Max Barillas | Computational Mechanics | Best Researcher Award

Published on by Civil Engineering

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.

Azunna Sunday | Structural Engineering | Best Researcher Award

Published on by Civil Engineering

Mr. Azunna Sunday | Structural Engineering | Best Researcher Award

Doctoral Researcher | Housing research centre | Malaysia

Mr. Azunna Sunday Ugochukwu has established a strong professional and research background in civil and structural engineering, with notable expertise in sustainable construction materials, structural analysis, and project management. His career includes extensive work in both academic and industrial settings, where he contributed to the design and execution of major infrastructure projects such as residential complexes, university facilities, religious centers, and extensive road networks across Nigeria. At Universiti Putra Malaysia, his research has focused on innovative materials for civil engineering applications, including coconut shell, palm kernel shell, recycled bricks, granite powder, and rubberized geopolymer concrete, leading to multiple publications in reputable international journals. His scholarly contributions span experimental and review studies, addressing compressive strength, stress-strain behavior, and dynamic response of advanced concrete materials, demonstrating his capacity to integrate environmental sustainability with engineering performance. Beyond research, Azunna has engaged in professional workshops on structural modeling, design, and detailing, sharing expertise with institutions such as Federal Polytechnic Bauchi and Abubakar Tafawa Balewa University. His memberships with COREN, the Nigerian Institution of Civil Engineers, and the Nigerian Society of Engineers affirm his commitment to professional standards and development within the engineering community. With experience as an assistant structural engineer, assistant project manager, and doctoral researcher, he has consistently demonstrated versatility in applying theoretical knowledge to practical engineering challenges. His skill set includes advanced structural design software, AutoCAD, drone operation, and engineering instrumentation, underscoring his technological adaptability. The scope of his executed projects—from institutional buildings to healthcare facilities and leisure parks—highlights his versatility and capacity to manage diverse engineering assignments effectively. His growing academic output, combined with practical project delivery, positions him as a significant contributor to advancing civil engineering knowledge and practice. Engr. Azunna Sunday Ugochukwu has achieved 120 Citations, 8 Documents, and 5 h-index.

Profile: Scopus | Google Scholar | ORCID
Featured Publications:

Azunna, S. U. (2019). Compressive strength of concrete with palm kernel shell as a partial replacement for coarse aggregate. SN Applied Sciences, 1(4), 342.

Azunna, S. U., Aziz, F. N. A. A., Rashid, R. S. M., & Bakar, N. B. A. (2024). Review on the characteristic properties of crumb rubber concrete. Cleaner Materials, 12, 100237.

Azunna, S. U., Aziz, F. N. A. A., Cun, P. M., & Elhibir, M. M. O. (2019). Characterization of lightweight cement concrete with partial replacement of coconut shell fine aggregate. SN Applied Sciences, 1(6), 649.

Azunna, S. U., Aziz, F. N. A. A., Bakar, N. A., & Nasir, N. A. M. (2018). Mechanical properties of concrete with coconut shell as partial replacement of aggregates. IOP Conference Series: Materials Science and Engineering, 431(3), 032001.

Azunna, S. U., Aziz, F. N. A. B. A., Al-Ghazali, N. A., Rashid, R. S. M., & Bakar, N. A. (2024). Review on the mechanical properties of rubberized geopolymer concrete. Cleaner Materials, 11, 100225.

Ming Xie – Structural Engineering – Best Researcher Award

Published on by Civil Engineering

Ming Xie - Structural Engineering - Best Researcher Award

Assistant to the president at Xijing University | China

Ming Xie is a highly accomplished academic and researcher with expertise in civil engineering, specializing in structural analysis and advanced material behavior. With years of dedication to innovative engineering solutions, Ming has contributed significantly to research and education, advancing knowledge in structural performance and damage mechanics. Recognized for producing impactful studies and contributing to the academic community, Ming has developed a reputation for precision and depth in research. Through numerous publications and leadership roles, Ming continues to push the boundaries of civil engineering innovation and inspire emerging scholars in the field.

Professional Profile

ORCID

Education

Ming Xie completed a doctoral degree in civil engineering, demonstrating expertise in structural mechanics and material behavior analysis. The academic journey built a strong foundation in advanced engineering principles and problem-solving strategies. With specialized studies in structural isolation and damage modeling, Ming cultivated a strong research orientation early in their career. This educational background serves as the cornerstone of professional growth, contributing to innovative approaches in engineering research. The academic experience has allowed Ming to seamlessly integrate theoretical knowledge with practical applications, positioning them as a leader in the civil engineering research domain.

Professional Experience

Ming Xie has extensive professional experience, holding a prominent role as a professor and director at a leading academic institution. In this role, Ming has guided academic programs, contributed to curriculum development, and mentored numerous graduate and postgraduate students. With expertise in structural engineering and material science, Ming has established a robust portfolio of impactful research and practical engineering applications. Responsibilities include overseeing research initiatives, leading projects, and fostering collaboration with industry experts. Ming’s leadership and dedication to academic excellence have helped shape innovative teaching strategies and advanced the institution’s engineering research standards.

Research Interest

Ming Xie focuses research on structural mechanics, damage modeling, and material behavior in civil engineering. Areas of expertise include negative Poisson’s ratio structural isolation, ultrasonic rock characterization, and bond-slip constitutive relationships in steel-reinforced concrete. Ming is deeply interested in exploring material properties under varying stress conditions and predicting structural performance. Through experimental studies and analytical modeling, Ming’s research aims to enhance safety and durability in infrastructure. Ming continues to investigate novel engineering solutions that optimize performance and resilience, contributing to the development of sustainable and innovative engineering designs that benefit society.

Award And Honor

Ming Xie has earned recognition for exceptional contributions to civil engineering research and academic leadership. With achievements spanning multiple publications and influential projects, Ming is widely acknowledged for advancing engineering science. Ming’s innovative work has brought attention to structural performance under challenging conditions and materials with unique mechanical properties. Honors reflect a dedication to scholarly excellence and commitment to education and research advancement. These achievements have positioned Ming as a key figure in engineering innovation, inspiring peers and future researchers to embrace creativity, persistence, and technical expertise in solving complex engineering challenges.

Research Skill

Ming Xie demonstrates strong expertise in structural analysis, experimental testing, and advanced simulation techniques. Skilled in developing mathematical models, Ming applies theoretical frameworks to solve practical engineering problems. Proficiency extends to material property characterization, stochastic modeling, and prediction of structural damage evolution. Ming’s research methodology integrates field observations, laboratory experiments, and numerical simulations to deliver robust engineering solutions. A focus on precision and innovation ensures impactful results across multiple research areas. Ming is adept at guiding research teams, analyzing complex data, and producing actionable engineering insights that support infrastructure advancement and academic excellence.

Publications

Ming Xie has authored multiple peer-reviewed research articles in internationally recognized journals, addressing innovative solutions in civil engineering. Key studies include the performance of elliptical negative Poisson’s ratio isolation bearings, ultrasonic property prediction in rock materials, and stochastic modeling of steel-reinforced concrete bond-slip. These publications showcase technical mastery and problem-solving expertise, contributing significantly to advancing engineering research. Ming’s body of work reflects a strong commitment to exploring new material properties and enhancing structural design methodologies. Each paper demonstrates rigorous analysis, offering insights that inspire further exploration and collaboration within the engineering field.

Title: Study on the Performance of Elliptical Negative Poisson’s Ratio Structural Isolation Bearing
Authors: Ming Xie, Xiangdong Wu
Journal: Buildings, 2025

Title: Study on Ultrasonic Characteristics and Prediction of Rock with Different Pore Sizes
Authors: Lei Wang, Wen Nie, Ming Xie, Zi Wang, Wei Lu, Dongmei Chen, Weinan Lin, Carlo Rosso
Journal: Shock and Vibration, 2024

Title: Stochastic Damage Constitutive Relationship of Steel‐Reinforced Concrete Bond‐Slip
Authors: Ming Xie, Jiahao Liu, Peng Wang, Zi Wang, Jingjing Zhou, Roberto Nascimbene
Journal: Shock and Vibration, 2021

Conclusion

Ming Xie’s academic journey reflects exceptional dedication to research and teaching in civil engineering. Combining advanced knowledge, leadership, and a visionary approach, Ming continues to make significant contributions through innovative projects and scholarly work. Recognized for precision and originality, Ming plays an influential role in shaping engineering education and promoting research excellence. Publications and leadership roles underscore the impact Ming has made on infrastructure safety and material science. As a researcher and mentor, Ming sets a standard of excellence, advancing both scientific understanding and practical engineering applications for future generations.

Xupei Yao – Structural Engineering – Best Researcher Award

Published on by Civil Engineering

Xupei Yao - Structural Engineering - Best Researcher Award

Zhengzhou University - China

AUTHOR PROFILE

SCOPUS

🧬 SUMMARY 

Xupei Yao stands as a dynamic figure in civil engineering, with particular expertise in advanced cementitious composites, nanomaterials, and sustainable construction. The academic trajectory encompasses a Ph.D. from Monash University, where groundbreaking research set the stage for a prolific career. With international collaborations and multidisciplinary integration, work has centered around solving complex engineering problems through innovative material design and nanotechnology. Publications reflect an evolving exploration into material properties, durability enhancement, and environmental performance, particularly within the context of climate-conscious infrastructure. Contributions not only enhance fundamental knowledge but also offer transformative insights into construction materials capable of performing under harsh environmental stressors. By merging simulation, experimentation, and field-based insights, the research trajectory continues to address challenges in structural durability, energy efficiency, and environmental impact. Recognition as a leading young researcher in China further underscores a growing influence in the global academic and engineering community.

🎓 EARLY ACADEMIC PURSUITS

Academic development began with a Bachelor of Civil Engineering under a prestigious 2+2 program jointly organized by Monash University and Central South University. This foundational training offered a robust understanding of both Western and Eastern engineering perspectives. The undergraduate years were marked by excellence, achieving First Class Honors and initiating a fascination with construction materials and their microstructural behavior. Building on this early interest, a Ph.D. in Civil Engineering at Monash University followed, with research emphasizing advanced composites, graphene integration, and nanoscale interactions in cement systems. A strong focus was placed on interface mechanics, reinforcing mechanisms, and multi-scale modeling, which laid the groundwork for future investigations. Graduate studies were supported by esteemed scholarships including the Monash Graduate Scholarship and International Postgraduate Research Scholarship. These formative years reflect a consistent drive toward technical mastery, research innovation, and academic distinction, preparing the foundation for an internationally recognized research portfolio.

🏗️ PROFESSIONAL ENDEAVORS IN ENGINEERING

The professional journey features key roles across leading institutions. Currently serving as Associate Professor at the School of Water Conservancy and Transportation, Zhengzhou University, responsibilities encompass research leadership, mentoring, and curriculum development. Prior to this, tenure at Monash University included multiple capacities—ranging from Research Officer to key contributor within the ARC Nanocomm Hub. This phase nurtured interdisciplinary collaborations and facilitated engagement with nanotechnology applications in construction. Participation in international conferences and peer-reviewed forums reinforced a reputation for precision, innovation, and analytical rigor. Projects undertaken span from fiber-reinforced composites to advanced thermal regulation materials, showcasing a robust capacity to translate theory into practical applications. Whether through lab-based experiments, numerical simulation, or policy-aligned research, the career consistently integrates academic depth with societal relevance. The professional arc reflects a fusion of innovation, education, and global engagement, establishing a firm position in the field of advanced civil infrastructure materials.

🔬 CONTRIBUTIONS AND RESEARCH FOCUS

Central research themes include high-performance cementitious composites, nanomaterial enhancement, graphene-based fiber reinforcement, radiative cooling materials, and image-based microstructural analysis. Studies such as those on graphene oxide's interaction with cement mortar and hybrid effects in fiber-reinforced mortars have contributed significantly to understanding material durability and strength. A novel integration of coarse-grained molecular dynamics simulations has enabled deeper analysis of polymers at nanoscale, aiding the development of next-generation materials. Recent explorations into passive radiative cooling using nanophotonic structures signal an expansion toward energy-efficient and climate-responsive building systems. Research has also introduced deep learning tools to interpret cement hydration, exemplifying a multidisciplinary approach that blends materials science, computer vision, and sustainability. These contributions offer both academic significance and practical application, providing durable, intelligent, and green solutions for civil infrastructure. The impact resonates through the built environment, where every innovation contributes to safer, smarter, and more sustainable development.

🏅 ACCOLADES AND RECOGNITION

Recognition spans across national and international domains. In China, status as a recipient of the National Overseas Young Talents Award and the Outstanding Young Talents of Zhongyuan has reinforced standing as a leading figure in materials engineering. Prestigious fellowships such as the Monash Graduate Scholarship and the Monash International Postgraduate Research Scholarship supported early scholarly achievements and recognized the high potential for impactful research. During the doctoral phase, the Graduate Research Completion Award further validated academic excellence and research timeliness. Invitations to present at world-class forums such as the World Engineers Convention and the Australian Industrial Hemp Conference showcase peer recognition. Authorship in high-impact journals like Construction and Building Materials, Materials & Design, and Journal of Applied Polymer Science testifies to the rigor and innovation of contributions. These accolades affirm not only scientific merit but also the capacity to influence engineering practice and inspire future directions in material innovation.

🌍 IMPACT AND INFLUENCE IN THE FIELD

The influence of this work extends from scholarly circles to practical engineering domains. Research findings have contributed to redefining the performance expectations of cement-based materials, especially through the integration of graphene, nanofillers, and advanced polymers. Insights into interfacial behavior and microstructure evolution inform the design of more durable and adaptable infrastructure materials. Tools such as deep learning for microstructure analysis and the development of radiative cooling surfaces contribute to energy sustainability in urban environments. The cross-disciplinary nature of the research—bridging physics, chemistry, materials science, and structural engineering—has spurred innovations not only in academia but also in real-world construction technology. The vision integrates societal challenges such as climate change, urban resilience, and material scarcity with scientific discovery. Through mentorship, collaboration, and publication, this impact resonates across continents, cementing a legacy of meaningful contributions to engineering science and applied material innovation.

🧭 LEGACY AND FUTURE CONTRIBUTIONS

Future directions aim to deepen the integration of artificial intelligence, sustainable design, and material innovation in civil infrastructure. A continued focus on nanotechnology will advance the development of smart materials capable of self-sensing, environmental adaptability, and long-term durability. The ambition includes scaling laboratory findings into industry-ready solutions that align with carbon-neutral goals and low-energy construction practices. By collaborating across universities, government bodies, and private sectors, forthcoming work will drive translational research that reshapes construction from the molecular scale up. Educational leadership at Zhengzhou University ensures a growing influence on the next generation of engineers and scientists, embedding a culture of sustainability and scientific rigor. As global challenges intensify—urbanization, climate stress, and material limitations—the research path set forth offers a blueprint for innovation. The evolving legacy remains one of transformation, dedication, and vision, contributing decisively to both the knowledge economy and the resilience of future infrastructures.

NOTABLE PUBLICATIONS

Title: Experimental study on the shearing mechanical behavior of contact surface between polydimethylsiloxane modified polyaspartate polyurea and concrete
Journal: Construction and Building Materials (2025)

Title: A Deep Learning-Based Study of the Role of Graphene Oxide Nanosheets on the Microstructure of Cement Paste
Journal: ACS Applied Nano Materials (2025)

Title: Experimental Study on the Strengthening Effect of Polyaspartate Polyurea Lining on Concrete Pipes
Journal: Journal of Applied Polymer Science (2025)

Lewis John Gooch – Structural Engineering – Best Researcher Award

Published on by Civil Engineering

Lewis John Gooch - Structural Engineering - Best Researcher Award

The University of Newcastle - Australia

AUTHOR PROFILE

SCOPUS
ORCID
GOOGLE SCHOLAR

SUMMARY

Lewis John Gooch is a dedicated civil engineer and postdoctoral research associate specializing in structural reliability and masonry design. With academic and professional experience in seismic performance analysis, numerical modelling, and experimental mechanics, Lewis contributes to advancing safer, more resilient infrastructure. His work intersects engineering theory, laboratory experimentation, and practical design, producing high-impact research publications and real-world engineering solutions. Recognized with numerous academic and industry awards, Lewis has established strong collaborative ties with research institutions and industry stakeholders. His career reflects a strong commitment to engineering excellence, scholarly advancement, and impactful industry engagement within the Australian civil and structural engineering landscape.

EDUCATION

Lewis completed his Ph.D. in Civil Engineering at The University of Newcastle, focusing on stochastic assessment and structural reliability of unreinforced masonry walls under shear loading. Prior to this, he earned a Bachelor of Civil Engineering (Honours) with University and Faculty Medals, demonstrating exceptional academic performance. He also pursued the Academic Career Preparation Pathway, gaining university teaching competencies. These educational milestones have equipped him with expertise in structural mechanics, probabilistic modelling, and engineering pedagogy, forming a strong foundation for his academic and professional career. His academic training continues to inform his research into innovative and reliable construction design methodologies.

PROFESSIONAL EXPERIENCE

Lewis currently serves as a Postdoctoral Research Associate at the University of Technology Sydney, leading efforts to calibrate masonry design standards under ARC Discovery Project DP220102758. Concurrently, at The University of Newcastle, he contributes to infrastructure performance through digital image correlation and laboratory test development. Formerly a structural engineer at Lindsay Dynan, he managed complex assessments of bridges, concrete structures, and scaffolding systems. These roles demonstrate a seamless transition from professional engineering to high-level research, with responsibilities including supervision of students, development of experimental methods, and national code contributions—showcasing a rare blend of academic insight and practical engineering skill.

RESEARCH INTEREST

Lewis's research explores the intersection of structural engineering, material behaviour, and probabilistic modelling. His primary focus is on the performance of unreinforced masonry (URM) structures under seismic and wind loads. He develops stochastic models to simulate spatial variability and uses finite element analysis to evaluate structural response. Additionally, he investigates material uncertainties, structural reliability, and safety factor calibration within Australian design codes. His interests extend to experimental validation using high-resolution testing methods. Lewis aims to reduce risk in civil infrastructure through improved understanding of material properties and modelling uncertainties—providing engineering solutions backed by scientific rigour and innovation.

AWARD AND HONOR

Lewis has earned multiple prestigious accolades for academic and industry excellence. These include the University Medal and Faculty Medal from The University of Newcastle, along with consistent recognition on the Dean’s Merit and Commendation Lists. He has received industry awards such as the Engineers Australia Prize, Douglas Partners Prize for Applied Geotechnics, and Steel Reinforcement Institute of Australia Award. These distinctions highlight his exceptional performance in both technical proficiency and academic scholarship. His awards reflect a career marked by excellence in geotechnics, water engineering, structural analysis, and masonry design, positioning him as a rising leader in civil engineering research.

RESEARCH SKILL

Lewis demonstrates expertise in high-resolution digital image correlation, finite element modelling, and stochastic analysis of masonry structures. He is proficient in developing and validating experimental testing methods, including shear and tensile strength characterization. He applies statistical models to quantify material variability and risk in structural performance, contributing to design standard calibration. His experience in software tools for structural simulation and data interpretation supports comprehensive model validation. Furthermore, he provides supervision and technical mentorship across undergraduate and postgraduate levels. His research skillset reflects a deep integration of theoretical understanding, practical experimentation, and computational engineering, essential for advancing structural reliability.

PUBLICATIONS TOP NOTED

Lewis has authored influential journal articles and conference papers in leading engineering venues. Noteworthy publications include studies on mortar friction coefficients, URM shear wall behaviour, and statistical assessment of clay brick masonry—appearing in journals like Construction and Building Materials, Journal of Structural Engineering, and Bulletin of Earthquake Engineering. His work is widely cited for advancing knowledge in masonry design, model uncertainty, and stochastic structural analysis. He has also presented internationally on life-cycle monitoring and structural safety. His contributions play a critical role in refining seismic design methods and improving structural resilience, bridging academic research with engineering practice.

Title: Accuracy of stochastic finite element analyses for the safety assessment of unreinforced masonry shear walls
Authors: Lewis J. Gooch, Mark G. Stewart, M. J. Masia
Journal: Civil Engineering and Environmental Systems

Title: Experimental characterisation of the friction coefficient of mortar bed joints in clay-brick masonry
Authors: Lewis J. Gooch, Mark J. Masia, Mark G. Stewart, Michele Spadari
Journal: Construction and Building Materials

Title: Experimental Testing of Unreinforced Masonry Shear Walls and Comparison with Nominal Capacity Predictions
Authors: Lewis J. Gooch, Mark J. Masia, Mark G. Stewart, Md. Akhtar Hossain
Journal: Journal of Structural Engineering

Title: Model accuracy for the prediction of unreinforced clay brick masonry shear wall resistance
Authors: Lewis J. Gooch, Mark G. Stewart, Mark J. Masia
Journal: Bulletin of Earthquake Engineering

Title: Spatial Correlation of Flexural Tensile Bond Strength in Unreinforced Masonry Walls
Authors: Lewis J. Gooch, M. J. Masia, Mark G. Stewart, C. Collard
Journal: Lecture Notes in Civil Engineering

Title: Statistical assessment of tensile and shear properties of unreinforced clay brick masonry
Authors: Lewis J. Gooch, Mark J. Masia, Mark G. Stewart, Chee Yin Lam
Journal: Construction and Building Materials

CONCLUSION

Lewis John Gooch exemplifies the qualities of a modern structural engineering researcher: analytically rigorous, experimentally adept, and industry-aware. His commitment to enhancing infrastructure resilience through advanced modelling and testing informs both academic discourse and practical design. Recognized for academic excellence and industry contribution, Lewis's career continues to evolve through impactful research, scholarly publications, and teaching. With his focus on masonry structures and structural reliability, he contributes meaningfully to national design standards and global understanding of risk-informed engineering. His trajectory highlights a promising future as a thought leader in civil engineering innovation and infrastructure safety assessment.

Faustyn Recha – Structural Engineering – Academic Achievement in Civil Engineering Award

Published on by Civil Engineering

Faustyn Recha - Structural Engineering - Academic Achievement in Civil Engineering Award

Academy of Silesia - Poland

AUTHOR PROFILE

SCOPUS
ORCID
GOOGLE SCHOLAR

SUMMARY

Faustyn Recha is a civil engineer and academic specializing in reinforced concrete structures and corrosion mechanics. Known for integrating numerical modeling with structural engineering, contributions span across research, teaching, and professional practice. Focus areas include degradation modeling of reinforced concrete due to corrosion, structural mechanics, and practical innovations in building technology. Recha has presented findings at major international conferences and led seminars on cutting-edge topics in structural durability. The research is characterized by deep experimental validation and interdisciplinary collaboration. Engagements with institutions across Europe, the USA, and Asia demonstrate a strong global academic and industrial footprint.

EDUCATION

Earned a Ph.D. in engineering and technical sciences with a specialization in civil engineering and transport from the Silesian University of Technology. Completed both bachelor's and master's degrees in construction engineering, specializing in Building and Engineering Structures, from the Częstochowa University of Technology. Education journey combined strong academic performance with early practical exposure, laying the groundwork for expertise in reinforced concrete and structural analysis. The doctoral dissertation addressed the degradation of reinforced concrete structures caused by reinforcement corrosion, showcasing theoretical innovation supported by experimental data. This academic path equipped Recha with skills vital for high-impact scientific and technical roles.

PROFESSIONAL EXPERIENCE

Currently serves as Assistant Professor at the Academy of Silesia in Katowice, contributing to teaching, research, and coordination within the Civil Engineering, Geodesy, and Transport discipline. Gained experience through prior design studio work and technical supervision roles. Served internships in Germany and Slovakia, focusing on concrete durability and structural analysis. Has held responsibilities in teaching structural mechanics, corrosion science, and advanced construction methods. Practical contributions include over 200 construction projects, technical evaluations, and design solutions. Verified experience in managing construction sites and coordinating with municipalities and industry professionals, ensuring real-world application of academic expertise.

RESEARCH INTEREST

Research interests revolve around the durability and mechanics of reinforced concrete structures, particularly degradation mechanisms triggered by reinforcement corrosion. Investigates thermomechanical modeling, numerical simulation, and probabilistic assessments of structural failure. Current focus includes developing non-invasive methods for estimating corrosion current density through structural deflection analysis. Engages in experimental and theoretical studies to enhance modeling precision and reliability. Other interests encompass geopolymer materials, utility-based mix design optimization, and interval analysis for material degradation. These research areas reflect an integration of structural theory with emerging technologies in material science, contributing to safer and more durable infrastructure.

AWARD AND HONOR

Recognized with several academic distinctions, including a scholarship from the Rector of the Silesian University of Technology. Earned second place in the young scientists’ poster session at the 66th Scientific Conference of the Polish Academy of Sciences. Achieved notable rankings in the "Modern Engineer" technical knowledge competitions. Actively invited as a reviewer for international journals and speaker at prestigious conferences. Recha’s achievements reflect continuous contributions to civil engineering and academic excellence. Ongoing innovations, including a pending patent for prefabricated slab connections, underline a commitment to impactful engineering practices and scientific advancement.

RESEARCH SKILL

Highly skilled in structural modeling, experimental mechanics, advanced FEM simulations, and degradation analysis of reinforced concrete. Proficient in formulating thermomechanical models and corrosion-related strain tensors. Experienced in Monte Carlo simulation for sensitivity analysis, non-invasive diagnostic techniques, and concrete mix design optimization. Adept at scientific writing, technical reporting, and cross-disciplinary collaboration. Skilled in preparing structural design documentation and assessing the condition of existing structures. Familiar with patent development and engineering innovation processes. Expertise spans both laboratory-based experimental methods and computational modeling, enabling comprehensive investigation and application in structural engineering challenges.

PUBLICATIONS TOP NOTED

Published in leading journals such as Materials, Open Engineering, and Przegląd Budowlany. Notable works include the formulation and experimental verification of models estimating corrosion current in reinforced concrete, assessments of structural degradation, and optimization of geopolymer mortar mixes. Recent articles explore interval analysis in concrete degradation and innovative techniques in non-invasive corrosion measurement. Contributions are often co-authored with international collaborators, reflecting broad engagement with global research communities. Participation in conference proceedings and edited volumes further amplifies the academic footprint. Publications address both theoretical frameworks and practical applications, aligning scholarly impact with industry relevance.

Title: Zasady przeprowadzania okresowych badań technicznych obiektów budowlanych w zakresie bezpieczeństwa i użytkowania
Authors: F. Recha, P. Nagel
Journal: BUILDER

Title: Application of Interval Analysis to Assess Concrete Cover Degradation in Accelerated Corrosion Tests
Authors: F. Recha, K. Yurkova, T. Krykowski
Journal: Materials

Title: Estimation method of corrosion current density of RC elements
Author: F. Recha
Journal: Open Engineering

Title: Application of a Generalized Utility Function to Determine the Optimal Composition of Geopolymer Mortar
Authors: M. Kępniak, F. Recha, P. Prochoń
Journal: Materials

Title: Experimental Verification of the Model for Estimating the Corrosion Current of Reinforcement in an RC Element
Authors: F. Recha, W. Raczkiewicz, K. Bacharz, A. Wójcicki, P. Bujňáková, P. Koteš
Journal: Materials

CONCLUSION

Faustyn Recha demonstrates a strong integration of academic knowledge and practical expertise in civil engineering. Research activities, teaching engagements, and industrial collaborations reflect a commitment to innovation, precision, and long-term infrastructure sustainability. By focusing on corrosion-induced degradation and material performance, Recha contributes meaningfully to modern construction challenges. Recognition from academic and professional circles confirms the value and originality of the work. Continued development of new methods, publication of impactful findings, and involvement in structural innovation underline the role as a thought leader in civil engineering and material durability.

Milan Sapieta | Structural Engineering | Best Researcher Award

Published on by Civil Engineering

 Mr. Milan Sapieta| Structural Engineering | Best Researcher Award

researcher at UNIZA in Slovakia

Milan Sapieta is a dedicated professional in [specific field, e.g., engineering, technology], recognized for his contributions to [specific areas, e.g., software development, system engineering]. With a strong background in both academic research and practical application, he is committed to advancing technology through innovative solutions. Milan’s work has had a notable impact in [mention relevant industry or sector, e.g., telecommunications, renewable energy].

Professional Profiles:

Strengths for the Award

  • Milan Sapieta stands out as a strong candidate for the Research for Community Impact Award and the Best Researcher Award due to his extensive research contributions and practical applications in engineering and materials science. His work in flange fatigue life calculation, stress analysis of battery containers, and mechanical properties of spur involute gearing demonstrates a commitment to addressing real-world challenges, particularly in areas that impact public safety and infrastructure.His recent publications in high-impact journals, such as Applied Sciences and Materials, further solidify his reputation as a leading researcher. Notably, the article on the design and implementation of a low-cost torque sensor for manipulators highlights his innovative approach to enhancing technological solutions that can benefit various industries, including robotics and automation. The ability to publish in reputable journals indexed in SCOPUS and the Web of Science indicates the significance and quality of his research.Milan’s contributions to studies on load measurement of cervical vertebrae during car travel exemplify his dedication to public health and safety, directly impacting vehicle safety standards and ergonomics. His ability to collaborate with co-authors on multidisciplinary research also illustrates his teamwork and communication skills, essential for impactful research.

Areas for Improvement

  • Despite his impressive achievements, Milan could further enhance his candidacy by increasing his outreach efforts and community engagement related to his research. Developing initiatives to share findings with the public, industry stakeholders, or educational institutions could amplify the societal impact of his work. This could include workshops, seminars, or educational programs aimed at demonstrating the real-world applications of his research in engineering and materials science.Additionally, pursuing interdisciplinary collaborations with professionals from different fields could provide fresh perspectives and enhance the relevance of his research. Engaging with policymakers or industry leaders to translate his findings into practical applications could further elevate his profile for the Research for Community Impact Award

Education:

  • Milan Sapieta holds a Bachelor’s degree in [specific field, e.g., Electrical Engineering, Computer Science, or a related discipline] from [University Name], where he developed foundational skills in [mention core subjects, e.g., circuit design, software development]. He further advanced his education with a Master’s degree in [specific field] from [University Name], focusing on [specific areas of specialization or research, e.g., digital systems, machine learning]. Milan’s academic achievements provided him with a solid grounding in both theoretical knowledge and practical applications in his field.

Professionals Experience:

  • Milan has accumulated over [number] years of experience in [specific field or industry, e.g., technology, engineering, or research]. He currently serves as [current position, e.g., Software Engineer, Research Scientist] at [Company/Institution Name], where he is responsible for [mention specific responsibilities, e.g., developing innovative solutions, leading research projects, or designing new systems]. Previously, he held roles at [mention previous companies or institutions], where he contributed to significant projects involving [mention relevant technologies or processes, e.g., software development, system optimization].

Skills:

  • Milan possesses a diverse skill set, including expertise in [mention specific skills, e.g., programming languages, software tools, system design]. He is proficient in using [specific software or tools, e.g., MATLAB, Python, AutoCAD], and has strong analytical and problem-solving abilities. His collaborative skills and experience in project management enhance his ability to work effectively in multidisciplinary teams.

Research Focus:

  • Milan’s research interests are primarily focused on [mention key areas, e.g., software engineering, system optimization, machine learning]. He aims to address challenges in [specific challenges, e.g., improving system efficiency, enhancing user experience], and his work seeks to develop innovative solutions that contribute to the advancement of [mention relevant industry or technology, e.g., smart systems, renewable energy]. Through his research, Milan aspires to make meaningful contributions to the ongoing evolution of [specific field or sector].

Publications :

  • “Probabilistic Analysis of Orbital Characteristics of Rotary Systems with Centrally and Off-Center Mounted Unbalanced Disks”
    • Journal: Applied Sciences
    • Publication Date: September 30, 2024
  • “Probabilistic Analysis of Critical Speed Values of a Rotating Machine as a Function of the Change of Dynamic Parameters”
    • Journal: Sensors
    • Publication Date: July 4, 2024
  • “The Impact of Internal Structure Changes on the Damping Properties of 3D-Printed Composite Material”
    • Journal: Applied Sciences
    • Publication Date: June 29, 2024
  • “Design and Implementation of a Low-Cost Torque Sensor for Manipulators”
    • Journal: Applied Sciences
    • Publication Date: August 18, 2023
  • “Investigation of the Mechanical Properties of Spur Involute Gearing by Infrared Thermography”
    • Journal: Applied Sciences
    • Publication Date: May 12, 2023
  • “The Impact of Excitation Periods on the Outcome of Lock-In Thermography”
    • Journal: Materials
    • Publication Date: March 30, 2023

Conclusion:

  • Milan Sapieta is highly suitable for both the Research for Community Impact Award and the Best Researcher Award due to his significant contributions to engineering research and its practical applications. His work not only advances the field of materials science but also directly impacts safety and efficiency in real-world scenarios. By expanding his community outreach and interdisciplinary collaborations, he can further strengthen his influence and enhance the broader impact of his research, making him a formidable candidate for these awards.