Ming-Feng Yeh | Applications of Sensors | Innovative Research Award

Posted on by Global Sensor Awards

Innovative Research Award

Ming-Feng Yeh
Lunghwa University of Science and Technology, Taiwan

Ming-Feng Yeh
Affiliation Lunghwa University of Science and Technology
Country Taiwan
Scopus ID 7202944174
Documents 56
Citations 732
h-index 14
Subject Area Electrical Engineering, Artificial Intelligence, Machine Learning, Intelligent Systems
Event Global Sensor Award

Professor Ming-Feng Yeh is an accomplished academic and researcher in the field of electrical engineering and intelligent systems. He has devoted his career to advancing research and education in areas including grey system theory, neural networks, evolutionary algorithms, machine learning, pattern recognition, automatic control, bioengineering applications, and smart systems. Through decades of teaching, research, and scholarly publication, he has contributed to the development of innovative computational techniques and intelligent technologies that support modern engineering solutions.[1]

Abstract

Ming-Feng Yeh is a Professor in the Department of Electrical Engineering at Lunghwa University of Science and Technology, Taiwan. His research activities focus on intelligent computational methods, machine learning, neural network architectures, grey system theory, evolutionary computation, automatic control systems, and engineering applications in bioengineering and pattern recognition. His scholarly contributions have supported the advancement of intelligent decision-making systems and modern engineering technologies.[1]

Keywords

Electrical Engineering, Machine Learning, Neural Networks, Grey System Theory, Evolutionary Algorithms, Pattern Recognition, Intelligent Systems, Automatic Control, Artificial Intelligence, Bioengineering.

Introduction

Artificial intelligence and intelligent computational systems have become essential components of contemporary engineering research. Scholars who integrate machine learning, optimization techniques, and intelligent control methodologies contribute significantly to technological innovation. Ming-Feng Yeh has established a long-standing academic career dedicated to these disciplines, combining theoretical research with practical engineering applications across multiple domains.[1]

Research Profile

Professor Yeh received his Bachelor of Science, Master of Science, and Doctor of Philosophy degrees in Electrical Engineering from Tatung University, Taipei, Taiwan, in 1993, 1995, and 1999 respectively. Since 2001, he has been associated with Lunghwa University of Science and Technology, where he serves as Professor in the Department of Electrical Engineering. His academic work focuses on the development of computational intelligence methodologies and their implementation in engineering and scientific applications.[1]

Research Contributions

  • Research and development in grey system theory and intelligent forecasting techniques.
  • Applications of neural network models for engineering problem solving.
  • Evolutionary algorithm optimization for complex decision-making systems.
  • Machine learning methodologies for intelligent automation.
  • Pattern recognition techniques for advanced computational systems.
  • Research contributions to automatic control and smart system development.
  • Interdisciplinary applications involving bioengineering and intelligent technologies.

Publications

Professor Yeh has authored and co-authored scholarly publications covering machine learning, grey system theory, neural networks, optimization algorithms, pattern recognition, and intelligent control systems. His research outputs contribute to both theoretical advancements and practical engineering implementations documented through international journals and conference proceedings.[2]

Research Impact

The research conducted by Ming-Feng Yeh has supported developments in intelligent computing and engineering applications. His work has enhanced understanding of computational intelligence techniques and their implementation in automated systems, forecasting models, bioengineering technologies, and smart engineering environments. His academic activities have also contributed to educating future engineers and researchers in Taiwan and beyond.[1]

Award Suitability

Professor Ming-Feng Yeh demonstrates qualifications appropriate for recognition in research excellence and engineering innovation. His extensive academic experience, long-term commitment to higher education, and contributions to intelligent systems, machine learning, and computational engineering reflect sustained scholarly achievement and professional leadership within the engineering community.[1]

Conclusion

Ming-Feng Yeh has built a distinguished academic career through research, teaching, and innovation in electrical engineering and intelligent systems. His contributions to machine learning, neural networks, grey system theory, and smart technologies continue to support advances in engineering research and education. His work represents a meaningful contribution to the development of modern computational intelligence and applied engineering solutions.[1]

References

  1. Biography of Ming-Feng Yeh. Department of Electrical Engineering, Lunghwa University of Science and Technology, Taiwan.
  2. Elsevier. (n.d.). Scopus Author Details: Ming-Feng Yeh, Author ID 7202944174. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=7202944174
  3. DOI Foundation. Digital Object Identifier System.

Jai Dev | Electromagnetic Sensors | Best Researcher Award

Posted on by Global Sensor Awards

Best Researcher Award

Jai Dev
Affiliation CSIR–National Physical Laboratory (NPL), New Delhi
Country India
Scopus ID 58793674400
Documents 7
Citations 32
h-index 3
Subject Area Condensed Matter Physics, Magnetism, Spintronics, Functional Materials
Event Global Sensor Awards

Jai Dev is an Indian experimental condensed matter physicist affiliated with the CSIR–National Physical Laboratory (NPL), New Delhi, and a doctoral researcher at the Academy of Scientific and Innovative Research (AcSIR). His research focuses on multifunctional magnetic materials, topological transport phenomena, magnetocaloric effects, giant magnetoresistance, skyrmionic spin textures, and thin-film spintronic systems. Through extensive experimental investigations on modified Mn2Sb-based compounds and related magnetic materials, he has contributed to advancing the understanding of magnetic anisotropy, topological Hall effects, and device-oriented magnetic functionalities.[1]

Abstract

Jai Dev’s research centers on the synthesis, characterization, and functional understanding of magnetic materials exhibiting technologically relevant properties. His doctoral investigations emphasize modified Mn2Sb systems, topological transport phenomena, giant magnetoresistance, magnetocaloric effects, and ferrimagnetic spin textures. By combining advanced crystal growth techniques, magnetic characterization tools, and transport measurements, he has contributed to understanding the relationship between crystal structure, magnetic interactions, and electronic transport. His work extends toward thin-film architectures for next-generation spintronic applications, including racetrack memory, neuromorphic computing, and skyrmion-based devices.[2]

Keywords

Condensed Matter Physics, Spintronics, Magnetocaloric Effect, Giant Magnetoresistance, Topological Hall Effect, Ferrimagnetism, Magnetic Anisotropy, Skyrmions, Functional Materials, Thin Films, Magnetic Refrigeration, Magnetic Sensors, Chiral Spin Textures, Magnetotransport, Mn2Sb Compounds.

Introduction

The development of multifunctional magnetic materials remains a major area of contemporary condensed matter research because of their potential applications in information storage, sensing technologies, refrigeration, and energy-efficient computing. Jai Dev has focused his academic career on understanding the fundamental magnetic and electronic behaviors of intermetallic compounds and related systems. His research addresses important scientific questions regarding magnetic phase transitions, anisotropic transport, topological spin textures, and magnetically driven functionalities that can support future device technologies.[3]

Research Profile

As a doctoral researcher at AcSIR and CSIR–NPL, Jai Dev has developed expertise across the complete experimental materials research cycle, including crystal growth, thin-film fabrication, structural characterization, magnetic measurements, and transport analysis. His technical competencies include operation of PPMS, MPMS, SQUID magnetometers, Raman spectroscopy systems, thermal evaporation units, X-ray diffraction instruments, and advanced materials synthesis facilities.[4]

His scientific interests encompass interface magnetism, skyrmion stabilization, chiral magnetic interactions, anisotropic magnetotransport, permanent magnets, magnetic refrigeration, and multifunctional materials. Through both bulk and thin-film studies, he investigates mechanisms that govern magnetic ordering and transport signatures in technologically relevant systems.[4]

Research Contributions

  • Investigated giant magnetoresistance and coercivity evolution in modified MnZnSb systems through processing-controlled magnetic engineering.
  • Reported coexistence and tunability of conventional and inverse magnetocaloric effects in Ge-modified MnZnSb single crystals.
  • Studied asymmetric magnetoresistance and topological Hall effect signatures associated with non-trivial spin textures.
  • Contributed to thin-film investigations of magnetic Heusler compounds exhibiting weak anti-localization and magnetotransport phenomena.
  • Advanced understanding of ferrimagnetic materials exhibiting finite spin chirality and topological transport responses.
  • Expanded research toward skyrmion-based spintronic devices, neuromorphic architectures, and next-generation memory technologies.

Publications

Jai Dev has authored and co-authored numerous peer-reviewed publications in internationally recognized journals including Physica Status Solidi A, Physica Status Solidi B, ACS Applied Electronic Materials, Journal of Magnetism and Magnetic Materials, Journal of the American Ceramic Society, and the Journal of the Australian Ceramic Society. His publications collectively address magnetic phase transitions, magnetocaloric behavior, topological transport, ferrimagnetism, thin-film magnetism, and multifunctional magnetic materials.[5]

  • Material Processing–Driven Evolution of Magnetic Coercivity and Magnetoresistance in Mn2-xZnxSb0.9Bi0.1 Compounds (2026).
  • Tuning of Conventional and Inverse Magnetocaloric Effect Coexistence in Ge‐Modified MnZnSb Single Crystal (2025).
  • Asymmetric Magnetoresistance and Topological Hall Effect in MnZnSb Single Crystal (2025).
  • Pd-Doped RuO2 as a Battery–Supercapacitor Hybrid Electrode (2024).
  • Weak Anti-localization and Magnetotransport in Disordered Mn2Ni1.6Sn0.4 Thin Films (2024).

Research Impact

The research portfolio of Jai Dev contributes to the growing international effort to develop advanced magnetic materials for future information technologies and energy-efficient devices. His studies on topological Hall effects, skyrmion-related phenomena, and magnetocaloric materials provide valuable experimental insights into fundamental magnetic interactions while also addressing practical technological applications. His participation in major scientific conferences, including the Joint MMM–Intermag Conference in the United States, further demonstrates active engagement with the global magnetism research community.[3]

Award Suitability

Jai Dev demonstrates strong qualifications for recognition under emerging researcher and research excellence award categories. His accomplishments include successful doctoral research, multiple peer-reviewed publications, advanced expertise in materials synthesis and characterization, and contributions to the understanding of topological magnetic phenomena. The combination of fundamental scientific discoveries and application-oriented research in spintronics, magnetic refrigeration, and sensor technologies supports his suitability for academic recognition programs focused on innovation and future technological impact.[4]

Conclusion

Jai Dev represents a new generation of condensed matter physicists working at the intersection of fundamental magnetism and emerging device technologies. His research contributions in multifunctional magnetic materials, topological transport phenomena, and spintronic architectures highlight a sustained commitment to scientific advancement. Through continued exploration of skyrmions, chiral magnetic interactions, and thin-film systems, his work is positioned to contribute meaningfully to future developments in memory technologies, neuromorphic computing, sensors, and sustainable electronic devices.[5]

References

  1. CSIR–National Physical Laboratory and AcSIR. Research profile and doctoral research activities of Jai Dev.
  2. Jai Dev et al. Publications related to multifunctional magnetic materials, magnetocaloric effects, and topological transport phenomena.
  3. AcSIR Doctoral Thesis. Single Crystal Growth and Characterization of Multifunctional Modified-Mn2Sb Compounds.
  4. Research expertise, instrumentation experience, and materials synthesis capabilities documented in the academic profile.
  5. Selected publications in Physica Status Solidi, ACS Applied Electronic Materials, and Journal of Magnetism and Magnetic Materials.

Anncharlott Kusber | Physical Sensors | Women Researcher Award

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Women Researcher Award

Anncharlott Kusber
Affiliation Technical University of Dresden – Dresden Integrated Center for Applied Physics and Photonic Materials (IAPP)
Country Germany
Scopus ID 57956893800
Documents 4
Citations 13
h-index 2
Subject Area Physics, Organic Electronics, Photonics
Event Global Sensor Awards

Anncharlott Kusber
IAPP- Dresden Integrated Center for Applied Physics and Photonic Materials, Germany

Anncharlott Kusber is a physicist and doctoral researcher at the Technical University of Dresden, Germany, specializing in organic semiconductor physics and optoelectronic device characterization. Her research focuses on understanding the physical mechanisms behind dark and noise current generation in organic photodetectors and developing strategies to improve their performance and reliability. Through experimental characterization techniques and device analysis, she contributes to advancing fundamental knowledge in organic electronics and photonic materials research. Her work is associated with the Dresden Integrated Center for Applied Physics and Photonic Materials (IAPP), where interdisciplinary collaborations aim to bridge materials science, device engineering, and applied physics research. [1]

Abstract

Research in organic photodetectors has expanded significantly due to their flexibility, low-cost fabrication, and compatibility with emerging optoelectronic technologies. Anncharlott Kusber’s research focuses on identifying and mitigating sources of dark current and noise in organic photodetectors, which remain key challenges affecting sensitivity and device stability. Through experimental characterization techniques such as external quantum efficiency measurements, impedance spectroscopy, and temperature-dependent current–voltage analysis, her work contributes to the understanding of charge transport and recombination processes in organic semiconductor devices. These investigations support the development of improved photodetection technologies for sensing, imaging, and communication applications. [2]

Keywords

  • Organic Photodetectors
  • Applied Solid State Physics
  • Organic Semiconductors
  • Photonics
  • Charge Transport Mechanisms
  • Optoelectronic Device Characterization

Introduction

Organic electronic devices represent an evolving field in modern materials science and applied physics. Organic photodetectors, in particular, offer unique advantages such as mechanical flexibility, tunable spectral response, and compatibility with large-area manufacturing techniques. However, the presence of unwanted electrical currents—specifically dark current and electronic noise—poses challenges for device sensitivity and reliability. Understanding the physical origins of these currents is critical for improving the performance of organic optoelectronic devices. Research conducted at the Technical University of Dresden and the Dresden Integrated Center for Applied Physics and Photonic Materials addresses these challenges through interdisciplinary investigation of semiconductor physics and device engineering. [3]

Research Profile

Anncharlott Kusber began her academic training in physics at the Technical University of Dresden, where she completed both her Bachelor of Science and Master of Science degrees with a focus on applied solid-state physics and photonics. Her master’s research examined the optical properties of the organic semiconductor Dimethylanthradithiophene (DMADT) using electron energy loss spectroscopy (EELS). Currently, as a doctoral researcher, she investigates dark current and noise current mechanisms in organic photodetectors. Her research integrates experimental techniques including impedance spectroscopy, external quantum efficiency measurements, and temperature-dependent electrical characterization to analyze electronic processes within organic semiconductor systems. [4]

Research Contributions

  • Investigation of dark current generation mechanisms in organic photodetectors.
  • Experimental analysis of noise current behavior in organic semiconductor devices.
  • Use of impedance spectroscopy and temperature-dependent electrical measurements to study device physics.
  • Optical and electronic characterization of organic semiconductors using EELS and spectroscopic techniques.
  • Collaborative research in applied physics and photonic materials at international research institutes.

Publications

  • Kusber, Anncharlott, et al. Advanced Functional Materials (2026): e00043.
  • Buchholtz, Stephanie A., et al. Advanced Science 12.14 (2025): 2414959.
  • Graf, Lukas, et al. Physical Review B 106.16 (2022): 165429.
  • Hubenko, Kateryna, et al. The Journal of Chemical Physics 160.14 (2024).

Research Impact

The research contributions of Anncharlott Kusber support advancements in the field of organic optoelectronics, particularly in improving the sensitivity and operational stability of organic photodetectors. Her work contributes to the broader understanding of charge transport and recombination phenomena in organic semiconductor systems. These insights are important for developing next-generation photonic devices used in imaging sensors, environmental monitoring technologies, and flexible electronic systems. By combining experimental device analysis with materials characterization techniques, her research helps address fundamental limitations in organic electronic device performance. [2]

Award Suitability

Anncharlott Kusber’s academic training, research publications, and doctoral work in applied physics and photonic materials position her as a promising early-career researcher in the field of organic electronics. Her investigations into dark current and noise current phenomena contribute to addressing key challenges in organic photodetector technology. The interdisciplinary nature of her research—combining materials science, spectroscopy, and electronic device characterization—demonstrates a strong potential for future contributions to both fundamental physics and applied optoelectronic technologies. [3]

Conclusion

The ongoing research of Anncharlott Kusber highlights the importance of understanding electronic noise and dark current processes in organic photodetectors. Through experimental analysis and collaborative research environments, her work contributes to advancing the design and optimization of organic optoelectronic devices. Continued developments in this area are expected to support emerging technologies requiring flexible, efficient, and high-sensitivity photodetection systems. Her research trajectory reflects a commitment to advancing knowledge in applied physics and photonic materials science. [4]

References

  1. Elsevier. (n.d.). Scopus author details: Anncharlott Kusber, Author ID 57956893800. Scopus.https://www.scopus.com/authid/detail.uri?authorId=57956893800
  2. Kusber, A., et al. (2026). Advanced Functional Materials.
  3. Buchholtz, S. A., et al. (2025). Advanced Science, 12(14), 2414959.
  4. ORCID. (n.d.). ORCID record for Anncharlott Kusber.https://orcid.org/0009-0008-3216-9093