Jianwen Yang | Experimental methods | Best Researcher Award

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Assoc. Prof. Dr. Jianwen Yang | Experimental methods | Best Researcher Award

Associate Professor, Master’s Supervisor, Deputy Head of the Physics Department at Shanghai Normal University | China

Dr. Jianwen Yang is an Associate Professor at Shanghai Normal University, holding a Ph.D. in Physical Electronics from Fudan University. His primary research focus lies in oxide semiconductors and information display technologies. With significant experience in addressing instability issues in industrial devices, he has contributed to analyzing the performance of a-IGZO TFTs in companies like TSMC and AUOtronics. His innovative work in n-type tin oxide-based TFTs and indium-free doped tin oxide-based TFTs has led to breakthroughs in the field, providing devices with superior electrical characteristics.

👨‍🎓Profile

Scopus

ORCID

Early Academic Pursuits 📚

Dr. Yang’s academic journey began with a solid foundation in Physical Electronics, completing his Ph.D. at Fudan University. During his early studies, he developed a keen interest in the intersection of material science and electronics, which led him to explore oxide thin-film transistors (TFTs) as a promising avenue for future advancements. His focus on new materials and material simplification laid the groundwork for his later innovations in tin oxide-based TFTs, a critical area in the development of modern information display technologies.

Professional Endeavors 💼

Dr. Yang’s professional career has been marked by collaborations with prominent industry leaders like TSMC and AUOtronics, where he contributed to solving the instability challenges in industrialized a-IGZO TFTs. These efforts have provided valuable insights into the performance optimization of thin-film transistors, further driving the industry forward. His participation in national projects, such as those funded by the National Natural Science Foundation of China (NSFC), also highlights his commitment to advancing the field through both academic research and real-world applications.

Contributions and Research Focus 🔬

Dr. Yang’s pioneering research in n-type tin oxide-based TFTs led to the introduction of novel indium-free doped tin oxide materials like SnWO, SnSiO, and SnNiO, which have all exhibited superior electrical characteristics. His work on comparing top/bottom-gate a-IGZO TFTs under varying stress conditions provided valuable insights into threshold voltage shifts and carrier concentration variations, significantly impacting the design and stability of oxide semiconductors in practical applications. He has consistently pushed the boundaries of material research, particularly in the flexible electronics sector.

Impact and Influence 🌍

Dr. Yang’s groundbreaking research has had a profound impact on the development of oxide semiconductor devices, particularly in TFT technology. His innovative approaches have been cited in multiple review articles, and his work continues to influence both academic researchers and industry practitioners. His research on indium-free tin oxide-based TFTs has not only enriched academic literature but also paved the way for more sustainable and efficient solutions in the information display industry. The superior electrical characteristics of his materials have positioned them as viable alternatives to traditional indium-based materials, which are costly and scarce.

Academic Cites 📈

Dr. Yang has published over 38 journals in top-tier scientific databases, including SCI and Scopus, with his work receiving 11 citations. His innovative research has been referenced in numerous review articles, further establishing him as a thought leader in his field. These citations reflect the widespread recognition of his research’s significance, and his publications continue to influence the academic community’s understanding of oxide semiconductors and TFT stability.

Research Skills 🛠️

Dr. Yang’s research skills span a wide range of disciplines, from material science to electronic device engineering. His expertise in thin-film transistor design, instability analysis, and new material development has allowed him to push the envelope in semiconductor research. He is particularly skilled in analyzing the electrical performance of TFTs under various stress conditions, demonstrating an acute understanding of the intricate relationship between material properties and device functionality. Additionally, his work in flexible electronics is a testament to his ability to innovate in emerging areas.

Teaching Experience 👩‍🏫

As an Associate Professor at Shanghai Normal University, Dr. Yang has been involved in educating and mentoring the next generation of scientists and engineers. He brings his extensive research experience into the classroom, enriching students’ learning experiences. Dr. Yang’s teaching focuses on semiconductor physics, material science, and electronics. His dedication to student development is evident in his guidance of graduate students and the collaborative environment he fosters for academic exploration.

Awards and Honors 🏅

Dr. Yang’s contributions have been recognized by several prestigious national research organizations, including the National Natural Science Foundation of China. His research projects, such as the Study on the Instability of Flexible Amorphous SnSiO Thin Film Transistors, have earned him respect in the academic community and have helped elevate Shanghai Normal University‘s status in the field of electronic materials research.

Legacy and Future Contributions 🔮

Dr. Yang’s research legacy lies in his innovative contributions to oxide semiconductor technology and his dedication to finding sustainable solutions for the electronics industry. His ongoing research projects, including his work on the 345GHz Submillimeter Wave Sideband Separation Receiver for LCT Telescope, show his commitment to exploring cutting-edge technologies. Moving forward, Dr. Yang plans to continue refining indium-free tin oxide-based TFTs and explore their industrial scalability. His work has the potential to impact a variety of industries, from flexible displays to advanced sensors, shaping the future of electronic materials.

Publications Top Notes

Exploring soil-buoyancy interactions: experimental designs and educational implications for enhancing students’ scientific inquiry skills

  • Authors: Zijian Gu, Jianwen Yang
    Journal: Physics Education
    Year: 2025

Fast-response IWO/Si heterojunction photodetectors

  • Authors: Xiaochuang Dai, Jianwen Yang, Huishan Wang, Yunxi Luo, Jinying Zeng, Wangzhou Shi, Feng Liu
    Journal: Journal of Physics D: Applied Physics
    Year: 2025

Enhancement of electrical characteristics of SnGaO thin-film transistors via argon and oxygen plasma treatment

  • Authors: Yinli Lu, Xiaochuang Dai, Jianwen Yang, Ying Liu, Duo Cao, Fangting Lin, Feng Liu
    Journal: Vacuum
    Year: 2024

Preparation of chalcogenide perovskite SrHfS3 and luminescent SrHfS3:Eu2+ thin films

  • Authors: Yanbing Han, Jiao Fang, Yurun Liang, Han Gao, Jianwen Yang, Xu Chen, Yifang Yuan, Zhifeng Shi
    Journal: Applied Physics Letters
    Year: 2024

Degradation Behavior of Etch-Stopper-Layer Structured a-InGaZnO Thin-Film Transistors Under Hot-Carrier Stress and Illumination

  • Authors: Dong Lin, Wan-Ching Su, Ting-Chang Chang, Hong-Chih Chen, Yu-Fa Tu, Kuan-Ju Zhou, Yang-Hao Hung, Jianwen Yang, I-Nien Lu, Tsung-Ming Tsai et al.
    Journal: IEEE Transactions on Electron Devices
    Year: 2021

 

 

Sanjiv Kane | Experimental methods | Best Innovation Award

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Mr. Sanjiv Kane | Experimental methods | Best Innovation Award

Scientific Officer at Raja Ramanna Centre for Advanced Technology | India

A Distinguished Scientific Officer in Applied Physics and Synchrotron Radiation

Sanjiv R. Kane is an experienced Scientific Officer with over 25 years of expertise in applied physics, particularly in synchrotron radiation and advanced instrumentation. He is currently pursuing a Ph.D. in Applied Physics at the Maharaja Sayajirao University of Baroda (2023–Present), focusing on advancing the fields of control systems, data acquisition software, and beamline technology. His proven experience spans across several prominent research facilities, including the Indus Synchrotron Facility and CERN, where he has contributed immensely to both research and technology development.

👨‍🎓Profile

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ORCID

📚 Early Academic Pursuits

Sanjiv started his academic journey by earning a Bachelor of Science in Physics with minors in Mathematics and Statistics from the University of Poona (1984–1987). He further pursued his Master of Science in Applied Physics at the University of Poona (1987–1989), where he laid the foundation for his extensive career in applied physics and instrumentation design.

💼 Professional Endeavors

 Since June 1999, Sanjiv has served as a Scientific Officer at the Indus Synchrotron Facility, Raja Ramanna Centre for Advanced Technology, Indore, India, where he has worked on numerous high-profile projects. His notable contributions include the development of VME-based control systems, PLC safety interlocks, and the automation of beamline operations. His efforts in designing and deploying data acquisition systems using National Instruments LabVIEW® have been crucial in advancing the synchrotron facility’s capabilities. Additionally, he has been instrumental in designing FPGA-based DAQ systems and PXI system deployments for beamline control.

🔬 Contributions and Research Focus

Sanjiv’s research is centered on synchrotron radiation, particularly in the design and development of control systems for X-ray beamlines and instrumentation. His work on extended X-ray absorption fine structure (EXAFS), soft X-ray reflectivity, and nonlinear behavior of piezoceramic actuators has gained significant attention in the field. He has co-authored several important publications, contributing to the advancement of both material characterization and synchrotron beamline technology.

🌍 Impact and Influence

 Sanjiv’s contributions have made a significant impact on synchrotron radiation research, particularly in beamline automation and data acquisition systems. His international collaborations at CERN and Indus Synchrotron Facility have helped improve the performance of synchrotron radiation facilities, making them more efficient and accessible to researchers worldwide. His papers and conference presentations continue to influence the direction of research in synchrotron instrumentation and applied physics.

📚 Academic Cites

Sanjiv’s work has been widely cited in notable academic journals and has been presented at prestigious international conferences. His publications in journals such as Nuclear Instruments and Methods in Physics Research, Rev. Sci. Instrum., and Mechanics of Advanced Materials and Structures have contributed significantly to the development of synchrotron radiation technologies. Notable works include:

  1. “Extended X-ray Absorption Fine Structure (EXAFS) measurement of Cu metal foil using thermal wave detector: A comparative study.”
  2. “A versatile beamline for soft x-ray reflectivity, absorption, and fluorescence measurements at Indus-2 synchrotron source.”
  3. “Electric field-induced nonlinear behavior of lead zirconate titanate piezoceramic actuators in bending mode.”

🔧 Research Skills

Sanjiv’s technical expertise spans several areas including:

  • Instrumentation & Control: VME systems, PLC programming (Siemens Step 7), microcontroller-based systems (ARM, 8051).
  • Programming Languages: Proficient in LabVIEW®, C/C++, Python, Visual Basic, and VEEPRO.
  • Design & Simulation: Expertise in Altium Designer, Protel, ISE (FPGA design), NI Multisim, and Electronic Workbench.
  • Data Acquisition & Analysis: In-depth experience in developing FPGA-based DAQ systems, PXI systems, and database management using Microsoft Access.

👨‍🏫 Teaching Experience

Sanjiv has extensive experience in training and mentoring junior researchers and scientists in the areas of control systems and instrumentation for synchrotron radiation. His involvement in numerous workshops, symposia, and conferences allows him to share his expertise with others in the field.

🌱 Legacy and Future Contributions

Sanjiv’s legacy lies in his contributions to synchrotron radiation research, particularly in improving beamline automation and X-ray measurement systems. As he continues his Ph.D. journey, his future contributions will likely focus on advanced control systems and enhancements to synchrotron facilities. His ongoing work promises to make lasting improvements in the development of synchrotron instrumentation that will support the scientific community in material science, biotechnology, and physics research.

Publications Top Notes

Characterizing Pyroelectric Detectors for Quantitative Synchrotron Radiation Measurements

  • Authors: SR Kane, RW Whatmore, MN Singh, S Satapathy, PK Jha, PK Mehta
    Journal: Sensors and Actuators A: Physical
    Year: 2025

Development of Piezo-actuated X-ray Deformable Mirror for Vertical Focusing of Synchrotron Radiation at Indus-2

  • Authors: HSK Jha, AK Biswas, MK Swami, A Sagdeo, C Mukherjee, SR Kane, …
    Journal: Nuclear Instruments and Methods in Physics Research Section A: Accelerators
    Year: 2024

Green Protocol For Synthesis of Cu2O@g‐C3N4 Photocatalysts For 1, 4 Radical Oxidative Addition of Trans Crotonaldehyde Under Visible Light Condition

  • Authors: BA Maru, VJ Rao, S Kane, UK Goutam, CK Modi
    Journal: ChemPhotoChem
    Year: 2024

Development and Initial Results of X-ray Magnetic Circular Dichroism Beamline at Indus-2 Synchrotron Source

  • Authors: B Kiran, SR Garg, CK Garg, S Lal, SK Nath, R Jangir, SR Kane, …
    Journal: Proceedings of the Theme Meeting on Spectroscopy Using Indus Synchrotron
    Year: 2023

Facile Single-pot Synthesis of Fe-doped Nitrogen-rich Graphitic Carbon Nitride (Fe2O3/g-C3N4) Bifunctional Photocatalysts Derived from Urea for White LED-mediated Aldol Condensation Reaction

  • Authors: BA Maru, R Joshi, VJ Rao, SR Kane, CK Modi
    Journal: Inorganic Chemistry Communications
    Year: 2025

 

Marcin Szczęch | Experimental methods | Excellence in Innovation

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Assoc. Prof. Dr. Marcin Szczęch | Experimental methods | Excellence in Innovation

AGH University of Krakow | Poland

Marcin Szczęch is a professor at the AGH University of Krakow in Poland, specializing in the study of magnetic fluids (both magnetorheological and ferrofluid) and their applications, particularly in sealing technology. With an academic career dedicated to exploring fluid dynamics and material science, Szczęch’s work has influenced several engineering fields, contributing both to theoretical studies and practical solutions. His groundbreaking contributions, particularly in magnetic fluid sealing, have earned him a reputation as a leading researcher in his field.

👨‍🎓Profile

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ORCID

Early Academic Pursuits 🎓

Marcin Szczęch’s academic journey began at the AGH University of Krakow, where he earned both his Bachelor’s and Ph.D. in Mechanical Engineering. His Ph.D. thesis focused on the durability of rotary ferrofluid seals in water environments, setting the foundation for his expertise in magnetic fluid applications. After earning his Doctor of Philosophy in 2014, he further advanced his research by exploring the continuity behavior of liquid rings formed by magnetic liquids, which earned him a post-doctoral degree in 2021.

Professional Endeavors 💼

Since 2011, Szczęch has been a faculty member at the AGH University of Krakow, currently holding the position of Professor at the Faculty of Mechanical Engineering and Robotics. In this role, he has not only continued to drive forward his research on magnetic fluids but also contributed significantly to the academic environment by mentoring over 40 students and supervising doctoral research projects. His main research areas focus on magnetorheological and ferrofluids and their use in various industrial applications, especially for fluid seals, vibration isolators, and lubrication systems.

Contributions and Research Focus 🔬

Marcin Szczęch’s research is primarily focused on magnetic fluids and their practical applications. His work has explored the use of these fluids in various contexts, such as magnetic fluid sealing systems, lubrication systems, and vibration isolators. Some of his most notable projects include the development of the Compact Magnetic Fluid Seal (CMFS) and research into biocompatible coatings for medical applications. He has also worked extensively on magnetic fluid lubricated bearings, contributing to the understanding of how these materials operate under magnetic field conditions.

Impact and Influence 🌍

Marcin Szczęch has made a significant impact in both academia and industry. His published research in prominent journals and his extensive patent portfolio (24 patents granted by the Polish Patent Office) underscores his ability to not only advance the scientific understanding of magnetic fluids but also provide practical solutions for industries such as machine design, materials science, and bioengineering. His multidisciplinary research continues to push the boundaries of engineering, positioning him as a key influencer in the development of innovative fluid dynamics solutions.

Academic Cites and Scholarly Recognition 📚

Szczęch’s scholarly work has earned him a strong reputation, as evidenced by his 52 publications on the AGH BaDAP list and 23 indexed in the Web of Science database. With an H-index of 9, Szczęch’s work has been cited numerous times, indicating its relevance and importance in the academic community. His contributions to magnetic fluid dynamics have gained recognition in a wide array of engineering disciplines, cementing his status as a thought leader in the field.

Research Skills and Expertise ⚙️

Szczęch is proficient in a variety of engineering programs such as SolidWorks, AutoCAD, Matlab, Mathcad, Ansys, and LabVIEW, and is well-versed in operating specialized research equipment like rotational rheometers, particle distribution analyzers, and 3D scanners. His expertise in magnetic fluids, coupled with his command of these advanced tools, allows him to carry out both theoretical and experimental studies that bridge the gap between research and industrial application.

Teaching Experience 📖

As a professor, Szczęch teaches a wide range of courses, including Fundamentals of Machine Construction, Machine Design, Modern Engineering Materials, and Computer-Aided Design. His teaching has positively impacted numerous students, with more than 40 thesis works realized under his supervision. He plays an active role in shaping the next generation of engineers and researchers, fostering a deep understanding of both fundamental principles and practical applications of magnetic fluid technologies.

Awards and Honors 🏆

Marcin Szczęch’s work has been recognized through various grants, patents, and research projects. He has received numerous accolades for his contributions to engineering, particularly in the areas of magnetic fluid sealing systems and lubrication technologies. His 24 patents and participation in several innovative research projects underscore his commitment to pushing the envelope of applied research. Additionally, he has been recognized for his role in supervising and mentoring students, further establishing his credibility as an academic leader.

Legacy and Future Contributions 🌱

Marcin Szczęch’s legacy is shaped by his contributions to magnetic fluid technology, especially in the development of advanced seals, lubricants, and vibration isolators. Looking forward, Szczęch is poised to expand his research into sustainable and eco-friendly applications of magnetic fluids, particularly in the context of green engineering and biotechnology. His future contributions could bridge the gap between advanced materials and sustainability, aligning his work with the growing global focus on environmentally conscious engineering solutions.

Publications Top Notes

Research into the pressure capability and friction torque of a rotary lip seal lubricated by ferrofluid

  • Authors: Marcin Szczęch
    Journal: Journal of Magnetism and Magnetic Materials
    Year: 2025

Analysis of a new type of electric power steering gear with two pinions engaged on the same set of teeth on the rack

  • Authors: Marcin Szczęch, Marcin Nakielski, Jaroslaw Bujak
    Journal: Tribologia: teoria i praktyka
    Year: 2024

Comparative study of models and a new model of ferrofluid viscosity under magnetic fields and various temperatures

  • Authors: Marcin Szczęch, Tarasevych Yuliia
    Journal: Tribologia: teoria i praktyka
    Year: 2024

Research into the properties of magnetic fluids produced by milling technology

  • Authors: Wojciech Horak, Marcin Szczęch
    Journal: Tribologia: teoria i praktyka
    Year: 2024

The influence of printing parameters on leakage and strength of fused deposition modelling 3D printed parts

  • Authors: Marcin Szczęch, Wojciech Sikora
    Journal: Advances in Science and Technology Research Journal
    Year: 2024

 

Lindobuhle Miya | Data Analysis Techniques | Best Researcher Award

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Mr. Lindobuhle Miya | Data Analysis Techniques | Best Researcher Award

PhD student at University of Johannesburg, South Africa

Lindobuhle Alfred Miya is a modest and daring young researcher with a strong background in chemistry, physics, and nanoscience. He is currently pursuing a Doctor of Philosophy in Chemistry at the University of Johannesburg, focusing on improving supercapacitor performance through his research on cobalt-based materials. With a passion for renewable energy, Lindobuhle’s research aims to contribute to the development of high-performance energy storage systems. His previous studies at the University of the Free State involved in-depth research on rare-earth doped zinc selenide for light-emitting materials. Along with his academic work, he has demonstrated leadership in peer facilitation and mentorship. Lindobuhle is eager to make a significant impact in the scientific community through publications and presentations, with aspirations to advance his career through collaborative efforts in a fast-paced environment.

👨‍🎓Profile

🎓Education 

Lindobuhle Alfred Miya’s academic journey began with a Bachelor of Science in Chemistry and Physics from the University of the Free State, where he developed a strong foundation in scientific principles. He continued his education with a Master’s in Nanoscience (2020-2023), researching rare-earth doped zinc selenide for light-emitting materials. His work employed advanced characterization techniques such as X-ray diffraction, scanning electron microscopy, and photoluminescence spectroscopy, leading to significant discoveries regarding the luminescence efficiency of doped materials. Currently, he is working toward his PhD in Chemistry at the University of Johannesburg, where his research is focused on enhancing supercapacitor performance through cobalt-based materials. Using modern electrochemical techniques, Lindobuhle is exploring energy storage applications with a specific focus on cycling stability and rate capability. His educational pursuits reflect his dedication to pushing the boundaries of materials science and energy storage technologies.

💼Professional Experience 

Lindobuhle Alfred Miya has gained valuable experience through various academic and mentorship roles. He served as a Peer Facilitator at the University of the Free State from 2019 to 2021, where he assisted students with supplemental instruction, learning facilitation, and assessment development. This role enhanced his leadership and communication skills, fostering his ability to guide peers effectively. Lindobuhle is currently engaging in Peer Mentorship at the University of Johannesburg, where he provides guidance and emotional support to his mentees, sharing his research experiences and encouraging the development of professional networks. These roles have helped him refine his ability to foster student engagement, while promoting self-sufficiency among mentees. His involvement in both peer learning and mentorship has provided him with a unique perspective on fostering collaboration and teamwork, crucial aspects of his research career as he continues to evolve in a fast-paced scientific environment.

🏅Awards and Honors 

Lindobuhle Alfred Miya has been recognized for his excellence in both research and academic pursuits. He earned a Scholarship at the University of the Free State for his outstanding work in Nanoscience, which helped propel him into more advanced studies. His achievements in research were also highlighted at the Research Conference 2022, where he discussed innovation and the use of research to improve humanity. Lindobuhle’s academic accomplishments also extend to his athletic achievements, including his Eastern Free State Cross Country Championship win in 2016. He has received commendations for his contributions to scientific research and is recognized for his commitment to improving energy storage technologies. His work on ZnSe doped with Yb3+ has been widely published, including in the Materials Today Communications journal. Lindobuhle’s awards underscore his dedication to both his academic growth and his contributions to society through research.

🔬Research Focus 

Lindobuhle Alfred Miya’s primary research focus is on enhancing the performance of supercapacitors through the development of cobalt-based materials for energy storage applications. His current research at the University of Johannesburg explores various synthesis methods, including solid-state reactions, hydrothermal synthesis, and wet chemical processes, to improve the electrochemical properties of these materials. Using advanced electrochemical techniques such as cyclic voltammetry, galvanostatic charge-discharge testing, and electrical impedance spectroscopy, Lindobuhle is assessing critical performance parameters, including specific capacitance, cycling stability, and rate capability. His work is pivotal in the development of high-performance energy storage devices, contributing to renewable energy applications. Additionally, his previous research in nanoscience focused on rare-earth doped ZnSe, where he investigated its potential for optoelectronic applications. Lindobuhle’s research is deeply aligned with the growing demand for advanced materials in both energy storage and optical technologies.

🧠Research Skills 

Lindobuhle Alfred Miya possesses a diverse set of research skills crucial for his studies in materials science and energy storage. He has gained expertise in various synthesis methods such as solid-state reactions, hydrothermal synthesis, and wet chemical processes to develop and enhance the properties of cobalt-based materials for supercapacitors. His technical skills extend to advanced characterization techniques, including X-ray diffraction, Transmission Electron Microscopy (TEM), Fourier-transform infrared spectroscopy (FTIR), Raman spectroscopy, and X-ray photoelectron spectroscopy (XPS). Lindobuhle is proficient in using electrochemical testing techniques, including cyclic voltammetry and galvanostatic charge-discharge testing, to evaluate the performance of energy storage devices. His ability to assess structural, morphological, and optical properties of materials is further enhanced by his strong foundation in critical thinking, problem-solving, and analytical skills. These research skills are integral to his ability to conduct high-quality research in nanoscience and energy storage technologies.

Publications Top Notes

Structure and optical properties of Er3+ doped ZnSe nanoparticles

  • Authors: L.A. Miya, L.F. Koao, S.V. Motloung, D.D. Hile, H.C. Swart, T.E. Motaung
    Journal: Optical Materials
    Year: 2024

Study of the structural, morphological and optical properties of ZnSe doped with Yb3+

  • Authors: L.A. Miya, S.V. Motloung, T.E. Motaung, H.C. Swart, D.D. Hile, L.F. Koao
    Journal: Materials Today Communications
    Year: 2022

Chadha Henchiri | Experimental methods | Member

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Dr. Chadha Henchiri | Experimental methods | Member

PHD at University of Sfax, Tunisia

Chadha Henchiri, a Tunisian physicist born on September 19, 1993, specializes in Materials Science with a keen interest in Magnetism and Dielectrics. She obtained her doctoral thesis from the University of Sfax under the supervision of Pr. E. Dhahri. With a solid foundation in physics from the University of Gafsa, Chadha has showcased her expertise through publications in esteemed journals and active participation in scientific events. She possesses a diverse skill set in synthesis methodologies, experimental design, and data analysis. Currently serving as an Assistant Teacher at the Preparatory Institute for Engineering Studies of Gafsa, Chadha continues to contribute significantly to her field.

Professional Profiles:

Education

Doctoral Thesis: Physics – Material physics University: University of Sfax Supervisor: Pr. E. Dhahri Research Master’s Degree: Physics – Materials Physics and Energy Management University: University of Gafsa Supervisor: Pr. E. Dhahri Fundamental License: Physics University: University of Gafsa

Professional Experiences

Chadha Henchiri has served as a temporary assistant at the Faculty of Science of Gafsa and currently holds the position of Assistant Teacher at the Preparatory Institute for Engineering Studies of Gafsa.

Research Experiences / Skills

Chadha Henchiri possesses expertise in various synthesis methodologies, experimental designs, instrument handling, and characterization techniques, including crystal structure analysis, surface morphology examination, thermal analysis, and magnetic property analysis. She is proficient in several research packages and software for data analysis and interpretation.

Area of Research Interests

Chadha Henchiri’s primary interest lies in Materials Science, with a focus on Magnetism, Dielectrics, and the modulation of magnetic properties using MATLAB software. She is enthusiastic about engaging in challenging fields of physics and delivering her best efforts.

Research Focus:

Chadha Henchiri’s research focuses primarily on the structural and magnetic properties of various materials, particularly manganites and spinel ferrites. Her work delves into understanding the intricate relationships between structural characteristics and magnetic behavior, with a particular emphasis on magnetocaloric effects at room temperature. Through theoretical studies and experimental investigations, Chadha has contributed significantly to the understanding of magnetocaloric phenomena in lanthanum manganite lacunar compounds and CoFeCuO4 spinel ferrite nanoparticles. Her research not only advances the fundamental understanding of these materials but also holds promise for potential applications in areas such as energy conversion and magnetic refrigeration.

Publications 

  1. Structural, dielectric, electrical and modulus spectroscopic characteristics of CoFeCuO4 spinel ferrite nanoparticles, cited by: 31, Publication date: 2021.
  2. Structural and magnetic properties of La1-x⎕xMnO3 (x = 0.1; 0.2 and 0.3) manganites, cited by: 18, Publication date: 2019.
  3. Structural study and large magnetocaloric entropy change at room temperature of La 1− x□ x MnO 3 compounds, cited by: 14, Publication date: 2020.
  4. Theoretical study of the magnetic properties and the magnetocaloric effect in lanthanum manganite lacunar compounds, cited by: 8, Publication date: 2022.
  5. Study of structural properties and conduction mechanisms of La0. 67Ca0. 2Ba0. 13Fe0. 97Ti0. 03O3 perovskite, cited by: 6, Publication date: 2022.
  6. Study of structural, magnetic, magnetocaloric properties and critical behavior of CoFeCuO4 spinel ferrite, cited by: 6, Publication date: 2021.
  7. Landau mean-field analysis and estimation of the spontaneous magnetization from magnetic entropy change, cited by: 5, Publication date: 2021.
  8. Modeling the Magnetocaloric Effect of La0.8MnO3 by the Mean-Field Theory, cited by: 4, Publication date: 2020.
  9. Theoretical study of magnetic and magnetocaloric properties and MCE modeling by the mean-field theory in CoFeCuO4 spinel ferrite, cited by: 2, Publication date: 2022.
  10. Correlation between electronic and magnetic properties of LaMnO 3-δ: experimental study and DFT-MBJ calculation, Publication date: 2024.

 

 

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