Pouria Mazinani | Biomechanics | Young Scientist Award

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Dr. Pouria Mazinani | Biomechanics | Young Scientist Award

University of Catania | Iran

Dr. Pouria Mazinani is a promising young researcher from the Isfahan University of Technology, whose work spans biomechanics, mechanical engineering, and computational modeling. His research primarily focuses on the biomechanics of the cornea, finite element analysis, and shear wave propagation in biological and structural materials, integrating principles of mechanical engineering and biomedical sciences. He has contributed to scholarly advancements through publications, including his 2025 article in Zeitschrift für Angewandte Mathematik und Physik, where he optimized corneal biomechanical parameters using intraocular pressure methods and finite element modeling. His collaborative research experience at the University of L’Aquila further highlights his expertise in computational simulations and data-driven approaches to material and tissue analysis. With 5 publications, 13 citations, and an h-index of 2, Dr. Pouria Mazinani demonstrates a strong foundation in interdisciplinary research and innovation.

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Featured Publications

  • Zare Vamerzani, B., Zadehkabir, A., Saffari, H., Hosseinalipoor, S. M., & Mazinani, P. (2021). Experimental analysis of fluid displacement and viscous fingering instability in fractured porous medium: Effect of injection rate. Journal of the Brazilian Society of Mechanical Sciences and Engineering, 43, Article 118.

  • Mazinani, P., Cardillo, C., & Mosaddegh, P. (2025). Evaluating corneal biomechanics using shear wave elastography and finite element modeling: Sensitivity analysis and parametric optimization. Continuum Mechanics and Thermodynamics, 37(1), Article 12.

  • Zadehkabir, A., Mazinani, P., Zare Vamerzani, B., Cardillo, C., & Saffari, H. (2025). Experimental study of fluid displacement and viscous fingering in fractured porous media: Effect of viscosity ratio. Continuum Mechanics and Thermodynamics, 37(2), Article 29.

  • Mazinani, P., Setayeshnasab, H., & Murcia Terranova, L. (2025). Evaluating corneal biomechanics using intraocular pressure methods and finite element modeling: Parameters study and parametric optimization. Zeitschrift für Angewandte Mathematik und Physik, 76(6), 220.

  • Mazinani, P., & Murcia Terranova, L. (2025). Finite element simulation for finding shear wave velocity on the canine cornea and sensitivity analysis for IOP parameter. Mechanics Research Communications, Article 104558.

Mohammad-Mehdi Khani | Tissue Engineering | Best Researcher Award

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Assoc. Prof. Dr. Mohammad-Mehdi Khani | Tissue Engineering | Best Researcher Award

Shahid Beheshti University of Medical Sciences | Iran

Assoc. Prof. Dr. Mohammad-Mehdi Khani, Associate Professor at the Department of Tissue Engineering and Applied Cell Sciences, Shahid Beheshti University of Medical Sciences, Tehran, Iran, demonstrates exceptional expertise in biomechanics, tissue engineering, and regenerative medicine. With a Ph.D. in Biomedical Engineering (Biomechanics) from Amir-Kabir University of Technology, he has produced 61 publications with 767 citations and an h-index of 16, reflecting his significant scholarly impact. His research spans cell mechanics, mechanobiology, stem cell engineering, functional tissue engineering, cardiovascular and corneal regeneration, and regenerative medicine, bridging fundamental science with translational applications. Assoc. Prof. Dr. Mohammad-Mehdi Khani’s notable achievements include membership in Iran’s National Elites Foundation, recognition as a talented graduate, and the Nightingale Award for the best paper in Medical and Biological Engineering and Computing (2021). His work encompasses advanced studies on hydrogel-derived matrices, nanofibrous cardiac patches, stem cell differentiation, bioreactor cultivation, and computational modeling, significantly contributing to the understanding and development of innovative therapeutic strategies in tissue repair and biomedical engineering.

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Featured Publications

Moradi, S. L., Golchin, A., Hajishafieeha, Z., Khani, M. M., & Ardeshirylajimi, A. (2018). Bone tissue engineering: Adult stem cells in combination with electrospun nanofibrous scaffolds. Journal of Cellular Physiology, 233(10), 6509–6522.

Abazari, M. F., Soleimanifar, F., Amini Faskhodi, M., Mansour, R. N., & Khani, M. M. (2020). Improved osteogenic differentiation of human induced pluripotent stem cells cultured on polyvinylidene fluoride/collagen/platelet‐rich plasma composite nanofibers. Journal of Cellular Physiology, 235(2), 1155–1164.

Abazari, M. F., Soleimanifar, F., Enderami, S. E., Nematzadeh, M., Nasiri, N., & Khani, M. M. (2019). Incorporated-bFGF polycaprolactone/polyvinylidene fluoride nanocomposite scaffold promotes human induced pluripotent stem cells osteogenic differentiation. Journal of Cellular Biochemistry, 120(10), 16750–16759.

Jouybar, A., Seyedjafari, E., Ardeshirylajimi, A., Zandi-Karimi, A., & Feizi, N. (2017). Enhanced skin regeneration by herbal extract-coated poly-L-lactic acid nanofibrous scaffold. Artificial Organs, 41(11), E296–E307.

Saffar, R. J., Razfar, M. R., Salimi, A. H., & Khani, M. M. (2009). Optimization of machining parameters to minimize tool deflection in the end milling operation using genetic algorithm. World Applied Sciences Journal, 6(1), 64–69.

Ruilin Yang | Mechanics | Best Researcher Award

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Dr. Ruilin Yang | Mechanics | Best Researcher Award

Dr. Ruilin Yang, Orica, United States

Dr. Ruilin Yang, Ph.D., FCAE, is an esteemed mining engineer and researcher with expertise in rock mechanics, blasting technology, and geophysical modeling. Born in Inner Mongolia, China, he pursued higher education in China, Australia, and Canada, making significant contributions to mining engineering. His work spans theoretical advancements and applied research in open-pit and underground mining. Dr. Yang has held academic and research positions at institutions such as Northeast University, the University of Queensland, Queen’s University, CSIRO, and ICI Canada. His innovative research on blast damage modeling and muckpile formation has been widely recognized in the industry. With dual citizenship in the US and Canada, he has contributed extensively to advancing geotechnical engineering through publications, consulting, and applied field research. His contributions to the mining industry have earned him global recognition, and his work continues to influence modern mining practices worldwide.

Publication Profile

Orcid

🎓 Education

Dr. Ruilin Yang earned his B.Sc. (Hons) in Mining Engineering from Northeast University, China, in 1982. He was awarded a scholarship to study in Australia, where he completed a Master Qualifying Project at the JK Mineral Research Center, University of Queensland, in 1985. His project focused on developing rock characterization methods using geophysical theories, including the constant Q model and acoustic pulse propagation. He obtained his Ph.D. in Mining Engineering from the University of Queensland in 1990, specializing in 3D kinematic modeling of muckpile formation for open-pit blasting. His doctoral research contributed to blast design improvements in Australian open-pit mines. His academic journey continued with postdoctoral research at Queen’s University, Canada, focusing on near-field blast monitoring and blast damage modeling. His diverse educational background provided him with expertise in geomechanics, computational modeling, and mining engineering, allowing him to make groundbreaking contributions to the field.

💼 Experience

Dr. Yang has an extensive research and professional career in mining engineering. He started as a Research Assistant at Northeast University (1981–1984), working on stress wave modeling and fuzzy mathematics for rock classification. He then pursued postdoctoral research at the JK Mineral Research Center, focusing on muckpile formation modeling. Later, he worked as a Research Fellow at CSIRO, Australia (1990–1991), applying finite element modeling to underground mines. At Queen’s University, Canada (1991–1993), he developed a blast damage model based on extensional strain failure. From 1993 to 1995, he worked as a Scientist at ICI Canada, where he conducted explosive testing, blast diagnostics, and vibration control in mining operations. His work has significantly influenced mining practices, particularly in blast optimization and geomechanical modeling. His expertise spans both theoretical and applied mining engineering, making substantial contributions to industry practices, safety protocols, and mining efficiency worldwide.

🏆 Awards & Honors

Dr. Yang’s contributions to mining engineering have been widely recognized. He is a Fellow of the Canadian Academy of Engineering (FCAE), acknowledging his impact on geomechanics and blasting technology. His research on blast damage modeling and muckpile formation has been instrumental in the field, leading to numerous citations and industry applications. He has received multiple awards for his work on geophysical modeling, seismic analysis, and mining optimization. His papers have been published in leading international journals, earning him recognition among the top researchers in mining engineering. He has also received prestigious research grants and fellowships from leading institutions in China, Australia, and Canada. His innovative approaches to blast damage reduction and seismic vibration analysis have set new standards in mining operations, enhancing safety and efficiency. His contributions continue to influence academia, industry, and policy-making in the mining and geotechnical sectors.

🔬 Research Focus

Dr. Yang’s research focuses on mining engineering, geomechanics, and blasting technology. His early work involved stress wave modeling and fuzzy mathematics for rock classification. He later developed advanced geophysical techniques to analyze rock mass properties, leading to the creation of a model for acoustic pulse propagation. His Ph.D. research on 3D kinematic modeling of muckpile formation revolutionized open-pit blasting techniques. He has also contributed to finite element modeling of underground mines and near-field blast damage assessment. His work on blast-induced vibration monitoring has helped minimize structural damage and improve mining safety. His research integrates computational modeling, field experiments, and geophysical analysis, bridging the gap between theory and practical mining applications. His findings have been widely applied in the mining industry, optimizing blast designs and reducing environmental impacts. Through his publications and industry collaborations, he has established himself as a leading expert in rock mechanics and mining engineering.

 

Publication Top Notes

  • “A New Constitutive Model of Blast Damage” (1996) – Cited by 150 ​

  • “Measurement and Analysis of Near Field Vibration and Damage” (1994) – Cited by 120 ​LinkedIn

  • “An Integrated Technique for Vibration Monitoring Adjacent to a Blast Hole” (1993) – Cited by 90 ​

  • “A Model of Acoustic Pulse Propagation and Its Application to Determine Q for a Rock Mass” (1990) – Cited by 85 ​

  • “A Three-Dimensional Model of Muckpile Formation and Grade Boundary Movement in Open Pit Blasting” (1990) – Cited by 75 ​

  • “A Two-Dimensional Model for Prediction of Muckpile Shape in Bench Blasting” (1989) – Cited by 65 ​

  • “Application of Geostatistics to the Analysis of Seismic Data” (1988) – Cited by 50 ​

  • “Application of Fuzzy Mathematics to Rock Classification” (1985) – Cited by 40 ​

  • “Study of the Application of Fuzzy Mathematics to Rock Classification” (1985) – Cited by 30 ​

  • “Relate Peak Particle Velocity of Seismic Wave to 3D Dynamic Strain” (2017) – Cited by 25 ​ADS+1

 

Hüray Ilayda Kök | Biomechanics | Best Researcher Award

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Ms. Hüray Ilayda Kök | Biomechanics | Best Researcher Award

PhD student at Leibniz University Hannover, Germany

Hüray Ilayda Kök is a research associate at the Institute of Continuum Mechanics, Leibniz University Hannover. She holds a Master’s degree (2022) with a thesis on finite element modeling of low cycle fatigue in steel specimens. Her research focuses on the mechanical characterization and numerical modeling of additively manufactured implants, particularly magnesium-based bioresorbable structures. She actively contributes to DFG Research Group 5250 and co-organizes Meet the In(g)dustry to bridge academia and industry. Additionally, she serves as deputy head of VDI Hannover’s Development & Design working group. 🌍⚙️🔩

Publication Profile

Google Scholar

Academic and Professional Background

Hüray Ilayda Kök, M.Sc., is a research associate at the Institute of Continuum Mechanics at Leibniz University Hannover since 2022. She earned her Master’s degree in 2022, specializing in finite element modeling of low cycle fatigue behavior of steel specimens under the guidance of Prof. Dr.-Ing. Ørjan Fyllingen and Prof. Dr.-Ing. Ragnar Gjengedal at Western Norway University of Applied Sciences. Her 2019 Bachelor’s thesis focused on designing and assembling a gearbox for an electrified high-speed drivetrain in collaboration with Leibniz University Hannover, Lenze SE Hameln, and Purdue University, USA. She also serves as deputy head of VDI Hannover’s Development & Design working group, focusing on methodological development, new tools, and product data management. ⚙️📊🔩

🔬 Research Focus

Hüray Ilayda Kök’s research centers on biomechanical engineering and computational modeling, with a focus on additively manufactured implants 🦾. She specializes in finite element simulations 🖥️ to predict the mechanical behavior of permanent and bioresorbable magnesium-based structures ⚙️, considering physiological loading and corrosion conditions. As part of DFG Research Group 5250, she contributes to lattice structure optimization for improved implant longevity and biocompatibility 🏥. Her interdisciplinary work bridges numerical modeling and experimental validation 🔄. Additionally, she fosters academia-industry collaboration through Meet the In(g)dustry, advancing biomedical innovations and engineering solutions for healthcare. 🏗️🔍

Publication Top Notes

1️⃣ Reduction of stress-shielding and fatigue-resistant dental implant design through topology optimization and TPMS lattices – Journal of the Mechanical Behavior of Biomedical Materials, Cited by: -, 📅 2025 🦷⚙️

2️⃣ Topology optimization and high cycle fatigue modeling in additively manufactured dental implants – Transactions on Additive Manufacturing Meets Medicine 6 (S1), 1853-1853, Cited by: -, 📅 2024 🦾🔬

3️⃣ S25: Computational and mathematical methods in data science – Minisymposia 16, 590, Cited by: -, 📅 2023 📊📈

4️⃣ S03: Damage and fracture mechanics – Minisymposia 16 202, 118, Cited by: -, 📅 2018 🔩🔍

5️⃣ Characterization and modeling of additively manufactured Ti-6Al-4V alloy with modified surfaces for medical applications – Frontiers in Bioengineering and Biotechnology 13, 1526873, Cited by: -, 📅 2023 🏥⚒️