed to the development of thermally drawn fiber sensors, Janus materials, and asymmetric porous structures for thermal regulation. These studies provide practical strategies for directional heat control and multifunctional sensing systems, offering valuable insights into next-generation material technologies and applications in energy and engineering domains.[1][2][3]

Publications

The publication record demonstrates consistent productivity in technology-related disciplines, particularly materials science and thermal engineering. Representative works include studies on flexible fiber sensors, directional thermal management, and Janus porous composites. These publications have appeared in reputable journals and have contributed to international scientific discussions.[1][2]

Research Impact

Citation metrics and scholarly recognition indicate that Xinghua Zheng’s research has influenced studies related to advanced materials and thermal technologies. The work supports interdisciplinary collaboration and provides scientific foundations for innovative applications in wearable devices, energy systems, and functional materials research across international academic communities.[1]

Award Suitability

Xinghua Zheng’s publication record, citation impact, and interdisciplinary contributions indicate strong alignment with the objectives of the Innovative Research Award. The demonstrated achievements in thermal materials, sensing technologies, and advanced composites reflect scientific originality and sustained contributions to technology research and practical innovation.[1]

Conclusion

The academic profile of Xinghua Zheng highlights meaningful contributions to emerging technology fields through research on thermal management and flexible materials. The combination of scholarly productivity, citation influence, and innovative research outcomes supports recognition within the Technology Scientists Awards and reflects continued advancement in scientific research.[1]

References

  1. Zheng, X., et al. (2025). Thermally drawn flexible fiber sensors: Principles, materials, structures, and applications. Nano-Micro Letters, 17, Article 184.
    https://link.springer.com/article/10.1007/s40820-025-01840-y
  2. Zheng, X., et al. (2026). Dual Janus foam for directional thermal management. Nature Communications, 17.
    https://www.nature.com/articles/s41467-026-69140-6
  3. Zheng, X., et al. (2025). Janus particles stabilized asymmetric porous composites for thermal rectification. Nature Communications, 16.
    https://www.nature.com/articles/s41467-025-60792-4
  4. Elsevier. (n.d.). Scopus author details: Xinghua Zheng, Author ID 35735654300. Scopus.
    https://www.scopus.com/pages/authors/35735654300

Jiyoun Song | Technology | Research Excellence Award

Published on by Technology Scientists

Dr. Jiyoun Song | Technology | Research Excellence Award

University of Pennsylvania School of Nursing | United States

Dr. Jiyoun Song is an accomplished researcher in nursing science and health outcomes research at the University of Pennsylvania School of Nursing, with a strong focus on patient-centered care, symptom management, quality of life, and evidence-based nursing interventions across diverse clinical populations. She has demonstrated sustained scholarly productivity with 79 peer-reviewed publications that have received 664 citations, achieving an h-index of 14, reflecting both research quality and long-term impact. Her work is characterized by rigorous methodology and meaningful translation of research findings into clinical and policy-relevant contexts. Dr. Song maintains a broad collaborative profile, having worked with over 150 national and international co-authors, underscoring her active engagement in interdisciplinary and global research networks. Collectively, her contributions have advanced nursing practice, informed healthcare delivery models, and generated measurable social impact through improved patient outcomes and the integration of evidence-based care into real-world health systems.

Citation Metrics (Scopus)

664
300
100
50
0

Citations

664

Documents

79

h-index

14

Citations

Documents

h-index


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