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Professor and Vice President from New York University, United States
Dr. Juan José de Pablo is a globally recognized leader in molecular engineering, materials science, and chemical engineering, known for his groundbreaking research and extensive leadership in academic and national scientific organizations. Currently serving as the Executive Vice President for Global Science and Technology and Executive Dean at the Tandon School of Engineering, New York University, Dr. de Pablo has had an illustrious academic and professional journey. He is also a senior scientist at Argonne National Laboratory and has held pivotal roles at the University of Chicago and the University of Wisconsin. His work spans multiple research areas, including directed self-assembly of polymers, soft materials, molecular simulation, and biotechnology. Over the years, Dr. de Pablo has established himself as a prolific researcher with over 20 patents, numerous influential publications, and editorial positions in high-impact journals. He is an elected member of prestigious institutions including the U.S. National Academy of Sciences, the National Academy of Engineering, and the American Academy of Arts and Sciences. His leadership has influenced science policy, strategic research initiatives, and interdisciplinary collaborations across the globe. His contributions are not only scientific but visionary, paving the way for future technological advances in materials design, nanotechnology, and energy solutions.
Professional Profile
Dr. de Pablo’s academic foundation is as impressive as his professional accomplishments. He began his education at the National University of Mexico (UNAM), where he earned a Bachelor of Science in Chemical Engineering in 1985. His passion for chemical engineering led him to pursue a doctoral degree at the University of California, Berkeley, where he received his Ph.D. in Chemical Engineering in 1990. After completing his doctorate, he furthered his research capabilities during a postdoctoral fellowship in Materials Science at the Institute for Polymers, ETH Zurich, Switzerland, from 1990 to 1992. These formative years provided him with a robust interdisciplinary background that blends engineering principles with advanced materials science. His exposure to leading institutions in North America and Europe gave him a global perspective early in his career, which continues to shape his international collaborations and leadership roles. The rigorous training he received laid the groundwork for his expertise in thermodynamics, polymer physics, and computational modeling, which would go on to influence countless innovations in both academic and industrial domains.
Dr. de Pablo’s professional career spans over three decades and includes a distinguished trajectory of teaching, research, and leadership. He began his academic career as an Assistant Professor of Chemical Engineering at the University of Wisconsin in 1992, rising through the ranks to become a full professor and eventually Director of its Materials Research Science and Engineering Center. From 2000 to 2012, he also served as Deputy Director of the Nanoscale Science and Engineering Center. In 2012, he joined the University of Chicago as the Liew Family Professor at the Institute for Molecular Engineering, and later took on pivotal roles including Co-Director of the Center for Hierarchical Materials Design (CHiMaD) and Deputy Director for Education and Outreach. Since 2018, he has also been CEO of UChicago-Argonne LLC. Dr. de Pablo’s influence extends beyond academia into national and global science leadership, particularly through his vice presidency roles related to U.S. National Laboratories and global innovation. In 2024, he was appointed Executive Dean at NYU’s Tandon School of Engineering, a role through which he continues to shape engineering education and research strategy. His extensive professional background reflects a unique combination of scientific innovation and strategic governance.
Dr. de Pablo’s research interests are both broad and deep, focusing on the intersection of molecular engineering, materials science, and computational physics. A primary focus of his work is on the directed self-assembly of block copolymers, a field in which he has pioneered several methodologies now used in nanomanufacturing and lithography. He also investigates thermophysical properties of soft materials, advanced polymer systems, biological interfaces, and molecular thermodynamics. His interest in computational modeling has led to the development of new simulation tools and theoretical frameworks for studying molecular and nanoscale systems, facilitating predictions of material behavior with high accuracy. Additionally, Dr. de Pablo has contributed significantly to biotechnology research, particularly in areas related to cryopreservation, stem cell engineering, and synthetic biology. His interdisciplinary approach allows him to tackle complex problems that span chemistry, physics, and engineering. Through collaborative projects and centers such as CHiMaD, he works closely with experimentalists to translate computational models into real-world applications. His research agenda reflects an enduring commitment to solving fundamental scientific challenges while also addressing practical issues in health, energy, and technology.
Dr. de Pablo possesses an exceptional array of research skills that reflect his training and contributions across multiple scientific disciplines. He is a world leader in computational modeling and molecular simulation, applying these techniques to study the thermodynamic and kinetic behavior of polymers, colloids, and biological systems. His skillset includes advanced knowledge of coarse-grained and multiscale simulations, free energy calculations, and structure-property prediction methods. Beyond computational proficiency, he has deep expertise in thermodynamics, statistical mechanics, and polymer physics. His laboratory and theoretical work complement each other, allowing him to bridge gaps between experimental observations and theoretical predictions. He is also adept at integrating interdisciplinary methods, including those from materials science, chemical engineering, and applied physics. His ability to conceptualize and lead large-scale research initiatives, such as the Materials Genome Initiative, highlights his strengths in research strategy and innovation management. In mentoring and supervision, Dr. de Pablo has guided dozens of Ph.D. students and postdoctoral fellows, instilling in them a rigorous and holistic research methodology. His technical versatility and collaborative mindset are key reasons behind his influential role in shaping modern materials science.
Dr. de Pablo has been the recipient of numerous prestigious awards and honors that reflect the depth, breadth, and impact of his scientific career. Early in his career, he received multiple young investigator awards from leading institutions like NSF, IBM, Xerox, 3M, and DuPont, signaling his early promise. He went on to receive the Presidential Faculty Fellow Award from President Bill Clinton and was later elected as a Fellow of the American Physical Society and the American Academy of Arts and Sciences. His research has been recognized through lectureships and invited professorships at top global institutions such as ETH Zurich, Stanford, and the University of Michigan. He has delivered keynote talks and plenary lectures at more than 30 prestigious conferences and universities worldwide. In 2016, he was elected to the U.S. National Academy of Engineering and later to the National Academy of Sciences in 2022. Internationally, he holds honors like the Marie Curie Professorship and the Chevalier de l’Ordre du Mérite (France, 2024). His accolades also include the Polymer Physics Prize from the American Physical Society and numerous distinguished lectureships from Caltech, MIT, Princeton, and others. These honors underline his status as a leading global authority in materials and molecular engineering.
Dr. Juan José de Pablo exemplifies excellence in scientific research, innovation, and leadership. His prolific academic career, paired with his impactful administrative and advisory roles, highlights a rare combination of deep technical expertise and visionary leadership. His contributions to molecular engineering and materials science have not only expanded fundamental scientific understanding but have also enabled new technologies in fields ranging from nanolithography to cryopreservation. With over 20 patents, numerous high-impact publications, and a strong track record of mentorship, Dr. de Pablo has influenced both the academic community and industrial applications. His election to multiple national academies and his global recognition through prestigious awards are testaments to the quality and impact of his work. While already an established authority, he continues to contribute actively through roles in science policy, research strategy, and education at the highest levels. In summary, Dr. de Pablo’s lifelong dedication to advancing science and mentoring the next generation of researchers makes him a truly deserving candidate for the Best Researcher Award. His career serves as an inspiration and a benchmark for excellence in global scientific leadership.
Associate Professor from Xinjiang University, China
Dr. Zhihai Ke is an Assistant Professor and Presidential Young Fellow at the School of Science and Engineering, The Chinese University of Hong Kong, Shenzhen (CUHK-Shenzhen). He earned his Ph.D. in Chemistry from The Chinese University of Hong Kong in 2012. Following his doctoral studies, Dr. Ke conducted postdoctoral research at the National University of Singapore from 2012 to 2015. Before joining CUHK-Shenzhen in 2020, he served as a Research Assistant Professor in the Department of Chemistry at CUHK. Dr. Ke has secured three General Research Funds from the Hong Kong Research Grants Council as a Principal Investigator. His research interests encompass synthetic organic chemistry, organocatalysis, click chemistry, and organic framework catalysis. He has authored over 30 SCI-indexed papers in esteemed journals such as the Journal of the American Chemical Society, Angewandte Chemie International Edition, ACS Catalysis, Green Chemistry, and ChemSusChem. Notably, some of his catalytic methodologies have been highlighted and applied by international peers.
Professional Profile
Dr. Zhihai Ke’s academic journey began with a Bachelor of Science degree from Sun Yat-sen University. He then pursued and obtained his Ph.D. in Chemistry from The Chinese University of Hong Kong in 2012. His doctoral research laid the foundation for his future contributions to the field of synthetic organic chemistry. The rigorous training and research experience during his Ph.D. equipped him with the skills necessary to excel in both academic and research settings. This educational background has been instrumental in shaping his research interests and professional trajectory.
After completing his Ph.D., Dr. Ke undertook postdoctoral research at the National University of Singapore from 2012 to 2015, where he further honed his expertise in organic chemistry. He then returned to The Chinese University of Hong Kong as a Research Assistant Professor in the Department of Chemistry. In 2020, Dr. Ke joined the School of Science and Engineering at CUHK-Shenzhen as an Assistant Professor and Presidential Young Fellow. In this role, he also serves as the Director of the Undergraduate Chemistry Programme. Throughout his career, Dr. Ke has demonstrated a commitment to both teaching and research excellence, contributing significantly to the academic community.
Dr. Ke’s research interests are centered around synthetic organic chemistry, with a particular focus on organocatalysis, click chemistry, and organic framework catalysis. His work aims to develop novel catalytic methodologies that are both efficient and environmentally benign. By exploring new reaction mechanisms and catalyst designs, Dr. Ke seeks to advance the field of organic synthesis and contribute to the development of sustainable chemical processes. His research has practical applications in the synthesis of complex molecules, which are essential in pharmaceuticals, materials science, and other industries.
Dr. Ke possesses a robust set of research skills in synthetic organic chemistry. He is proficient in designing and executing complex organic syntheses, developing novel catalytic systems, and employing advanced analytical techniques to characterize chemical compounds. His expertise extends to organocatalysis and click chemistry, where he has developed innovative methodologies for constructing complex molecular architectures. Dr. Ke’s ability to integrate theoretical knowledge with practical laboratory skills has been pivotal in his successful research endeavors and publications in high-impact journals.
Dr. Zhihai Ke has been recognized for his contributions to the field of chemistry through various awards and honors. He has secured three General Research Funds from the Hong Kong Research Grants Council, underscoring the significance and impact of his research projects. His work has been highlighted in prominent scientific publications, reflecting the esteem in which his peers hold his contributions. These accolades attest to Dr. Ke’s dedication to advancing chemical science and his standing in the academic community.
Dr. Zhihai Ke’s career exemplifies a commitment to excellence in research, education, and scientific advancement. With a solid educational foundation and a wealth of professional experience, he has made significant contributions to synthetic organic chemistry. His research interests and skills have led to the development of innovative catalytic methodologies, earning him recognition and funding within the scientific community. As an educator and researcher at CUHK-Shenzhen, Dr. Ke continues to inspire and mentor the next generation of chemists, fostering a culture of inquiry and innovation. His ongoing work promises to further the frontiers of chemistry and its applications in various industries.
Catalytic Asymmetric Bromoetherification and Desymmetrization of Olefinic 1,3-Diols with C₂-Symmetric Sulfides
Z Ke, CK Tan, F Chen, YY Yeung
Journal of the American Chemical Society, 2014, 136 (15), 5627–5630
Citations: 185
Design, synthesis and crystallographic analysis of nitrile-based broad-spectrum peptidomimetic inhibitors for coronavirus 3C-like proteases
CP Chuck, C Chen, Z Ke, DCC Wan, HF Chow, KB Wong
European Journal of Medicinal Chemistry, 2013, 59, 1–6
Citations: 114
Applications of selenonium cations as Lewis acids in organocatalytic reactions
X He, X Wang, YL Tse, Z Ke, YY Yeung
Angewandte Chemie International Edition, 2018, 57 (39), 12869–12873
Citations: 103
A Platinum(II) Terpyridine Metallogel with an L-Valine-Modified Alkynyl Ligand: Interplay of Pt⋅⋅⋅Pt, π–π and Hydrogen-Bonding Interactions
C Po, Z Ke, AYY Tam, HF Chow, VWW Yam
Chemistry – A European Journal, 2013, 19 (46), 15735–15744
Citations: 103
Conformational and supramolecular properties of main chain and cyclic click oligotriazoles and polytriazoles
HF Chow, KN Lau, Z Ke, Y Liang, CM Lo
Chemical Communications, 2010, 46 (20), 3437–3453
Citations: 88
Desymmetrizing enantio- and diastereoselective selenoetherification through supramolecular catalysis
JY See, H Yang, Y Zhao, MW Wong, Z Ke, YY Yeung
ACS Catalysis, 2018, 8 (2), 850–858
Citations: 85
Lewis base catalyzed stereo- and regioselective bromocyclization
MH Gieuw, Z Ke, YY Yeung
The Chemical Record, 2017, 17 (3), 287–311
Citations: 85
Electrochemical self-assembly of ZnO nanoporous structures
GR Li, CR Dawa, Q Bu, XH Lu, ZH Ke, HE Hong, FL Zheng, CZ Yao, …
The Journal of Physical Chemistry C, 2007, 111 (5), 1919–1923
Citations: 81
Electrochemical synthesis of orientation-ordered ZnO nanorod bundles
GR Li, CR Dawa, Q Bu, F Zhen, XH Lu, ZH Ke, HE Hong, CZ Yao, P Liu, …
Electrochemistry Communications, 2007, 9 (5), 863–868
Citations: 61
Lewis base-promoted ring-opening 1,3-dioxygenation of unactivated cyclopropanes using a hypervalent iodine reagent
MH Gieuw, Z Ke, YY Yeung
Angewandte Chemie, 2018, 130 (14), 3844–3848
Citations: 52
Professor from Shandong University, China
Professor from Shandong University, China
Yongguang Zhao is a distinguished Professor and Ph.D. Supervisor at Shandong University, specializing in optics and photonics. His research primarily focuses on mid-infrared ultrafast laser technologies and vortex laser systems. Zhao has made substantial contributions to the field by advancing the generation of high-purity continuous-wave and femtosecond vortex lasers. His innovative approach involves using all-solid-state vortex laser generation techniques and employing single-crystal-fiber-based amplification architecture for ultrafast vortex laser pulses. Zhao’s work has had significant academic and technological impact, especially in ultrafast laser pulse durations within the sub-100 femtosecond regime. He has published more than 100 SCI-indexed papers, with numerous first-author and corresponding-author publications in leading journals, including Laser & Photonics Reviews and Optics Letters. Zhao has received several prestigious honors, such as the Alexander von Humboldt Research Fellowship and the Qilu Young Scholar Award. His extensive international research experience, including postdoctoral research at the Max Born Institute, positions him as a global leader in his field.
Professional Profile
Yongguang Zhao obtained his Ph.D. from Shandong University in 2014. During his doctoral studies, he focused on ultrafast laser technologies, laying the foundation for his future research career. After completing his Ph.D., Zhao worked at Jiangsu Normal University, where he contributed to the development of novel laser systems and photonics applications. He further honed his expertise in laser physics and ultrafast technologies during his postdoctoral research at the Max Born Institute in Germany from 2017 to 2020. His time at the institute allowed him to collaborate with leading researchers and broaden his academic horizon, enriching his work at the intersection of optics and material sciences. Since 2024, he has been a professor at the State Key Laboratory of Crystal Materials, Shandong University, where his research continues to thrive.
Zhao’s professional journey spans over a decade, during which he has held significant academic and research positions. After earning his Ph.D. in 2014, he joined Jiangsu Normal University, where he worked until 2024. At this university, he contributed to multiple high-impact research projects on optics and photonics, especially focusing on ultrafast laser systems. His postdoctoral research at the Max Born Institute in Germany from 2017 to 2020 further enhanced his expertise, allowing him to collaborate with world-renowned scientists in the field of laser technology. Currently, as a professor at Shandong University’s State Key Laboratory of Crystal Materials, Zhao leads cutting-edge research in ultrafast laser technologies. Throughout his career, he has consistently shown an ability to bridge theoretical research with practical applications, advancing the field of laser systems and photonics.
Yongguang Zhao’s primary research interest lies in the field of optics and photonics, specifically in mid-infrared ultrafast laser technologies and vortex laser systems. His work focuses on understanding and developing novel vortex laser systems, with an emphasis on generating high-purity continuous-wave and femtosecond vortex lasers. Zhao’s research also delves into the development of single-crystal-fiber-based amplification architectures, which have shown distinct advantages in ultrafast vortex laser amplification. His investigations into the fundamental principles of vortex laser generation aim to push the boundaries of laser performance, particularly for high-power and high-peak-power applications. Zhao’s work holds immense potential for future breakthroughs in ultrafast laser systems, with applications in scientific research, industrial technology, and medical fields.
Zhao has a profound expertise in optics, ultrafast laser technology, and vortex laser systems. He is skilled in advanced laser system design, particularly in generating continuous-wave and femtosecond vortex lasers in the mid-infrared spectrum. His expertise also extends to the application of single-crystal fiber amplification systems, where he has pioneered innovative approaches that enhance the efficiency of ultrafast vortex laser pulses. Zhao’s work involves experimental validation, theoretical modeling, and cutting-edge material science techniques. He has demonstrated exceptional abilities in handling complex optical experiments, data analysis, and the development of novel laser systems that exhibit enhanced power and efficiency. His research also includes the application of various types of laser sources in scientific, industrial, and medical fields, contributing to a broad range of practical applications.
Yongguang Zhao has earned numerous prestigious awards and honors throughout his academic career. He was the recipient of the Alexander von Humboldt Research Fellowship, a highly esteemed recognition for international researchers. Zhao was also named a Qilu Young Scholar, an honor that recognizes outstanding young researchers in China. In addition, he was awarded the Jiangsu Provincial “333 High-Level Talent” award, which recognizes individuals with exceptional contributions to scientific research and innovation in Jiangsu Province. These accolades reflect Zhao’s significant contributions to the field of optics and photonics, especially in the development of ultrafast laser technologies and vortex laser systems. His recognition by these prestigious institutions further solidifies his standing as a leading researcher in his field.
Yongguang Zhao is an accomplished and innovative researcher who has significantly contributed to the fields of optics and photonics. His groundbreaking work on mid-infrared ultrafast laser technologies and vortex laser systems has not only advanced fundamental laser science but also introduced new possibilities for industrial and scientific applications. Zhao’s consistent publication record, coupled with his leadership in both academia and international collaborations, showcases his capacity for groundbreaking research. His honors, such as the Alexander von Humboldt Research Fellowship and the Qilu Young Scholar award, underscore his global recognition. Zhao’s work continues to push the boundaries of laser technologies, establishing him as a leader in the optics and photonics research community.
6 W 320 nm ultraviolet pulse laser based on intracavity frequency doubling of Pr:YLF crystal
Authors: Guofeng Xu, Shuxian Wang, Fei Liang, Pingzhang Yu, Zhengping Wang
Journal: Optics Express
Year: 2025
Amplification of high-purity scalar orbital angular momentum states in single-crystal fibers
Authors: Changsheng Zheng, Zihao Tong, Yinyin Wang, Haohai Yu, Huaijin Zhang
Journal: APL Photonics
Year: 2025
100 W orbital angular momentum laser at 2 µm
Authors: Heng Ding, Zihao Tong, Changsheng Zheng, Haohai Yu, Huaijin Zhang
Journal: Optics Letters
Year: 2025
Mode-locking of anisotropic Tm,Ho:GdScO3 laser delivering 57-fs pulses at 2078 nm
Authors: Ning Zhang, Heng Ding, Yinyin Wang, Huanijin Zhang, Jun Xu
Journal: Optics Express
Year: 2024
Citations: 2
Room-temperature high-power laser emission of erbium-doped fluorite crystals at 2.8 µm
Authors: Lei Zhu, Zhen Zhang, Yunfei Wang, Jun Xu, Liangbi Su
Journal: Optics Letters
Year: 2024
Citations: 5
Controlled Generation of High-Purity Scalar Orbital Angular Momentum States from a High-Power Single-Crystal Fiber Laser
Authors: Yongguang Zhao, Bin Chen, Changsheng Zheng, Haohai Yu, Huaijin Zhang
Journal: Laser and Photonics Reviews
Year: 2024
Citations: 3
High-efficiency tandem Ho:YAG single-crystal fiber laser delivering more than 100 W output power
Authors: Jianlei Wang, Zihao Tong, Changsheng Zheng, Yongguang Zhao, Chun Wang
Journal: High Power Laser Science and Engineering
Year: 2024
Citations: 2
Tunable and mode-locked Tm,Ho:GdScO3 laser
Authors: Jian Liu, Ning Zhang, Qingsong Song, Kheirreddine Lebbou, Jun Xu
Year: 2024
Citations: 3
Femtosecond pulse generation from a SESAM mode-locked Tm,Ho:SrF2 laser at 2.08 µm
Authors: Ning Zhang, Zhen Zhang, Yinyin Wang, Liangbi Su, Jun Xu
Journal: Optics Express
Year: 2024
Citations: 2
Sub-60-fs mode-locked Tm,Ho:CaYLuAlO4 laser at 2.05 µm
Authors: Shande Liu, Peifu Wang, Kuan Li, Junting Liu, Yongguang Zhao
Journal: Optics Express
Year: 2024
Citations: 5
Humboldt Junior Researcher from Higher Teacher Training College, University of Yaoundé I, Cameroon
Dr. Bel Youssouf G. Mountessou is a distinguished Cameroonian chemist specializing in organic and theoretical chemistry, with a strong focus on natural product research. His academic journey is marked by a PhD in Organic Chemistry (2020) and a Master’s in Physical and Theoretical Chemistry (2022) from the University of Yaoundé I. Professionally, he has held various academic and research positions, including part-time lectureships and postdoctoral fellowships at renowned institutions such as the HEJ Research Institute of Chemistry in Pakistan and the Helmholtz Centre for Infection Research in Germany. Dr. Mountessou’s research interests encompass the isolation and characterization of biologically active natural compounds, particularly from fungi, and the application of computational tools to study their antimicrobial and cytotoxic properties. His contributions to the field are evidenced by numerous publications in reputable journals and active participation in international conferences and workshops. Recognized for his scientific excellence, he has received accolades such as the Best Researcher Award in Bioinorganic Chemistry. Dr. Mountessou’s dedication to advancing chemical sciences and his commitment to education and research make him a prominent figure in his field.
Professional Profile
Dr. Mountessou’s educational background is rooted in the University of Yaoundé I, Cameroon, where he has achieved multiple degrees in chemistry. He earned his Bachelor of Science in Chemistry in 2011, followed by a Master’s degree in Organic Chemistry in 2013. Demonstrating a commitment to furthering his expertise, he obtained a PhD in Organic Chemistry in 2020. His academic pursuits continued with a Master’s degree in Physical and Theoretical Chemistry in 2022. This comprehensive educational foundation has equipped him with a robust understanding of chemical principles, both in theory and application, laying the groundwork for his subsequent research endeavors.
Dr. Mountessou’s professional career encompasses a blend of academic teaching and research roles. Since 2018, he has served as a part-time lecturer at the Higher Institute of Chemistry and Management and the Higher Teacher Training College in Yaoundé, Cameroon. His research experience includes postdoctoral fellowships at the HEJ Research Institute of Chemistry in Pakistan (2023–2024) and the Helmholtz Centre for Infection Research in Germany (2021). Additionally, he has been actively involved with the Humboldt Research Hub-CECANAPROF at the University of Yaoundé I, contributing as a technical assistant and trainer. These roles have allowed him to engage in cutting-edge research while mentoring students and collaborating with international scientists.
Dr. Mountessou’s research interests are centered on the exploration of natural products, particularly those derived from fungi. He focuses on the isolation and characterization of biologically active compounds with potential antimicrobial and cytotoxic properties. His work integrates theoretical chemistry approaches, including quantum chemical modeling and spectroscopy, to understand the chemical reactivity and biological activity of these compounds. By combining experimental and computational methods, he aims to discover novel compounds that could contribute to the development of new therapeutic agents. His research is instrumental in addressing global health challenges through the discovery of natural bioactive molecules.
Dr. Mountessou possesses a diverse set of research skills that encompass both laboratory techniques and computational tools. His laboratory expertise includes the collection and identification of fungal strains, isolation and purification of natural products, and the use of spectroscopic methods for structural elucidation. On the computational front, he is proficient in molecular docking, molecular dynamics simulations, and quantum chemical calculations, utilizing software such as Gaussian and GaussView. His ability to integrate these skills allows for a comprehensive approach to studying the chemical and biological properties of natural compounds, facilitating the identification of potential drug candidates.
Dr. Mountessou’s contributions to the field of chemistry have been recognized through various awards and honors. Notably, he received the Best Researcher Award in Bioinorganic Chemistry, acknowledging his innovative work in natural product research. He is a member of esteemed professional organizations, including the Royal Society of Chemistry and the Society for Medicinal Plant and Natural Product Research. His involvement with the Humboldt Research Hub-CECANAPROF and collaboration with the Helmholtz Centre for Infection Research further highlight his commitment to advancing scientific knowledge and fostering international research partnerships.
Dr. Bel Youssouf G. Mountessou exemplifies the qualities of a dedicated and innovative researcher in the field of chemistry. His extensive educational background, coupled with a robust professional experience, underscores his commitment to scientific excellence. His research, which bridges experimental and computational chemistry, contributes significantly to the discovery of biologically active natural products with potential therapeutic applications. Recognized by his peers and professional organizations, Dr. Mountessou continues to impact the scientific community through his research, teaching, and collaborations. His work not only advances the field of chemistry but also holds promise for addressing pressing global health challenges.
Phytochemistry and pharmacology of Harungana madagascariensis: Mini review
Authors: GM Happi, GLM Tiani, BYM Gbetnkom, H Hussain, IR Green, BT Ngadjui, BYG Mountessou, et al.
Phytochemistry Letters, 35, 103–112 (2020)
📚 Citations: 34
Two xanthones and two rotameric (3→8) biflavonoids from the Cameroonian medicinal plant Allanblackia floribunda Oliv. (Guttiferae)
Authors: BYG Mountessou, J Tchamgoue, JP Dzoyem, RT Tchuenguem, F Surup, et al.
Tetrahedron Letters, 59(52), 4545–4550 (2018)
📚 Citations: 21
Crystal structure, spectroscopic analysis, electronic properties and molecular docking study of costunolide for inhibitor capacity against Onchocerca volvulus main protease
Authors: BYG Mountessou, ASW Mbobda, HG Stammler, EO Akintemi, MB Mbah, et al.
Journal of Molecular Structure, 1282, 135185 (2023)
📚 Citations: 16
Simplicilones A and B isolated from the endophytic fungus Simplicillium subtropicum SPC3
Authors: EGM Anoumedem, BYG Mountessou, SF Kouam, A Narmani, F Surup
Antibiotics, 9(11), 753 (2020)
📚 Citations: 16
Structural analysis and molecular docking study of pachypodostyflavone: A potent anti-onchocerca
Authors: BYG Mountessou, AW Ngouonpe, ASW Mbobda, EO Akintemi, et al.
Journal of Molecular Structure, 1291, 136003 (2023)
📚 Citations: 12
Pachypodostyflavone, a new 3-methoxy flavone and other constituents with antifilarial activities from the stem bark of Duguetia staudtii
Authors: ASW Mbobda, AW Ngouonpe, GM Happi, BYG Mountessou, E Monya, et al.
Planta Medica International Open, 8(02), e56–e61 (2021)
📚 Citations: 8
Chemical constituents of the medicinal plant Indigofera spicata Forsk (Fabaceae) and their chemophenetic significance
Authors: IL Mouafon, GLM Tiani, BYG Mountessou, M Lateef, MS Ali, IR Green, et al.
Biochemical Systematics and Ecology, 95, 104230 (2021)
📚 Citations: 8
Virtual screening, MMGBSA, and molecular dynamics approaches for identification of natural products from South African biodiversity as potential Onchocerca volvulus pi-class inhibitors
Authors: MB Maraf, BYG Mountessou, TFH Merlin, P Ariane, JNN Fekoua, et al.
Heliyon, 10(9) (2024)
📚 Citations: 6
Vibrational spectroscopic investigations, electronic properties, molecular structure and quantum mechanical study of an antifolate drug: pyrimethamine
Authors: PMA Mekoung, BYG Mountessou, MB Mbah, M Signe, AAA Zintchem, et al.
Computational Chemistry, 10(4), 157–185 (2022)
📚 Citations: 4
Molecular structure, molecular docking, molecular dynamics simulation, and drug likeness evaluation of 3,7-dihydroxy-1,2-dimethoxyxanthone for its anticancer activity
Authors: AO Oladimeji, BYG Mountessou, P Penta, DD Babatunde, EO Akintemi, et al.
Journal of Molecular Structure, 1319, 139359 (2025)
📚 Citations: 3
PhD Scholar from China Agricultural University, Pakistan
Associate Professor from Nanjing Tech University, China
Academic at University of Jiroft, Iran
Dr. Ali Akbari is an accomplished researcher specializing in organic synthesis, electrochemical sensing, and nanomaterials. With a prolific career marked by numerous publications in high-impact journals such as Tetrahedron Letters, Electrochimica Acta, and Journal of Molecular Liquids, he has established himself as a leading figure in the field of chemistry. His work focuses on innovative and eco-friendly methodologies, particularly in the development of advanced nano-catalysis techniques. Dr. Akbari’s interdisciplinary research approach has enabled collaborations across various scientific domains, enhancing the practical applications of his findings. His dedication to sustainable chemistry and novel material development reflects his commitment to addressing modern scientific challenges. As a scholar with a robust academic and research background, Dr. Akbari continues to make significant contributions to the advancement of chemical sciences.
Professional Profile
Dr. Ali Akbari holds advanced degrees in chemistry, with a specialization in organic synthesis and nanomaterials. He earned his Doctorate (Ph.D.) in Chemistry from a prestigious institution, where he focused on developing innovative catalytic processes for organic transformations. Prior to his doctoral studies, he completed a Master of Science (M.Sc.) degree in Organic Chemistry, exploring novel methodologies for synthesizing complex organic compounds. His academic journey began with a Bachelor of Science (B.Sc.) degree in Chemistry, where he built a strong foundation in analytical and synthetic techniques. Throughout his educational career, Dr. Akbari demonstrated exceptional academic performance, earning recognition for his research potential and scholarly achievements. His comprehensive educational background has equipped him with the knowledge and skills to tackle complex scientific problems and drive innovation in the field of chemistry.
Dr. Ali Akbari has accumulated extensive professional experience through his work in both academic and research settings. He has held faculty positions at leading universities, where he has taught advanced chemistry courses and supervised graduate research projects. In addition to his teaching responsibilities, Dr. Akbari has been actively involved in cutting-edge research initiatives, focusing on the synthesis and application of nanomaterials in catalysis and electrochemical sensing. He has collaborated with international research teams, contributing to the development of sustainable and cost-effective chemical processes. Dr. Akbari’s professional portfolio also includes participation in scientific conferences, peer-reviewing scholarly articles, and serving as a consultant for industrial research projects. His multidisciplinary expertise and commitment to research excellence have made him a valuable contributor to the scientific community and a mentor for aspiring chemists.
Dr. Ali Akbari’s research interests encompass a broad spectrum of topics within chemistry, with a primary focus on organic synthesis, nanomaterials, and electrochemical sensing. He is particularly interested in the development of green chemistry approaches to create environmentally friendly catalytic systems. His work on nano-catalysis aims to design efficient and recyclable catalysts for organic transformations, enhancing both the sustainability and practicality of chemical processes. Additionally, Dr. Akbari explores the application of advanced nanomaterials in electrochemical sensors, improving the sensitivity and selectivity of detection methods. His interdisciplinary research extends to exploring new materials for energy storage and environmental remediation. Dr. Akbari’s dedication to addressing real-world challenges through innovative chemical solutions underscores his commitment to advancing scientific knowledge and promoting sustainable technologies.
Dr. Ali Akbari possesses a diverse set of research skills that encompass both experimental and analytical techniques. He is proficient in organic synthesis, including the design and optimization of catalytic processes for complex organic reactions. His expertise extends to nanomaterial fabrication and characterization, utilizing advanced techniques such as scanning electron microscopy (SEM), X-ray diffraction (XRD), and Fourier-transform infrared spectroscopy (FTIR). Dr. Akbari is also skilled in electrochemical analysis, including cyclic voltammetry and electrochemical impedance spectroscopy, which are crucial for sensor development. Additionally, he has experience with computational modeling to predict reaction mechanisms and optimize material performance. His ability to integrate multiple research methodologies enables him to tackle complex scientific problems effectively. Dr. Akbari’s technical proficiency, combined with his innovative approach to chemical research, positions him as a leader in the field of advanced materials and sustainable chemistry.
Throughout his career, Dr. Ali Akbari has received numerous awards and honors in recognition of his outstanding contributions to chemistry. He has been honored with prestigious research grants that support his work on nano-catalysis and green chemistry initiatives. His innovative research has earned him accolades at international conferences, where he has presented groundbreaking findings on sustainable catalytic systems and advanced electrochemical sensors. Dr. Akbari has also received excellence awards for his teaching and mentorship, reflecting his dedication to fostering the next generation of chemists. In addition, he is an active member of professional societies, where he has been recognized for his leadership and scholarly impact. These accolades highlight Dr. Akbari’s commitment to scientific excellence and his influence on the global research community.
Dr. Ali Akbari’s distinguished career in chemistry is marked by his commitment to advancing scientific knowledge and developing sustainable solutions through innovative research. His extensive publication record, interdisciplinary approach, and expertise in organic synthesis and nanomaterials position him as a leading figure in the field. Dr. Akbari’s dedication to green chemistry and advanced material development reflects his broader mission to address pressing global challenges. With a strong foundation in education, diverse professional experiences, and recognized research achievements, he continues to shape the future of chemical sciences. His contributions not only advance the field but also inspire and mentor the next generation of researchers, making him a deserving candidate for the Best Scholar Award in Research.
Sensitive Electrochemical Sensor Modified by Hydroquinone Derivative and Magnesium Oxide Nanoparticles
A New Method for the Synthesis of 1-Methyl-1 H -indole-3-carboxylate Derivatives, Employing Copper(II)
Synthesis of Quinazolin-4(3H)-ones via a Novel Approach
Efficient Method for the Synthesis of Novel Methyl 4-Cinnolinecarboxylate
Design of a New Method for the Synthesis of Novel 2-Aryl/Alkyl-3H-indol-3-ones
A Hydrophobic Deep Eutectic Solvent-Based Ultrasound-Assisted Dispersive Liquid–Liquid Microextraction for Determination of β-Lactam Antibiotics Residues in Food Samples
Deep Eutectic Solvent-Based Ligandless Ultrasound-Assisted Liquid-Phase Microextraction for Extraction of Cobalt Ions from Food Samples
Sonodecoration of Magnetic Phosphonated-Functionalized Sporopollenin for Stir Bar Sorptive Dispersive Microextraction of Melamine in Milk
Synthesis and Characterization of Chemical Compounds Derived From Benzohydrazide and Evaluation of Their Antibacterial Activities
Application of a Novel High-Performance Nano Biosorbent for Removal of Anionic Dyes Using Shuffled Frog Leaping Algorithm