Mohammad Ansar Vakkattil | Advanced Materials Engineering | Cross-disciplinary Excellence Award

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Mohammad Ansar Vakkattil | Advanced Materials Engineering | Cross-disciplinary Excellence Award

Mr Mohammad Ansar Vakkattil, FHNW, India

Mr. Mohammad Ansar Vakkattil is a dynamic interdisciplinary researcher whose work bridges polymer science, biomedical engineering, and 3D bioprinting. With a solid foundation in Rubber and Polymer Technology from premier Indian institutions like IIT Kharagpur and CUSAT, he has contributed significantly to intelligent materials, medical devices, and bioremediation. His roles as Senior Project Engineer at SCTIMST and researcher at institutions in Switzerland and Estonia reflect his global engagement. His pioneering work on smart materials and 3D-printed implantables, like cranioplasty scaffolds, showcases his innovation at the intersection of healthcare, materials science, and sustainability. With a flair for EU grant writing and multilingual expertise, he embodies the spirit of collaborative, cross-domain research. Through academic supervision, teaching, and publication, Mr. Vakkattil continues to inspire a new generation of material scientists and bioengineers worldwide.

Publication Profile

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Education

Mr. Ansar earned his M.Tech in Rubber Technology from the Rubber Technology Centre, IIT Kharagpur, with a CGPA of 8.02/10, supported by a prestigious GATE scholarship. His thesis focused on castor oil extended epoxidised natural rubber, emphasizing sustainable material innovation. He completed his B.Tech in Polymer Science and Engineering from Cochin University of Science and Technology (CUSAT) with a CGPA of 7.23/10. His academic projects and thesis explored topics such as SBR-tire compounds and mechanical properties of latex films, grounding him in applied polymer engineering. Further technical training at the Indian Rubber Board and multiple industrial internships enriched his hands-on expertise in polymer processing, rubber compounding, and materials testing. His academic journey reflects not only intellectual merit but also a strategic focus on sustainable, biomedical, and smart material innovations.

Experience

Mr. Ansar’s professional experience reflects a blend of academic research and applied engineering. He served as a Senior Project Engineer at Sree Chitra Tirunal Institute for Medical Sciences and Technology, where he contributed to the development of Parylene coatings for implantable medical devices. At the University of Tartu and University of Applied Sciences Northwestern Switzerland, he specialized in 3D printing of artificial muscles and bioprinting for bioremediation. His skills span FDM, SLA, electrospinning, ceramic nanoparticles, and hydrogel synthesis. In addition to his lab work, he has acted as a supervisor, educator, and EU project contributor. His roles demonstrate advanced proficiency in additive manufacturing, smart biomaterials, and digital fabrication—key areas shaping future biomedical and environmental technologies.

Awards and Honors

Mr. Ansar’s academic and professional excellence has been consistently recognized. He was awarded the GATE Masters Scholarship (2016–2018) and achieved an All India Rank of 32 in the GATE Polymer Science and Material Science category. He was the Runner-Up in the Brand D Management Competition during Spring Fest at IIT Kharagpur in 2017. He has also earned accolades for multiple poster presentations, including on biomedical coatings and sustainable rubber materials, at IRMRA and other prestigious platforms. These honors underscore his creativity, technical acumen, and capacity to translate theoretical knowledge into impactful innovations. His teaching merits and development of study materials for GATE aspirants further reflect his commitment to academic excellence and mentorship in polymer sciences.

Research Focus

Mr. Ansar’s research focuses on intelligent materials, additive manufacturing (3D printing), and biomaterials for medical and environmental applications. His work integrates polymer science, smart textiles, hydrogel-based systems, electrospun materials, and bioprinting technologies for creating actuators, biomedical implants, and sustainable filtration systems. Notably, he has investigated bioprinting for bioremediation, parylene coatings for implants, and artificial muscles using FDM and photopolymer techniques. His interdisciplinary approach, combining biopolymer engineering, chemical vapor deposition, and cytocompatibility testing, has led to novel insights in the development of responsive materials and devices. His goal is to bridge the gap between ecological sustainability and human health by advancing customizable, low-impact technologies in the polymer and medical materials domain.

Publication Top Notes

Investigating the Effect of Processing Parameters on Mechanical Behavior of 3D Fused Deposition Modeling Printed Polylactic Acid

Alexandra Kuriganova | Chemistry and Materials Science | Best Researcher Award

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Alexandra Kuriganova | Chemistry and Materials Science | Best Researcher Award

Prof. Dr Alexandra Kuriganova, Platov South-Russian State Polytechnic University, Russia

Prof. Dr. Alexandra Kuriganova is a distinguished researcher in electrochemical nanomaterials, specializing in fuel cells, supercapacitors, and lithium-ion batteries 🔬⚡. She earned her Diplom (2008) and Ph.D. (2011) from South Russian State Technical University, focusing on nanosized Pt/C catalysts for proton exchange membrane fuel cells (PEMFC) 🔥🔋. Her international research collaborations span Germany 🇩🇪, France 🇫🇷, and Russia 🇷🇺, leading to innovative breakthroughs in catalyst development. Currently an Associate Professor and Senior Research Fellow at Platov South Russian State Polytechnic University, she has made significant contributions to nanodispersed metal oxides for energy applications 🌍🔎. Her work in pulse electrolysis and electrochemical dispersion techniques has redefined electrocatalyst synthesis, resulting in numerous high-impact publications 📚. A dedicated scientist and educator, she continues to advance nanotechnology for sustainable energy solutions, collaborating with leading institutions worldwide 🌱💡.

Publication Profile

Scopus

Education

Prof. Dr. Alexandra Kuriganova earned a Diplom (2008) in Chemical Technology of High-Molecular Compositions from South Russian State Technical University (Novocherkassk Polytechnic Institute), Novocherkassk. He continued his studies at the same institution, obtaining a Ph.D. (2011) in Technology of Electrochemical Processes and Corrosion Protection. His thesis, titled “Electrochemical Preparation of Nanosized Pt/C Catalysts for Fuel Cells with Proton Exchange Polymer Membrane,” was supervised by Prof. Dr. Nina V. Smirnova. Dr. [Name] has participated in prestigious international research fellowships, including the Institute of Problems of Chemical Physics (2011), TU Dresden (DAAD Scholarship, 2012), the European Synchrotron Radiation Facility (2012), and NUST “MISIS” (2013) . 🌍🔬

Experience

Prof. Dr. Alexandra Kuriganova is a distinguished researcher in electrochemical materials and nanotechnology. She began her academic career as an Assistant Professor at South Russian State Technical University (2008-2013) 🎓, where she conducted research and taught chemical engineering courses. Since 2013, she has been an Associate Professor at Platov South Russian State Polytechnic University 🏛️, leading academic and research initiatives. As a Senior Research Fellow at the Research Institute of Nanotechnologies & Novel Materials (2014-Present) 🧪, she spearheads advancements in nanomaterials for energy storage and catalysis. Her international collaborations include studies on diesel oxidation catalysts 🚗, Li-ion battery anodes 🔋, Pt nanocrystal compressibility 🏗️, and nanoparticle growth 🔬.

Research Interest

Prof. Dr. Alexandra Kuriganova specializes in nanodispersed metal and metal oxide materials for electrochemical applications ⚡🔬, including proton exchange membrane fuel cells (PEMFCs), supercapacitors, and Li-ion batteries. Her research explores electrochemical oxidation and dispersion for nanoparticle synthesis. Collaborating with top institutions worldwide 🌍, she has worked on Pt/C catalysts for PEMFCs, Pt/γ–Al₂O₃ diesel oxidation catalysts, and SnO₂ nanoparticles for Li-ion batteries. She has partnered with scientists from Russia 🇷🇺, Germany 🇩🇪, France 🇫🇷, and beyond, leading to impactful joint publications 📚. Her work advances energy storage and catalysis, driving innovation in electrochemical technologies. 🚀🔋

Research Focus

Prof. Dr. Alexandra Kuriganova’s research focuses on the synthesis and application of nanodispersed metals and metal oxides for electrochemical energy storage and catalysis ⚡🔋. She has significantly contributed to fuel cell technology by developing high-performance Pt/C catalysts for proton exchange membrane fuel cells (PEMFCs) 🚀. Her work in supercapacitors and batteries includes tin oxide-based anodes for Li-ion batteries and electrocatalytic materials for energy storage ⚡🔋. She pioneers pulse electrolysis techniques for synthesizing bimetallic electrocatalysts using electrochemical dispersion 🎯. Additionally, her studies on Pt/γ–Al₂O₃ catalysts for diesel oxidation involve collaborations with global research institutions 🌍. Her interdisciplinary expertise in electrochemistry, nanotechnology, and materials science has led to groundbreaking discoveries and high-impact publications 📚.

Publication Top Notes

1️⃣ New Insights into Controlling the Functional Properties of Tin Oxide-Based Materials 🧪
2️⃣ Theoretical and Technological Fundamentals of Pulse Electrolysis for Electro- & Catalytically Active Materials ⚡
3️⃣ Electrochemistry of Pt and Pd Under Pulse Electrolysis Conditions 🏗️
4️⃣ Pt Catalysts Prepared via Top-down Electrochemical Approach: Synthesis & Support Effects 🔬
5️⃣ Tungsten Oxide Nanopowders: Pulse AC Electrosynthesis & Photocatalytic Performance 💡
6️⃣ Fabrication of Nano-In₂O₃ Phase Junction for Enhanced Photoelectrochemical Performance 🌱
7️⃣ Pulse Electrolysis Technique for Preparation of Bimetal Tin-Containing Electrocatalytic Materials ⚙️
8️⃣ Investigation of Ambient Temperature Influence on PEMFC Characteristics: From Single Cell to Stack 🔋
9️⃣ Electrochemical Dispersion Technique for Sn-Doped Pt Particles as Electrocatalysts 🚀
🔟 Comparison of Bottom-Up & Top-Down Approaches to Pt/C Electrocatalyst Synthesis 🏭

 

 

Lin Gu | Advanced Materials Engineering | Best Researcher Award

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Lin Gu | Advanced Materials Engineering | Best Researcher Award

 Lin Gu, Fudan University, China

Dr. Lin Gu is a distinguished researcher in wide bandgap semiconductor materials, particularly Ga2O3-diamond composites. He earned recognition with the National Scholarship for Master’s Students at Fudan University (2021-2022) and has authored over 20 influential papers in top journals like Nano Energy and Applied Surface Science. Notable works include research on thermal management and heat transfer in semiconductor materials. Dr. Gu received multiple awards, including Fudan University’s Professional Master’s Excellent Academic Scholarship and the Outstanding Graduate of Shanghai award. His dedication, collaborative spirit, and impactful research make him a leading figure in material science. 📚🔬🏅

Publication  Profile

oricid

Educational Background

Dr. Lin Gu earned the prestigious National Scholarship for Master’s Students during his time at Fudan University in 2021-2022. His research focuses on enhancing semiconductor materials, particularly Ga2O3-diamond composites. His work tackles crucial challenges in thermal management and interfacial heat transfer, aiming to improve the performance of high-power electronics. By addressing these key areas, Dr. Gu’s research has the potential to advance the efficiency and reliability of electronic devices, especially those operating under extreme conditions. His contributions are poised to make a significant impact in the field of semiconductor materials and electronic engineering.

Experience

Dr. Lin Gu is a dedicated engineer with extensive experience in wide bandgap semiconductor materials and processes 🌟🔬. From 2016 to 2021, he contributed significantly at Optorun (Shanghai) Co., Ltd. 💼. He actively participated in the prestigious Shanghai 2021 Science and Technology Innovation Action Plan 🚀📚. With over 20 published papers, including four as the first author and one as a co-corresponding author 📝📖, his academic contributions are noteworthy. He has also presented at esteemed conferences like IFWS and SSLCHINA in 2023, delivering oral and poster presentations 🎤📊. Currently, his collaborative work is under review in EES 🌐📑.

Awards and Recognition

Dr. Lin Gu is a distinguished researcher whose excellence has garnered widespread recognition. He earned the prestigious First Prize in Fudan University’s Professional Master’s Excellent Academic Scholarship for two consecutive academic years (2021-2023), reflecting his dedication and outstanding performance. In 2024, Dr. Gu was also honored as an Outstanding Graduate of Shanghai, further emphasizing his exceptional contributions to his field. His achievements are a testament to his academic excellence, commitment to research, and consistent drive for success. 🌟🎓🏆

Honors

Dr. Lin Gu is an outstanding academic achiever, having been awarded the prestigious National Scholarship for Master’s Students at the Industrial Technology Research Institute of Fudan University for the 2021-2022 academic year. 🏅 In recognition of his excellence, he won the first prize of Fudan University Professional Master’s Excellent Academic Scholarship for both the 2021-2022 and 2022-2023 academic years. 🏆 His dedication and hard work were further acknowledged when he was named an Outstanding Graduate of Shanghai in 2024. 🎓 These remarkable accomplishments reflect his commitment to academic excellence and research in his field. 🌟

Research Focus

Dr. Lin Gu’s research focuses on advanced materials science, particularly the synthesis and characterization of thin films and epitaxial layers using cutting-edge techniques such as Chemical Vapor Deposition (CVD) and Pulsed Laser Deposition (PLD). His work includes optimizing Ga₂O₃ films and heterostructures on diamond substrates, analyzing interfacial heat transfer, and enhancing material properties through annealing treatments. Key applications involve wide-bandgap semiconductors for optoelectronics and power devices. Dr. Gu contributes to understanding microstructural, optical, and chemical behaviors to advance high-performance materials. 🌟🔬📏 His studies are pivotal for developing next-generation electronic components and energy-efficient technologies. 🌍⚡💡

Publication Top Notes

Insights into the effect of susceptor rotational speed in CVD reactor on the quality of 4H-SiC epitaxial layer on homogeneous substrates

The Influence of Annealing Temperature on the Interfacial Heat Transfer in Pulsed Laser Deposition-Grown Ga2O3 on Diamond Composite Substrates

Optimization of Heteroepitaxial Gallium Oxide Thin Films on Diamond Composite Substrates using Pulsed Laser Deposition Method

Investigation of gallium oxide thin film hetero-integrated with bulk diamond via atomic layer deposition

Influence of Nitrogen Annealing Treatment on Optical, Microstructural, and Chemical Properties of Ga<sub>2</sub>O<sub>3</sub> Film Grown by Plasma-Enhanced Atomic Layer Deposition

Influence of Rapid Thermal Annealing on the Characteristics of Sn-Doped Ga2O3 Films Fabricated Using Plasma-Enhanced Atomic Layer Deposition

 

Mehdi SALEM | Chemistry and Materials Science | Best Researcher Award

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Mehdi SALEM | Chemistry and Materials Science | Best Researcher Award

Dr Mehdi SALEM, IMT Mines Albi, France

Dr. Mehdi Salem appears to be an excellent candidate for the Best Researcher Award due to his significant contributions in materials science and mechanical engineering, specifically in areas like thermal fatigue, high-temperature corrosion, and additive manufacturing. Below are key factors supporting his suitability:

Publication profile

google scholar

Strong Academic Background

Dr. Salem holds a Doctorate in Mechanical Engineering (2009) from Université Paul Sabatier de Toulouse, with prior degrees in materials science and general engineering. His academic foundation is rooted in prestigious institutions, reflecting his depth in research capabilities.

Professional Experience

With over a decade of experience as a research engineer at Armines – IMT Mines Albi-Carmaux and extensive post-doctoral work, Dr. Salem’s professional career focuses on high-impact research in material fatigue, metal forming processes, and additive manufacturing. His roles as a lecturer further demonstrate his academic leadership.

Expertise and Technical Contributions

His expertise spans advanced topics such as thermal fatigue, corrosion, residual stress evaluation, and additive manufacturing. His technical skills in simulation (e.g., MEF), microstructural analysis, and materials testing position him as a leading researcher in his field.

Publications and Impact

Dr. Salem’s publications, such as his work on thermal fatigue analysis and residual stresses in selective laser melting, have made a significant contribution to mechanical engineering and materials science, with citations demonstrating the relevance of his research. His published papers in top-tier journals like International Journal of Fatigue and Additive Manufacturing have garnered considerable citations, reflecting the impact of his research on both academic and industrial applications.

Multidisciplinary Collaboration

Collaborating with both academic and industrial entities, his research has addressed real-world challenges, such as improving machining quality and enhancing the durability of automotive components. His work on the effect of doum palm fibers and aluminizing on thermal fatigue demonstrates innovative problem-solving in diverse materials.

Research focus

M. Salem’s research primarily focuses on thermal fatigue, additive manufacturing, and composite materials. His work spans analyzing thermal fatigue in automotive diesel pistons and hot work tool steels to improving additive manufacturing processes like selective laser melting and cold metal transfer. He also explores the mechanical and thermal properties of materials, including aluminum alloys and gypsum mortars reinforced with natural fibers. Another key aspect of his research involves developing innovative tools to enhance machining quality and reduce harmful particulate dispersion in composite materials. 🔧🛠️🔥🌡️📊

Conclusion

Dr. Salem’s deep expertise, demonstrated impact through highly cited publications, and his significant technical achievements in thermal fatigue, additive manufacturing, and residual stress analysis make him a standout candidate for the Best Researcher Award. His ongoing contributions to both academic research and industrial applications exemplify his leadership in the field of materials science.

Publication top notes

Thermal fatigue analysis of automotive Diesel piston: Experimental procedure and numerical protocol

Characterisation of 4043 aluminium alloy deposits obtained by wire and arc additive manufacturing using a Cold Metal Transfer process

Improvement of the bridge curvature method to assess residual stresses in selective laser melting

New tool for reduction of harmful particulate dispersion and to improve machining quality when trimming carbon/epoxy composites

The effect of doum palm fibers on the mechanical and thermal properties of gypsum mortar

Effect of aluminizing and oxidation on the thermal fatigue damage of hot work tool steels for high pressure die casting applications

Numerical simulation of thermal fatigue behavior in a cracked disc of AISI H-11 tool steel

A new insight on the analysis of residual stresses related distortions in selective laser melting of Ti-6Al-4V using the improved bridge curvature method

New model for the prediction of the machining depth during milling of 3D woven composite using abrasive waterjet process

Experimental study of thrust force and surface quality when drilling hybrid stacks

 

Tamara Erceg | Chemistry and Materials Science | Hypothesis Achievement Award

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Tamara Erceg | Chemistry and Materials Science | Hypothesis Achievement Award

Dr Tamara Erceg, Faculty of Technology Novi Sad, Serbia

Based on Dr. Tamara Erceg’s extensive experience, achievements, and contributions to the field of polymer science, particularly in green chemistry and biodegradable materials, she appears to be a suitable candidate for the Hypothesis Achievement Award. Here are the key points supporting her candidacy.

Publication profile

Orcid

  • Academic Excellence: Dr. Erceg completed her Ph.D. in Polymer Science with the highest average note of 10.00. Her research focuses on the structuring of polymer networks, highlighting her expertise and innovation in the field.
  • Professional Experience: She has been involved in educational and pedagogical work at the Faculty of Technology Novi Sad since 2016, and has been a research associate there, demonstrating her commitment to advancing science and education.
  • Research Contributions: Dr. Erceg has numerous publications in high-impact journals (Q1) covering a wide range of topics, including biodegradable packaging, polymer nanocomposites, and sustainable materials. Her work on active coatings for food packaging and the development of biodegradable cellulose acetate-based films showcases her dedication to solving real-world problems through scientific research.
  • Leadership and Collaboration: She has held significant roles in various projects, including being a project manager for international collaborations and projects funded by the Ministry of Science, Innovation, and Technological Development of the Republic of Serbia. Her involvement in multidisciplinary projects and international conferences highlights her leadership and collaborative skills.
  • Impact and Innovation: Dr. Erceg’s work on biodegradable materials and green chemistry principles aligns with current global priorities on sustainability and environmental protection. Her contributions to the development of eco-friendly packaging solutions and her research on the optimization of biodegradable bags underscore her innovative approach to addressing pressing environmental issues.

  • Research focus

  • Tamara Erceg’s research focuses on the development and characterization of sustainable, eco-friendly materials and active packaging solutions. Her work includes studies on pullulan-based edible coatings to extend cheese shelf life, antioxidant recovery using cloud point extraction, hydrogels, and biodegradable cellulose acetate films. She explores the incorporation of essential oils for antimicrobial packaging and analyzes the thermal stability of bio-based urea-formaldehyde resins. Erceg’s contributions aim to improve food preservation, enhance material properties, and reduce environmental impact through innovative biopolymer applications. 🌿🧀🛡️📦🔬

  • Publication top notes

  • Comparison of the Properties of Pullulan-Based Active Edible Coatings Implemented for Improving Sliced Cheese Shelf Life

  • Updating the Status quo on the Eco-Friendly Approach for Antioxidants Recovered from Plant Matrices Using Cloud Point Extraction

  • Architecture of Hydrogels

  • Hydrolytic and thermal stability of urea-formaldehyde resins based on tannin and betaine bio-fillers

  • Insight on Incorporation of Essential Oils as Antimicrobial Substances in Biopolymer-Based Active Packaging