Jinxuan Cheng | Thermoelectrics | Best Researcher Award

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Dr. Jinxuan Cheng | Thermoelectrics | Best Researcher Award  

Harbin Institute of Technology | China

Dr. Jinxuan Cheng holds a Ph.D. in Materials and Chemical Engineering from Harbin Institute of Technology, Shenzhen, with expertise in thermoelectric materials and devices. His research combines physical experiments and computational modeling, with over 25 SCI-indexed publications, including Joule, Advanced Functional Materials, and Acta Materialia. He has led projects funded by the National Natural Science Foundation of China and the Fundamental Research Funds for the Central Universities, contributing over 510 citations and an h-index of 11. His innovations in GeTe thermoelectrics, including a MnTe-alloying strategy to enhance stability, provide a strong foundation for advancing thermoelectric module reliability.

Author Profile

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Early Academic Pursuits

Dr. Jinxuan Cheng began his academic career with a strong background in Materials and Chemical Engineering, culminating in a Ph.D. from the Harbin Institute of Technology, Shenzhen. During his formative years, he developed expertise in physical experiments and computational modeling, laying the foundation for his future work in thermoelectrics. His early academic pursuits were marked by rigorous training, high-impact publications, and an emerging reputation for innovative problem-solving.

Professional Endeavors

Professionally, Dr. Cheng has established himself as a promising young researcher in the field of thermoelectrics, with more than 25 publications in indexed journals (SCI). He has successfully hosted one project funded by the National Natural Science Foundation of China and one project funded by the Fundamental Research Funds for the Central Universities. His career also extends into consultancy and industry, where he has participated in two projects, bridging the gap between research innovation and real-world applications.

Contributions and Research Focus

Dr. Cheng’s research is centered on thermoelectrics, with a particular focus on GeTe-based materials and thermoelectric generators. His innovative MnTe-alloying strategy has significantly advanced the stability of GeTe thermoelectric modules by inhibiting detrimental phase transition behavior. This breakthrough not only enhances the operational reliability of thermoelectric devices but also provides a blueprint for optimizing material properties in energy conversion systems. His contributions strengthen the practical viability of thermoelectric generators in aerospace applications.

Impact and Influence

The impact of Dr. Cheng’s research resonates widely in the thermoelectrics community. With over 510 citations and an h-index of 11, his publications in top-tier journals such as Joule, Advanced Functional Materials, and Acta Materialia highlight the recognition of his work by peers. His findings are advancing the reliability of thermoelectric devices for spacecraft, making him an influential figure in this fast-growing interdisciplinary field.

Academic Cites

Dr. Cheng’s research output is reflected in his impressive citation record. With more than 510 citations, his studies on GeTe thermoelectric materials and devices are widely referenced, underscoring their significance to the broader thermoelectrics research community. His role as a first author in over 12 high-impact publications further strengthens his academic standing.

Legacy and Future Contributions

Looking ahead, Dr. Cheng is expected to leave a lasting legacy through his pioneering contributions to thermoelectrics. His research trajectory points toward continued innovations in thermoelectric generators and materials engineering for high-reliability applications such as spacecraft. His patents, published books, and ongoing collaborations signify a career dedicated to pushing the boundaries of energy conversion science while mentoring the next generation of researchers.

Publications

Unified contact layer and low-temperature transient liquid phase interconnection for high-performance all-Mg-based thermoelectric devices

Authors: Shanghao Chen; Tianyu Zhang; Jinxuan Cheng; Baopeng Ma; Xiaojing Ma; Xiaofang Li; Li Yin; Linmao Wen; Jun Mao; Feng Cao; Qian Zhang

Journal: National Science Review

Year: 2025

Conclusion

Dr. Jinxuan Cheng’s academic journey, professional endeavors, and groundbreaking contributions to thermoelectrics firmly establish him as a leading figure in the field. His innovative research on GeTe-based materials has set new standards for module reliability and performance. With a strong publication record, funded projects, patents, and global recognition, his work continues to impact both academic and industrial applications. His legacy will be defined by advancing the science of thermoelectrics, inspiring future innovations, and addressing critical energy challenges for next-generation technologies.

Pooja | Theoretical High-Energy Physics | Best Researcher Award 

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Dr. Pooja | Theoretical High-Energy Physics | Best Researcher Award 

University of Jyvaskyla | Finland

Dr. Pooja earned her Ph.D. in Theoretical High-Energy Physics from the Indian Institute of Technology Goa, where her research focused on probing the early stages of high-energy nuclear collisions through heavy quarks. She has presented her work at numerous international conferences, including Quark Matter and SQM, and received multiple awards for outstanding oral and poster presentations. With strong expertise in heavy-ion physics, QCD matter, and numerical simulations, she has contributed significantly to understanding quark dynamics in Glasma and quark-gluon plasma. Alongside her research, she has served extensively as a teaching assistant in physics and computational courses, reflecting her dedication to both scientific inquiry and academic mentorship.

Author Profiles

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Early Academic Pursuits

Dr. Pooja laid a strong foundation in physics through her early education, demonstrating academic excellence throughout her school and undergraduate years. She completed her B.Sc. (H) Physics from Ramjas College, University of Delhi in 2013 with distinction, followed by an M.Sc. in Physics from the Indian Institute of Technology Roorkee in 2019. She then pursued her Ph.D. in Theoretical High-Energy Physics at the Indian Institute of Technology Goa under the supervision of Dr. Santosh Kumar Das (2019–2024). Her thesis, “Probing the early stages of high-energy nuclear collisions by heavy quarks”, reflects her deep engagement with the theoretical underpinnings of particle physics.

Professional Endeavors

During her doctoral studies, Dr. Pooja gained extensive teaching and mentoring experience as a Teaching Assistant in multiple core physics courses, including Quantum Physics and Applications, Numerical Simulations, and Undergraduate Physics Laboratories at IIT Goa from 2019 to 2024. Alongside teaching, she actively participated in international and national conferences, presenting her research at prestigious platforms such as Quark Matter, CERN workshops, and the Asian Triangle Heavy-Ion Conference (ATHIC). Her academic journey has been enriched by participation in international summer schools, including the CSC Summer School in High-Performance Computing in Finland (2025).

Contributions and Research Focus

Her contributions center on advancing Theoretical High-Energy Physics, specifically probing the dynamics of heavy quarks in the early stages of high-energy nuclear collisions. Her research has focused on phenomena such as quark diffusion, anisotropic fluctuations, and the pre-equilibrium Glasma phase. By developing and applying theoretical models, she has significantly enhanced the understanding of how heavy quarks behave in quark-gluon plasma and other extreme QCD environments. These contributions provide a deeper insight into the early universe conditions and particle interactions at high energies.

Impact and Influence

Dr. Pooja’s impact in Theoretical High-Energy Physics is reflected in the recognition she has received through multiple awards, including best poster and best oral presentation honors at international conferences such as SQM 2024 and Hot QCD Matter 2022. Her invited talks and mini-reviews at international conferences demonstrate her growing influence in the high-energy physics community. She has also actively contributed to global scientific collaborations by presenting at conferences across Europe, the USA, and Asia, thereby amplifying her academic presence and impact.

Academic Cites

Her publications and presentations in the domain of Theoretical High-Energy Physics have been cited and appreciated by fellow researchers, highlighting the relevance of her work in advancing the theoretical framework of QCD matter and heavy-ion collisions. Her work continues to be a reference point for researchers exploring quark dynamics, nuclear collisions, and related high-energy physics phenomena.

Legacy and Future Contributions

Dr. Pooja’s legacy lies in her significant contributions to understanding heavy quark dynamics in nuclear collisions and her commitment to teaching and mentorship. Looking ahead, she aims to expand her research by integrating advanced computational techniques and high-performance computing with theoretical models. Her future contributions are expected to further unravel the complexities of QCD matter, inspiring future scholars in the field. She also intends to continue contributing to international collaborations and building bridges between theoretical frameworks and experimental observations.

Theoretical High-Energy Physics

Dr. Pooja’s expertise in Theoretical High-Energy Physics has advanced the understanding of heavy-ion collisions and quark-gluon plasma dynamics. Her innovative studies in Theoretical High-Energy Physics link heavy-quark diffusion with the evolution of QCD matter. As she continues her career, her focus on computational models and collaborations will further strengthen her role in Theoretical High-Energy Physics research worldwide.

Publications

Diffusion of heavy quarks in the early stage of high-energy nuclear collisions

Authors: Pooja, Pooja; Das, Santosh Kumar; Greco, Vincenzo; Ruggieri, Marco

Source: EPJ Web of Conferences

Year: 2025

Dynamics of heavy quarks and their pairs in the pre-equilibrium Glasma phase of the heavy-ion collisions

Author: Pooja

Source: Journal of Subatomic Particles and Cosmology

Year: 2025

Dynamics of hot QCD matter 2024 — hard probes

Authors: Das, Santosh K.; Palni, Prabhakar; Sarkar, Amal; Agotiya, Vineet Kumar; Bandyopadhyay, Aritra; Bhaduri, Partha Pratim; Datta, Saumen; Desai, Vaishnavi; Dey, Debarshi; Greco, Vincenzo et al.

Source: International Journal of Modern Physics E

Year: 2025

The Impact of Memory on Heavy Quarks Dynamics in Hot QCD Medium

Authors: Prakash, Jai; Ruggieri, Marco; Pooja; Das, Santosh K.

Source: Springer Proceedings in Physics

Year: 2024

Heavy Quark Diffusion in Glasma and Gluonic Plasma

Authors: Pooja; Ruggieri, Marco; Das, Santosh Kumar

Source: DAE Symposium on Nuclear Physics

Year: 2023

The Effects of Memory on Heavy Quarks Dynamics in the Quark-Gluon Plasma

Authors: Prakash, Jai; Ruggieri, Marco; Pooja; Das, Santosh Kumar

Source: DAE Symposium on Nuclear Physics

Year: 2023

Conclusion

In conclusion, Dr. Pooja stands out as a promising young researcher in Theoretical High-Energy Physics, with a solid academic foundation, impactful research contributions, and a clear trajectory of influence and innovation. Her dedication to both teaching and research, combined with her recognition at national and international platforms, highlights her as an emerging leader whose work will continue to advance the frontiers of physics.

Hao Xing | Magmatic Rocks | Best Researcher Award

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Dr. Hao Xing began his academic journey with a Bachelor’s degree in Geological Resources and Geological Engineering from Anhui University of Science and Technology in 2010. His growing interest in Earth sciences led him to pursue a Master’s degree in Mineral Resource Prospecting and Exploration at the China University of Geosciences (Beijing), which he completed in 2015. Demonstrating exceptional academic ability, he continued at the same institution for his doctoral studies, earning a Ph.D. in Mineralogy, Petrology, and Ore Deposit Geology in 2019. His early academic pursuits laid a strong foundation for his later specialization in igneous petrology, mineralogy, and the study of magmatic rocks.

Professional Endeavors

Following his Ph.D., Dr. Hao Xing joined East China University of Technology as a Lecturer in the College of Earth and Planetary Sciences, where he has served since 2019. His professional endeavors include extensive teaching in mineralogy and petrology, supervising undergraduate students in research, and actively engaging in national-level scientific projects. He has also participated in geological surveys and mapping projects in Xinjiang, Inner Mongolia, and South China. His role as Principal Investigator for a National Natural Science Foundation of China (NSFC) project highlights his leadership in advancing geological research.

Contributions and Research Focus

Dr. Xing’s research contributions center on igneous petrology, geodynamic settings, and mineralogy, with a particular emphasis on the petrogenesis of magmatic rocks. His notable project, “Petrogenesis of high-Mg andesite and growth of continental crust: A case study of the Boluokenu in the Western Tianshan,” investigates crustal growth processes and their relation to geodynamic evolution. His research output includes six first-author publications in internationally recognized journals such as Lithos and Geological Magazine. His fieldwork experience in complex tectonic regions has provided crucial data for understanding the role of magmatic processes in crustal evolution.

Impact and Influence

Dr. Hao Xing has made significant contributions to advancing geological sciences through both research and education. His work on high-Mg andesite and magmatic rocks provides critical insights into continental crust formation and tectonic processes in orogenic belts. As a mentor, he has influenced many undergraduate students by guiding them in scientific research and fostering skills in geological mapping and laboratory analysis. His participation in large-scale geological mapping projects in the West Tianshan Orogenic Belt has also contributed to the broader understanding of regional geodynamics.

Academic Cites

Dr. Xing’s publications in peer-reviewed journals have been cited by other researchers studying igneous petrology, geochemistry, and geodynamic settings. His academic citations reflect the growing recognition of his contributions to the study of magmatism and crustal development. His ability to integrate field data with advanced petrological and geochemical analyses has positioned him as an emerging scholar in the field.

Legacy and Future Contributions

Dr. Hao Xing’s legacy lies in his combined efforts as an educator, researcher, and contributor to geological mapping initiatives. His future contributions are expected to further deepen our understanding of magmatic processes, crustal growth, and tectonic evolution. By continuing his work on high-Mg andesites and related magmatic rocks, he will not only expand scientific knowledge but also inspire future geoscientists in China and beyond. His dedication to mentoring students ensures that his influence will extend to the next generation of researchers.

Publications

Petrogenesis of Middle Triassic A2‐Type Granitic Pluton in Shigongmiao Area, Hainan Island: Insights on Early Mesozoic Tectonic Evolution of South China Block

Authors: Gaofeng Du; Hao Xing; Dan Wang; Junling Pei; Jinfeng Wen; Xiatian Zhang; Songjian Lin
Journal: Geological Journal
Year: 2023

Petrogenesis and tectonic implications of the Early Carboniferous shoshonitic to calc-alkaline magmatic rocks of the southern Yili terrane, western Tianshan

Authors: Hao Xing; Chunji Xue; Xiaobo Zhao; D.T.A. Symons; Pengqiao Niu
Journal: Geological Magazine
Year: 2023

A Precambrian basement beneath the King George Island (Antarctica Peninsula) revealed by zircon xenocrystals from Eocene to Miocene volcanic rocks

Journal: Lithos
Year: 2025
Citations: 1

Conclusion

In conclusion, Dr. Hao Xing has established himself as a promising figure in the field of mineralogy and petrology. With a strong academic background, significant professional achievements, and impactful research on magmatic processes, he has already contributed greatly to the geological sciences. His ongoing and future work on magmatic rocks and crustal growth processes promises to leave a lasting legacy in the study of Earth’s dynamic systems.

Mengjun Xu | Artificial Intelligence | Best Researcher Award 

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Ms. Mengjun Xu | Artificial Intelligence | Best Researcher Award 

University of Science and Technology of China | China 

Ms. Mengjun Xu is a researcher specializing in artificial intelligence and machine learning, with a focus on adversarial robustness and security in deep learning models. Her recent works include Efficient Large Margin Adversarial Training Based on Decision Boundaries for Adversarial Robustness (Neurocomputing, 2025) and Decreasing Adversarial Transferability Using Gradient Information of Attack Paths (Applied Soft Computing, 2025). Her research advances defense strategies against adversarial attacks, contributing to safer and more reliable AI systems.

Author Profiles

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Early Academic Pursuits

Ms. Mengjun Xu began her academic journey with a strong foundation in computer science and engineering, focusing on machine learning and artificial intelligence. During her formative years, she developed a keen interest in adversarial machine learning, robustness, and deep learning optimization. This early dedication to research provided her with the skills and motivation to publish impactful works in top international journals.

Professional Endeavors

Ms. Xu has established herself as an emerging researcher in the domain of artificial intelligence, with particular expertise in adversarial robustness and model security. She has collaborated with prominent scholars such as Ziqiang Li, Lei Liu, Pengfei Xia, and Bin Li, contributing to projects that address key challenges in deep learning and AI safety. Her professional endeavors include publishing in highly respected journals like Neurocomputing and Applied Soft Computing, which demonstrates her commitment to advancing secure and reliable AI systems.

Contributions and Research Focus

Her research contributions focus on adversarial training, transferability reduction, and the development of robust AI algorithms. In her 2025 Neurocomputing article, “Efficient large margin adversarial training based on decision boundaries for adversarial robustness,” she explored innovative methods to strengthen deep learning models against adversarial attacks. Similarly, in her Applied Soft Computing publication, “Decreasing adversarial transferability using gradient information of attack paths,” she addressed the critical issue of cross-model adversarial vulnerabilities. Both works highlight her strong research focus on the practical application of artificial intelligence in secure and trustworthy systems.

Impact and Influence

Ms. Xu’s publications have begun shaping ongoing discussions in adversarial machine learning and AI robustness. Her innovative frameworks provide the research community with new methodologies for building AI models that are not only accurate but also resistant to adversarial manipulation. As a result, her work is expected to have a long-term influence on the development of safe, secure, and ethical AI systems.

Academic Cites

Her journal articles have already gained recognition in the academic community, with citations that reflect the growing importance of her contributions to artificial intelligence. These citations underline the relevance of her research in addressing pressing challenges in adversarial robustness and demonstrate her rising reputation as a thought leader in the field.

Legacy and Future Contributions

Looking ahead, Ms. Mengjun Xu is poised to continue advancing the frontier of adversarial machine learning. Her legacy will likely include the development of novel frameworks for adversarial defense, bridging the gap between theoretical innovation and real-world AI applications. By mentoring young scholars and fostering collaboration, she is set to influence future generations of AI researchers and practitioners.

Publications

Efficient large margin adversarial training based on decision boundaries for adversarial robustness

Authors: Mengjun Xu, Ziqiang Li, Lei Liu, Bin Li

Journal: Neurocomputing

Year: 2025

Decreasing adversarial transferability using gradient information of attack paths

Authors: M. Xu, L. Liu, P. Xia, Z. Li, B. Li

Journal: Applied Soft Computing

Year: 2025

Deep-learning-based nanomechanical vibration for rapid and label-free assay of epithelial mesenchymal transition

Authors: W. Wu, Y. Peng, M. Xu, T. Yan, D. Zhang, Y. Chen, K. Mei, Q. Chen, X. Wang, ...

Journal: ACS Nano

Year: 2024

Conclusion

Ms. Mengjun Xu’s journey exemplifies a dedication to excellence in artificial intelligence research. From her early academic pursuits to her groundbreaking contributions on adversarial robustness, she has built a strong foundation for long-term impact. Her professional endeavors, academic citations, and future contributions signal a promising career trajectory, with her work serving as a cornerstone in advancing secure and reliable AI systems for the future.

Nikolay Djourelov | Positron Annihilation Spectroscopy | Best Researcher Award 

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Assoc. Prof. Dr. Nikolay Djourelov | Positron Annihilation Spectroscopy | Best Researcher Award 

Extreme Light Infrastructure-Nuclear Physics (ELI-NP), “Horia Hulubei” National R&D Institute for Physics and Nuclear Engineering (IFIN-HH) | Romania

Assoc. Prof. Dr. Nikolay Djourelov, affiliated with the Extreme Light Infrastructure – Nuclear Physics (ELI-NP) and the Horia Hulubei National Institute for R&D in Physics and Nuclear Engineering, specializes in nuclear physics, materials science, and advanced spectroscopy techniques. His research spans defect studies in semiconductors, nanomaterials, and thin films, with applications in energy storage, sensing, and semiconductor reliability. He has authored numerous high-impact publications in journals such as Nuclear Instruments and Methods in Physics Research B, Electrochimica Acta, and Nanomaterials, contributing significantly to the fields of positron annihilation spectroscopy, nanostructured materials, and advanced functional composites.

Author Profiles

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Early Academic Pursuits

Assoc. Prof. Dr. Nikolay Djourelov has built his academic foundation with a strong orientation toward physics, materials science, and advanced spectroscopic techniques. From his early studies, he demonstrated a clear interest in solid-state physics, radiation–matter interactions, and semiconductor materials. His pursuit of advanced research led him toward specialized studies in nuclear physics and materials characterization, laying the groundwork for his later expertise in Positron Annihilation Spectroscopy and its applications to defects in materials and thin-film structures.

Professional Endeavors

Dr. Djourelov has had an accomplished professional career, currently associated with the Horia Hulubei National Institute for R&D in Physics and Nuclear Engineering in Bucharest, Romania, and the Extreme Light Infrastructure – Nuclear Physics (ELI-NP) facility in Măgurele, Romania. These institutions represent cutting-edge centers of nuclear and optical physics, where he has contributed to international collaborations and high-impact projects. His employment history reflects his active role in advancing nuclear techniques, spectroscopic diagnostics, and applied materials research.

Contributions and Research Focus

The central focus of Dr. Djourelov’s research lies in Positron Annihilation Spectroscopy, materials characterization, and defect analysis in semiconductors and nanomaterials. His scientific contributions include studies on SiC defect kinetics, Schottky contact non-uniformity in wide-bandgap materials, defect structure in GaN/AlN/Si heterostructures, and dislocation densities in epitaxial thin films. Additionally, his recent works address the applications of advanced nanostructures such as TiO₂ composites, MoS₂-based devices, and nanocrystalline graphite films. This broad research portfolio highlights his ability to connect fundamental spectroscopic techniques with applied material innovations.

Impact and Influence

Dr. Nikolay Djourelov’s impact is evident through his interdisciplinary collaborations and influential publications in top-tier journals, including Nuclear Instruments and Methods in Physics Research B, Nanomaterials, Materials, and Electrochimica Acta. His work has advanced both the theoretical understanding and experimental implementation of defect characterization, sensor technologies, and nanomaterial applications. As an active researcher at ELI-NP, he contributes to one of Europe’s most advanced infrastructures for high-power laser and nuclear physics, further extending his influence on international research agendas.

Academic Cites

The academic community has recognized Dr. Djourelov’s contributions, as seen in the growing number of citations of his published works. His papers on defect analysis in semiconductors, nanostructure growth, and the application of Positron Annihilation Spectroscopy are regularly referenced by peers worldwide. This strong citation record underlines the high relevance and reliability of his findings, which continue to guide new research directions in materials science and nuclear physics.

Legacy and Future Contributions

Looking forward, Dr. Djourelov is expected to continue bridging nuclear physics methodologies with applied materials research. His expertise in Positron Annihilation Spectroscopy positions him as a leading figure in studying defect dynamics, semiconductor reliability, and nanostructured material applications. He is also poised to contribute to the development of next-generation sensors, energy storage devices, and radiation–matter interaction models. By mentoring younger researchers and maintaining active collaborations, his legacy will expand through both scientific innovation and knowledge transfer.

Publications

Proposed antimatter gravity measurement with an antihydrogen beam

Authors: A. Kellerbauer, M. Amoretti, A.S. Belov, G. Bonomi, I. Boscolo, R.S. Brusa, …

Journal: Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms

Year: 2008

Citations: 357

The extreme light infrastructure nuclear physics (ELI-NP) facility: new horizons in physics with 10 PW ultra-intense lasers and 20 MeV brilliant gamma beams

Authors: S. Gales, K.A. Tanaka, D.L. Balabanski, F. Negoita, D. Stutman, O. Tesileanu, …

Journal: Reports on Progress in Physics

Year: 2018

Citations: 302

Source correction in positron annihilation lifetime spectroscopy

Authors: N. Djourelov, M. Misheva

Journal: Journal of Physics: Condensed Matter

Year: 1996

Citations: 110

Silica Hybrid Sol–Gel Materials with Unusually High Concentration of Pt–Organic Molecular Guests: Studies of Luminescence and Nonlinear Absorption of Light

Authors: D. Chateau, F. Chaput, C. Lopes, M. Lindgren, C. Brännlund, J. Öhgren, …

Journal: ACS Applied Materials & Interfaces

Year: 2012

Citations: 58

Proposal for the AEGIS experiment at the CERN antiproton decelerator (Antimatter Experiment: Gravity, Interferometry, Spectroscopy)

Authors: G.Y. Drobychev, U. Gendotti, I. Boscolo, H. Walters, M. Büchner, A. Rubbia, …

Year: 2007

Citations: 54

Positron annihilation study of density fluctuations in amorphous poly(ethylene terephthalate) films in terms of quasispinodal decomposition

Authors: T. Suzuki, Y. Bin, N. Djourelov, T. Xu, M. Matsuo

Journal: Physical Review B

Year: 2005

Citations: 49

Formation of a cold antihydrogen beam in AEGIS for gravity measurements

Authors: G. Testera, A.S. Belov, G. Bonomi, I. Boscolo, N. Brambilla, R.S. Brusa, …

Journal: AIP Conference Proceedings

Year: 2008

Citations: 46

Conclusion

Assoc. Prof. Dr. Nikolay Djourelov has established himself as a distinguished researcher whose career reflects a deep commitment to advancing science through Positron Annihilation Spectroscopy, nuclear physics, and materials research. His early academic promise, professional accomplishments at leading research institutions, impactful publications, and forward-looking contributions position him as an influential figure in contemporary physics. His work not only advances the frontiers of defect characterization and nanomaterial applications but also ensures a lasting legacy in nuclear and material sciences.

Lei-Lei Nian | Quantum Transport and Statistics | Best Researcher Award

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Prof. Dr. Lei-Lei Nian | Quantum Transport and Statistics | Best Researcher Award 

Yunnan University | China

Prof. Dr. Lei-Lei Nian, Associate Professor at the School of Physics and Astronomy, Yunnan University, specializes in condensed matter physics with a focus on quantum transport, phase transitions, and nanoscale optoelectronic phenomena. He earned his Ph.D. in Physics from Huazhong University of Science and Technology and previously worked as an Assistant Researcher there. With over 20 publications in leading journals such as Nano Letters and Physical Review B, his research explores electron–phonon, electron–photon, and photon–photon interactions in nanosystems, advancing understanding in quantum photovoltaics and single-molecule quantum devices.

Author Profiles

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Early Academic Pursuits

Prof. Dr. Lei-Lei Nian demonstrated an early commitment to physics, beginning his academic training at the China University of Mining and Technology, where he earned his Master’s Degree in Condensed Matter Physics (2013–2016). His research focused on thermoelectric transport in single molecular junctions, providing him with a strong foundation in nanoscale physics. He then pursued a Doctoral Degree in Condensed Matter Physics at the Huazhong University of Science and Technology, where his dissertation centered on non-equilibrium quantum transport and statistics in single-molecule junctions, laying the groundwork for his future contributions to the field.

Professional Endeavors

After completing his doctoral studies, Prof. Dr. Nian began his professional career as an Assistant Researcher at the School of Physics, Huazhong University of Science and Technology (2019–2021). In 2022, he joined the School of Physics and Astronomy at Yunnan University as an Associate Professor, where he now serves as a doctoral supervisor and master’s supervisor. His role includes mentoring students, leading research teams, and advancing cutting-edge studies in nanoscale physics and quantum transport and statistics.

Contributions and Research Focus

Prof. Dr. Nian has published over 20 academic papers in prestigious journals, including Nano Letters, Journal of Physical Chemistry Letters, Physical Review A, Physical Review B, Physical Review Applied, and Physical Review E. His notable contributions include works on nonlinear electron–phonon interactions, current-induced local heating, photon-assisted electron transport, plasmon squeezing in single-molecule junctions, and photon statistics engineering in quantum-dot systems. His research interests center on the interactions between electron-phonon, electron-photon, and photon-photon in nanosystems, with a special emphasis on quantum transport and statistics, quantum phase transitions, and quantum photovoltaics.

Impact and Influence

Prof. Dr. Lei-Lei Nian has significantly influenced the field of condensed matter physics by bridging theoretical studies with experimental potential in nanoscale quantum systems. His pioneering works on quantum transport and statistics have provided new insights into electron and photon interactions, helping to shape the future of nanoscale devices and quantum technologies. His collaborations with leading researchers and contributions to high-impact journals underscore his global academic influence.

Academic Cites

His body of work has been widely cited in the physics community, reflecting its relevance and impact. Publications in top-tier journals such as Nano Letters and Physical Review B demonstrate that his contributions resonate strongly with scholars studying condensed matter physics, nanoscale systems, and quantum transport and statistics. These citations highlight the enduring value of his work as a foundation for further advances in the field.

Legacy and Future Contributions

Prof. Dr. Nian’s legacy lies in his innovative contributions to understanding quantum interactions at the nanoscale. His ongoing research promises to further refine models of electron-phonon and electron-photon interactions, driving breakthroughs in areas such as quantum photovoltaics and nanoscale energy conversion. His leadership at Yunnan University ensures the training of the next generation of physicists who will continue advancing the boundaries of condensed matter physics.

Publications

Nonlinear electron–phonon interactions in a quantum dot phonon cavity

Authors: Jing Qu, Man-Yu Shang, Lei-Lei Nian

Journal: Physica A: Statistical Mechanics and its Applications

Year: 2025

Capturing the dynamics of the phase transition of skyrmions with a nonstationary machine learning approach

Authors: Long Xiong, Neng-Ji Zhou, Shi-Qian Hu, Lei-Lei Nian, Bo Zheng

Journal: Physical Review B

Year: 2025

Universal criticality of nonequilibrium quantum phase transition in a driven-dissipative Kerr cavity

Authors: Jun-Yi Liu, Lei-Lei Nian, Neng-Ji Zhou, Long Xiong, Jing-Tao Lü, Bo Zheng

Journal: Physical Review A

Year: 2025

Dynamic approach to the two-dimensional nonreciprocal XY model with vision cone interactions

Authors: Zhong-Yuan Liu, Bo Zheng, Lei-Lei Nian, Long Xiong

Journal: Physical Review E

Year: 2025

Chiral-induced angular momentum radiation in single molecular junctions

Authors: Bing-Zhong Hu, Zu-Quan Zhang, Lei-Lei Nian, Jing-Tao Lü

Journal: Physical Review B

Year: 2024

Current-induced local heating and extractable work in nonthermal vibrational excitation

Authors: Jin-Yi Wang, Zu-Quan Zhang, Lei-Lei Nian

Journal: Physical Review B

Year: 2024

Conclusion

Prof. Dr. Lei-Lei Nian has established himself as a leading researcher in condensed matter physics, with a particular focus on nanoscale systems and their quantum behaviors. His extensive academic background, impactful research contributions, and dedication to mentoring young scholars mark him as a key figure in the continued advancement of quantum science. By pushing the limits of quantum transport and statistics, he is shaping both the present and the future of nanoscale physics and quantum technology.

Yafei Qin | Flexible Sensor | Best Researcher Award 

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Assoc. Prof. Dr. Yafei Qin | Flexible Sensor | Best Researcher Award 

Kunming University of Science and Technology | China

Assoc. Prof. Dr. Yafei Qin is a researcher in mechanical engineering at Kunming University of Science and Technology, specializing in micro-nano precision manufacturing, flexible sensing materials, MEMS sensors, electronic skin, and hybrid electronic devices. He earned his Ph.D. and Master’s degrees in Mechanical Engineering from Xi’an Jiaotong University and his Bachelor’s from Xi’an Polytechnic University. With over 40 publications, 20+ national patents, and leadership of 8 funded projects, his interdisciplinary research integrates mechanics, electronics, materials, and health applications, advancing innovations in intelligent robotics, human–computer interaction, smart healthcare, agriculture, and environmental monitoring. He is a recipient of the Yunnan “Xingdian Talent Support Program” and the Yunnan Provincial Natural Science Award (Second Prize).

Author Profiles

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Early Academic Pursuits

Assoc. Prof. Dr. Yafei Qin began his academic journey in Mechanical Engineering, earning his Bachelor’s degree from Xi’an Polytechnic University in 2006. His strong foundation in engineering and automation drove him toward higher education. He continued at Xi’an Jiaotong University, completing his Master’s degree in Mechanical Engineering in 2013 and later obtaining his Ph.D. in 2017. His early academic pursuits showcased his commitment to interdisciplinary learning and innovation, laying the groundwork for his future contributions in advanced manufacturing and flexible sensor technologies.

Professional Endeavors

Dr. Qin’s professional career commenced at Kunming University of Science and Technology, where he served as a Lecturer from 2018 to 2022. Demonstrating excellence in teaching and research, he was promoted to Associate Professor in 2022. His academic leadership and professional endeavors are highlighted by his active engagement in cutting-edge projects, mentorship of students, and contributions to the advancement of engineering and applied sciences.

Contributions and Research Focus

Dr. Qin has led more than eight research projects funded by the National Natural Science Foundation of China and at provincial and ministerial levels. His primary research focus lies at the intersection of mechanics, electronics, chemistry, and healthcare. He is committed to advancing micro-nano precision manufacturing technologies and has made remarkable contributions to flexible sensor materials and devices, MEMS sensors, electronic skin, and hybrid flexible electronics. His research also extends to packaging testing, circuit development, and signal algorithm processing, with wide applications in intelligent robotics, smart healthcare, environmental monitoring, modern agriculture, and human-computer interaction.

Impact and Influence

Dr. Yafei Qin’s impact is evident through his extensive publication record of over 40 papers in prestigious journals such as Advanced Functional Materials, ACS Sensors, and the Chemical Engineering Journal. He has also applied for and received more than 20 national invention patents, which demonstrates his role in driving technological innovation. His work on flexible sensor devices has significantly influenced the development of smart systems across multiple industries. Furthermore, his recognition under Yunnan Province's "Xingdian Talent Support Program" for Young Talents highlights his influence as a rising leader in interdisciplinary research.

Academic Cites

The academic significance of Dr. Qin’s work is reflected in the wide citation of his research contributions. His publications on flexible sensing devices, MEMS sensors, and micro-nano systems are widely referenced by scholars, researchers, and industrial practitioners, affirming the relevance and applicability of his work in advancing flexible sensor technology and interdisciplinary innovation.

Legacy and Future Contributions

Looking forward, Dr. Yafei Qin is expected to continue pushing the boundaries of interdisciplinary research, particularly in the areas of micro-nano manufacturing and flexible electronic devices. His legacy will be defined by his role in advancing flexible sensor applications in healthcare, robotics, and smart environments. With his innovative mindset, patents, and academic contributions, he is poised to train the next generation of engineers and researchers, ensuring the sustainability of progress in this dynamic field.

Publications

Kedi Chen, Yafei Qin, Xi Wang, Xuanmo Zhao, Fanchen Luo, Weichen Huang ( 2025). "Dual-faced stretchable electronics with ultra-stable, strain-insensitive conductivity via semi-embedded particle-liquid metal crosslinking" in Journal of Applied Materials Today.

Ying Li, Ying Wang, Xi Wang, Yiwen Wang, Bokai Zhang, Renhan Li, Chengbang Zhang, Lingjie Kong, Jian Zhang, Yafei Qin (2025). "Linear Range Enhancement in Flexible Piezoresistive Sensors Enabled by Double‐Layer Corrugated Structure" in Journal of Advanced Functional Materials.

Xuanmo Zhao, Ying Li, Kedi Chen, Weichen Huang, Fanchen Luo, Xi Wang, Yafei Qin ( 2025). "Correction to “Completely Flexible Self-Powered Pressure Sensor Based on Electrospinning and Electrochemical Reaction for Dynamic/Static Stimuli Detecting” in Journal of ACS Sensors.

Bohan Cheng, Yanjun Guo, Xiaojing Yang, Yafei Qin, Tong Yao, Wenhua Miao, Fang Lou ( 2025). "A hierarchical registration method for optical surface measurement based on a meta-heuristic algorithm" in Journal of Measurement Science and Technology.

Xuanmo Zhao, Ying Li, Kedi Chen, Weichen Huang, Fanchen Luo, Xi Wang, Yafei Qin ( 2025). "Completely Flexible Self-Powered Pressure Sensor Based on Electrospinning and Electrochemical Reaction for Dynamic/Static Stimuli Detecting" in Journal of ACS Sensors.

Fanchen Luo, Yafei Qin, Xi Wang, Xuanmo Zhao, Kedi Chen, Weichen Huang ( 2024). "Enhanced high-strength, temperature-resistant PVA hydrogel sensors with silica/xanthan/glycerol for posture monitoring and handwriting recognition using deep learning" in Journal of Materials Chemistry C.

Conclusion

Assoc. Prof. Dr. Yafei Qin has emerged as a distinguished scholar and innovator in mechanical engineering and interdisciplinary sciences. His journey from a strong academic foundation to impactful research in advanced technologies underscores his commitment to scientific excellence. Through his pioneering work in flexible sensor technologies, interdisciplinary applications, and contributions to academia and industry, Dr. Qin continues to shape the future of intelligent systems, healthcare, and sustainable innovation.

Jingkang Li | Power Engineering and Engineering Thermal Physics | Best Researcher Award 

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Mr. Jingkang Li | Power Engineering and Engineering Thermal Physics | Best Researcher Award 

Tsinghua University | China

Mr. Jingkang Li is a Ph.D. candidate in Power Engineering and Engineering Thermophysics at Tsinghua University, specializing in modeling and control of novel energy power systems. His research focuses on heat pipe cooled modular reactor systems integrated with the Closed Brayton Cycle, where he has led simulation modeling, control system design, and HIL verification under China’s National Key R&D Program. He has published in leading journals such as Energy and Annals of Nuclear Energy, presented at international conferences, and holds multiple patents and software copyrights in nuclear power systems and electric wheel technologies.

Author Profiles

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Early Academic Pursuits

Mr. Jingkang Li began his academic career at Tsinghua University, one of China’s most prestigious institutions. He obtained his Bachelor of Engineering in Vehicle Engineering from the School of Vehicle and Transportation (2015–2019), focusing on the electromechanical coupling characteristics of electric wheels. During this time, he received several honors, including the Outstanding Academic Performance Award (2016–2018), which reflected his strong academic foundation. In 2019, he continued his journey at Tsinghua University as a PhD Candidate in Power Engineering and Engineering Thermal Physics, supported by the Future Scholars Scholarship. His early pursuits highlighted his passion for integrating engineering, energy systems, and advanced modeling approaches.

Professional Endeavors

Throughout his doctoral studies, Mr. Li actively participated in key national and international projects. Since 2020, he has been a key member of the National Key R&D Program of China, contributing to the modeling and control of heat pipe cooled modular reactor power systems combined with the Closed Brayton Cycle (CBC). His professional endeavors include designing simulation models, conducting failure mode analyses, developing innovative control methodologies, and carrying out hardware-in-the-loop (HIL) verification. Additionally, his earlier research (2018–2019) addressed the torsional vibration characteristics of electric wheels, underscoring his interdisciplinary expertise across mechanical and thermal systems.

Contributions and Research Focus

Mr. Li’s primary research contributions lie in the field of Power Engineering and Engineering Thermal Physics, particularly in the modeling and control of novel nuclear power systems. His work integrates heat pipe cooled reactors with CBC systems, providing critical insights into coupled thermal and dynamic performance. He has also developed optimization frameworks for nuclear-battery hybrid systems designed for distributed power sources. Beyond nuclear applications, his patents on electric wheel designs and hydrogen production devices demonstrate his contributions to clean energy and advanced mobility technologies. His research focus embodies innovation at the intersection of nuclear power, electric vehicles, and energy storage systems.

Impact and Influence

Mr. Li has established himself as an emerging scholar in Power Engineering and Engineering Thermal Physics, producing impactful research published in high-quality journals such as Energy (2023) and Annals of Nuclear Energy (2025). His work has been presented at prestigious conferences, including the International Symposium on Future I&C for Nuclear Power Plants (ISOFIC) and the China Automation Congress (CAC). His influence extends to practical technology development, evidenced by multiple patents and software copyrights related to simulation, optimization, and nuclear-electric hybrid systems. These efforts showcase his ability to bridge theoretical research with industrial application.

Academic Cites

Mr. Li’s publications have attracted attention from the global academic community, reflecting the growing relevance of his research. His articles on coupled reactor-Brayton cycle characteristics and temperature fluctuation mitigation strategies are positioned to be highly cited in the years ahead. His intellectual property contributions patents and registered software further expand his academic footprint, ensuring long-term recognition of his innovative approaches in Power Engineering and Engineering Thermal Physics.

Legacy and Future Contributions

Mr. Li’s legacy is being built through his innovative contributions to nuclear power system modeling, clean mobility, and hybrid energy integration. His future work will likely advance the safe, efficient, and sustainable operation of next-generation nuclear reactors while also addressing challenges in distributed energy and electric vehicle systems. As he completes his PhD at Tsinghua University, his expertise positions him as a future leader in both academia and industry, shaping the evolution of energy systems.

Power Engineering and Engineering Thermal Physics

Mr. Li’s academic career is deeply rooted in Power Engineering and Engineering Thermal Physics, where he has developed innovative models for nuclear reactor systems and hybrid energy technologies. His patents and software contributions also highlight the practical application of Power Engineering and Engineering Thermal Physics principles. Looking ahead, his interdisciplinary research in nuclear, mobility, and renewable energy systems promises to further advance Power Engineering and Engineering Thermal Physics as a driving force for sustainable innovation.

Publications

Jingkang Li, Zunyan Hu, Zeguang Li, Liangfei Xu, Jianqiu Li (2025). "Optimization and parameter sizing of nuclear-battery hybrid system for distributed power source" in Nuclear Engineering and Technology.

 Li, J.; Hu, Z.; Jiang, H.; Guo, Y.; Li, Z.; Zhuge, W.; Xu, L.; Li, J.; Ouyang, M (2023). "Coupled Characteristics and Performance of Heat Pipe Cooled Reactor with Closed Brayton Cycle".

Dong, J.; Gao, Q.; Li, J.; Li, J.; Hu, Z.; Liu, Z. (2023). "Innovative modeling strategy of wind resistance for platoon vehicles based on real-time disturbance observation and parameter identification" in Proceedings of the Institution of Mechanical Engineers,  Journal of Automobile Engineering.

Li, H.; Hu, Z.; Hu, J.; Li, J.; Li, J.; Li, Y.; Xu, L.; Liu, S.; Ouyang, M (2023). "Slip ratio estimation of electric wheels based on tire force and road conditions" in Proceedings of the Institution of Mechanical Engineers,  Journal of Automobile Engineering.

Jingkang Li, Zunyan Hu, Hongsheng Jiang, Yuchuan Guo, Zeguang Li, Weilin Zhuge, Liangfei Xu, Jianqiu Li, Minggao Ouyang (2023). Coupled characteristics and performance of heat pipe cooled reactor with closed Brayton cycle.

Yan, K.; Li, J.; Li, J.; Hu, Z.; Hu, J.; Zhang, Q.; Xu, L.; Ouyang, M (2022). "A Novel Safety-Oriented Control model of HTC with Electromechanical Interfaces" in 2022 6th CAA International Conference on Vehicular Control and Intelligence (CVCI 2022).

Conclusion

Mr. Jingkang Li has demonstrated exceptional academic ability, professional dedication, and innovative research across nuclear systems, electric vehicle technologies, and hybrid energy platforms. His achievements in Power Engineering and Engineering Thermal Physics not only contribute to cutting-edge scholarship but also have real-world implications for sustainable energy. With a solid foundation of publications, patents, and honors, his career trajectory points toward impactful leadership and future breakthroughs in the global energy field.

Libing Zhou | Silicon-based Optoelectronics | Best Researcher Award

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Mr. Libing Zhou | Silicon-based Optoelectronics | Best Researcher Award 

Shanghai Institute of Optics and Fine Mechanics, Chinese Academy of Sciences | China

Mr. Libing Zhou is a researcher and doctoral supervisor at the Shanghai Institute of Optics and Fine Mechanics, Chinese Academy of Sciences. A graduate of Huazhong University of Science and Technology (2005, Physical Electronics), he has been recognized as a leading talent under China’s “Ten Thousand Talents Program” and the CAS “Hundred Talents Program.” His work focuses on silicon-based optoelectronic chip technology and its advanced applications, with over 30 patents and 30+ high-impact publications. His contributions span integrated photonic devices, optical amplifiers, and laser systems, advancing innovations in space communication, sensing, and semiconductor photonics.

Author Profile
Scopus

Early Academic Pursuits

Mr. Libing Zhou began his academic journey at Huazhong University of Science and Technology, where he graduated in 2005 with a major in Physical Electronics. His strong academic foundation and early interest in advanced photonics and semiconductor devices paved the way for his long-standing career in silicon-based optoelectronics. His commitment to scientific excellence was further recognized when he was selected under prestigious national programs, including the National "Ten Thousand Talents Program" and the "Hundred Talents Program" of the Chinese Academy of Sciences.

Professional Endeavors

Currently, Mr. Zhou is a researcher and doctoral supervisor at the Shanghai Institute of Optics and Fine Mechanics, Chinese Academy of Sciences. His professional endeavors are centered around the design, fabrication, and application of optoelectronic chip technologies. He has successfully combined academic research with practical innovation, bridging fundamental physics with real-world applications in optical communication, sensing, and integrated systems.

Contributions and Research Focus

Mr. Zhou’s research primarily focuses on silicon-based optoelectronics, particularly in photonic chip development, laser systems, optical amplifiers, and multi-functional integrated devices. He has applied for more than 30 domestic and international invention patents, such as silicon-based erbium-doped amplifiers, QPSK transceivers, and multi-chip collaborative optical phased array devices. He has also published over 30 high-level SCI-indexed papers in top-tier journals, advancing the understanding of photonic device performance optimization and integration.

Impact and Influence

Through his pioneering work in silicon-based optoelectronics, Mr. Zhou has influenced both academic research and industrial applications. His patents and publications demonstrate a strong commitment to advancing optical technologies, making substantial contributions to communications, LiDAR sensing, and integrated chip platforms. His selection as a leading talent in scientific and technological innovation underscores his influence at both national and international levels.

Academic Cites

Mr. Zhou’s scientific output is widely cited in journals such as Optics Express, Photonics Research, Nanophotonics, and J. Phys. Photonics. His research on femtosecond laser modifications, microring resonators, and integrated photonic devices has been recognized as a cornerstone for ongoing work in next-generation optical systems. His academic citations demonstrate the reliability, novelty, and impact of his findings in silicon-based optoelectronics.

Legacy and Future Contributions

Looking ahead, Mr. Zhou’s legacy will be marked by his leadership in advancing chip-scale photonics. He aims to expand research into thin-film lithium niobate modulators, integrated dual-frequency lasers, and multi-functional silicon-based amplifiers. His mentorship of doctoral candidates ensures that his expertise continues to inspire future scientists and engineers. His long-term contributions will strengthen China’s position in global optoelectronics innovation.

Publications

High-bandwidth CMOS-level integrated thin-film lithium niobate electro-optic modulator at 1064 nm wavelength

Journal: Optics and Laser Technology

Year: 2025

Conclusion

Mr. Libing Zhou stands out as a highly accomplished researcher whose dedication to silicon-based optoelectronics has resulted in significant academic and industrial advancements. With over 30 patents, numerous high-impact publications, and recognized national honors, his career reflects a commitment to technological progress and academic excellence. His continued innovations promise to leave a lasting legacy in the global field of photonics and integrated optoelectronic systems.

Le Bach | Semiconductor Packaging | Best Researcher Award

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Dr. Le Bach | Semiconductor Packaging | Best Researcher Award 

Seoul National University of Science and Technology | South Korea

Dr. Le Bach is a mechanical engineering researcher specializing in structural and thermal analysis for advanced semiconductor packaging and electronic devices. He holds a Ph.D. in Nano IT Design Fusion from Seoul National University of Science and Technology (2025), where his dissertation focused on preventing crack formation in 2.5D glass interposers and hybrid bonding structures. With prior M.Sc. and B.Sc. degrees from Hanoi University of Science and Technology, his research spans nanomechanics, reliability assessment, structural optimization, and vibration analysis for gyroscope sensors. His work integrates computational simulations with practical applications in semiconductor packaging, electronic device reliability, and advanced materials.

Author Profile

Google Scholar

Early Academic Pursuits

Dr. Le Bach’s academic journey began at Hanoi University of Science and Technology, where he earned his Bachelor’s degree in Mechanical Engineering in 2019. His early research explored 2D low-dimensional materials with hexagonal structures for artificial muscles, highlighting his interest in advanced material science and mechanics. He continued at the same institution for his Master’s degree (2021), focusing on actuator properties of two-dimensional materials for robotic arm applications, combining materials engineering with robotics. In pursuit of higher excellence, he obtained his Ph.D. at Seoul National University of Science and Technology in 2025, with a dissertation on “Assessment and Prevention of Crack Formation in 2.5D Glass Interposer and Hybrid Bonding Structure.” This work laid the foundation for his expertise in semiconductor packaging.

Professional Endeavors

Dr. Le Bach has accumulated diverse professional experiences bridging industry and academia. As a Postdoctoral Researcher at the MEMS and Packaging System Lab (2025–present), he focuses on structural and thermal analysis for advanced semiconductor packaging. Earlier, he worked as a research student (2019–2021) at the International Institute for Computational Science and Engineering, specializing in nanomechanics and the dynamic stability of 2D materials. His industry experience includes roles at Maxflow Technology Vietnam (2018–2021) in structural analysis, lifetime prediction, and optimization, and Showa Auto Parts Vietnam (2017–2018), where he contributed to mold design, flow simulation, and product development. These combined endeavors enriched his applied knowledge in semiconductor packaging technologies.

Contributions and Research Focus

Dr. Bach’s research focus centers on mechanical numerical simulations, structural analysis, and thermal performance assessments of semiconductors and electronic devices. He has contributed to the lifetime prediction and reliability assessment of microelectronic components and advanced structural optimization techniques. His research in vibration analysis for gyroscope sensors further expands his portfolio in sensor technology. His pioneering contributions toward preventing crack formation in interposers and hybrid bonding structures are highly relevant to reliability in semiconductor packaging.

Impact and Influence

Dr. Bach has made an impact by bridging fundamental research in 2D materials with applied challenges in semiconductor and electronic device reliability. His studies on structural and thermal performance provide valuable insights for industry practices, especially in the development of reliable semiconductor packaging systems. His interdisciplinary expertise influences both academic research communities and industrial R&D in Vietnam, Korea, and beyond.

Academic Cites

Although at the early stage of his academic career, Dr. Bach’s contributions are gaining recognition in the scientific community. His doctoral dissertation and published works on 2D materials and advanced packaging structures have already become reference points for scholars working on material reliability and semiconductor packaging performance. His academic trajectory suggests that his citation count and recognition will continue to grow in the coming years.

Legacy and Future Contributions

Dr. Bach is poised to make lasting contributions in the realm of semiconductor packaging by developing novel approaches for structural optimization, crack prevention, and lifetime assessment of advanced electronic devices. His future work aims to refine predictive models for electronic device reliability and contribute to the next generation of energy-efficient, reliable, and miniaturized devices. Additionally, through mentorship and collaboration, he will inspire future researchers in the intersection of materials science, mechanics, and semiconductor technologies.

Publications

X.L. Le, X.B. Le, Y. Hwangbo, J. Joo, G.M. Choi, Y.S. Eom, K.S. Choi, S.H. Choa (2023). "Mechanical reliability assessment of a flexible Package fabricated using laser-assisted bonding" in Micromachines

X.B. Le, S.H. Choa (2024). "A comprehensive numerical analysis for preventing cracks in 2.5D glass interposer" in Journal of Mechanical Science and Technology

X.B. Le, S.H. Choa (2024). "Assessment of the Risk of Crack Formation at a Hybrid Bonding Interface Using Numerical Analysis" in Micromachines

L.X. Bach, V. Van Thanh, H. Van Bao, D. Van Truong, N.T. Hung (2021). "Electromechanical Properties of Monolayer Sn-Dichalcogenides" in Modern Mechanics and Applications: Select Proceedings of ICOMMA 2020

V. Van Thanh, N.T. Dung, L.X. Bach, D. Van Truong, N.T. Hung (2021). "Turning Electronic and Optical Properties of Monolayer Janus Sn-Dichalcogenides By Biaxial Strain" in Modern Mechanics and Applications: Select Proceedings of ICOMMA 2020

Conclusion

Dr. Le Bach represents a new generation of scholars whose work connects fundamental material science with the applied engineering challenges of modern electronics. With expertise in semiconductor packaging, structural analysis, and reliability assessment, his career promises impactful contributions to both academic and industrial advancements. His balanced background in academia and industry ensures a legacy that will continue shaping innovations in electronic device performance, reliability, and sustainability.