Sofia Pacheco | Polymer Matrix Composites | Research Excellence Award
Ms. Sofia Pacheco at Faculty of Engineering – University of Porto | Portugal
Featured Publication
Authors: Sofia Pacheco et al.
Pérez Gutiérrez, R. M., Téllez Gómez, J., Mota Flores, J. M., Corea Téllez, M., & Muñiz Ramírez, A. (2025). Baicalin–Myricetin-coated selenium nanoparticles mitigate pathology in an Aβ1-42 mice model of Alzheimer’s disease. Pharmaceuticals, 18(9), 1391.
Muñiz-Ramírez, A., López, B. A., & Pérez Gutiérrez, R. M. (2025). Starch biopolymer functionalized with Ipomoea batatas extract: A natural system for bioactive delivery in type II diabetes. Current Drug Delivery.
García-Campoy, A. H., Pérez Gutiérrez, R. M., García Báez, E. V., & Muñiz-Ramírez, A. (2024). Methanolic extract of Tillandsia recurvata reduces blood glucose, triglycerides, and cholesterol levels. Botanical Sciences, 102(4), 1251–1264.
Pérez Gutiérrez, R. M., Rodríguez-Serrano, L. M., Laguna-Chimal, J. F., de la Luz Corea, M., Paredes-Carrera, S. P., & Téllez Gómez, J. (2024). Geniposide and harpagoside functionalized cerium oxide nanoparticles as a potential neuroprotective. International Journal of Molecular Sciences, 25(8), 4262.
González-Anota, D. E., Paredes-Carrera, S. P., Pérez-Gutiérrez, R. M., Arciniega-Caballero, B., Borja-Urby, R., Sánchez-Ochoa, J. C., & Rojas-García, E. (2023). Green synthesis by microwave irradiation of TiO₂ using Cinnamomum verum and the application in photocatalysis. Journal of Chemistry, 2023, Article 2245685.
Arthittaya Chuaybamrung 🎓 is a dedicated Ph.D. student in Polymer Science and Technology at Prince of Songkla University, Thailand 🇹🇭. With a strong foundation in rubber and polymer research 🧪, she specializes in developing natural rubber-based composites for flexible sensors and bio-adhesives. Her innovative work has earned her national awards 🏆 and several publications in reputed journals 📚. Arthittaya has practical experience as a research assistant and intern in leading rubber and polymer industries 🏭. A passionate and goal-oriented researcher, she is committed to advancing sustainable materials science 🌱 and contributing to Thailand’s industrial innovations 🚀.
Education & Experience 📘 Education
🎓 Ph.D. in Polymer Science and Technology (2021–Present) – Prince of Songkla University
Thesis: Modified natural rubber/CNT composites for flexible sensors
🎓 B.Sc. in Polymer Science (2016–2020) – Prince of Songkla University
Project: Leather-like materials from natural rubber
🛠️ Work Experience
🧪 Research Assistant (May 2020 – May 2021), Rubber Technology and Engineering, Prince of Songkla University
🧫 Trainee in Compounding (Jan – Mar 2020), Top Glove Medical, Thailand
🔬 R&D Trainee (May – Jul 2019), Rubber Authority of Thailand
Ms. Arthittaya Chuaybamrung, a dedicated Ph.D. scholar in Polymer Science and Technology at Prince of Songkla University, Thailand, is a highly deserving candidate for the Best Researcher Award. Her research encompasses cutting-edge innovations in natural rubber-based composites, flexible sensors, and eco-friendly bio-adhesives, reflecting a strong alignment with sustainability, industrial application, and scientific advancement. Arthittaya’s remarkable achievements in both academic and applied polymer research have earned her national awards, competitive patents, and impactful publications in international journals.
Professional DevelopmentArthittaya actively engages in scientific development and entrepreneurship through diverse platforms 🌏. She has delivered oral presentations at international conferences 🗣️ and participated in expos like Thailand Rubber Expo 2023 and PACCON 2022 🧪. A competitor in innovation contests like the Merck Young Science Award 🏅 and the Rubber Start-up Program 🚀, she also contributed to community technology transfers in Yala and Satun 🧬. Her continuous learning mindset and collaborations across institutions reflect her drive to bring lab research into real-world applications 🧠🔧. Arthittaya’s growth-oriented spirit fuels her commitment to sustainable, impactful polymer research 🌿.
Research Focus Arthittaya’s research primarily centers on natural rubber-based nanocomposites and green polymer innovations 🌱🧪. Her Ph.D. work explores carbon nanotube-reinforced natural rubber materials using glutaraldehyde for low-temperature curing 🌡️, targeting flexible sensor applications 🔌. Additionally, she has developed bio-adhesives from rubber seed oil, promoting eco-friendly alternatives in wood and rubber industries 🪵🌍. Her research spans polymer chemistry, vulcanization techniques, and material property enhancement using nanotechnology ⚗️📊. With a keen interest in the integration of biopolymers and industry relevance, she bridges sustainability with innovation across latex technology, composites, and smart material systems 🤖🧫.
Awards & Honors 🏅 Feb 2024 – Gold Medal, Thailand New-Gen Inventor Award (NRCT)
🥇 Jul 2023 – 1st Place, Rubber Innovation Contest (Graduate Level), Rubber Authority of Thailand
🥈 Jun 2022 – 2nd Place, Materials Science Innovation Contest, Kasetsart University
📜 Mar 2018 – Certificate of Academic Excellence, Faculty of Science, PSU
📘 (2022) – Development and characterization of in-house leather-like material based on natural rubber vulcanizate, Journal of Physical Science, Vol. 33(1), 65–82. 🧪📄
📗 (2022) – Development of a new bio-adhesive for sawdust particleboard using modified rubber seed oil, The 2022 Pure and Applied Chemistry International Conference, p. 449. 🧫📊
📙 (2023) – Synergistic effects of 2,4 dihydroxybenzaldehyde and carbon black nanoparticles on the properties of natural rubber, Emergent Materials, Vol. 6, 1371–1382. ⚗️🧾
📕 (2023) – Enhancing thermo‑mechanical properties of thermoplastic starch/natural rubber blends through PEG and modified natural rubber, Journal of Polymers and the Environment. 🌱🔬
📒 (2024) – Rapid formation of carbon nanotubes–natural rubber films cured with glutaraldehyde for reducing percolation threshold concentration, Discover Nano, Vol. 19, Article 30. 🧬⚡
📓 (2024) – A novel chemical route for low-temperature curing of natural rubber using 2,4 dihydroxybenzaldehyde: improved thermal and tensile properties, Iranian Polymer Journal. 🌡️
📔 (2025) – Influence of grafted natural rubber on electrical, mechanical and thermo-mechanical properties of NR/CNT nanocomposites using glutaraldehyde, Iranian Polymer Journal (English Edition). ⚙️📈
Dr. Anjana Jain is a Chief Scientist at the Department of Materials Science, CSIR-National Aerospace Laboratories, Bangalore, and an Associate Professor at the Academy of Scientific & Innovative Research. With an M.Sc., MPhil in Physics, and a Ph.D. in Aerospace Polymers, she specializes in the development of indigenous piezoelectric PVDF sensors and composites for aerospace, automotive, and defense applications. Her research contributes significantly to Aatmanirbhar Bharat, reducing foreign dependency. She has led numerous prestigious projects, facilitated technology transfers, patents, and publications, and played a key role in developing accelerometer devices for India’s first indigenous Light Combat Aircraft (LCA). ✈️🔬
Dr. Anjana Jain, Chief Scientist at CSIR-National Aerospace Laboratories (NAL) and Associate Professor at AcSIR, is a pioneering researcher in aerospace polymers and smart composite materials. With groundbreaking contributions to piezoelectric PVDF sensors, accelerometer devices, and PVDF-based composite materials, she has significantly impacted aerospace, defense, automotive, and healthcare industries. Her indigenous development of PVDF films has reduced dependency on imports, bolstered national self-sufficiency, and contributed to Atmanirbhar Bharat. Dr. Jain’s research has led to technology transfers, patents, high-impact publications, and prestigious awards, making her a strong candidate for the Best Researcher Award. 🚀🔬
Dr. Anjana Jain has made remarkable contributions to aerospace and defense technology through pioneering research in piezoelectric PVDF sensors and composites. She has played a crucial role in multiple national projects sponsored by NPMASS, NPMICAV, AR&DB, DRDO-GTMAP, and CSIR. Her research has led to technology transfers, patents, and innovations that have reduced foreign dependency in sensor technology. She successfully designed and developed accelerometer devices for India’s Light Combat Aircraft (LCA), making significant advancements in structural health monitoring, vibration sensing, energy harvesting, and anti-icing applications. Her work aligns with the Aatmanirbhar Bharat initiative, promoting indigenous technology development. 🚀🔧
Dr. Anjana Jain’s research revolves around piezoelectric materials, polymer composites, and aerospace polymers, with a strong emphasis on developing indigenous PVDF sensors. These technologies have been crucial for pressure sensing, structural health monitoring, ultrasonic sensing, vibro-acoustic sensing, and energy harvesting. Her innovations support defense, aviation, and industrial applications, with key collaborations across DRDO, GTRE, NPOL, IISc, IITs, and NAL. She has also worked on PVDF nano-composites for anti-icing applications, a critical advancement for aerospace and extreme weather conditions. Her research has revolutionized sensor technology in aviation, chemical industries, healthcare, and energy sectors. 🌍✈️🔬
🏅 Technology Transfer & Patent Achievements in piezoelectric sensor technology
🏅 Key Contributor to India’s first indigenous Light Combat Aircraft (LCA) accelerometer devices
🏅 Raman Fellow, deputed to University of Illinois, Chicago, USA, for research on PVDF nano-composites for anti-icing applications 🌍
🏅 Lead Investigator in multiple national aerospace & defense projects 🚀
🏅 Recognized Expert in piezoelectric materials and polymer-based sensor development 🔬
🏅 Recipient of numerous research grants & fellowships for advancing smart materials and aerospace innovations 💡
1️⃣ A. Jain, E. Dange, K.J. Jesmary, S.J. Kumar, R. Hamsa
Title: Effect of Mechanical Vibration and Impact Loading on the Performance of Poly (Vinylidene Fluoride) Composite
Journal: Mechanics of Composite Materials
Year: 2024
Cited by: 2
2️⃣ A. Jain, R. Hamsa, E. Dange, S. Murugan
Title: Processing and Fabrication of PVDF Sensors as a Dynamic Pressure Sensor (Book Chapter)
Source: Not available
Year: Not specified
Cited by: 0
3️⃣ A. Jain, R. Hamsa, E. Dange, S. Jayanth Kumar
Title: Strain Sensing Performance of Poly (Vinylidene Fluoride) – Onium Salt Composite Sensor to Mechanical Vibration and Impact Loading
Journal: Polymers and Polymer Composites
Year: 2022
Cited by: 0
4️⃣ A. Jain, S. Minajagi, E. Dange, S.U. Bhover, Y.T. Dharanendra
Title: Impact and Acoustic Emission Performance of Polyvinylidene Fluoride Sensor Embedded in Glass Fiber-Reinforced Polymer Composite Structure
Journal: Polymers and Polymer Composites
Year: 2021
Cited by: 11
5️⃣ T.S. Roopa, H.N. Narasimhamurthy, D.V.N. Harish, A. Jain, G. Angadi
Title: Properties of PVDF Films Stretched in Machine Direction
Journal: Polymers and Polymer Composites
Year: 2021
Cited by: 18
Dr. Anjana Jain’s innovative research in aerospace polymers, smart composites, and sensor technology has had a transformative impact on national defense, aviation, and industrial sectors. Her pioneering work has not only enhanced India’s technological self-reliance but also led to critical advancements in sensor systems, accelerometers, and composite materials. With an exceptional track record of research excellence, leadership, and real-world applications, Dr. Jain is a highly deserving candidate for the Best Researcher Award. 🏅🚀
Dr. Chengjun Zeng
is an Associate Professor at Harbin Institute of Technology, specializing in shape memory polymer composites, 4D printing, and mechanical metamaterials. He earned his Ph.D. in Mechanics from Harbin Institute of Technology (2022) and a Bachelor’s in Naval Architecture and Ocean Engineering from Harbin Engineering University (2017). Previously, he served as an Assistant Professor and Postdoctoral researcher under Prof. Jinsong Leng. Dr. Zeng has published impactful research in Advanced Functional Materials, International Journal of Plasticity, and Composites Science and Technology. His work pushes boundaries in composite mechanics and programmable materials. ![]()
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Experience
Dr. Chengjun Zeng, Associate Professor at Harbin Institute of Technology, is a leading expert in shape memory polymer composites, 4D printing, mechanical metamaterials, and composite mechanics. His outstanding research contributions, high-impact publications, and pioneering advancements in smart materials position him as a deserving recipient of the Best Researcher Award.
Dr. Chengjun Zeng is a rising expert in advanced materials science and mechanical engineering, with significant contributions to 4D printing, smart composites, and mechanical metamaterials. His research integrates viscoelasticity, anisotropic behaviors, and phase transitions, driving innovations in programmable structures and bio-inspired designs. His publications in top-tier journals reflect his dedication to high-impact research. As a Master’s supervisor, he mentors students in cutting-edge polymer mechanics. His collaborations with leading scholars and institutions further solidify his role in transforming next-gen material science. ![]()
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Dr. Chengjun Zeng’s research revolves around advanced polymer composites, focusing on shape memory effects, smart materials, and bio-inspired mechanics. His work explores programmable deformation, high-stretchability structures, and sustainable composite applications. Leveraging 4D printing, he pioneers reconfigurable materials for aerospace, biomedical, and mechanical applications. His models integrate finite deformation mechanics, viscoelasticity, and phase transitions, bridging theoretical advancements with real-world implementations. His contributions are shaping the future of adaptive materials, mechanical metamaterials, and intelligent composite structures, making strides toward functional and responsive engineering solutions. ![]()
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Construction of Mechanical Metamaterials and Their Extraordinary Functions – Composite Structures, 2025-02, DOI: 10.1016/j.compstruct.2025.118872 ![]()
4D Printed Mortise-Tenon Mechanical-Electromagnetic Multifunctional Pixel Metamaterials – Chemical Engineering Journal, 2025-01, DOI: 10.1016/j.cej.2024.158784 ![]()
Bamboo-Inspired 3D Printed Continuous Fiber-Reinforced Vascular Composites – Composites Communications, 2025-01, DOI: 10.1016/j.coco.2024.102219 ![]()
Mechanical Properties of Diamond-Type Triply Periodic Minimal Surface Structures Fabricated by Photo-Curing 3D Printing – Composite Structures, 2025-01, DOI: 10.1016/j.compstruct.2024.118695 ![]()
Theoretical Model Combined Finite Element Approach for Studying Mechanical Behavior of Shape Memory Hydrogel Ribbed Sheet with Stretch-Triggered Bend Effect – Composite Structures, 2025-01, DOI: 10.1016/j.compstruct.2024.118783 ![]()
Mr.Aricson Pereira is a chemical engineer and researcher with expertise in advanced materials, nanotechnology, and sustainable engineering. He holds a Master’s in Chemical Engineering from the University of Louisiana at Lafayette and a Bachelor’s from Pune University. Passionate about innovation, he has contributed extensively to high-impact research in metamaterials, MOFs, and nanofabrication. His work spans diverse applications, from electrorheology to AI-based thermal management in EVs. Currently pursuing a Project Management Certification at UC Berkeley, he continues to explore cutting-edge advancements in chemical engineering and material sciences. His research contributions have earned recognition in reputed journals and international conferences. ![]()
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Master of Science in Chemical Engineering – University of Louisiana at Lafayette (2012-2014)
Bachelor of Engineering in Chemical Engineering – Pune University (2005-2009)
Pursuing Project Management Certification – UC Berkeley
Researcher & Author – Published in high-impact journals (Springer, De Gruyter, ES Energy & Environment)
Conference Presenter – Presented research at IEOM conferences in Washington DC, Germany, Tokyo, and Sydney
Industrial Experience – Focused on sustainable materials, AI-driven equipment monitoring, and advanced composites
Mr.Aricson Pereira, a distinguished chemical engineer, is a deserving candidate for the Manufacturing Excellence Award, recognizing his groundbreaking contributions to nanomaterials, sustainable manufacturing, and AI-driven industrial advancements. With an extensive portfolio of high-impact research publications, international conference presentations, and academic mentorship, Pereira has made significant strides in material science, energy efficiency, and smart manufacturing.
Mr.Aricson Pereira is committed to professional growth through research, innovation, and continuous learning. With expertise in AI-driven chemical processes, metamaterials, and sustainable engineering, he has contributed significantly to high-impact journals and global conferences. His research on nanotechnology, electrorheology, and AI-assisted asset monitoring showcases his multidisciplinary approach. Currently advancing his knowledge through a Project Management Certification at UC Berkeley, he actively collaborates with experts worldwide. Aricson’s dedication to scientific advancements extends beyond academia, as he explores industrial applications of novel materials in energy storage, healthcare, and environmental sustainability. ![]()
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Mr.Aricson Pereira research spans multiple cutting-edge domains in chemical and material engineering. His work on MOFs (Metal-Organic Frameworks) explores their potential for mitigating air pollution. In high-entropy materials, he investigates unique applications in advanced composites. His contributions to electrorheology involve nanodiamond/PDMS nanofluids and their behavior under oscillatory shear. He also explores metamaterials and AI-based predictions for selective reflective films. His research in battery thermal management for EVs and smart materials for biomedical applications underscores his multidisciplinary expertise. Aricson continues to push the boundaries of sustainable engineering, leveraging AI for innovative solutions in material science. ![]()
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Co-Author of High-Impact Research Publications – Advanced Composites & Hybrid Materials (IF 23.1)
Recognized Speaker at International Conferences – IEOM (Washington DC, Germany, Tokyo, Sydney)
Published Research on AI-Driven Equipment Monitoring & Electrorheology in leading journals
Best Poster Presentation – AIChE Annual Meeting on Nanodiamond Rheology
Contributor to Sustainable Engineering Innovations – Transforming Waste Thermoplastics into Petrochemicals
Published Work in Top-Tier Journals – ES Energy & Environment, De Gruyter, and Springer
Dr. Abhik Sur is an esteemed mathematician specializing in thermoelasticity and solid mechanics. He earned his Ph.D. in Applied Mathematics from the University of Calcutta in 2016 and is currently an Associate Professor at Sister Nivedita University, Kolkata. With a strong research background in heat and mass transfer, composite structures, and anisotropic materials, Dr. Sur has made significant contributions to mathematical modeling and computational mechanics. His expertise extends to programming languages such as MATLAB and FORTRAN, enhancing his analytical capabilities. Passionate about research and academia, he has published extensively and actively participates in professional development programs. 



Ph.D. in Applied Mathematics – University of Calcutta (2016)
M.Sc. in Applied Mathematics – University of Calcutta (2010) (Rank: 1st Class 3rd)
B.Sc. in Mathematics (Hons.) – Bidhannagar Govt. College, University of Calcutta (2008) (Rank: 1st)
Diploma in Vocal Classical Music – Prachin Kala Kendra, Chandigarh University (2005)
Teaching Experience:
Associate Professor & Head, Dept. of Mathematics, Sister Nivedita University (Aug 2024 – Present)
Assistant Professor (Grade III), Sister Nivedita University (Apr 2022 – Jul 2024)
Assistant Professor, Sister Nivedita University (Aug 2019 – Apr 2022)
Assistant Professor, Techno Main Salt Lake (Jul 2011 – Aug 2019)
Assistant Professor, Vidyasagar College, University of Calcutta (Sep 2010 – Jul 2011)
Dr. Abhik Sur is a distinguished scholar and a deserving recipient of the Best Researcher Award for his outstanding contributions to the fields of thermoelasticity, solid mechanics, and applied mathematics. His extensive research has significantly advanced the understanding of heat and mass transfer, fractional heat conduction, micropolar thermoelasticity, and composite materials. With a career spanning over a decade, Dr. Sur has made pioneering contributions that have had a profound impact on both theoretical and computational aspects of mathematical modeling in engineering and applied sciences.


Dr. Abhik Sur has actively engaged in academic and professional growth, consistently contributing to mathematics research and education. He has attended multiple national and international conferences, including presenting research at the prestigious 100th Indian Science Congress (2013). He specializes in computational techniques, leveraging software such as MATLAB, MATHEMATICA, and MAPLE for advanced modeling. Additionally, he has supervised research projects on generalized thermoelasticity and fractional heat conduction, enhancing the understanding of solid mechanics. With his ongoing D.Sc. research, he continues to advance his expertise, integrating mathematical theories with real-world engineering applications. 

Dr. Abhik Sur’s research centers on generalized thermoelasticity, heat and mass transfer, solid mechanics, and functionally graded materials. His expertise includes micropolar thermoelasticity, thermo-viscoelasticity, magneto-thermoelasticity, diffusion problems, composite structures, and fiber-reinforced materials. He employs computational methods for solving complex engineering problems, particularly in fractional heat conduction and crack propagation in anisotropic materials. His research significantly impacts structural analysis, material science, and applied mathematics, contributing to the development of efficient mathematical models for real-world mechanical and thermal applications. His work bridges theoretical mathematics and applied engineering, offering innovative solutions in the field of solid and fluid mechanics. 

Arati Mukherjee Award for securing the highest marks in B.Sc. Mathematics (Hons.) at Bidhannagar College.
Young Scientist Presentation at the 100th Indian Science Congress (2013) for research on thermal wave propagation.
Secured 1st Rank in B.Sc. Mathematics (Hons.), University of Calcutta.
Secured 1st Class 3rd Rank in M.Sc. Applied Mathematics, University of Calcutta.
Awarded First Division with Distinction in Vocal Classical Music Diploma (2005). 
PostDoc at Industrial Design Department, School of Architecture & Environmental Design, Iran University of Science & Technology, Tehran, Iran
Professional Profile
Faegheh Sadat Mortazavi Moghadam’s research interests lie at the intersection of nanotechnology, sustainable materials, and cellulose-based innovations. She focuses on the development and application of nanocellulose fibers, cellulose composites, and biocomposites for industrial and environmental purposes. Her work explores advanced techniques for synthesizing nanomaterials with various morphologies, chemical modifications, and surface treatments to enhance their functionality. She is particularly passionate about sustainable design, creating green materials, and developing active packaging solutions with antibacterial and antifungal properties. Her research also extends to recycling waste materials, such as paper, into high-performance nanomaterials, and investigating their microstructural and chemical properties. Combining her expertise in biomaterials, biotechnology, and industrial design, she aims to contribute to innovative solutions that address global challenges in sustainability, packaging, and advanced material development.
Faegheh Sadat Mortazavi Moghadam is an exemplary candidate for the Best Researcher Award. Her academic excellence, impactful research, and industrial collaborations reflect her commitment to advancing science and technology. By enhancing international partnerships and focusing on patents or disruptive innovation, her contributions could achieve even greater global recognition. Based on her achievements and potential, she is highly suitable for this award.
Mechanics and Design of Flexible Composite Materials