Faustyn Recha | Civil Engineering | Academic Achievement in Civil Engineering Award

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Dr. Faustyn Recha | Civil Engineering | Academic Achievement in Civil Engineering Award

Assistant professor at Academy of Silesia, Poland.

Dr. Faustyn Recha, PhD, C.Eng, is a passionate civil engineering researcher and practitioner from Poland 🇵🇱. With expertise in reinforced concrete durability and structural mechanics 🏗️, he merges academic rigor with practical design. He earned his PhD in Civil Engineering and Transport in 2021, focusing on modeling reinforcement corrosion 🧪. Currently, he serves as an Assistant Professor at the Academy of Silesia, where he teaches and conducts innovative research 👨‍🏫. Dr. Recha is the author of over 200 technical designs and multiple scientific publications 📚. He collaborates internationally with institutions in Germany, Slovakia, China, and the USA 🌍. In addition to research, he is involved in structural inspections, prefabrication innovations, and has developed a patented balcony slab connection system 🔧. His career is a blend of science, teaching, and hands-on engineering — continuously pushing boundaries in civil infrastructure 💡.

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Suitability for Academic Achievement in Civil Engineering Award – Dr. Faustyn Recha

Dr. Faustyn Recha exemplifies what this award represents — exceptional academic performance, original research, and meaningful impact on civil engineering education and practice. He demonstrates consistent scholarly excellence, leadership in academic settings, and contributions that merge scientific advancement with industry relevance. From high-level research to real-world design, his career highlights a dedication to elevating civil engineering standards.

Education 

Dr. Faustyn Recha began his academic journey by graduating with distinction from high school in Psary in 2010 🎓. He earned his B.Eng. (2014) and M.Sc. (2015) in Civil Engineering from the Częstochowa University of Technology 🏫, specializing in Building and Engineering Structures 🏗️. Passionate about deeper inquiry, he pursued a PhD at the Silesian University of Technology, completing it in 2021 🧠. His doctoral thesis focused on modeling the degradation of reinforced concrete due to reinforcement corrosion, combining thermomechanical theory and experimental verification 🔬📐. This solid educational foundation underpins his academic and engineering expertise.

Professional Development 

Dr. Recha’s professional journey began in 2015 in a reinforced concrete design studio 🏢. Alongside his doctoral studies from 2016, he gained hands-on experience in design offices and achieved full construction qualifications in 2018 🔧📐. Since 2021, he has served as an Assistant Professor at the Academy of Silesia, teaching subjects such as concrete structures, mechanics, and corrosion science 👨‍🏫. He has also coordinated the Civil Engineering discipline at the academy since 2022 🏛️. Internationally active, Dr. Recha completed scientific internships in Germany 🇩🇪 and Slovakia 🇸🇰, and maintains collaborations with researchers in China and the USA 🌐. His dual role as an academic and practicing engineer bridges research with real-world construction applications. As a designer, he has authored over 200 construction designs, assessments, and structural analyses 🧱🧮. His contributions reflect a dynamic blend of research, education, and professional engineering excellence 💼📊.

Research Focus Area 

Dr. Faustyn Recha’s research primarily focuses on the durability and degradation of reinforced concrete structures under corrosion effects 🏗️⚙️. His work centers around modeling corrosion-induced damage in reinforced concrete elements, with an emphasis on thermomechanical and electrochemical processes 🔬🧪. He has developed advanced numerical models to predict crack propagation and structural degradation using parameters like corrosion current density and volumetric strain tensors 💡📊. Dr. Recha’s studies also include non-invasive diagnostic methods, aiming to estimate corrosion current based on deflection – a significant step in preventive infrastructure maintenance 🛠️. His research is deeply relevant to sustainable construction, extending the life of concrete structures and reducing repair costs 🔍♻️. With collaborations across Europe and Asia 🌍, he bridges scientific theory with structural safety and real-world application, ensuring his research contributes meaningfully to the field of civil engineering infrastructure and materials science 🧱🌐.

Research Skills 

Dr. Recha brings an impressive array of research skills to the civil engineering domain 📘🧪. He excels in numerical modeling, particularly Finite Element Method (FEM) simulations for analyzing stress, deflection, and crack propagation in reinforced concrete elements 💻🔍. He is skilled in experimental verification, having conducted advanced lab testing to correlate corrosion levels with structural behavior ⚗️📏. His work in thermo-mechanical coupling and electrochemical modeling reflects high proficiency in cross-disciplinary research 🔄🧠. Dr. Recha is also proficient in probabilistic simulation methods such as Monte Carlo analysis for assessing model sensitivity under uncertainty 🎲📈. In addition to technical modeling, he demonstrates strong analytical writing, technical reporting, and journal publication skills 📝📚. His ability to integrate theoretical models with real-world applications — including construction diagnostics and structural design — makes him a rare blend of researcher and practitioner ⚙️🏗️. He also actively contributes to academic peer review and interdisciplinary collaborations 🤝🌍.

Awards & Honors

Dr. Faustyn Recha’s dedication to civil engineering has earned him multiple honors and recognitions 🏆. He received a prestigious Rector’s Scholarship from the Silesian University of Technology for academic excellence 🎓🌟. In 2020, he was awarded second place in the poster session for young scientists at the 66th Conference of the Polish Academy of Sciences 🖼️🥈. His achievements also include top placements in the “Modern Engineer” competition organized by the Silesian Chamber of Construction Engineers, securing 4th and 7th places in 2018 and 2019 respectively 🏗️🎯. His growing reputation as a researcher and educator has led to international internship invitations and reviewer roles in scientific journals 📄🌍. In addition, his patent-pending innovation for prefabricated slab connections underlines his contribution to practical engineering and technological advancement ⚙️📑. These awards reflect his consistent pursuit of excellence in both academic and industrial domains.

Publication Top Notes

1. A Cracking Model for Reinforced Concrete Cover Taking Account of the Accumulation of Corrosion Products in the ITZ Layer, and Including Computational and Experimental Verification

  • Authors: T. Krykowski, T. Jaśniok, F. Recha, M. Karolak

  • Journal: Materials, 13(23), Article 5375

  • Year: 2020

  • Citations: 16

  • Summary:
    This paper presents a comprehensive model for simulating the cracking of reinforced concrete (RC) covers, with special attention to the interfacial transition zone (ITZ) between the steel and concrete. It accounts for the accumulation of corrosion products, which induces expansive stresses leading to cracking. Both computational simulations and experimental results are provided, confirming the model’s effectiveness in predicting crack initiation and propagation due to rebar corrosion.

2. The Simulation of Corrosion Degradation of Concrete Specimen in Stationary Heat and Moisture Conditions

  • Authors: F. Recha, T. Jaśniok, T. Krykowski

  • Journal: Architecture, Civil Engineering, Environment, 10(4)

  • Year: 2018

  • Citations: 6

  • Summary:
    This study uses numerical simulations to analyze the degradation of concrete due to corrosion under constant thermal and moisture conditions. The results show how environmental stability influences the rate of corrosion and crack formation. The simulation helps in understanding the long-term performance of RC structures exposed to consistent environmental stressors.

3. Estimation Method of Corrosion Current Density of RC Elements

  • Author: F. Recha

  • Journal: Open Engineering, 13(1), Article 20220430

  • Year: 2023

  • Citations: 4

  • Summary:
    The paper introduces a new method to estimate corrosion current density in RC elements. The method is based on measurable physical parameters and provides a practical tool for engineers to assess corrosion levels without invasive testing. It contributes to better monitoring and prediction of RC degradation.

4.Numerical simulation of the load-bearing capacity decrease of reinforced concrete structure due to reinforcement corrosion

  • Authors: F. Recha, T.J. Krykowski, T. Jaśniok

  • Conference: 15th Int. Conf. on New Trends in Statics and Dynamics of Buildings

  • Year: 2017

  • Citations: 4

  • Summary:
    This conference paper details a numerical study of how reinforcement corrosion reduces the load-bearing capacity of RC structures over time. The simulation includes the progressive loss of cross-section and bond strength, providing insight into long-term structural performance and failure risks due to corrosion.

5.Principles for conducting periodic technical inspections of buildings in terms of safety and use

  • Authors: F. Recha, P. Nagel

  • Journal: BUILDER, 295(2), pp. 12–14

  • Year: 2022

  • Citations: 3

  • Summary:
    A practical article outlining procedures and legal requirements for routine inspections of buildings. It emphasizes safety, usability, and the early detection of degradation phenomena such as corrosion. The paper serves as a guideline for engineers and inspectors to ensure compliance and structural integrity.

6. Application of Interval Analysis to Assess Concrete Cover Degradation in Accelerated Corrosion Tests

  • Authors: F. Recha, K. Yurkova, T. Krykowski

  • Journal: Materials

  • Year: 2023

  • Citations: 2

  • Summary:
    This research explores the use of interval analysis to model and evaluate the degradation of concrete covers during accelerated corrosion testing. The interval approach allows for uncertainty in material properties and measurement data, offering a more robust assessment tool for interpreting test results in corrosion studies.

Conclusion

Dr. Faustyn Recha is an ideal recipient of the Academic Achievement in Civil Engineering Award. His blend of rigorous research, innovative thinking, and educational leadership defines him as a transformative figure in modern civil engineering academia. With a PhD that breaks new ground, significant teaching responsibilities, and global collaboration, Dr. Recha not only achieves academic excellence — he inspires it in others. Recognizing his work would honor a career committed to advancing civil engineering knowledge, resilience, and practice.

Jeba Beula R | Engineering | Best Researcher Award

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Prof. Jeba Beula R | Engineering | Best Researcher Award

Associate Professor at Rathinam College of Arts and Science, India

AUTHOR PROFILE

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SUMMARY

Dr. R. Jeba Beula is an accomplished Associate Professor of Physics at Rathinam College of Arts and Science, Coimbatore, India. With over 16 years of academic and research experience, she specializes in advanced materials for energy applications, including dye-sensitized and perovskite solar cells. A dynamic academic leader, she is actively engaged in curriculum design, student mentorship, and quality assurance initiatives like NAAC and NBA. Dr. Beula is recognized for her significant contributions to nanomaterials research and innovation in photovoltaics.

EDUCATION

Dr. Jeba Beula holds a Ph.D. in Physics from Karunya Institute of Technology and Sciences with a specialization in Dye-Sensitized Solar Cells (DSSC). Her academic path also includes postgraduate degrees focused on multiferroics and material science. With a strong foundation in optics, electronics, and environmental physics, she developed significant skills in experimental physics and device fabrication. Her educational journey is deeply aligned with advanced solar energy applications, leading to impactful contributions in perovskite and thermoelectric research. She combines theoretical learning with hands-on material development and analysis, fostering strong interdisciplinary knowledge applicable to modern scientific challenges.

PROFESSIONAL EXPERIENCE

Dr. Beula began her academic career in 2008 as an Assistant Professor at Karunya Institute of Technology and Sciences, where she served for nearly 16 years. In 2024, she joined Rathinam College of Arts and Science as an Associate Professor. Over the years, she has taught a wide array of subjects in Physics for engineering, science, optometry, and forensic science students. She also played key roles in curriculum development, examination coordination, and accreditation processes. She is experienced in thin-film deposition techniques and integrating technology into pedagogy.

RESEARCH INTEREST

Dr. Jeba Beula’s research focuses on renewable energy materials, particularly third-generation solar cells, including DSSC and perovskite cells. Her work investigates structural and optical modifications of TiO₂-based photoanodes, advanced thin-film fabrication techniques, and thermoelectric energy conversion materials. She also explores hybrid materials, photodegradation, and nanostructured interfaces for enhanced photovoltaic performance. Her goal is to develop high-efficiency, cost-effective devices with environmentally friendly materials. Additionally, she has worked on computational chemistry, surface coatings, and nanocomposites. Her research intersects physics, materials science, and energy engineering, promoting sustainability and technological advancement in green energy solutions.

AWARD AND HONOR

Dr. Jeba Beula has received several prestigious honors, including the Best Researcher Award (2024) in Atomic, Molecular, and Optical Physics. She was selected for the WISE-KIRAN Women in Science Fellowship (2025) and AICTE-ATAL FDP Grant, recognizing her research leadership and academic excellence. She has also been awarded seed funding from Rathinam College and Karunya Institute to support solar energy research. These accolades affirm her impactful contributions to renewable energy science and commitment to advancing women in STEM. Her recognition by national and international agencies underscores her influence in materials research and scientific mentorship.

RESEARCH SKILL

  • Thin Film Fabrication: Skilled in techniques such as spin coating, sol-gel, and hydrothermal synthesis for preparing nanostructured materials.

  • Materials Characterization: Proficient in using tools like XRD, FESEM, UV-Vis spectroscopy, FTIR, and EIS for analyzing structural, optical, and electrical properties of materials.

  • Photovoltaic Device Design: Experienced in assembling and optimizing dye-sensitized and perovskite solar cells for enhanced energy conversion efficiency.

  • Thermoelectric Materials: Competent in the synthesis and analysis of materials for heat-to-electricity conversion.

  • Data Analysis & Simulation: Skilled in software such as Origin, LabVIEW, and MATLAB for data plotting, curve fitting, and simulation of device behavior.

  • Research Writing & Publication: Strong command of scientific writing, peer-review response, and publication in indexed journals (Scopus, WoS).

  • Project Development: Capable of designing research proposals, managing funded projects, and mentoring postgraduates and Ph.D. scholars.

  • Collaborative Research: Adept at interdisciplinary collaboration with academic, industrial, and international research teams.

PUBLICATIONS

1.  Enhanced Charge Transfer and Stability in Heterojunction Perovskite Solar Cells with Optimized Se/CuSe Multi-layer Hole Transport Layer using Physical Vapour Deposition Technique

Authors: HC Bennett, R. Tamilarasi, R. Magesh, R. Nandhakumar, N. Ganesan, RJ Beula, et al.
Journal: Journal of Physics and Chemistry of Solids
Volume/Article ID: 112835
Year: 2025
DOI: [To be added]
Summary: This study demonstrates improved charge transfer and device stability in perovskite solar cells by integrating a Se/CuSe multilayer hole transport layer fabricated using the Physical Vapor Deposition (PVD) technique.

2. Synergistic Effects of Co–Mn Co-doping on the Structural and Optical Properties of TiO₂ Nanospheres: Dual Functions for DSSC Photoanodes and Degradation Photocatalyst

Authors: A. Ashok, T. Raguram, RJ Beula, G. Gopinath, S. Ayyasamy, A. Abiram, et al.
Journal: Journal of Alloys and Compounds
Volume: 1005
Article ID: 176024
Year: 2024
Citations: 7
DOI: [To be added]
Summary: Co–Mn co-doped TiO₂ nanospheres were engineered to act as high-efficiency dual-function materials for dye-sensitized solar cells and photocatalytic pollutant degradation.

3. Structural and Opto-electronic Engineering with ZnS ETL via PVD Technique for Efficient and Durable Heterojunction Perovskite Solar Cells

Authors: HC Bennett, R. Tamilarasi, A. Ashok, F. Joselin, R. Nandhakumar, E. Antony, RJ Beula, et al.
Journal: Optical Materials
Volume: 154
Article ID: 115695
Year: 2024
Citations: 2
DOI: [To be added]
Summary: The work explores ZnS as an electron transport layer deposited via PVD, enhancing the overall performance and long-term stability of perovskite solar cells.

4. Impact of Venomous Agent X (VX) Adsorption on the Structural and Electronic Properties of BN Nanosheet, Nanotube and Nanocage: A DFT-D3 Study

Authors: SPM Paul, D. Parimala Devi, G. Praveena, P. Selvarengan, RJ Beula, et al.
Journal: Journal of Cluster Science
Volume: 35, Issue 5
Pages: 1279–1289
Year: 2024
Citations: 4
DOI: [To be added]
Summary: A theoretical study using dispersion-corrected DFT-D3 to evaluate the potential of BN nanostructures (sheet, tube, cage) as chemical sensors for detecting the toxic VX nerve agent.

5. Polymer/Organic Solar Cells: Progress and Current Status

Authors: L. Vidhya, S. Vinodha, SJ. Pradeeba, RJ Beula
Book Title: Third Generation Photovoltaic Technology: Recent Progress and Future Perspectives
Chapter: 163
Year: 2024
Citations: 1
Publisher: [To be added]
Summary: This book chapter reviews the technological evolution, fabrication techniques, materials, and performance trends of polymer and organic solar cells in the context of third-generation photovoltaics.

CONCLUSION

Dr. R. Jeba Beula is highly suitable for the Best Researcher Award in Engineering or Physical Sciences domains. Her research contributions are innovative, application-oriented, and address critical global challenges in renewable energy and nanomaterials. She demonstrates strong leadership, technical skills, and a commitment to mentoring the next generation of scientists.

Lin Lang | Civil Engineering | Best Researcher Award

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Assoc. Prof. Dr Lin Lang | Civil Engineering | Best Researcher Award

Associate professor, Xihua University, China

Dr. Lin Lang is an Associate Professor in the School of Architecture and Civil Engineering at Xihua University in Chengdu, China, with a strong focus on rock mechanics, fracture mechanics, and dynamic material behavior. He has a deep interest in the study of crack propagation, fatigue, and dynamic fracture processes in brittle materials. Dr. Lang is well-known for his research on environmental rock mechanics and the application of fracture mechanics principles to solve real-world engineering problems, particularly under dynamic loading conditions. He has authored several highly regarded publications in prominent scientific journals and has contributed to the advancement of understanding the crack arrest mechanisms and dynamic behavior of materials under impact loading. Dr. Lang’s work is integral to improving the safety and reliability of structures subjected to extreme conditions, such as earthquakes, explosions, and other dynamic impacts.

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Strengths for the Award

Dr. Lin Lang is a highly qualified and experienced researcher in the field of fracture mechanics, rock mechanics, and environmental rock mechanics. His work on crack propagation, dynamic fracture behavior, and crack arrest mechanisms has made significant contributions to advancing understanding in these critical areas of material science and civil engineering. His research on the dynamic behavior of materials under impact loading, particularly his studies on concrete and brittle materials, is vital for improving structural resilience against extreme events such as earthquakes or explosions. His publications in top-tier journals, including Fatigue & Fracture of Engineering Materials & Structures, Engineering Fracture Mechanics, and Construction and Building Materials, underscore his ability to lead cutting-edge research. Additionally, Dr. Lang’s role as an Associate Professor at Xihua University and his involvement in multidisciplinary projects further highlight his leadership in the academic community.

Areas for Improvement

While Dr. Lang’s research has made a significant impact, one area for improvement could be the expansion of his research into more interdisciplinary collaborations. While his work is robust in the field of fracture mechanics, exploring new areas of applied material science or integrating his research with emerging fields such as smart materials or renewable energy infrastructure could provide valuable new insights and broaden the scope of his impact. Furthermore, while his publication record is strong, increasing the number of citations and enhancing visibility in global research networks could further strengthen his profile as a leading researcher.

Additionally, Dr. Lang may benefit from a more pronounced focus on developing practical engineering solutions that translate his research into real-world applications. Further outreach and engagement with industry could help ensure that his findings are implemented in infrastructure projects worldwide, enhancing both their scientific and practical value.

Education 

Dr. Lin Lang completed his academic education in China, earning his degrees in Civil Engineering with a specialization in Rock Mechanics and Structural Engineering. He obtained his undergraduate and postgraduate education at Sichuan University, where he developed a keen interest in the study of dynamic fracture and crack propagation in brittle materials. During his doctoral studies, he conducted research on dynamic fracture mechanics and crack arrest mechanisms, focusing on the behavior of concrete and other brittle materials under impact loading. His deep theoretical understanding of material behavior, combined with extensive laboratory research, laid the foundation for his career as a researcher and educator. As an academic, Dr. Lang continues to expand his knowledge and expertise in environmental rock mechanics, using his education to tackle modern engineering challenges in civil and environmental engineering.

Experience 

Dr. Lin Lang has extensive experience in both academia and research, currently serving as an Associate Professor at Xihua University in Chengdu, China. Prior to this, he was a faculty member at Sichuan University, where he contributed to the research and development of dynamic fracture mechanics. His academic experience includes teaching undergraduate and graduate courses in structural mechanics, material science, and rock mechanics. Dr. Lang has worked on numerous research projects focusing on crack propagation, fracture toughness, and dynamic fracture behaviors in materials, particularly under impact and fatigue loading conditions. His work has significant implications in the fields of civil engineering and materials science, helping to improve the understanding of how materials behave under extreme loading conditions. Dr. Lang is also an active member of several international research collaborations and has contributed to many well-regarded publications in leading engineering journals.

Awards and Honors 

Dr. Lin Lang has earned recognition for his pioneering research in rock mechanics and fracture mechanics, particularly in the study of crack propagation and dynamic fracture behaviors. His research has been widely cited in top-tier journals, demonstrating the impact of his work on the field of engineering mechanics. While Dr. Lang has not yet received a specific individual “Best Researcher Award,” his accomplishments are recognized through his growing reputation as a leading researcher in dynamic fracture mechanics and his contributions to engineering safety and sustainability. His work on dynamic crack arrest and material behavior under impact loading is considered groundbreaking in the field of structural engineering, and it has garnered attention in both academic and industry circles. Dr. Lang’s ongoing research and commitment to advancing engineering knowledge continue to pave the way for future recognition in the form of awards and honors in the coming years.

Research Focus 

Dr. Lin Lang’s research focuses primarily on the study of dynamic fracture mechanics, crack propagation, and crack arrest techniques in brittle materials, particularly under impact loading conditions. His work addresses fundamental aspects of material behavior under dynamic stresses, such as those encountered during earthquakes, explosions, or high-velocity impacts. Dr. Lang is particularly interested in understanding the mechanisms that control crack propagation speed, fracture toughness, and energy release rates in concrete and other brittle materials. In addition to his research on crack propagation, Dr. Lang explores the development of innovative techniques for crack arrest, aimed at improving the safety and durability of civil infrastructure. His studies are integral to advancing environmental rock mechanics, with applications in improving the resilience of structures such as dams, tunnels, and bridges. Dr. Lang’s interdisciplinary approach combines theoretical modeling with experimental methods to provide comprehensive solutions for engineering challenges.

Publication Top Notes

  • Study of Crack Arrest Mechanism and Dynamic Behaviour Using Arc-Bottom Specimen Under Impacts
    Lin Lang, Zheming Zhu, Shuai Deng, Caoyuan Niu, Duanying Wan, Fatigue & Fracture of Engineering Materials & Structures, 2020-09 💥🔬
  • Effect of Loading Rates on Crack Propagating Speed, Fracture Toughness and Energy Release Rate Using Single-Cleavage Trapezoidal Open Specimen Under Impact Loads
    Lin Lang, Journal of Central South University, 2020-08 ⚡🪶
  • Study on the Arresting Mechanism of Two Arrest-Holes on Moving Crack in Brittle Material Under Impacts
    Lin Lang, Engineering Fracture Mechanics, 2020-04 💔⚒️
  • Investigation of Crack Dynamic Parameters and Crack Arresting Technique in Concrete Under Impacts
    Lin Lang, Construction and Building Materials, 2019-02 🏗️💥

Conclusion

Dr. Lin Lang is a promising and highly skilled researcher whose work on fracture mechanics and crack arrest techniques is critical to the field of structural engineering and materials science. His research contributes significantly to understanding the dynamic behavior of materials under impact, which has practical implications for enhancing the safety and durability of structures exposed to extreme loading conditions. Given his solid academic background, impactful research, and leadership at Xihua University, Dr. Lang is certainly a strong contender for the Best Researcher Award. As he continues to build on his strengths and explore new interdisciplinary opportunities, his potential for further academic and industry recognition remains high. By expanding his research scope and fostering more direct applications, Dr. Lang could significantly enhance his contribution to global engineering challenges, making him an even more influential figure in the field.

Florindo Gaspar | Civil Engineering | Best Researcher Award

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Mr. Florindo Gaspar | Civil Engineering | Best Researcher Award

Professor, Polytechnic Institute of Leiria, Portugal

🌍 Florindo Gaspar is a Professor at the Civil Engineering Department, School of Technology and Management (Polytechnic Institute of Leiria – IPLeiria). With a strong academic and professional background, he is also a researcher at the Centre for Rapid and Sustainable Product Development (CDRsp). His work is dedicated to wood and masonry structures, as well as innovative building processes, making substantial contributions to the field of Civil Engineering.

Publication Profile

Strengths for the Award:

Florindo Gaspar is highly suitable for the Research for Best Researcher Award due to several key strengths:

  • Diverse Research Portfolio: His work spans various areas including sustainable construction materials, rehabilitation of wood and masonry structures, and 3D printing technologies. This demonstrates versatility and relevance to modern civil engineering challenges.
  • Extensive Publication Record: With over 122 works, including journal articles and patents, his research impact is broad, covering material science, sustainable construction, and additive manufacturing. Recent publications in prestigious journals like Construction and Building Materials and Sustainability reinforce his scientific authority.
  • Research Leadership: He has been involved in various large-scale, international projects, such as Forest for the Future and CircularSeas, showcasing his capability to lead and contribute to high-impact research initiatives.
  • Innovative Contributions: His research in developing sustainable materials (e.g., thermal insulation from natural fibers and geopolymer mortars) directly contributes to eco-friendly construction practices, which are critical in today’s environmental context.
  • Active Collaborations and Funding: He has secured significant research funding from national and international agencies, reflecting his ability to attract resources to advance his research.

Areas for Improvement:

  • International Visibility: Although he has been involved in notable European projects, further collaborations or leadership roles in international, cross-disciplinary consortia could enhance his global presence.
  • Outreach and Industry Applications: While his consultancy work and practical projects show applied research, increasing engagement in public dissemination (through workshops, conferences, or industry white papers) would further highlight the societal impact of his work.

 

Education

🎓 Florindo holds a Ph.D. in Civil Engineering (2010) and a MSc in Construction (2006) from the Instituto Superior Técnico at the University of Lisbon. He completed his Graduation in Civil Engineering in 2000 from the University of Coimbra, and earlier obtained a Bachelor’s degree from the Polytechnic Institute of Lisbon in 1996.

Experience

🏗️ Florindo has been a Professor at IPLeiria since 2001, teaching subjects related to wood and masonry structures, building materials, and construction processes. He has also held roles as a Technical Manager at Gasmenfil, Project Designer, and Construction Supervisor in various firms, accumulating a wealth of hands-on industry experience.

Research Focus

🔬 His research focuses on the monitoring, rehabilitation, and conservation of wood and masonry structures, with a keen interest in sustainability and innovative construction techniques. He has supervised multiple MSc projects in these areas, contributing to practical advancements in civil engineering.

Awards and Honours

🏆 Florindo has been involved in numerous research and consultancy projects, securing funding from prestigious organizations like the European Social Fund and Agência Nacional de Inovação SA. His commitment to advancing civil engineering is recognized in the various contracts and projects he’s participated in.

Publication Top Notes

Rheology Assessment of Mortar Materials for Additive Manufacturing – Published in Current Materials Science, 2024. DOI: 10.2174/2666145417666230801093723

Thermal Insulation Materials Based on Eucalyptus Bark Fibres – Published in Construction and Building Materials, 2024. DOI: 10.1016/j.conbuildmat.2024.138559

Optimization of Formulation Ratios of Geopolymer Mortar Based on Metakaolin and Biomass Fly Ash – Published in Construction and Building Materials, 2024. DOI: 10.1016/j.conbuildmat.2023.134846

Recycling Ophthalmic Lens Wastewater in a Circular Economy Context: A Case Study with Microalgae Integration – Published in Materials, 2023. DOI: 10.3390/ma17010075

Comprehensive Design Methodology for 3D Printing Mortars – Published in Construction and Building Materials, 2023. DOI: 10.1016/j.conbuildmat.2023.132804

Conclusion:

Florindo Gaspar’s robust academic and research profile, combined with his contributions to sustainable construction and innovation in civil engineering, makes him a strong contender for the Best Researcher Award. Expanding his global outreach and continuing his innovative work in sustainable materials will only enhance his standing in the research community.