Abdullahi Maikanti Baru | Materials Science and Engineering | Research Excellence Award

Mr. Abdullahi Maikanti Baru | Materials Science and Engineering | Research Excellence Award

Texas Tech University | United States

Mr. Abdullahi Maikanti Baru is an emerging researcher whose work spans petroleum engineering, civil engineering, and energy systems, with a strong emphasis on sustainable and data-driven infrastructure solutions. His expertise includes multiphase flow in subsurface systems, gas injection processes, hydrogen storage in deep saline aquifers, and structural behavior of engineering materials, complemented by advanced skills in experimental data acquisition and analysis using LiDAR, numerical simulators, and programming tools. He has contributed to peer-reviewed international journal publications and conference proceedings addressing hydrogen energy storage feasibility and structural buckling phenomena, demonstrating interdisciplinary depth and methodological rigor. His research experience involves collaborative projects with faculty and multidisciplinary teams, integrating field measurements, computational modeling, and engineering judgment to address safety, efficiency, and resilience challenges. Through active engagement in professional societies and research leadership roles, his work supports energy transition, infrastructure safety, and informed decision-making, reflecting a growing scholarly profile with meaningful societal and industrial relevance.

Citation Metrics (Cited by)

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Citations
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Top Publications


An Investigation of Buckling Phenomenon in Steel Elements

– Heriot-Watt University, 2017 · Cited by 9

An Investigation of Buckling Phenomenon in Steel Elements

– 2nd International Earth Science & Global Geology Conference, 2018 · Cited by 1

Mohamed Ali Elhelaly | Materials Science and Engineering | Excellence in Research Award

Dr. Mohamed Ali Elhelaly | Materials Science and Engineering | Excellence in Research Award

Lecturer | Tabbin Institute For Metallurgical Studies | Egypt

Dr. Mohamed Ali Elhelaly is a senior academic and applied researcher specializing in materials science, corrosion engineering, and metallurgical failure analysis. His expertise spans surface engineering, advanced coatings, heat treatment, welding technology, nanomaterials, and non-destructive testing, with a strong emphasis on industrial reliability and asset integrity. He has authored and co-authored multiple peer-reviewed journal articles and conference papers in high-impact international outlets, addressing corrosion mitigation, high-temperature oxidation, and failure mechanisms in critical engineering components. His research is widely applied through extensive collaboration with petroleum, petrochemical, power generation, and metallurgical industries, where he has contributed to hundreds of technical and root-cause analysis reports. Actively engaged in international standards, peer review, and editorial activities, his work bridges fundamental research and industrial practice, delivering measurable societal impact by enhancing safety, sustainability, and performance of engineering systems in energy and infrastructure sectors

Citation Metrics (Cited by – All)

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75

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86

h-index
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i10-index
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Top 5 Featured Publications

Max Barillas | Computational Mechanics | Best Researcher Award

Mr. Max Barillas | Computational Mechanics | Best Researcher Award

PhD Researcher | Centre Internacional de Metodes Numerics en Enginyeria | Spain

Mr. Max Barillas is a dedicated researcher specializing in computational and mechanical engineering with a strong focus on data-driven modeling and materials design. Currently serving as a Predoctoral Researcher at the Centre Internacional de Mètodes Numèrics en Enginyeria (CIMNE) in Barcelona, Max contributes to advancing numerical and computational methods for solving complex engineering problems. His academic trajectory includes a Master of Science in Mechanical Engineering from Santa Clara University and ongoing doctoral research in Civil Engineering at the Universitat Politècnica de Catalunya. Max’s work demonstrates a strong interdisciplinary approach that merges computational mechanics, materials science, and applied mathematics. His notable research includes the development of non-intrusive, data-driven methodologies for addressing inverse problems in bending dielectric elastomer actuators, emphasizing efficiency and accuracy in modeling soft robotic systems. Additionally, he has contributed to the design of low-porosity auxetic tessellations aimed at reducing mechanical stress concentrations, a study that supports innovations in lightweight and flexible materials. Through these investigations, Max explores the intersection of structural optimization and smart materials, striving to enhance mechanical performance and adaptability. His research reflects a commitment to bridging theoretical frameworks with real-world applications in advanced materials and engineering design. Overall, Max Barillas’s scholarly contributions highlight a forward-thinking perspective within computational mechanics, focusing on leveraging mathematical modeling and numerical analysis to address modern challenges in material behavior and structural engineering, reinforcing his role as an emerging expert in the field of computational and mechanical sciences.

Profile: ORCID
Fearuted Publications:

Barillas, M., Ortigosa, R., Martinez-Frutos, J., Bonet, J., & García-González, A. (2026). Design of low-porosity auxetic tessellations with reduced mechanical stress concentrations. Applied Mathematical Modelling.

Yaxing Liu – Materials Science and Engineering – Best Researcher Award

Mr. Yaxing Liu - Materials Science and Engineering - Best Researcher Award

lecturer | Taiyuan University of Technology | China

Mr. Yaxing Liu has established strong expertise in the field of mechanical design and theory with a research focus on advanced rolling technology, material forming processes, and fatigue analysis of high-performance steels. His work investigates the mechanisms of strip edge defects, deformation behaviors in composite rolling, and fatigue performance under varying stress conditions, providing valuable insights for enhancing the precision, durability, and efficiency of manufacturing systems. He has contributed to the development of innovative control strategies for trimming processes and created accurate modeling approaches for predicting warping and deformation during steel and aluminum thin strip composite rolling. His research integrates both theoretical modeling and experimental validation to solve complex industrial challenges, ensuring significant improvements in quality control and defect prevention in metal forming industries. In addition to scholarly publications in high-impact journals, Liu’s contributions include patents addressing roll convexity adjustment mechanisms and compensation methods for roll diameter defects in rolling mills, showcasing his ability to translate fundamental research into practical engineering solutions. His continuous engagement in material behavior analysis under stress, defect mitigation techniques, and optimization of manufacturing processes reflects a clear trajectory toward advancing modern mechanical design and metallurgical engineering. With active collaboration across disciplines and consistent innovation in mechanical system optimization, his research strengthens both academic knowledge and industrial application. Yaxing Liu’s work demonstrates a balance of theoretical insight, experimental application, and practical implementation, marking him as a valuable contributor to the development of advanced rolling and forming technologies with wide relevance to the steel and aluminum industries. 155 Citations by 139 documents, 57 Documents, 7 h-index View.

Profile: Scopus
Featured Publications:
  1. Effect of multi‒directional forging on the evolution of intermetallic precipitates and mechanical properties in novel light refractory high-entropy alloys. (2025). Intermetallics.

  2. DDFNet: real-time salient object detection with dual-branch decoding fusion for steel plate surface defects. (2025). Journal of Iron and Steel Research International.

  3. Study on influence and mechanism of steel / aluminum composite thin strips preparation process on interfacial bonding strength. (2025). Suxing Gongcheng Xuebao Journal of Plasticity Engineering.

  4. Research on unbonded defect imaging method of corrugated clad plate based on laser ultrasonics. (2025). Measurement Journal of the International Measurement Confederation.

  5. Effect of two-pass rolling of textured roll and polished roll on surface topography and mechanical properties of 316L stainless steel ultra-thin strip. (2025). Journal of Iron and Steel Research International.