Xiang-Ting Min | Catalyst | Young Scientist Award

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Assoc. Prof. Dr. Xiang-Ting Min | Catalyst | Young Scientist Award

Assoc. Prof. Dr. Xiang-Ting Min, Dalian Institute of Chemical Physics, China

Assoc. Prof. Dr. Xiang-Ting Min is a distinguished chemical researcher specializing in single-atom catalysts for deuterated compound synthesis. Currently serving as an Assistant Professor since 2024, he earned his Ph.D. in Organic Chemistry from the Dalian Institute of Chemical Physics, following his Master’s from Dalian University of Technology and Bachelor’s from Liaocheng University. He completed postdoctoral research under Profs. Tao Zhang and Botao Qiao. Dr. Min has published 35 papers. He also serves as a reviewer for Nature Communications and guest editor for Catalysts.

Publication Profile

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🎓 Educational and Research Journey

Assoc. Prof. Dr. Xiang-Ting Min has built a strong academic and research foundation in the field of chemistry through a structured and prestigious educational path. He pursued his postdoctoral research from 2021 to 2024 at the Dalian Institute of Chemical Physics under the guidance of renowned mentors Prof. Tao Zhang and Prof. Botao Qiao, focusing on advanced catalysis. Prior to this, he completed his Ph.D. in Organic Chemistry (2018–2021) at the same institute under the supervision of Prof. Boshun Wan and Prof. Qing-An Chen, where he developed expertise in molecular transformations. He earned his Master’s degree in Chemical Engineering (2015–2018) from the Dalian University of Technology under Prof. Jianhui Liu, gaining valuable knowledge in applied chemical processes. His academic journey began with a Bachelor’s degree in Applied Chemistry (2011–2015) at Liaocheng University, where he was mentored by Prof. Min Liu. This progressive trajectory reflects his dedication to research and excellence in chemistry.

🧪 Professional Experience

Assoc. Prof. Dr. Xiang-Ting Min began his role as an Assistant Professor in 2024, continuing his dedication to cutting-edge chemical research. In this position, he is leading innovative studies focused on the development of single-atom catalysts for the efficient and selective synthesis of deuterated compounds, which are crucial in pharmaceutical development, metabolic studies, and drug stability enhancement. His research aims to push the boundaries of modern catalysis by exploring atom-efficient, sustainable methods for isotope labeling and fine chemical production. Building upon his extensive postdoctoral and doctoral experiences, Dr. Min integrates advanced spectroscopic, computational, and synthetic approaches to design next-generation catalytic systems. His current academic role not only involves intensive laboratory research but also includes mentoring graduate students and contributing to high-impact scientific publications. This appointment reflects both his rising academic stature and his commitment to addressing complex challenges in organometallic chemistry and catalytic science.

🔬 Research Focus

Assoc. Prof. Dr. Xiang-Ting Min’s research lies at the intersection of organometallic catalysis, isotope labeling, and single-atom catalysis. His work primarily focuses on developing palladium and rhodium-based single-atom catalysts for hydrogen–deuterium exchange reactions, particularly targeting α-site-selective deuteration in benzylic alcohols and aldehydes. 🧪 He explores decarbonylative coupling, cross-coupling, and photocatalysis using transition metal complexes. His innovations contribute to green chemistry, drug metabolism studies, and synthetic efficiency. 🌱⚗️ Through cutting-edge publications in JACS, Chem, and Angew. Chem., Dr. Min’s research advances precision catalysis and isotope chemistry, impacting pharmaceuticals, materials science, and sustainable synthesis.

Publication Top Notes

  • 🧪 2025 – Catalytic α‑Site‑Selective Hydrogen‑Deuterium Exchange of Benzylic Alcohols by Palladium Single‑Atom Catalyst – achieved up to 95% α‑deuteration in benzylic alcohols using Pd single‑atom catalysts

  • 🧩 2023 – Heterogeneous geminal‑atom catalysis: Cross‑coupling reactions through the pair of single‑atom sites – introduced geminal‑atom catalysts (GACs) enabling cooperative cross‑coupling

  • 🔄 2022 – Rhodium‑Catalyzed Deuterated Tsuji–Wilkinson Decarbonylation of Aldehydes with D₂O (J. Am. Chem. Soc.) – developed selective deuteration of aldehydes via Rh catalysis

  • 🌞 2021 – Visible‑Light Induced Bifunctional Rhodium Catalysis for Decarbonylative Coupling of Imides with Alkynes (Angew. Chem. Int. Ed.) – unveiled photoredox‑driven Rh catalysis for imide–alkyne coupling

  • ⚙️ 2020 – Cobalt‑Catalyzed Regioselective Carboamidation of Alkynes with Imides (Org. Lett.) – achieved selective carboamidation of alkynes via Co catalysts

Aparna Gautam | Catalyst synthesis | Best Researcher Award

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Dr. Aparna Gautam | Catalyst synthesis | Best Researcher Award

Dr. Aparna Gautam, Motilal Nehru National Institute of Technology, Allahabad, India

Dr. Aparna Gautam is a dedicated Research Scholar at MNNIT Allahabad, Uttar Pradesh, specializing in Chemical Engineering. Her Ph.D. research focused on sustainable biodiesel production using ionic liquid-based nano-photocatalysts from waste cooking oil. With a passion for green chemistry, she integrates process intensification methods like microwave, ultrasound, and UV irradiation into her work. Aparna has contributed to national conferences, published in indexed journals, and holds one patent. Her commitment to environmental sustainability and renewable energy solutions defines her academic journey, and she actively seeks post-doctoral roles to advance innovation in catalysis and clean energy technologies. 🌱🧪📚

Publication Profile

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📘 Education

Dr. Aparna Gautam earned her Ph.D. in Chemical Engineering from MNNIT Allahabad, where she developed novel photocatalytic methods for biodiesel synthesis. She also holds an M.Tech in Chemical Engineering, emphasizing sustainable chemical processes. Her academic training blends theoretical foundations with advanced experimental practices, including catalysis, kinetics, and environmental engineering. Aparna’s research training involved characterizing nanomaterials and analyzing reaction mechanisms for optimized green fuel production. Her educational journey is rooted in solving real-world problems, applying chemical engineering principles to promote clean energy and waste valorization. Her academic excellence is further demonstrated through publications and technical contributions to her field. 🎓🔬📘

🧪 Experience

Dr. Aparna Gautam has hands-on research experience in developing nano-based photocatalysts for biodiesel production using waste oils, incorporating green energy techniques such as microwave, UV, and ultrasound-assisted synthesis. As a Research Scholar at MNNIT Allahabad, she has actively contributed to experimental design, data analysis, and technical reporting. Aparna has presented her work at national conferences and collaborated in laboratory teams focusing on sustainable fuel technologies. She has authored four indexed journal papers and filed one patent. Currently seeking postdoctoral or industrial research opportunities, she is eager to contribute to renewable energy systems, catalysis, and sustainable process development. ⚙️🔍💡

🏆 Awards and Honors

Dr. Aparna Gautam has received recognition for her innovative contributions to green chemistry and renewable energy. Her work on nano-photocatalysts for biodiesel production earned her the opportunity to present at national-level conferences. With four Scopus/SCI-indexed journal publications and one published patent, she is a strong contender for the Best Researcher Award by ScienceFather. Aparna’s h-index of 3 reflects the growing impact of her research in environmental engineering. Her contributions to sustainable development and green energy continue to gain acclaim within academic circles. She aspires to receive further accolades for excellence in research and innovation in clean technologies. 🥇📊🌍

🔬 Research Focus

Dr. Aparna Gautam’s research revolves around green catalysis, renewable energy, and process intensification. Her Ph.D. explored ionic liquid-based nano-photocatalysts supported on titania for sustainable biodiesel production from waste cooking oil. Her approach integrates microwave, ultrasound, and UV irradiation to boost reaction efficiency. Her work contributes significantly to the fields of biodiesel synthesis, waste valorization, and environmental sustainability. She has also delved into kinetic and thermodynamic modeling of transesterification processes. Passionate about clean energy, Aparna aims to extend her research to industrial applications, helping reduce environmental footprints through innovative and scalable green fuel technologies. 🔬🧫♻️⚡

Publication Top Notes

  • 📄 Dry route process and wet route process for algal biodiesel production: A review of techno-economical aspects – 📊 Cited by 24 – 📅 2021

  • 📄 Metal-and ionic liquid-based photocatalysts for biodiesel production: a review – 📊 Cited by 18 – 📅 2023

  • 📄 Novel ionic liquid-based nano-photocatalyst for microwave-ultrasound intensified biodiesel synthesis – 📊 Cited by 6 – 📅 2024

  • 📄 Optimization, kinetics and thermodynamics of ultrasound assisted and ionic liquid catalyzed in-situ biodiesel synthesis from wet microalgae – 📊 Cited by 3 – 📅 2023

  • 📄 Optimization and Control of Continuous Biodiesel Production Processes: A Review –  📅 2025

  • 📄 Process intensification opportunities in the production of microalgal biofuels  – 📅 2023

  • 📄 AN IONIC LIQUID-BASED NANO-PHOTOCATALYST AND A METHOD OF PREPARATION THEREOF (Patent IN533205)  – 📅 2023

  • 📄 Utilization of an emulsion liquid membrane for the extraction of ethanol – 📅 2023

  • 📄 CHEM-CONFLUX 22 (Conference paper on sustainability) – 📅 2022

Mohsen Saeidi | Electrocatalysts | Best Researcher Award

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Dr. Mohsen Saeidi | Electrocatalysts | Best Researcher Award

Dr. Mohsen Saeidi, Sharif University of Technology, SUT, Iran

Dr. Mohsen Saeidi is a postdoctoral researcher at the Center of Nanomaterials and Advanced Materials (CNAM), Sharif University of Technology. Specializing in electrocatalyst design for sustainable energy applications, he combines experimental techniques with computational modeling to advance clean energy solutions. With extensive experience in alkaline water electrolysis and CO reduction, Dr. Saeidi has led research projects, mentored students, and contributed to the scientific community through publications, patents, and interdisciplinary collaborations. His dedication to clean energy innovation is evident in his groundbreaking research and leadership.

Publication Profile

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🎓 Education

Dr. Mohsen Saeidi earned his Ph.D. in Materials Science and Engineering from Sharif University of Technology, focusing on gold nanostructure-decorated 3D-graphene for supercapacitors and biosensors. He completed a Ph.D. exchange at Pohang University of Science & Technology. He also holds an M.Sc. in Materials Science from Iran University of Science & Technology and a B.Sc. in Materials Science from Bu-Ali Sina University. His academic journey has equipped him with expertise in electrochemical systems, computational modeling, and catalyst design.

💼 Experience

Dr. Saeidi has served as a postdoctoral fellow at Sharif University of Technology, leading research on high-entropy catalysts for electrochemical applications. He also worked as a research engineer at the Chemistry and Chemical Engineering Research Center of Iran, developing catalysts for ammonia-SCR of NOx. As a conference moderator and instructor, he has facilitated knowledge exchange in the materials science community. Additionally, he co-founded a startup on conductive inks using Ti3C2T MXene and served as a research and development manager, directing AI-based industrial projects.

🏆 Awards and Honors

Dr. Saeidi has received recognition for his contributions to sustainable energy research, including grants for interdisciplinary projects on solar reactors and wastewater treatment. His achievements in catalyst design and industrial implementation have earned him prestigious fellowships and conference invitations. As a peer-reviewer for leading journals, he has actively contributed to the scientific discourse. His efforts in mentoring graduate students and fostering international collaborations further exemplify his commitment to advancing clean energy solutions.

🔎 Research Focus

Dr. Saeidi’s research centers on electrocatalyst design for water splitting, CO2 reduction, and clean energy generation. His expertise includes developing high-entropy catalysts, investigating reaction mechanisms through DFT simulations, and enhancing electrode performance using meta-material designs. He has explored bubble dynamics on 3D-printed electrodes, achieved scalable CO valorization using Ag-MOF-modified catalysts, and pioneered photoelectrochemical devices for seawater oxidation. His work integrates experimental insights with computational analysis to address critical challenges in sustainable energy production.

Publication Top Notes

📄 Co-doping a metal on Mn/ZSM-5 catalyst for NOx reduction | Cited by: 47 (2017)
📄 Hydrogel-based wearable biosensors and bioelectronic devices | Cited by: 31 (2023)
📄 Seed-induced synthesis of ZSM-5 aggregates using Silicate-1 | Cited by: 29 (2018)
📄 Challenges and advances in hydrogel-based wearable biosensors | Cited by: 28 (2024)
📄 Multilayered mesoporous composites for cardiac troponin-I detection | Cited by: 17 (2022)
📄 Hierarchical nanocrystalline ZSM-5 using modified seeding method | Cited by: 16 (2020)
📄 Metallic nanocluster-functionalized MOFs for morphine monitoring | Cited by: 9 (2023)
📄 ZrO2–Al2O3–TiO2 composites synthesized via citrate–nitrate process | Cited by: 9 (2015)
📄 Ultrafast graphitization of graphene oxide for supercapacitors | Cited by: 8 (2021)
📄 Efficient electrochemical CO2 conversion with modified MOFs | Cited by: 6 (2023)
📄 Nanocomposites in the Al2O3–TiO2–ZrO2 system via ultrasonic co-precipitation | Cited by: 2 (2012)
📄 Mass transfer modeling of hydrogen bubbles on textured electrodes (2025)
📄 Photoelectrochemical seawater oxidation using tri-metallic catalysts  (2025)
📄 AI-assisted hydrogel patches for sweat monitoring (2025)
📄 Selective Catalyst Reduction of NOx with Mn/ZSM-5  (2016)
📄 Performance of Co-, Fe- and Mn/ZSM-5 in NOx reduction  (2014)
📄 Phase transformation of Al2O3, TiO2, and ZrO2 nanocomposites  (2012)
📄 Ultrasonic-assisted synthesis of Al2O3–TiO2–ZrO2 nanocomposites (2011)