Hongling Zhou | Computational Methods | Best Researcher Award

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Dr. Hongling Zhou | Computational Methods | Best Researcher Award

Chongqing University | China

Dr. Hongling Zhou is an Associate Professor at Chongqing University, specializing in Materials Processing Engineering. She earned his Ph.D. in Materials Processing Engineering from Sichuan University (SCU), China, where she excelled academically with a GPA of 3.9/4.00. Her international research exposure includes a Visiting Student position at Pennsylvania State University (PSU), USA. With her deep-rooted expertise in first-principles calculations, metal-based material design, and advanced material characterization, she continues to contribute significantly to the field of material science. Her work bridges theoretical research with practical applications, making him a prominent researcher in her field.

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Early Academic Pursuits šŸ“š

Dr. Zhouā€™s academic journey began at Sichuan University, where she completed his Bachelorā€™s and Masterā€™s degrees in Materials Processing Engineering, earning a solid foundation in material science with top-tier GPA scores. Her remarkable academic achievements include distinctions like National First-class Scholarships and Outstanding Graduate Student honors, further demonstrating her commitment and excellence in the field of material science. Her time as a Visiting Student at PSU allowed her to broaden her knowledge base, specifically in Materials Science and Engineering, gaining international exposure.

Professional Endeavors šŸŒ

Dr. Zhouā€™s professional career has been marked by her transition to an Associate Professor at Chongqing University in 2021. There, she leads research on first-principles calculations and the synthesis of metal-based materials using field-assisted sintering techniques. Her work focuses on designing high-performance materials for advanced technological applications. Over the years, she has worked extensively on topics related to thermodynamic properties, material preparation, and metallurgical processes, establishing herself as a key figure in materials research both in China and internationally.

Contributions and Research Focus šŸ”¬

Dr. Zhou’s research spans several crucial areas, including:

  1. First-principles calculations for understanding the structural, thermodynamic, and elastic properties of materials. Her focus on suboxide Zr3O phases and Ī³-Al2O3 is fundamental in understanding material behaviors under extreme conditions.
  2. The design and preparation of metal-based materials, particularly using rapid sintering methods, addressing both processing parameters and material properties.
  3. The development of foamed glass-ceramics utilizing high-titanium blast furnace slag, demonstrating her innovative approach to material recycling and sustainability.

Her innovative work in first-principles calculations serves as a foundation for predicting and improving the mechanical performance and thermodynamic behavior of advanced materials.

Impact and Influence šŸŒ

Dr. Zhouā€™s work has had a significant impact on material science, particularly in nuclear materials, energy applications, and environmentally friendly materials. Her published research in leading journals such as Acta Materialia, Journal of Nuclear Materials, and Advanced Powder Technology has made notable contributions to the understanding of materials at both micro and macro scales. Her findings are highly cited and continue to shape the direction of materials design and characterization.

Academic Cites šŸ“‘

Dr. Zhouā€™s research has been widely cited across various fields of material science, making her an influential scholar in her area. Her work on the lattice dynamics of Al2O3 phases and the thermodynamic properties of Zircaloy-4 materials has been instrumental in providing insights for nuclear materials science. The diversity and range of her publications reflect the deep scientific rigor and innovative approaches she brings to her field.

Teaching Experience šŸ‘Øā€šŸ«

In addition to her research achievements, Dr. Zhou has demonstrated a passion for teaching. As a part-time ideological and political education teacher and an outstanding teaching assistant during her early academic years, she exhibited a dedication to student success. Her work as an associate professor has allowed her to mentor and guide the next generation of material scientists, providing them with both theoretical and practical expertise in material synthesis, advanced characterization, and computational methods. Her efforts in student mentorship have resulted in tangible improvements, including a 100% student employment rate and the reduction in academic warnings.

Awards and Honors šŸ†

Dr. Zhou has been recognized for her exceptional contributions through numerous prestigious awards:

  • Outstanding Graduate of Sichuan Province (2020)
  • National Scholarship for Doctoral Students (top 1ā€±)
  • Academic Star of Sichuan University (top 1ā€°)
  • China Aerospace Science and Technology Corporation (CASC) Scholarship
  • First-class Scholarship for Doctoral Candidates, SCU (2017-2018)
  • Outstanding Teaching Assistant, SCU (2016)

These accolades reflect her dedication to both academic excellence and research leadership.

Legacy and Future Contributions šŸ”®

Dr. Zhouā€™s academic and professional trajectory positions her as a leader in materials processing engineering. Her research on first-principles calculations and rapid sintering techniques is setting the stage for future advancements in metal-based materials and sustainable material solutions. Moving forward, Dr. Zhou plans to further enhance her contributions by exploring interdisciplinary research areas and international collaborations, aiming to tackle challenges in energy storage, nuclear materials, and environmental sustainability. Her legacy is one of innovation, excellence, and a commitment to advancing material science.

Publication Top Notes

The insight effect of texture components on the recrystallization behavior of Mo[sbnd]Re alloy

  • Authors: C. Liu, Congqing; J. Liao, Jingjing; J. Wu, Jun; C. Sun, Chao; B. Luan, Baifeng
    Journal: Materials Characterization, 2025

Study on damage defects of Cr coating on Zr alloy surface irradiated by high-dose Au2+: HRTEM observation and molecular dynamics simulation

  • Authors: A. Yan, An; B. Luan, Baifeng; H. Zhou, Hongling; H. Ruan, Haibo; W. Huang, Weijiu
    Journal: Journal of Alloys and Compounds, 2025

Spatial correlation behavior between hydride and low-energy twin boundaries in Zr-4

  • Authors: H. Sun, Huanzheng; B. Luan, Baifeng; C. Sun, Chao; X. Zhu, Xiaoyong; H. Zhou, Hongling
    Journal: Materials Today Communications, 2024

Microstructural characteristics of multilayers and interfaces of Cr-coated Zircaloy-4 cladding based on elemental diffusion under high-temperature steam oxidation

  • Authors: L. Chen, Lijun; H. Zhou, Hongling; B. Luan, Baifeng; X. Yang, Xiaoling; C. Liu, Congqing
    Journal: Journal of Nuclear Materials, 2024

 

 

Berthelot SaĆÆd Duvalier Ramlina Vamhindi | Computational Methods | Best Faculty Award

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Dr. Berthelot SaĆÆd Duvalier Ramlina Vamhindi | Computational Methods | Best Faculty Award

University of Maroua | Cameroon

Berthelot SaĆÆd Duvalier Ramlina Vamhindi is an accomplished researcher with expertise in chemical physics, astrophysics, and molecular dynamics. With an active academic presence, he has made significant contributions in the fields of polymer research, quantum chemistry, and biomolecular structure. His dedication to scientific advancement is evident through his robust publication record and his focus on nonlinear optical applications and theoretical modeling.

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Early Academic Pursuits šŸŽ“

Vamhindi’s academic journey began with a focus on quantum chemistry and astrophysics, where he developed a keen interest in studying the fundamental molecular structures and interactions that govern both chemical reactions and material properties. His curiosity in these domains laid the foundation for his interdisciplinary research, bridging chemical physics with practical applications in pharmaceuticals and polymer science.

Professional Endeavors šŸ’¼

Since entering academia, Vamhindi has focused his research on various advanced topics such as nonlinear optical applications, molecular dynamics simulations, and the spectroscopic analysis of organic molecules. His work spans theoretical investigations into dielectric properties and hydrophobic polymers, as well as real-world applications such as drug design for Alzheimer’s and other diseases. His involvement in molecular modeling and ab initio methods showcases his expertise in computational chemistry.

Contributions and Research Focus šŸ”¬

Vamhindiā€™s research contributions are centered around the electronic structure and spectroscopic properties of complex molecular systems. His most recent work focuses on the hydrophobic properties of nylon 6-phenol resin blends, as well as the investigation of nonlinear optical applications of indole-3-pyruvic acid. His research in polymer blends has significant implications for dielectric applications, while his work on molecular docking contributes to the design of Alzheimer’s drugs.

Impact and Influence šŸŒ

Vamhindi has made a notable impact within his field with over 70 citations, demonstrating the relevance and importance of his research. His work on quantum chemical investigations and nonlinear optical materials has provided new insights into the behavior and potential of materials used in optoelectronic and pharmaceutical applications. His high-quality contributions, published in renowned journals such as Journal of Polymer Research and Journal of Biomolecular Structure and Dynamics, have garnered recognition and citations in the scientific community.

Academic Cites šŸ“ˆ

With a total of 9 publications and a sum of times cited reaching 69 (as of September 2024), Vamhindiā€™s research has demonstrated consistent influence in fields such as polymer science, molecular modeling, and quantum chemistry. His H-index of 4 in recent years and 5 in the full publication timeline signifies that his work is increasingly cited and regarded by fellow researchers in his areas of expertise.

Research Skills āš™ļø

Vamhindi is proficient in utilizing DFT (Density Functional Theory) and ab initio methods to model and simulate molecular behaviors. His expertise in molecular dynamics and quantum chemical simulations allows for the prediction of nonlinear optical properties and the electronic structure of complex molecules. Additionally, he employs molecular docking techniques to explore drug-receptor interactions, demonstrating his multidisciplinary approach.

Legacy and Future Contributions šŸ”®

Berthelot SaĆÆd Duvalier Ramlina Vamhindi is poised to leave a lasting impact in the fields of quantum chemistry and nonlinear optics. His continued focus on drug design, material properties, and molecular modeling is likely to drive further innovations in pharmaceuticals and optoelectronics. As his research expands, Vamhindiā€™s legacy will likely center around the interdisciplinary approach that merges theoretical chemistry with practical, real-world applications, improving both healthcare and technology.

Publications Top Notes

Electronic structure, spectroscopic constants, and transition properties of NaCā‚€āŗĀ¹/ā»Ā¹ diatomic species: An ab initio investigation
  • Authors: Gouromsa, Y.H., Ramlina Vamhindi, B.S.D., Nsangou, M.
    Journal: Journal of Quantitative Spectroscopy and Radiative Transfer
    Year: 2025
Pressure action on ductility and optoelectronic properties of non-toxic AGeBrā‚ƒ (A = Cs, K, Na, Rb) perovskites
  • uthors: Vamhindi, B.S.D.R., Abavare, E.K.K.
    Journal: Solid State Communications
    Year: 2024
Preparation of hydrophobic nylon 6-phenol resin derivative polymer blends for the dielectric application and theoretical evaluation of their hydrophobic property
  • Authors: Vedamurthy, T., Lai, C.H., Vamhindi, B.S.D.R.
    Journal: Journal of Polymer Research
    Year: 2023
Spectroscopic, quantum chemical, molecular docking, and molecular dynamics investigations of hydroxylic indole-3-pyruvic acid: a potent candidate for nonlinear optical applications and Alzheimerā€™s drug
  • Authors: Koyambo-Konzapa, S.-J., Mbesse Kongbonga, G.Y., Nsangou, M., Franklin Benial, A.M., R, P.
    Journal: Journal of Biomolecular Structure and Dynamics
    Year: 2022
How strongly do Janus all-cis Cā‚†Hā‚†Fā‚† and Cā‚†Hā‚†Clā‚† bind ions in the gas-phase?
  • Authors: Ramlina Vamhindi, B.S.D., Lai, C.-H., Koyambo-Konzapa, S.-J., Nsangou, M.
    Journal: Journal of Fluorine Chemistry
    Year: 2020

 

David Fouejio | Computational Methods | Best Researcher Award

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Prof. David Fouejio | Computational Methods | Best Researcher Award

University of Yaounde I | Cameroon

Pr. David Fouejio is an esteemed academic and researcher currently serving at the Mechanic, Materials, and Complex Structures Laboratory at the University of YaoundƩ I, Cameroon. With his extensive expertise in material science, optoelectronics, and nanotechnology, Pr. Fouejio has made significant strides in researching the electronic, optical, and thermodynamic properties of a wide range of materials. His work, which spans organic molecules, pharmaceuticals, and nanomaterials, positions him as a leading figure in his field.

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Early Academic Pursuits šŸŽ“

Pr. Fouejio’s journey began in the field of physics, where he laid the foundation for his future academic and research career. He pursued a robust academic path with an emphasis on material characterization, optical materials, and photonics. His early academic years prepared him well for his current research, and his diverse interests reflect his foundational knowledge in both basic physics and cutting-edge technology.

Professional Endeavors šŸ’¼

Pr. Fouejio’s research career spans several complex topics including electronic and optoelectronic properties, pharmaceutical applications of nanomaterials, and magnetic properties of materials. He has contributed to advancements in the targeted drug delivery system, specifically through the functionalization of Dihydroartemisinin (DHA) on C60 fullerene or carbon nanotubes (CNT). This area of work highlights his focus on solving real-world healthcare challenges through material science. Furthermore, Pr. Fouejio has explored optical materials used in photochromic polymers, demonstrating his ability to bridge theoretical and applied physics.

Contributions and Research Focus šŸ”¬

Pr. Fouejio’s research spans diverse yet complementary fields such as electrical, optical, optoelectronic, and magnetic properties of materials. His study of photochromic polymers and methyl methacrylate showcases his expertise in nonlinear optical properties. His work on frustration in antiferromagnetic materials and the magnetic properties of Ising ferrimagnets has further solidified his reputation in the condensed matter physics domain. Through his ab initio and DFT calculations, Pr. Fouejio is contributing to the nanotechnology field and pharmaceutical applications.

Impact and Influence šŸŒ

Pr. Fouejio’s contributions to optical materials and nanotechnology have far-reaching applications, especially in healthcare and photonics. His work on drug delivery systems and materials for optoelectronic devices is advancing the potential for novel therapeutics and innovative technologies. As a referee for high-profile journals, his influence in the academic community has allowed him to shape the direction of research in material characterization and optical materials.

Academic Cites šŸ“ˆ

With 13 published papers, Pr. Fouejio’s work has been recognized and cited by peers globally. His research on optical properties of organic molecules and nanomaterials is particularly notable in the fields of nanotechnology and photonics. His ability to make cross-disciplinary connections is reflected in his growing citation record. Each of his works contributes to a broader scientific dialogue with global impact.

Research Skills šŸ§ 

Pr. Fouejio possesses a versatile skill set in computational methods such as Monte Carlo simulations, ab initio calculations, and DFT simulations. His hands-on expertise in material characterization and his theoretical approach make him an authority in optoelectronics. His research has also extended to pharmaceutical applications and healthcare innovations, where his computational techniques have furthered the understanding of drug delivery systems and nanomaterials.

Teaching Experience šŸ‘Øā€šŸ«

As a faculty member in the Department of Physics, Pr. Fouejio has shared his expertise with the next generation of scientists and engineers. His teaching focuses on the fundamentals of physics, material science, and nanotechnology, equipping students with the tools necessary for careers in academia and industry. Through his mentoring, students are not only exposed to theoretical knowledge but also to practical aspects of material characterization and computational modeling.

Legacy and Future Contributions šŸŒ±

Pr. Fouejio’s research continues to shape the future of material science with a focus on nanotechnology and drug delivery systems. As he progresses in his career, the potential for Pr. Fouejio to lead groundbreaking work in optical materials, photonics, and pharmaceutical applications is immense. His continued exploration into nanotechnology and its potential for medical advancements will undoubtedly leave a lasting legacy in the scientific community.

Publications Top Notes

Magnetic and thermodynamic properties of mixed spin-3/2 and spin-3 Ising ferrimagnets on a 2D triangular lattice: Monte Carlo study
  • Authors: D. Fouejio, P. Noudem, S.S. Zekeng
    Journal: Chinese Journal of Physics
    Year: 2024
Electronic, nonlinear optical, UVā€“vis and NBO analysis of methyl methacrylate for optoelectronic and optical applications: DFT study and impact of conformation
  • Authors: P. Noudem, D. Fouejio, C.D.D. Mveme, F. Tchangnwa Nya, S.S. Zekeng
    Journal: Spectrochimica Acta Part A: Molecular and Biomolecular Spectroscopy
    Year: 2023
Structural, electronic and nonlinear optical properties, reactivity and solubility of the drug dihydroartemisinin functionalized on the carbon nanotube
  • Authors: D. Fouejio, Y. Tadjouteu Assatse, R.A. Yossa Kamsi, G.W. Ejuh, J.M.B. Ndjaka
    Journal: Heliyon
    Year: 2023
Impact of doping on the optoelectronic, electronic and nonlinear optical properties and on the reactivity of photochromic polymers containing styrylquinoline fragments: Hartree-Fock and DFT study
  • Authors: P. Noudem, D. Fouejio, C.D.D. Mveme, S.S. Zekeng, J.B. Fankam Fankam
    Journal: Heliyon
    Year: 2022
Hartree-Fock and DFT studies of the optoelectronic, thermodynamic, structural and nonlinear optical properties of photochromic polymers containing styrylquinoline fragments
  • Authors: P. Noudem, D. Fouejio, C.D.D. Mveme, S.S. Zekeng, F. Tchangnwa Nya, G.W. Ejuh
    Journal: Materials Chemistry and Physics
    Year: 2022

 

 

 

Fatima Thabit | Computational Methods | Women Researcher Award

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Ms. Fatima Thabit | Computational Methods | Women Researcher Award

Sana’a University | Yemen

Fatima Mohammed Saeed Thabit is an esteemed Instructor in Physics at Sanaā€™a University, Yemen. With an academic career dedicated to advancing theoretical physics, she has made notable contributions to optics and nano-physics. Fatima’s research and expertise are built on her academic background, which includes a Master’s degree in Theoretical Physics and ongoing PhD studies in the same field.

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Early Academic Pursuits šŸŽ“

Fatima’s journey into the world of physics began with her Bachelorā€™s degree in Physics with a minor in Mathematics from Sana’a University in 2006. She furthered her education with a Master’s degree in Theoretical Physics in 2016, positioning herself as an emerging expert in the field. Currently, she is pursuing her PhD in Theoretical Physics, exploring the depths of this complex and dynamic domain.

Professional Endeavors šŸ’¼

As an instructor at Sana’a University, Fatima plays an integral role in shaping the future of aspiring physicists. Her responsibilities include training students, developing practical skills, and teaching a wide array of physics courses, such as electrical circuit analysis, medical physics, and programming. Fatima’s teaching approach fosters an understanding of both theoretical concepts and hands-on experimentation.

Contributions and Research Focus šŸ”¬

Fatimaā€™s research has focused primarily on optics, particularly on beam propagation, optical trapping, and nano-physics. Some of her most notable work involves the study of optical forces exerted on nanodielectric spheres, as well as the behavior of Laguerre-Gaussian beams and Hermite Gaussian beams. Her work has been published in prestigious journals such as the Journal of the Optical Society of America and Applied Optics.

Impact and Influence šŸŒ

Fatimaā€™s contributions extend beyond academic publications. she has also served as Secretary-editor for the Journal of Sanaā€™a University for Applied Sciences and Technology, playing a pivotal role in supporting the publication process and furthering the academic communityā€™s growth. Through her work, she continues to inspire fellow researchers and students, particularly women in physics, to pursue excellence in science.

Academic Cites šŸ“š

Fatimaā€™s research has garnered recognition and citations from global scholars. Her studies on optical trapping forces and Gaussian beams have helped advance nano-optics and photonics, and her research papers are frequently referenced in scientific circles, including well-regarded journals like J. Opt. Soc. Am. A, Phys. Scr., and Results in Physics.

Research Skills šŸ§ 

With proficiency in advanced tools such as MATLAB, Mathematica, and LaTeX, Fatima demonstrates an outstanding capability in computational modeling, simulation, and data analysis. Her use of cutting-edge research techniques allows her to probe deeper into the theoretical aspects of optics, nanophysics, and photonics, making significant strides in applied research.

Teaching Experience šŸ‘©ā€šŸ«

Fatimaā€™s diverse teaching experience includes guiding students through complex theoretical and practical courses in physics and programming. She has taught students in courses ranging from electrical circuits to medical physics, all while maintaining a high standard of education and encouraging students to engage with both practical experiments and theoretical discussions. Fatima also prepares and evaluates practical exams that ensure students gain a comprehensive understanding of key scientific concepts.

Legacy and Future Contributions šŸŒ±

Looking forward, Fatima’s future contributions to theoretical physics and optics are bound to leave a lasting legacy. As she advances in her PhD research, her work will likely inspire future breakthroughs in nanotechnology and photonics, while her teaching will continue to shape the next generation of physicists. Fatima’s growing involvement in artificial intelligence and cutting-edge research methods positions her as a prominent figure in the field.

Publications Top Notes

Calculation of the optical forces exerted on a nano-dielectric sphere induced by a pulsed Laguerreā€“Gaussian beam
  • Authors: MA Shukri, FM Thabit
    Journal: JOSA A
    Year: 2023
Calculation of trapping optical forces induced by a focused continuous Hermite Gaussian beam on a nano-dielectric spherical particle
  • Authors: MA Shukri, FM Thabit
    Journal: Physica Scripta
    Year: 2024
Propagation of fully and partially coherent flat-topped multi-Gaussian beams through axicons
  • Authors: FM Thabit, AA AlKelly, MA Shukri
    Journal: JOSA A
    Year: 2020
Impact of Gaussian Beam Spot Size on Trapping Forces: Continuous versus Pulsed Beams
  • Authors: M Shukri, F Thabit
    Journal: Sana’a University Journal of Applied Sciences and Technology
    Year: 2024
Trapping of low and high refractive index nano-spherical particles by using a highly focused Laguerreā€“Gaussian beam
  • Authors: FM Thabit, MA Shukri
    Journal: Applied Optics
    Year: 2024

 

 

Muhammad Zulfiqar | Computational Methods | Best Researcher Award

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Prof. Dr. Muhammad Zulfiqar | Computational Methods | Best Researcher Award

University of Sargodha | Pakistan

Dr. Muhammad Zulfiqar is an accomplished physicist specializing in solid-state physics, computational physics, and condensed matter theory. He completed his Ph.D. at Tsinghua University (2014-2019) in the People’s Republic of China, where he focused on tunable conductive and magnetic properties in the doped two-dimensional Platinum Diselenide. Throughout his academic journey, Dr. Zulfiqar has made significant contributions to various fields of materials science, thermodynamics, and quantum transport phenomena. He holds several advanced degrees, including M.Phil. from University of Sargodha and M.Sc. from the University of Punjab, both with first-class distinctions.

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Early Academic Pursuits šŸŽ“

Dr. Zulfiqarā€™s academic journey began with a B.Sc. in Physics and Mathematics at Government College Sargodha, followed by an M.Sc. in Physics from the University of Punjab, where he graduated with first-class honors. His early academic pursuits laid the groundwork for his specialization in condensed matter physics. Driven by his passion for advanced theoretical and computational methods, he continued his academic path, earning his M.Phil. in Physics from the University of Sargodha, once again graduating with first-class recognition. His Ph.D. from Tsinghua University propelled him into the world of cutting-edge research in physics, where he focused on understanding the complex behaviors of low-dimensional materials.

Professional Endeavors šŸ”¬

Dr. Zulfiqarā€™s professional career is marked by his impressive work in computational physics and his deep engagement with numerical simulations. He has been involved in numerous collaborative projects funded by prestigious bodies such as the Chinese Government and the National Natural Science Foundation of China. His work has extended into exploring electron transport and phonon transport phenomena at the nanoscale. These investigations have led to groundbreaking research into superconductivity in low-dimensional materials and the optimization of solar cell architectures for renewable energy applications.

Contributions and Research Focus šŸ§‘ā€šŸ”¬

Dr. Zulfiqarā€™s research has had a profound impact on the study of magnetism in solids and the development of new materials for energy applications. He has extensively studied optical and thermoelectric properties of perovskite compounds, aiming to enhance renewable energy sources. His research also extends to superconductivity and quantum transport phenomena, which are crucial for the development of future electronic devices. Through his innovative research, he explores the mechanical stability and thermal properties of materials like La2Sn2O7 and Ba-based double perovskites, which have significant implications in the fields of photovoltaics and energy harvesting.

Impact and Influence šŸŒ

Dr. Zulfiqar has made transformative contributions to the fields of condensed matter theory, thermodynamics, and computational physics. His work is highly influential in advancing the understanding of low-dimensional materials, which are at the forefront of modern nanoelectronics and quantum computing. His publications in prestigious journals have helped shape the discourse around energy-efficient devices and nanostructured materials. Through his research, he has provided valuable insights into phonon and electron transport, which are crucial for improving thermoelectric efficiency and designing smart energy systems.

Academic Citations šŸ“š

Dr. Zulfiqar has published 50 research articles in renowned ISI-JCR indexed journals, reflecting his high productivity and the quality of his work. His research is widely cited, making him a significant figure in the field of solid-state physics and material science. The breadth and impact of his publications, including works on thermoelectric properties and solar cell simulations, highlight his prominent position in the academic community.

Research Skills šŸ’»

Dr. Zulfiqar possesses advanced expertise in a range of simulation tools and computational methods. His proficiency in VASP, Quantum Espresso, CASTEP, and other ab-initio codes allows him to model complex quantum phenomena in materials at the atomic level. He is also skilled in Molecular Dynamics simulations, as well as tools like Phonopy, ShengBTE, and Material Studio, enabling him to carry out detailed studies on thermal transport and device simulations. His command over these cutting-edge tools enables him to perform high-level research and provide deep insights into the physical properties of materials.

Teaching Experience šŸ‘Øā€šŸ«

Dr. Zulfiqar has contributed to the academic community not only through his research but also through teaching and mentoring the next generation of physicists. While his primary focus has been on research, he has likely been involved in educating and guiding students in computational physics and materials science. His expertise in solid-state physics and thermodynamics positions him as a knowledgeable educator capable of inspiring students in these complex fields.

Awards and Honors šŸ†

Dr. Zulfiqar has received numerous awards and scholarships throughout his career, including the prestigious Chinese Government PhD Fellowship and research grants from the National Natural Science Foundation of China. These honors recognize his exceptional contributions to the field of physics and his ongoing pursuit of innovative research in material science, thermoelectrics, and energy applications. These recognitions are a testament to his hard work and significant impact on the scientific community.

Legacy and Future Contributions šŸŒŸ

Dr. Zulfiqarā€™s legacy in solid-state physics and material science is one of excellence and innovation. His contributions to the study of magnetic properties, superconductivity, and energy-efficient materials will continue to shape the future of energy technologies and nanoelectronics. As he moves forward in his career, his research will likely pave the way for the development of cutting-edge devices and advanced materials for applications in renewable energy, quantum computing, and spintronic devices. With his growing influence, Dr. Zulfiqarā€™s work will continue to inspire the next generation of scientists and engineers working on advanced materials and energy solutions.

Publications Top Notes

Exploring mechanically stable Ba-based double Perovskite oxides for renewable energy: Optoelectronic and thermoelectric properties investigation
  • Authors: Muhammad Fiaz, Fahim Ahmed, Hussein Alrobei, Muhammad Faizan, Shafaat Hussain Mirza, Muhammad Zulfiqar
    Journal: Materials Science in Semiconductor Processing
    Year: 2025
Full solar spectrum energy harvesting with CuInSe2 based photovoltaic cell: Device simulation and impedance spectroscopy analysis
  • Authors: Khalid Riaz, Nargis Bano, Rizwan Ul Hassan, Muhammad Zulfiqar
    Journal: Optics Communications
    Year: 2025
Search for Efficient Absorber Materials from A2B Binary Compounds: A Comprehensive Computational Modeling Approach
  • Authors: Arslan Zulfiqar, Khalid Riaz, Muhammad Zulfiqar, Saif M. H. Qaid, Bandar Ali Al-Asbahi, Muhammad Saqib Arslan, Muhammad Usman, Suming Zeng
    Journal: ACS Applied Electronic Materials
    Year: 2025
Exploring the dopant effects on the structural, magnetic, optoelectronic, and thermoelectric properties of Ba2CaMoO6: A detailed Ab-initio investigation
  • Authors: Muhammad Faizan, Nargis Bano, Muhammad Zulfiqar, Imran Hussain, Shafaat Hussain Mirza, Jun Ni
    Journal: Materials Science in Semiconductor Processing
    Year: 2024
Investigating the impact of band gap engineering on optoelectronic properties of tetragonal MgZrN2 compound: A first principles study
  • Authors: Muhammad Saqib Arslan, A. Alqahtani, Arslan Zulfiqar, Muhammad Zulfiqar
    Journal: Journal of Solid State Chemistry
    Year: 2024

 

Hamid Shahivandi | Computational Methods | Editorial Board Member

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Dr. Hamid Shahivandi | Computational Methods | Editorial Board Member

Shahed University | Iran

Hamid Shahivandi, Ph.D., is a passionate physicist specializing in computational materials science with a focus on perovskite solar cells. Based in Tehran, Iran, he has over a decade of academic experience as a researcher, lecturer, and laboratory supervisor. His innovative research combines precision and creativity, positioning him as a dedicated contributor to the fields of condensed matter physics and semiconductor technology.

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šŸŽ“ Early Academic Pursuits

Dr. Shahivandi embarked on his academic journey with a Bachelor’s in Physics from Lorestan University (2004ā€“2008). He pursued further specialization in Solid-State Physics, completing his Masterā€™s (2008ā€“2011) and Ph.D. (2016ā€“2020) at K. N. Toosi University of Technology, Tehran. His doctoral dissertation focused on the temperature-dependent performance of CH3NH3PbI3 perovskite solar cells, demonstrating his commitment to solving real-world challenges in renewable energy technologies.

šŸ’¼ Professional Endeavors

Dr. Shahivandi has been an integral part of Shahed University since 2014, serving as both a Laboratory Supervisor and a Lecturer. His teaching portfolio spans foundational and advanced topics, including General Physics, Electricity and Magnetism, and Physical Properties of Materials. As a Teaching Assistant at K. N. Toosi University, he gained early exposure to educational excellence, fostering his skills in mentorship and pedagogy.

šŸ”¬ Contributions and Research Focus

Dr. Shahivandiā€™s research interests are deeply rooted in computational physics, with key contributions in:

  • Perovskite Solar Cells: Developing models to optimize performance and minimize degradation.
  • Carbon Nanotubes: Investigating catalytic growth mechanisms for double-walled carbon nanotubes.
  • Crystals: Studying the growth mechanisms of Calcium Fluoride and Germanium crystals.
    His theoretical and computational methodologies have led to several impactful publications in IEEE Journal of Photovoltaics and Solar Energy Materials & Solar Cells.

šŸŒ Impact and Influence

Dr. Shahivandiā€™s work on temperature effects and degradation mechanisms in perovskite solar cells has paved the way for more efficient renewable energy technologies. His insights into semiconductors and nanostructures have influenced peers and inspired collaborative research. His methodological rigor ensures that his findings resonate across academic and industrial communities.

šŸ›  Research Skills

Dr. Shahivandi excels in:

  • Computational Tools: Expertise in Molecular Dynamics Simulation and Density Functional Theory (DFT).
  • Analytical Techniques: Proficiency with Atomic Force Microscopy (AFM) and Vibrating-Sample Magnetometer (VSM).
  • Model Development: Skilled in mathematization and modeling of complex physical phenomena.
  • Project Management: Adept at leading and organizing multi-faceted research projects.

šŸ† Awards and Honors

Dr. Shahivandi has been recognized for his scientific excellence and educational impact. His achievements include poster presentations at national nanoscience congresses and impactful research contributions published in leading journals.

šŸŒŸ Legacy and Future Contributions

Dr. Shahivandiā€™s legacy is marked by his dedication to advancing renewable energy technologies and materials science. Looking ahead, he aims to explore novel nanomaterials for energy applications and foster global collaborations to tackle pressing challenges in sustainable development.

Publication top notes

Temperature dependence of iodine vacancies concentration in CH3NH3PbI3 perovskite: A theoretical analysis

  • Authors: Hamid Shahivandi, Mohamadhosein Nosratjoo
    Journal: Physica B: Condensed Matter
    Year: 2024

Theory of light-induced degradation in perovskite solar cells

  • Authors: Hamid Shahivandi
    Journal: (No journal name provided)
    Year: 2020

Study of the effect of temperature on light-induced degradation in methylammonium lead iodine perovskite solar cells

  • Authors: Hamid Shahivandi, Majid Vaezzadeh, Mohammadreza Saeidi
    Journal: Solar Energy Materials and Solar Cells
    Year: 2020

Iodine Vacancy Formation Energy in CH3NH3PbI3 Perovskite

  • Authors: Hamid Shahivandi, Majid Vaezzadeh, Mohammadreza Saeidi
    Journal: IEEE Journal of Photovoltaics
    Year: 2020

Theoretical Study of Effective Parameters in Catalytic Growth of Carbon Nanotubes

  • Authors: Hamid Shahivandi, Majid Vaezzadeh, Mohammadreza Saeidi
    Journal: physica status solidi (a)
    Year: 2017

 

 

 

Qingguo LĆ¼ | Computational Methods | Best Researcher Award

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Assoc. Prof. Dr. Qingguo LĆ¼ | Computational Methods | Best Researcher Award

Chongqing University | China

Dr. Qingguo LĆ¼ is currently an Associate Professor at the College of Computer Science, Chongqing University, China. With a Ph.D. in Computational Intelligence and Information Processing from Southwest University, his academic journey has been marked by excellence. His work primarily focuses on distributed control and optimization in networked systems, especially in areas involving machine learning, cooperative control, and smart grids.

šŸ‘Øā€šŸŽ“Profile

Scopus

šŸŽ“ Early Academic Pursuits

Dr. LĆ¼ began his academic journey with a Bachelor’s degree in Measurement Control Technology and Instrument from Anhui University of Technology, before advancing to a Master’s degree in Signal and Information Processing at Southwest University. His early academic years were dedicated to mastering core concepts of computational intelligence and information processing, laying the foundation for his later groundbreaking research.

šŸ’¼ Professional Endeavors

Throughout his career, Dr. LĆ¼ has held significant positions, including being a Research Assistant at the Texas A&M University Science Program, Qatar, where he contributed to the research in networked control systems, distributed computing, and smart grids. Following this, he transitioned to his postdoctoral research at Chongqing University, collaborating with Prof. Shaojiang Deng on topics like cooperative control, distributed optimization, and machine learning. His role as an Associate Professor has enabled him to further deepen his research and lead academic projects.

šŸ”¬ Contributions and Research Focus

Dr. LĆ¼’s research is deeply embedded in solving real-world problems using distributed optimization algorithms across networked systems. Notable contributions include the development of asynchronous algorithms for decentralized resource allocation, privacy protection algorithms, and the design of algorithms for economic dispatch in smart grids. His research focus is centered on improving distributed optimization through stochastic algorithms, cooperative control, and networked machine learning.

šŸ“š Academic Cites

Dr. LĆ¼’s research has been extensively cited in major journals, indicating the high impact of his work. For example, his paper in IEEE Transactions on Cybernetics (2021) has garnered attention for its privacy-masking stochastic algorithms, highlighting his role in advancing the field of privacy in decentralized systems. His consistent contributions to top-tier journals underscore his prominence as a thought leader in computational intelligence and information processing.

šŸ›  Research Skills

Dr. LĆ¼ possesses advanced skills in developing decentralized algorithms, with expertise in distributed optimization, privacy protection, and machine learning for networked systems. His ability to design efficient algorithms that are not only theoretically sound but also computationally feasible has enabled the practical deployment of these methods in diverse real-world applications, including energy optimization and economic dispatch in smart grids.

šŸ« Teaching Experience

As an Associate Professor, Dr. LĆ¼ plays an active role in shaping the next generation of researchers and engineers. His teaching focuses on distributed control systems, networked optimization, and machine learning, ensuring that students are well-versed in the latest techniques and applications of computational intelligence. His involvement in academic mentorship and research supervision is highly regarded, helping foster a collaborative and innovative research environment.

šŸ† Legacy and Future Contributions

Dr. LĆ¼ā€™s career is already distinguished by his extensive research publications, patents, and contributions to academic growth. His research continues to shape the development of distributed algorithms for complex networks, offering solutions that are highly relevant in todayā€™s rapidly evolving technological landscape. Looking ahead, he aims to expand his work on energy optimization, privacy protection, and networked control systems to tackle emerging challenges in fields like smart cities and autonomous systems.

Publications Top Notes

 

 

Abdul Faiz Ansari | Computational Methods | Best Researcher Award

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Mr. Abdul Faiz Ansari | Computational Methods | Best Researcher Award

šŸ‘Øā€šŸŽ“ Profile

šŸŽ“ Early Academic Pursuits

Mr. Abdul Faiz Ansari’s journey in academia began with an exceptional foundation in mathematics, starting from his high school and intermediate education under the U.P. Board, India. He pursued a B.Sc. and M.Sc. in Mathematics at the University of Lucknow, achieving milestones in 2015 and 2017, respectively. His doctoral research, initiated in December 2020, revolves around the study of fluid flow through porous media a testament to his passion for unraveling mathematical complexities.

šŸ’¼ Professional Endeavors

Currently serving as a Senior Research Fellow and doctoral candidate at the University of Lucknow, Abdul has gained experience in teaching undergraduate mathematics courses. His dedication is evident through his involvement in courses such as Mathematical Methods, Mechanics, and Differential Calculus. His NET and GATE qualifications, along with his JRF achievement in 2022, solidify his expertise in advanced mathematics.

šŸ”¬ Contributions and Research Focus

Abdul Faiz Ansariā€™s research focus primarily revolves around fluid mechanics and variational analysis. His dissertation delves into the Darcy-Brinkman models, studying anisotropic porous channels under external influences like magnetic fields and rotation. His work has produced a series of impactful publications, contributing to key journals such as the Journal of Porous Media and Journal of Computational and Theoretical Transport. His research not only deepens understanding of fluid behavior but also has significant applications in fields like hydrology, petroleum engineering, and environmental science.

šŸŒŸ Impact and Influence

Abdul Faiz Ansariā€™s research has contributed significantly to understanding Darcy-Brinkman models and anisotropic porous channels, impacting real-world applications. He has presented papers at international conferences, including those organized by institutions like NIT Tiruchirappalli and the University of Delhi, further establishing his presence in the academic community.

šŸ“š Academic Citations

Abdul has co-authored numerous Scopus-indexed papers in areas such as MHD flows, Couette flows, and variational inequalities, contributing to advancements in both theoretical and applied mathematics. Notable publications include works on Darcy-Brinkman flow in rotating systems and the Cayley-Yosida inclusion problem. His research demonstrates a profound ability to bridge gaps between pure and applied mathematical disciplines.

šŸ› ļø Technical Skills

Abdul is proficient in Mathematica, with over five years of experience, and MATLAB, with two years of expertise. He has been an avid user of LaTeX for document preparation for more than seven years, showcasing his technical prowess in mathematical computations and academic writing.

šŸ‘Øā€šŸ« Teaching Experience

Abdul Faizā€™s teaching experience showcases his ability to simplify complex concepts for students. As a teacher in Mathematical Methods, Mechanics, and other fundamental subjects, he has been responsible for helping students build a solid foundation in mathematics and physics. His ability to engage students in conceptual understanding has earned him praise, and his teaching contributions align well with his research expertise.

Top Noted Publications

Effect of Magnetic Field on Darcy-Brinkman Flow Through Rotating Porous Channel System
    • Authors: Vineet Kumar Verma, Abdul Faiz Ansari
    • Journal: Special Topics & Reviews in Porous Media: An International Journal
    • Year: 2024
Effect of Magnetic Field and Slip Conditions on Flow in a Rotating Porous Channel With Viscous Dissipation
    • Authors: Vineet Kumar Verma, Abdul Faiz Ansari
    • Journal: Heat Transfer
    • Year: 2024
Couette Flow of Micropolar Fluid in a Channel Filled with Anisotropic Porous Medium
    • Authors: Vineet Kumar Verma, Abdul Faiz Ansari
    • Journal: Archive of Mechanical Engineering
    • Year: 2024
Darcy-Brinkman Flow in an Anisotropic Rotating Porous Channel Under the Influence of Magnetic Field
    • Authors: Vineet Kumar Verma, Abdul Faiz Ansari
    • Journal: Journal of Porous Media
    • Year: 2024
Generalized Regularized Gap Functions and Error Bounds for Generalized Vector Variational-like Inequalities
    • Authors: Abdul Faiz Ansari
    • Journal: Applied Set-Valued Analysis and Optimization
    • Year: 2022

 

 

 

Yuri Kurilenkov | Computational Methods | Best Researcher Award

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Dr. Yuri Kurilenkov | Computational Methods | Best Researcher Award

Dr. Yuri Kurilenkov | P.N. Lebedev Physical Institute RAS | Russia

šŸ‘Øā€šŸŽ“ Profile

šŸ“š Early Academic Pursuits

Dr. Yuri K. Kurilenkov began his academic journey with a M.S. in Physics of Strongly Coupled Ionic SystemsĀ from the Moscow Power Engineering Institute in 1971. His early research focused on the theoretical and experimental aspects of plasma physics, culminating in aĀ Ph.D. in “Fluctuating Microfields and Opacities in Strongly Coupled Plasmas”Ā from the Institute for High Temperatures, Russian Academy of Sciences, in 1978. This foundational education established his expertise inĀ plasma dynamics and microfield fluctuations, pivotal for his later contributions.

šŸ‘Øā€šŸ”¬ Professional Endeavors

Dr. Kurilenkov has been associated with the Institute for High Temperatures, Russian Academy of Sciences, since 1971, starting as aĀ Research ScientistĀ in the Department of Plasma Physics. In 1981, he transitioned to the Department of Optics and Applied Physics, where he has served as aĀ Senior Researcher. Over decades, his work has spannedĀ optical and transport properties of strongly coupled plasmas, laser-material interactions, and the exploration of hot dense matter physics.

šŸ”¬ Contributions and Research Focus

Dr. Kurilenkov’s research interests encompass a wide array of cutting-edge topics, including:

  • Anomalous Stopping: Understanding energy dissipation in plasma systems.
  • High Energy Density Matter: Studying x-ray generation and energy conversion under extreme conditions.
  • Modern Neutron Sources and Nuclear Synthesis: Exploring innovative methods like DD and aneutronic pB11 synthesis.
    His investigations intoĀ collective phenomena in collision-dominated plasmasĀ andĀ density effects in radiation and stoppingĀ have significantly advanced the understanding of non-ideal plasmas.

šŸŒŸ Impact and Influence

Dr. Kurilenkov has received numerous honors, including a Fellowship from MENESR, France, in 1996, and multiple visiting professorships at prestigious institutions like the University of Maryland and the University of California. HisĀ collaborative work under NATO Science ProgramsĀ has pioneered advancements in plasma absorption, stopping, and x-ray emission efficiency. These efforts have enriched global understanding ofĀ high energy density matterĀ and its practical applications.

šŸ“Š Academic Citations

Dr. Kurilenkov has contributed to over 60 refereed journal papersĀ andĀ 140 conference presentations, highlighting his prolific output. His single-authored book and multiple collaborative projects underscore hisĀ academic influenceĀ in the field of plasma physics.

šŸ› ļø Technical Skills

Dr. Kurilenkov is proficient in advanced experimental and theoretical techniques in:

  • Plasma Spectroscopy
  • High-Energy Particle Generation
  • Optical DiagnosticsĀ for dense plasmas
    His technical expertise enables precise insights intoĀ vacuum discharge phenomenaĀ andĀ x-ray efficiency under extreme conditions.

šŸ« Teaching and Knowledge Dissemination

As aĀ visiting professor at top universities worldwide, Kurilenkov has inspired the next generation of researchers. He has delivered lectures onĀ plasma dynamics,Ā energy conversion systems, andĀ innovative neutron source technologies, fostering cross-disciplinary knowledge exchange.

šŸ… Legacy and Future Contributions

Dr. Yuri K. Kurilenkovā€™s legacy lies in his groundbreaking insights into strongly coupled plasmasĀ and his role in advancing theĀ fundamentals of nuclear technologies. His work onĀ nano-second vacuum dischargesĀ andĀ virtual cathodesĀ continues to push the boundaries ofĀ nuclear microreactor development. Kurilenkovā€™s research ensures a lasting impact on the fields ofĀ plasma physics and high-energy density systems.

Top Noted Publications

On the Contribution of a Cluster Target to Generation of the DD Neutrons in a Nanosecond Vacuum Discharge
  • Authors: S.Y. Gusā€™kov, Y.K. Kurilenkov, A.V. Oginov, I.S. Samoilov
  • Journal: Plasma Physics Reports, 2024
Fully Electromagnetic Code KARAT Applied to the Problem of Aneutronic Protonā€“Boron Fusion
  • Authors: S.N. Andreev, Y.K. Kurilenkov, A.V. Oginov
  • Journal: Mathematics, 2023
Oscillating Plasmas for Proton-Boron Fusion in Miniature Vacuum Discharge
  • Authors: Y.K. Kurilenkov, V.P. Tarakanov, A.V. Oginov, S.Y. Gus’kov, I.S. Samoylov
  • Journal: Laser and Particle Beams, 2023
Electromagnetic Emissions in the MHz and GHz Frequency Ranges Driven by the Streamer Formation Processes
  • Authors: E.V. Parkevich, A.I. Khirianova, T.F. Khirianov, S.A. Ambrozevich, A.V. Oginov
  • Journal: Physical Review E, 2022
On the Plasma Quasineutrality under Oscillatory Confinement Based on a Nanosecond Vacuum Discharge
  • Authors: Y.K. Kurilenkov, V.P. Tarakanov, A.V. Oginov, S.Y. Gusā€™kov, I.S. Samoylov
  • Ā Journal: Plasma Physics Reports, 2022

 

 

Maurizio Dapor| Computational Methods | Best Researcher Award

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Dr. Maurizio Dapor| Computational Methods | Best Researcher Award

Physicist at Fondazione Bruno Kessler, Italy

Maurizio Dapor is an esteemed Italian physicist and Senior Research Scientist at the Interdisciplinary Laboratory for Computational Science at ECT*-FBK. Born on April 23, 1959, he has made significant contributions to both theoretical and experimental physics. With dual habilitations as a Full Professor in these fields, Dapor has been pivotal in advancing computational methods in materials science. His role as an Associate Editor for Computational Materials Science and various visiting professorships across Europe further exemplify his commitment to research and education. Recognized as one of Stanford’s Top 2% Scientists, his work continues to impact the scientific community.

Ā šŸŽ“Profile:Ā 

Education:

Dapor earned his M.Sc. in Physics with Summa Cum Laude from the University of Trento in 1984. He later pursued a Ph.D. in Materials Science and Engineering from the same institution, completing it in 2013. His educational journey began at Liceo Antonio Rosmini, where he graduated with a High School Diploma in 1978. This strong academic foundation has enabled him to excel in various roles in academia and research, contributing extensively to the scientific understanding of materials and their applications.

Professional Experience:

With over three decades of experience, Dapor has held key positions, including Senior Scientist at ECT* and Head of the FBK Interdisciplinary Laboratory for Computational Science. He has served as a Teaching Fellow at the University of Trento, focusing on Solid State Physics and Computational Methods. His international experience includes visiting professorships at Gdansk University of Technology and the University of Sheffield, enhancing his global academic profile. Additionally, Dapor has contributed as a scientific consultant at ETH Zurich, reinforcing his expertise in computational materials research and development.

Research Focus:

Maurizio Dapor’s research primarily centers on computational science and its application to materials physics. He investigates complex phenomena in solid-state systems and develops innovative computational methods to enhance our understanding of material properties. His work addresses critical challenges in transport phenomena and aims to bridge theoretical insights with practical applications. By focusing on interdisciplinary collaborations, Dapor’s research not only advances theoretical frameworks but also contributes to the development of cutting-edge materials for various technological applications.

Awards and Honors:

Dapor’s contributions to physics and materials science have earned him notable recognition, including the distinction of being listed among Stanford’s Top 2% Scientists. His academic achievements are further highlighted by two National Scientific Habilitations as a Full Professor in both Theoretical and Experimental Physics of Matter. His work as an Associate Editor for Frontiers in Materials demonstrates his leadership in advancing the field. These accolades reflect his dedication to research excellence and his influence on the scientific community.

šŸ“šPublication Top Notes:

Title: Charge Phenomena in the Elastic Backscattering of Electrons from Insulating Polymers
  • Authors: Dapor, M.
    Publication Year: 2024
    Citations: 0
Title: Electron-induced hydrogen desorption from selected polymers (polyacetylene, polyethylene, polystyrene, and polymethyl-methacrylate)
  • Authors: Dapor, M.
    Publication Year: 2024
    Citations: 1
Title: The role of low-energy electrons in the charging process of LISA test masses
  • Authors: Taioli, S., Dapor, M., Dimiccoli, F., Villani, M., Weber, W.J.
    Publication Year: 2023
    Citations: 11
Title: Mechanical Properties of Twisted Carbon Nanotube Bundles with Carbon Linkers from Molecular Dynamics Simulations
  • Authors: Pedrielli, A., Dapor, M., Gkagkas, K., Taioli, S., Pugno, N.M.
    Publication Year: 2023
    Citations: 6
Title: The Role of Molecular Structure in Monte Carlo Simulations of the Secondary Electron Yield and Backscattering Coefficient from Methacrylic Acid
  • Authors: Wiciak-Pawłowska, K., Winiarska, A., Taioli, S., Franz, M., Franz, J.
    Publication Year: 2023
    Citations: 0
Title: Spin-polarization after scattering
  • Authors: Dapor, M.
    Publication Year: 2023
    Citations: 1
Title: In search of the ground-state crystal structure of Ta2O5 from ab initio and Monte Carlo simulations
  • Authors: Pedrielli, A., Pugno, N.M., Dapor, M., Taioli, S.
    Publication Year: 2023
    Citations: 5