Xinyi Xie | Engineering | Best Paper Award

Published on by Best Paper Awards

Best Paper Award

XINYI XIE
Affiliation Xi’an Jiaotong-Liverpool University
Country China
Scopus ID 57214753167
ORCID 0000-0002-3916-1229
Documents 18
Citations 81
h-index 6
Subject Area Engineering
Event  International Research Excellence and Best Paper Awards

XINYI XIE — Xi’an Jiaotong-Liverpool University

Xinyi Xie of Xi’an Jiaotong-Liverpool University, China, is recognized in this Best Paper Award profile for research in Engineering. The recognized paper, “Multi-Core-Fiber-Enabled Integrated Communication and Discrete Sensing in Smart Cable Systems: Experimental Demonstration,” investigates the use of multi-core fiber to integrate high-speed communication with discrete sensing-data backhaul in smart cable systems.[1]

Abstract

This article presents Xinyi Xie in connection with the Best Paper Award for research in Engineering. The recognized study demonstrates a smart cable architecture based on a 100 km weakly coupled four-core multi-core fiber (MCF), with two spatial cores assigned to bidirectional communication and two cores assigned to bidirectional sensing-data backhaul. The experimental system was evaluated using repeatered and unrepeatered configurations, including 500 km and 300 km laboratory links, respectively. Under the tested conditions, the communication system supported 400 Gbps operation, while the sensing path was evaluated using vibration-response measurements.[1]

Keywords

Best Paper Award, Xinyi Xie, Engineering, Multi-Core Fiber, Smart Cable Systems, Integrated Communication and Sensing, Discrete Sensing, Optical Fiber Communication, Space-Division Multiplexing, Sensing-Data Backhaul, Submarine Communication, Four-Core Fiber, 400 Gbps Communication, Marine Sensing, Optical Networks.[1]

Introduction

Smart cable systems extend optical communication infrastructure toward environmental and marine monitoring by incorporating sensing capabilities into cable-based networks. A major engineering challenge is enabling sensing data to coexist with high-capacity communication traffic while maintaining reliable optical transmission. The recognized study investigates a spatial-domain approach in which different cores of a multi-core fiber are assigned to communication and sensing-data functions.[1]

Research Profile

Xinyi Xie is affiliated with Xi’an Jiaotong-Liverpool University in China and is associated with research in Engineering. According to the supplied Scopus profile information, the researcher has 18 documents, 81 citations, and an h-index of 6. The Scopus Author ID associated with this profile is 57214753167.The researcher is also identified through ORCID record 0000-0002-3916-1229. ORCID provides a persistent digital identifier intended to distinguish researchers and connect their scholarly contributions across research systems.[3]

Research Contributions

The recognized research presents a multi-core-fiber-enabled architecture for integrated communication and discrete sensing in smart cable systems. The experimental platform employs a 100 km weakly coupled four-core MCF, with separate spatial cores allocated to communication and sensing-data backhaul. The architecture is designed to avoid intentional sharing of the same optical core between high-capacity communication traffic and sensing-related data streams.[1]

Publication

The principal publication associated with this award profile is “Multi-Core-Fiber-Enabled Integrated Communication and Discrete Sensing in Smart Cable Systems: Experimental Demonstration.” The article was authored by Xinyi Xie, Hao Wu, Yucheng Fan, Yixin Gao, Songyi Zhang, Guoxiang Xu, Cheng Yang, Siyuan Wang, Rendong Xu, and Biao Huang, and was published in Sensors in 2026, Volume 26, Article 6018.[1]

Research Impact

The research contributes to the engineering development of smart cable architectures that combine high-capacity optical communication with discrete sensing-data transmission. By assigning different spatial cores to different functions, the demonstrated approach provides a framework for investigating how sensing infrastructure can be integrated with optical communication systems without intentionally placing both functions in the same optical core.[1]

Award Recognition

Xinyi Xie is recognized in this Best Paper Award profile for the research contribution represented by “Multi-Core-Fiber-Enabled Integrated Communication and Discrete Sensing in Smart Cable Systems: Experimental Demonstration.” The recognized work addresses an emerging engineering problem involving the integration of optical communication and discrete sensing within smart cable infrastructure.[1]

Conclusion

Xinyi Xie of Xi’an Jiaotong-Liverpool University, China, is featured in this Best Paper Award profile for research in Engineering. The recognized publication demonstrates a four-core multi-core-fiber smart cable architecture in which communication and discrete sensing data are routed through separate spatial cores. The experimental study reports 400 Gbps communication testing, long-distance laboratory validation, and sensing-response measurements, providing a technical basis for further investigation of integrated communication and sensing in smart cable systems.[1]

External Links

References

  1. Xie, X., Wu, H., Fan, Y., Gao, Y., Zhang, S., Xu, G., Yang, C., Wang, S., Xu, R., & Huang, B. (2026).
    Multi-Core-Fiber-Enabled Integrated Communication and Discrete Sensing in Smart Cable Systems: Experimental Demonstration.
    Sensors, 26(19), 6018.
    https://doi.org/10.3390/s26196018
  2. Scopus. (n.d.). Scopus Author Profile: Xinyi Xie.
    https://www.scopus.com/authid/detail.uri?authorId=57214753167
  3. ORCID. (n.d.). ORCID Profile: Xinyi Xie.
    https://orcid.org/0000-0002-3916-1229
  4. Best Paper Awards. (n.d.).
    https://bestpaperawards.com/

Dao Hua Zhang | Engineering | Best Paper Award

Published on by Best Paper Awards

Best Paper Award

DAO HUA ZHANG
Affiliation Shenzhen Pinghu Laboratory
Country China
Scopus ID 7405357983
ORCID 0000-0002-5853-254X
Documents 413
Citations 6,408
h-index 41
Subject Area Engineering
Event  International Research Excellence and Best Paper Awards

DAO HUA ZHANG — Shenzhen Pinghu Laboratory

DAO HUA ZHANG of Shenzhen Pinghu Laboratory, China, is recognized with the Best Paper Award for research in Engineering. His recognized paper, “Low-Resistivity Au-Free Ohmic Contacts for Diamond,” focuses on the development of low-resistivity, gold-free ohmic contacts for diamond-based electronic and semiconductor applications.[1]

Abstract

This article recognizes DAO HUA ZHANG with the Best Paper Award for research in Engineering. The recognized study investigates Au-free ohmic contacts for diamond and reports a Ti/Al/Ti/TiN multilayer metal structure. The optimized contact achieved a specific ohmic contact resistance of 3.9 × 10−5 Ω·cm2, while a diamond Schottky barrier diode fabricated using the optimized contact demonstrated a breakdown voltage of 1770 V.[1]

Keywords

Best Paper Award, DAO HUA ZHANG, Engineering, Low-Resistivity Ohmic Contacts, Au-Free Ohmic Contacts, Diamond Electronics, Diamond Semiconductor, Ti/Al/Ti/TiN, Schottky Barrier Diodes, Semiconductor Engineering, Electrical Contacts, Advanced Materials, Diamond Technology, Power Electronics.[1]

Introduction

Diamond is an important material for advanced semiconductor and electronic applications because of its distinctive electrical and thermal properties. The development of reliable, low-resistance electrical contacts is an important engineering consideration for the practical implementation of diamond-based devices. The recognized study investigates Au-free ohmic contact technology as an approach for improving electrical interfaces in diamond semiconductor devices.[1]

Research Profile

DAO HUA ZHANG is affiliated with Shenzhen Pinghu Laboratory in China and works within the field of Engineering. The supplied Scopus profile records 413 documents, 6,408 citations, and an h-index of 41. His ORCID identifier is 0000-0002-5853-254X, providing a persistent identifier for his scholarly research record.[2]

Research Contributions

The recognized paper develops an Au-free ohmic contact using a Ti/Al/Ti/TiN multilayer structure. The published research reports that the optimized contact achieved a specific ohmic contact resistance of 3.9 × 10−5 Ω·cm2. The study also examines the metal-diamond interface and investigates the relationship between the multilayer structure, annealing conditions, and contact performance.[1]

Publication

The principal publication associated with this award profile is “Low-Resistivity Au-Free Ohmic Contacts for Diamond.” The article was authored by Tianhe Mi, Peng Wang, Senchuan Ding, Meixue Zong, Haolin Hu, and Dao Hua Zhang and published in Electronics Letters. The DOI assigned to the article is 10.1049/ell2.70574.[1]

Research Impact

The research is relevant to the development of diamond-based electronic devices where low-resistance electrical contacts are required. The reported Au-free contact structure provides an approach for investigating electrical interfaces without relying on gold-containing contact layers.[1]

Award Recognition

DAO HUA ZHANG is recognized with the Best Paper Award in Engineering for the research contribution represented by “Low-Resistivity Au-Free Ohmic Contacts for Diamond.” The recognized work addresses electrical contact technology for diamond semiconductor applications and presents experimentally reported results for an Au-free ohmic contact structure.[1]

Conclusion

DAO HUA ZHANG of Shenzhen Pinghu Laboratory, China, is recognized with the Best Paper Award for research in Engineering. His recognized paper investigates low-resistivity Au-free ohmic contacts for diamond using a Ti/Al/Ti/TiN multilayer structure. The study reports a specific contact resistance of 3.9 × 10−5 Ω·cm2 and a diamond Schottky barrier diode breakdown voltage of 1770 V.[1]

External Links

References

  1. Mi, T., Wang, P., Ding, S., Zong, M., Hu, H., & Zhang, D. H. (2026).
    Low-Resistivity Au-Free Ohmic Contacts for Diamond.
    https://doi.org/10.1049/ell2.70574
  2. Scopus. (n.d.).Scopus Author Profile: DAO HUA ZHANG.
    https://www.scopus.com/authid/detail.uri?authorId=7405357983
  3. ORCID. (n.d.).ORCID Profile: DAO HUA ZHANG.
    https://orcid.org/0000-0002-5853-254X
  4. Best Paper Awards. (n.d.)
    https://bestpaperawards.com/

Wenjie feng | Engineering | Best Paper Award

Published on by Best Paper Awards

Best Paper Award

Wenjie Feng
Affiliation Shijiazhuang Tiedao University
Country China
Scopus ID 12752270200 
Documents 216
Citations 3,303
h-index 30
Subject Area Engineering
Event International Research Excellence and Best Paper Awards

Wenjie Feng

Wenjie Feng of Shijiazhuang Tiedao University, China is recognized with the Best Paper Award for research excellence in the field of Engineering. The recognized research, titled “Subcritical growth of penny-shaped fatigue cracks in a superconducting cylinder induced by the axial periodic motion of a permanent magnet”, investigates the subcritical growth behavior of penny-shaped fatigue cracks in a superconducting cylinder under the influence of axial periodic motion generated by a permanent magnet. [2]

Abstract

This article recognizes Wenjie Feng with the Best Paper Award for research excellence in Engineering. The recognized paper, “Subcritical growth of penny-shaped fatigue cracks in a superconducting cylinder induced by the axial periodic motion of a permanent magnet”, focuses on the behavior of penny-shaped fatigue cracks in a superconducting cylinder subjected to axial periodic motion induced by a permanent magnet. [2]

Keywords

Best Paper Award, Wenjie Feng, Engineering, Shijiazhuang Tiedao University, Fatigue Crack Growth, Penny-Shaped Cracks, Superconducting Cylinder, Permanent Magnet, Axial Periodic Motion, Crack Propagation, Fracture Mechanics, Fatigue Mechanics, Structural Integrity, Superconducting Systems, Mechanical Engineering.

Introduction

The recognized research examines the subcritical growth of penny-shaped fatigue cracks in a superconducting cylinder under the influence of axial periodic motion of a permanent magnet. Fatigue crack propagation is an important engineering consideration because progressive crack growth can influence the durability, reliability, and structural integrity of engineered components. [2]

Research Profile

Wenjie Feng is affiliated with Shijiazhuang Tiedao University in China and is associated with the subject area of Engineering. The provided academic information records 216 documents, 3,303 citations, and an h-index of 30. [1]

Research Contributions

The recognized paper contributes to engineering research by examining the subcritical propagation of penny-shaped fatigue cracks within a superconducting cylinder. Its focus on crack growth under axial periodic motion provides a specific framework for considering fatigue behavior in a mechanically dynamic environment. [2]

Publications

The principal publication associated with this recognition is “Subcritical growth of penny-shaped fatigue cracks in a superconducting cylinder induced by the axial periodic motion of a permanent magnet.” The supplied information identifies this paper as the research basis for the Best Paper Award recognition in Engineering. [2]

Rsearch Impact

The provided academic information records 3,303 citations across 216 documents, together with an h-index of 30. [1] These indicators provide evidence of a substantial indexed scholarly record and significant citation activity associated with the researcher’s publications.

Award Suitability

The Best Paper Award recognizes research demonstrating academic quality, relevance, originality, and meaningful contribution to its respective discipline. The recognized work by Wenjie Feng aligns with these objectives through its focused investigation of fatigue crack growth in a superconducting cylinder subjected to axial periodic motion induced by a permanent magnet. [2]

Conclusion

Wenjie Feng is recognized with the Best Paper Award for research addressing subcritical fatigue crack growth in a superconducting cylinder under axial periodic motion induced by a permanent magnet. The recognized publication, “Subcritical growth of penny-shaped fatigue cracks in a superconducting cylinder induced by the axial periodic motion of a permanent magnet,” presents a focused engineering investigation of fatigue crack behavior. [2]

External Links

Reference

  1. Wenjie Feng – Scopus Author Profile.
    Scopus Author ID 12752270200.
    https://www.scopus.com/authid/detail.uri?authorId=12752270200
  2. Best Paper Awards – International Research Excellence and Best Paper Awards.
     https://bestpaperawards.com/

Zeren Yi | Guangxi University | Best Paper Award

Published on by Best Paper Awards

Best Paper Award

ZEREN YI
Affiliation Guangxi University
Country China
Scopus ID 57210114621
Documents 13
Citations 133
h-index 6
Subject Area Engineering
Event Best Paper Awards
ORCID 0000-0002-1809-1962

ZEREN YI

ZEREN YI of Guangxi University, China is recognized with the Best Paper Award for research excellence in the field of Engineering [1]. The recognized research, titled “Hybrid H2/H∞ Interval Observer Design for a Class of MIMO Nonlinear Systems With Interference Noise,” addresses observer design for a class of multiple-input multiple-output nonlinear systems affected by interference noise.

Abstract

This article recognizes ZEREN YI with the Best Paper Award for research excellence in Engineering [1]. The recognized paper, “Hybrid H2/H∞ Interval Observer Design for a Class of MIMO Nonlinear Systems With Interference Noise,” focuses on the design of hybrid H2/H∞ interval observers for a class of MIMO nonlinear systems affected by interference noise. The work addresses observer-design challenges involving nonlinear system behavior, uncertainty, and interference effects.

Keywords

Best Paper Award, Zeren Yi, Engineering, Hybrid H2/H∞ Observer, Interval Observer, MIMO Nonlinear Systems, Nonlinear Systems, Interference Noise, Observer Design, Robust Control, State Estimation.

Introduction

The awarded research, “Hybrid H2/H∞ Interval Observer Design for a Class of MIMO Nonlinear Systems With Interference Noise,” addresses an important engineering problem involving state observation and estimation in nonlinear systems [2]. MIMO nonlinear systems can involve complex interactions among multiple inputs and outputs, while interference noise can affect the reliability of state estimation.

The study focuses on a hybrid H2/H∞ interval-observer framework for addressing observer-design challenges in the presence of interference noise. The combination of interval-observer concepts with H2 and H∞ performance criteria represents a relevant research direction in robust control and nonlinear systems engineering [3].

Research Profile

ZEREN YI is affiliated with Guangxi University, China and is associated with the subject area of Engineering. According to the provided academic information, the researcher has 13 documents, 133 citations, and an h-index of 6.

The researcher’s Scopus Author ID is 57210114621 [2]. The provided ORCID identifier is 0000-0002-1809-1962 [3]. These identifiers support the discoverability and identification of the researcher’s scholarly profile.

Research Contributions

The recognized paper contributes to Engineering through its focus on hybrid H2/H∞ interval observer design for MIMO nonlinear systems affected by interference noise [4]. The research combines nonlinear-system observation, interval estimation, and robust performance concepts within a unified observer-design problem.

The work highlights the importance of reliable state observation in nonlinear systems where interference noise may influence available system information. By concentrating on a hybrid H2/H∞ interval-observer approach, the study contributes to research concerning robust state estimation and system monitoring [4].

Research Impact

The provided academic profile records 13 documents, 133 citations, and an h-index of 6 for ZEREN YI [2]. These bibliometric indicators demonstrate an indexed publication record and measurable citation activity associated with the researcher’s academic profile.

The recognized research has particular relevance to engineering studies involving nonlinear systems, observer design, interval estimation, and interference-noise conditions. Its emphasis on hybrid H2/H∞ observer methodology provides a focused contribution to robust state estimation research [4].

Award Suitability

The Best Paper Award recognizes research demonstrating academic quality, relevance, originality, and meaningful contribution to its respective discipline [1]. ZEREN YI’s recognized research aligns with these objectives through its investigation of hybrid H2/H∞ interval observer design for MIMO nonlinear systems with interference noise.

The paper’s focus on nonlinear-system observation, interval estimation, robust performance, and interference-noise conditions represents a technically relevant research direction within Engineering [4].

Conclusion

ZEREN YI has contributed to the field of Engineering through research focused on nonlinear systems, observer design, interval estimation, and interference-noise conditions. The recognized publication, “Hybrid H2/H∞ Interval Observer Design for a Class of MIMO Nonlinear Systems With Interference Noise,” addresses a specialized engineering problem involving state observation and robust estimation in MIMO nonlinear systems [4].

With 13 documents, 133 citations, and an h-index of 6 according to the provided academic information, the researcher demonstrates an active scholarly record [2]. The Best Paper Award recognition highlights the technical relevance of the selected research within the engineering discipline [1].

External Links

References

  1. Best Paper Awards.
    International Research Excellence and Best Paper Awards Website
  2. Zeren Yi – Scopus Author Profile.
    Scopus Author ID: 57210114621
  3. Zeren Yi – ORCID Profile.
    ORCID: 0000-0002-1809-1962

Xiaomin Zhao | Engineering | Best Researcher Award

Published on by Best Paper Awards

Best Researcher Award

Xiaomin Zhao — Hefei University of Technology

Xiaomin Zhao
Affiliation Hefei University of Technology
Country China
Documents 13
Subject Area Engineering
Event Best Paper Awards
ORCID 0000-0002-7300-5457

Xiaomin Zhao is an engineering researcher affiliated with Hefei University of Technology, recognized for contributions to applied engineering research. The Best Paper Award acknowledges scholarly impact and research quality demonstrated through published work. This page provides a structured academic overview of Zhao’s research profile, contributions, and recognition within the engineering domain.[1]

Abstract

This article presents a comprehensive overview of Xiaomin Zhao’s academic contributions within the field of engineering, focusing on research productivity, scholarly impact, and recognition through the Best Paper Award. The study highlights publication outputs, thematic research directions, and measurable indicators such as document count and citation performance. Emphasis is placed on methodological rigor, innovation, and relevance to contemporary engineering challenges. By synthesizing available academic data and scholarly records, this profile illustrates Zhao’s role in advancing engineering research and contributing to scientific discourse, offering insights into the broader implications of award-based academic recognition in global research ecosystems.[1]

Keywords

Engineering research, Best Paper Award, academic recognition, research productivity, scholarly impact, Hefei University of Technology, innovation, applied engineering.

Introduction

Engineering research continues to shape technological progress and industrial development. Xiaomin Zhao’s work contributes to this domain through focused academic outputs. Recognition through the Best Paper Award reflects scholarly merit and research quality within competitive academic environments, highlighting the importance of impactful research dissemination.

Research Profile

Xiaomin Zhao is affiliated with Hefei University of Technology in China, specializing in engineering research. With a documented portfolio of thirteen publications, the researcher demonstrates consistent academic engagement. The profile reflects contributions across engineering subfields, emphasizing methodological application and interdisciplinary collaboration.

Research Contributions

The research contributions of Xiaomin Zhao include applied engineering studies addressing practical challenges. Work focuses on advancing technical methodologies, improving system performance, and contributing to theoretical understanding. Publications demonstrate integration of analytical techniques with real-world applications, supporting innovation in engineering practices.

Publications

The publication record includes thirteen academic documents indexed within scholarly databases. These works encompass journal articles and conference papers. The research outputs reflect engagement with engineering challenges and contribute to ongoing scientific discussions, supporting knowledge advancement and academic collaboration.

Research Impact

Research impact is evaluated through publication metrics and scholarly visibility. Zhao’s work contributes to engineering knowledge dissemination and supports innovation. The presence in indexed databases enhances accessibility and citation potential, reinforcing academic influence within the global research community.

Award Suitability

Eligibility for the Best Paper Award is determined by originality, research depth, and contribution to the field. Xiaomin Zhao’s work aligns with these criteria through structured methodologies and impactful findings. The award recognition underscores the academic merit and relevance of the research contributions.[3]

Conclusion

This profile summarizes Xiaomin Zhao’s academic contributions and recognition within engineering research. The Best Paper Award highlights scholarly excellence and research quality. Continued academic engagement is expected to further strengthen contributions and expand impact within the global engineering community.[3]

References

  1. Best Paper Awards. (n.d.). Award criteria and evaluation standards.
    https://bestpaperawards.com/

  2. State-of-Charge Estimation by Backstepping Observer Based on Voltage–Current Dynamics Model for Lithium-Ion Battery.
    https://www.researchgate.net/publication/405905511_State-of-charge_estimation_by_backstepping_observer_based_on_voltage-current_dynamics_model_for_lithium-ion_battery

  3. SGTP: A Safety-Guaranteed Trajectory Planning Algorithm for Autonomous Vehicles Using Gap-Oriented Spatio-Temporal Corridor.
    https://www.researchgate.net/publication/397820803_SGTP_A_Safety-Guaranteed_Trajectory_Planning_Algorithm_for_Autonomous_Vehicles_Using_Gap-Oriented_Spatio-Temporal_Corridor

  4. A Fuzzy-Theoretic Cooperative Game Framework for Adaptive Robust Control of Air–Ground Vehicle Systems.
    https://oipub.com/papers/400465355

Forough Sanjarian | Secondary Metabolite | Best Researcher Award

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Dr. Forough Sanjarian | Secondary Metabolite | Best Researcher Award

Faculty member at National Institute of Genetic Engineering and Biotechnology (NIGEB), Tehran, Iran.

Dr. Forough Sanjarian is a seasoned plant molecular biologist affiliated with the National Institute for Genetic Engineering and Biotechnology (NIGEB), Tehran. Her interdisciplinary research bridges plant stress physiology, genetic regulation of secondary metabolites, and biomaterial applications. With over two decades of experience in academic and applied research, she has contributed significantly to understanding how environmental factors influence plant molecular responses. She has received a research scholarship from NIGEB and was a guest scientist at the University of Agricultural Sciences in Vienna, Austria.

Publication Profile

Scopus 

Orcid

Google Scholar

Education

  • Ph.D. in Biology (2001–2006)
    Razi University, Faculty of Science, in collaboration with the National Institute for Genetic Engineering and Biotechnology (NIGEB), Tehran, Iran.

  • M.Sc. in Biology (1995–1998)
    Tehran University, Faculty of Science, Iran.

  • B.Sc. in Biology (1991–1995)
    Isfahan University, Faculty of Science, Iran.

Professional Experience

Dr. Sanjarian has served as a Researcher at the National Institute for Genetic Engineering and Biotechnology (NIGEB) since 2002, contributing to advancements in plant biotechnology, genetic expression, and stress physiology. She previously worked as an Invited Tutor in Molecular Biology at Azad University (1998–2006), where she taught and mentored undergraduate and graduate students.

Research Interest 

  • Plant molecular biology and gene expression under abiotic stress

  • Secondary metabolite biosynthesis (e.g., monoterpenes, thymol)

  • Hormetic responses to low-dose gamma irradiation

  • Genetic engineering for enhanced oil and metabolite production in plants

  • Development of biomaterials for medical applications (e.g., wound dressings)

Google Scholar Profile (est.):

  • Total Citations: ~500+

  • h-index: ~10

  • Most Cited Paper: Nigella sativa anti-inflammatory study, 160 citations

Top Noted Publication

Anti-inflammatory Effect of Seeds and Callus of Nigella sativa L. Extracts on Mix Glial Cells with Regard to Their Thymoquinone Content

  • Journal: AAPS PharmSciTech
  • Citation: 160
  • Year: 2013
The effects of nanoencapsulated curcumin-Fe3O4 on proliferation and hTERT gene expression in lung cancer cells
  • Journal: Anti-Cancer Agents in Med. Chem.
  • Citation: 80
  • Year: 2017
Changes in Antioxidant Enzymes Activities and Proline, Total Phenol and Anthocyanin Contents in Hyssopus officinalis L. Plants Under Salt Stress
  • Journal: Acta Biologica Hungarica
  • Citation: 57
  • Year: 2016
Transcriptional Responses in Root Tissue of Bread Wheat Reveal Drought Avoidance Mechanisms
  • Journal: PLOS ONE
  • Citation: 37
  • Year: 2019
Comparative Study of Magnetic Nanoparticles in Plasmid DNA Extraction
  • Journal: Analytical Biochemistry
  • Citation: 36
  • Year: 2016

Conclusion

Dr. Zhigang Shang is a highly deserving candidate for the Best Researcher Award in Engineering. His cutting-edge research in underwater acoustics, national defense systems, and intelligent sensing platforms, combined with leadership roles, innovation output, and national-level recognition, make him a standout nominee. While international exposure and citation breadth could be further enhanced, his contributions already position him as a strategic research leader with real-world impact.

 

Zhigang Shang | Engineering | Best Researcher Award

Published on by Best Paper Awards

Dr. Zhigang Shang | Engineering | Best Researcher Award

Professor at Harbin Engineering University, China.

Dr. Zhigang Shang is a leading expert in underwater acoustic engineering and marine information systems. He serves as Deputy Director of the Key Laboratory of Marine Information Acquisition and Security at Harbin Engineering University. With a Ph.D. from the Chinese Academy of Sciences and extensive experience in national defense research, he has led and participated in over 20 major national and military R&D projects. Dr. Shang is widely published, holding more than 50 patents and authoring 7 monographs. He is actively involved in multiple editorial and advisory boards and has received numerous national awards for innovation and excellence in unmanned and acoustic system technologies.

Publication Profile

Scopus 

Education

Dr. Zhigang Shang earned his Bachelor’s degree in Electronic Information Engineering (Underwater Acoustics) from Harbin Engineering University in 2010. He then completed his Ph.D. at the Institute of Acoustics, Chinese Academy of Sciences, in 2015, where he specialized in acoustic signal processing and underwater sensing technologies.

Professional Experience

Dr. Shang began his professional career in July 2015 at the China Academy of Electronic Sciences, where he worked until October 2021. Following this, he held a short tenure at the China Star Network Innovation Research Institute until April 2022. Since then, he has been a faculty member at Harbin Engineering University, where he currently serves as the Deputy Director of the Key Laboratory of Marine Information Acquisition and Security, under the Ministry of Industry and Information Technology.

Dr. Shang holds several academic and professional positions, including:

  • Young Editorial Board Member of Piezoelectric and Sound and Light, Journal of Unmanned Systems, and Journal of Harbin Engineering University.

  • Senior Member of the Chinese Institute of Electronics.

  • Secretary General of the Youth Working Committee of the Acoustics Society.

  • Mentor at the Beijing Institute of Technology.

  • Recognized leader in Underwater Acoustic Engineering as noted in the Blue Book of the Chinese Academy of Engineering.

Research Interest 

Dr. Shang’s research focuses on:

  • Underwater acoustics

  • Marine information acquisition

  • Unmanned systems

  • Intelligent sensing

  • Signal processing

  • Acoustic stealth and detection technologies

  • Multimodal marine data fusion

He is particularly recognized for his contributions to unmanned underwater and aerial platforms, with practical applications in military defense, marine security, and autonomous systems.

Author Metrics

  • Academic Publications: 50+ peer-reviewed papers

  • National Invention Patents: 50+

  • Software Copyrights: 10+

  • Books/Monographs: 7

  • Major R&D and Military Projects: 20+

Awards:

  • Best Paper Award, 2022 International Unmanned Systems Conference
  • Excellence Award, 2023 China Conversion Application Competition
  • Multiple awards in national UAV and underwater platform competitions
  • Provincial Excellent Youth Fund recipient
  • National Key R&D Young Scientist designation

Top Noted Publication

1. DOA Estimation Exploiting a Single Moving Acoustic Vector Sensor: A Cramér-Rao Bound-Based Study

Authors: Qu, Xinghao; Shang, Zhigang; Qiao, Gang; Liu, Songzuo
Published in: IEEE Transactions on Vehicular Technology, 2025
Citation Count: 0 (as of now)
Summary:
This study presents a novel method for Direction of Arrival (DOA) estimation using a single moving Acoustic Vector Sensor (AVS). The methodology is evaluated through a Cramér-Rao Bound (CRB)-based framework, providing theoretical limits and accuracy benchmarks for DOA performance. The results are particularly relevant for mobile underwater acoustic platforms and defense-related sensing systems.

2. Cross-Domain Communication Buoy System Based on Optimal Communication Link Selection

Authors: Xing, Minghan; Shang, Zhigang; Qiao, Gang; Li, Tianshui; Xie, Jiaxuan
Published in: Journal of Unmanned Undersea Systems, 2024
Citation Count: 0 (as of now)
Summary:
This paper introduces an innovative communication buoy system that optimizes cross-domain (air-sea) communication via dynamic link selection algorithms. The system enhances signal reliability and adaptability across varying marine environments, contributing significantly to unmanned maritime system interoperability and real-time data exchange.

Conclusion

Dr. Zhigang Shang is a highly deserving candidate for the Best Researcher Award in Engineering. His cutting-edge research in underwater acoustics, national defense systems, and intelligent sensing platforms, combined with leadership roles, innovation output, and national-level recognition, make him a standout nominee. While international exposure and citation breadth could be further enhanced, his contributions already position him as a strategic research leader with real-world impact.