Masoud Ranjbarnia | Geotechnical Engineering | Innovative Research Award

Posted on by Civil Engineering Awards

 

Innovative Research Award

Masoud Ranjbarnia
Department of Geoscience, University of Kiel

Masoud Ranjbarnia
Affiliation Department of Geoscience, University of Kiel
Country Germany
Scopus ID 25824448800
Documents 43
Citations 948
h-index 19
Subject Area Geotechnical Engineering
Event Global Civil Engineering Awards
ORCID 0000-0001-8853-2148

Masoud Ranjbarnia is a researcher affiliated with the Department of Geoscience at the University of Kiel, Germany, with a scholarly profile associated with geotechnical engineering. The supplied research record identifies 43 documents, 948 citations, and an h-index of 19. His academic profile provides a basis for examining research activity, publication visibility, and disciplinary relevance in the context of the Innovative Research Award under the Global Civil Engineering Awards.[1]

Abstract

Masoud Ranjbarnia is a geoscience researcher at the University of Kiel, Germany, whose academic profile is associated with geotechnical engineering. The supplied Scopus record reports 43 documents, 948 citations, and an h-index of 19, providing measurable indicators of sustained scholarly activity and research visibility. His profile is considered in the context of the Innovative Research Award under the Global Civil Engineering Awards. The recognition framework emphasizes originality, technical relevance, research quality, scholarly contribution, and potential influence on civil engineering knowledge and practice. His documented publication and citation record provides an evidence-based foundation for evaluating his suitability for this research-oriented distinction within geotechnical engineering.

Keywords

Masoud Ranjbarnia, Geotechnical Engineering, Geoscience, University of Kiel, Innovative Research Award, Civil Engineering, Research Impact, Scholarly Publications, Scopus, ORCID.

Introduction

Geotechnical engineering is a major area of civil engineering concerned with the behavior and engineering interpretation of soils, rocks, and subsurface systems. Research in this field supports the assessment, design, and management of infrastructure exposed to complex ground conditions. Scholarly databases such as Scopus provide structured information that can assist in documenting publication activity and citation-based research visibility.[1]

Research Profile

Masoud Ranjbarnia is affiliated with the Department of Geoscience at the University of Kiel in Germany. His identified subject area is Geotechnical Engineering, placing his academic profile within a discipline concerned with subsurface materials, geological conditions, ground behavior, and their implications for engineering systems. The supplied Scopus information records 43 documents, 948 citations, and an h-index of 19.[1]

Research Contributions

Research contributions are most meaningfully assessed through the scientific questions addressed, methodological rigor, originality of findings, reproducibility, and subsequent use of the work by other researchers. Citation activity can provide supplementary evidence of scholarly reach when interpreted together with these qualitative dimensions.[2]

Publications

The supplied Scopus author information identifies 43 documents associated with Masoud Ranjbarnia. These indexed publications represent the documented scholarly output used for this recognition profile. Individual publications may be evaluated according to their research objectives, methodological approaches, publication venues, collaboration networks, citation performance, and contribution to geotechnical engineering and related geoscience research.[1]

Research Impact

The supplied profile reports 948 citations and an h-index of 19. These indicators demonstrate measurable visibility within the indexed scholarly literature. Citation-based measures can assist in contextualizing research influence, although they are affected by disciplinary differences, publication age, database coverage, collaboration patterns, and citation practices. Consequently, they are most appropriately interpreted as supporting indicators rather than independent measures of research quality.[2]

Award Suitability

The Innovative Research Award is suited to research-oriented achievements demonstrating originality, scientific relevance, and meaningful contribution to a defined engineering discipline. Ranjbarnia’s affiliation with geoscience and identified specialization in geotechnical engineering correspond directly with an important area of civil engineering research. His documented record of 43 Scopus-indexed documents, 948 citations, and an h-index of 19 provides quantitative evidence that can support an award evaluation when combined with assessment of the underlying research quality and significance.[3]

Conclusion

Masoud Ranjbarnia’s supplied academic profile presents a sustained scholarly record in geotechnical engineering within the Department of Geoscience at the University of Kiel. The reported publication and citation indicators provide measurable evidence of research activity and scholarly visibility. In the context of the Global Civil Engineering Awards, his disciplinary specialization and documented research record provide a suitable academic basis for consideration under the Innovative Research Award, subject to detailed evaluation of individual research outputs.

References

  1. Elsevier. (n.d.). Scopus author details: Masoud Ranjbarnia, Author ID 25824448800. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=25824448800
  2. Zaheri, M., Ranjbarnia, M. & Goudarzy, M. (2025).Time-Dependent Tunnel Response: Analytical & Numerical Solutions for Nonlinear Post-Peak Behavior. Geotechnical and Geological Engineering.
    https://doi.org/10.1007/s10706-024-02968-1
  3. ORCID. (n.d.). Masoud Ranjbarnia — ORCID record 0000-0001-8853-2148. ORCID.
    https://orcid.org/0000-0001-8853-2148
  4. Google Scholar. (n.d.). Masoud Ranjbarnia — Google Scholar author profile.
    https://scholar.google.com/citations?user=7dZbWh4AAAAJ&hl=en
  5. Global Civil Engineering Awards. (2026). Global Civil Engineering Awards — Official Award Website.
    https://civilengineeringawards.com/

Salima ait el hocine | Geotechnical Engineering | Innovative Research Award

Posted on by Civil Engineering Awards

Innovative Research Award

Salima ait el hocine
Affiliation USTHB
Country Algeria
Google Scholar JNyxxXMAAAAJ&hl
Documents 1
Subject Area Geotechnical Engineering
Event Global Civil Engineering Awards

Salima ait el hocine

USTHB

The Innovative Research Award recognizes scholarly contributions that advance scientific understanding through originality, methodological rigor, and practical relevance. Salima ait el hocine has contributed to the field of Geotechnical Engineering through academic research that supports sustainable infrastructure development and engineering knowledge. The recognition highlights the importance of evidence-based investigation, technical competence, and continued academic engagement in addressing geotechnical challenges while encouraging future interdisciplinary collaboration.[1]

Abstract

This academic recognition page presents the professional profile of Salima ait el hocine, whose research activities are associated with Geotechnical Engineering at USTHB in Algeria. The Innovative Research Award acknowledges research characterized by scientific integrity, methodological consistency, and meaningful academic contribution. The researcher’s published work reflects an interest in improving engineering knowledge through analytical investigation and practical application. Such efforts contribute to broader understanding within civil engineering while encouraging innovation, responsible resource management, and sustainable infrastructure solutions. Continued scholarly engagement and collaboration further strengthen the relevance of this research within national and international engineering communities.[1]

Keywords

Innovative Research Award, Geotechnical Engineering, Civil Engineering, USTHB, Algeria, Soil Mechanics, Infrastructure Research, Sustainable Engineering, Engineering Innovation, Academic Research.

Introduction

Geotechnical Engineering provides essential scientific foundations for the safe planning, design, and maintenance of civil infrastructure. Researchers in this discipline investigate soil behavior, ground improvement, and engineering performance under varying environmental conditions. Academic studies strengthen engineering practice by combining experimental evidence with analytical modeling and practical evaluation. Such research contributes to improved construction reliability, sustainable development, and resilient infrastructure while supporting innovation across transportation, urban development, and environmental engineering projects worldwide.[2]

Research Profile

Salima ait el hocine is affiliated with USTHB, where academic activities focus on advancing knowledge within Geotechnical Engineering. The available scholarly record demonstrates participation in research addressing engineering challenges through systematic investigation and scientific methodology. This profile reflects dedication to technical excellence, academic responsibility, and the continuous development of engineering knowledge that supports future research initiatives and practical civil engineering applications across diverse environmental conditions.[1]

Research Contributions

The research contributions associated with this academic profile emphasize analytical thinking, scientific validation, and engineering relevance. By integrating theoretical understanding with practical investigation, the work supports improvements in geotechnical knowledge and engineering decision-making. These contributions encourage sustainable infrastructure development while promoting high-quality research practices that remain valuable for academic institutions, engineering professionals, and future interdisciplinary investigations within the broader civil engineering community.[1]

Publications

The research profile currently includes one indexed scholarly publication that represents ongoing academic engagement within Geotechnical Engineering. Published research contributes to scientific communication by presenting validated findings, technical interpretation, and engineering insights suitable for further investigation. The publication record demonstrates commitment to knowledge dissemination and provides a foundation for future collaborative research, increased scholarly visibility, and continued professional development within the engineering research community.[1]

Research Impact

Research in geotechnical engineering influences infrastructure safety, environmental sustainability, and engineering reliability by providing scientific evidence for informed technical decisions. Even early-stage publication records contribute to cumulative scientific progress through knowledge sharing and scholarly discussion. Continued research activity has the potential to expand academic influence, strengthen institutional collaboration, and support innovative engineering practices that address evolving infrastructure requirements responsibly.[2]

Award Suitability

The Innovative Research Award appropriately recognizes researchers whose work demonstrates originality, scientific discipline, and academic promise. Salima ait el hocine’s scholarly activities reflect these qualities through participation in engineering research that contributes to technical understanding and professional advancement. Recognition through this award encourages continued research excellence while supporting broader engagement with the international civil engineering and scientific research community.[1]

Conclusion

The academic profile of Salima ait el hocine reflects dedication to scholarly research within Geotechnical Engineering and demonstrates commitment to scientific advancement through responsible academic practice. The Innovative Research Award acknowledges these contributions while encouraging continued excellence, interdisciplinary collaboration, and sustained participation in engineering research that benefits both academic knowledge and practical civil engineering development.[1]

References

  1. Google Scholar. (n.d.). Scholar profile: Salima ait el hocine.
    https://scholar.google.com/citations?user=JNyxxXMAAAAJ&hl=en&oi=sra
  2. MDPI. (2026). GeoLiquefy-AI: Predicting Soil Liquefaction Potential via Deep Neural Architecture Search in Seismically Active Coastal Zones.
    https://doi.org/10.3390/land15081345

Thomas Dickmann | Geotechnical Engineering | Innovative Research Award

Posted on by Civil Engineering Awards

Innovative Research Award

Thomas Dickmann
Amberg Technologies AG
Thomas Dickmann
Affiliation Amberg Technologies AG
Country Switzerland
Scopus ID 6602296695
Documents 33
Citations 1,162
h-index 15
Subject Area Geotechnical Engineering
Event Global Civil Engineering Awards

Thomas Dickmann is recognized for his scholarly contributions to geotechnical engineering and underground surveying technologies through sustained scientific publications and industry-oriented innovation. His research demonstrates the integration of advanced monitoring techniques, precise measurement systems, and practical engineering solutions that contribute to safer infrastructure development and efficient tunnel construction. The Innovative Research Award acknowledges the significance of his academic output, research influence, and continued advancement of engineering knowledge within the international civil engineering community.[1]

Abstract

Thomas Dickmann has contributed substantially to geotechnical engineering through investigations focused on tunnel surveying, deformation monitoring, underground infrastructure, and advanced measurement technologies. His research combines engineering precision with practical field applications, supporting improved construction safety and long-term infrastructure reliability. Across thirty-three indexed publications, his work has attracted considerable academic attention, reflecting broad relevance within civil engineering disciplines. The Innovative Research Award recognizes his sustained scientific productivity, measurable research influence, and commitment to advancing engineering methodologies that bridge theoretical development with practical implementation while encouraging future innovation in geotechnical engineering and underground construction technologies worldwide.[2]

Keywords

Geotechnical Engineering, Tunnel Surveying, Underground Construction, Infrastructure Monitoring, Engineering Geodesy, Deformation Analysis, Civil Engineering, Measurement Technology, Research Innovation, Structural Monitoring.

Introduction

Geotechnical engineering requires accurate investigation, continuous monitoring, and reliable measurement methods to ensure the safety and durability of complex infrastructure projects. Thomas Dickmann’s research reflects these priorities by combining engineering science with technological innovation for underground environments. His published studies support improved decision-making throughout planning, construction, and operational phases while promoting higher standards of engineering accuracy, efficiency, and project sustainability across modern civil engineering applications.[1]

Research Profile

Affiliated with Amberg Technologies AG, Thomas Dickmann has developed an internationally recognized research profile through scholarly publications emphasizing geotechnical monitoring and engineering measurement systems. His Scopus metrics, including thirty-three publications, more than one thousand citations, and a notable h-index, demonstrate sustained academic influence and continued engagement with engineering challenges relevant to infrastructure development and underground construction technologies.[1]

Research Contributions

His research contributions emphasize precision surveying, deformation monitoring, and digital engineering technologies applied to tunnels and complex infrastructure systems. These investigations have enhanced understanding of measurement reliability, project quality assurance, and engineering safety while supporting technological improvements that benefit researchers, consultants, and construction professionals involved in large-scale geotechnical and transportation engineering projects.[2]

Publications

The publication record of Thomas Dickmann demonstrates consistent scholarly productivity in geotechnical engineering and engineering measurement science. His articles have appeared within internationally recognized academic platforms and continue to receive citations from researchers investigating underground construction, monitoring technologies, and infrastructure management. This publication history illustrates sustained scientific engagement and long-term relevance within the broader civil engineering research community.[1]

Research Impact

The measurable citation performance of Thomas Dickmann’s work indicates broad scholarly recognition and practical value across engineering disciplines. His investigations have informed subsequent research concerning underground infrastructure monitoring and precision surveying while encouraging the adoption of improved engineering practices. Such impact reflects meaningful scientific influence extending beyond individual projects into wider academic and professional communities.[1]

Award Suitability

The Innovative Research Award appropriately recognizes Thomas Dickmann for sustained scholarly excellence, influential publication metrics, and engineering innovation within geotechnical research. His achievements demonstrate a balanced combination of scientific quality, technological advancement, and professional relevance, aligning closely with the objectives of recognizing impactful research that contributes to global civil engineering knowledge and infrastructure development.[3]

Conclusion

Thomas Dickmann’s academic accomplishments illustrate the importance of integrating advanced engineering technologies with practical geotechnical applications. His sustained publication record, citation impact, and research contributions have strengthened knowledge within underground engineering and infrastructure monitoring. Recognition through the Innovative Research Award acknowledges these achievements while highlighting the continuing importance of evidence-based engineering research for future technological progress.[3]

References

  1. Elsevier. (n.d.). Scopus author details: Thomas Dickmann, Author ID 6602296695. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=6602296695
  2. Wiley Online Library. (2021). Towards the integration of smart techniques for tunnel seismic applications.
    https://doi.org/10.1002/geot.202100046
  3. Global Civil Engineering Awards. (2026). Innovative Research Award recognition information.
    https://civilengineeringawards.com/

Siau Chen Chian | Geotechnical Engineering | Outstanding Scientist Award

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Assoc. Prof. Dr Siau Chen Chian | Geotechnical Engineering | Outstanding Scientist Award

National University of Singapore | Singapore

Dr. Chian Siau Chen (Darren) is a leading geotechnical engineering scholar whose work bridges fundamental soil mechanics with innovative solutions for resilient civil infrastructure. He earned his PhD in Engineering from the University of Cambridge and holds a First-Class Honours degree in Civil and Environmental Engineering from Nanyang Technological University, where he graduated with the Singapore Contractors Association Gold Medal. Currently an Associate Professor in the Department of Civil and Environmental Engineering at the National University of Singapore, he also serves in multiple leadership roles that contribute to advancing geotechnical practice and education. His appointments include Vice Dean of Student Life at the College of Design and Engineering, Director of the Centre for Resilient Underground Infrastructure and Engineering, and President of the Geotechnical Society of Singapore. Dr. Chian’s research spans sustainable materials, ground improvement, earthquake engineering, centrifuge modelling, remote sensing, protective technologies, and post-failure field investigations. His work often integrates experimental, numerical, and field approaches to address infrastructure challenges in hazard-prone and urban environments. He has participated in post-earthquake reconnaissance missions across Asia, Africa, and South America, contributing valuable field insights to global seismic risk understanding. A widely recognized researcher and educator, Dr. Chian has received numerous accolades, including the IAAM Scientist Medal (2024), multiple NUS teaching excellence awards, and recognition among the Top 10 MIT Innovators Under 35 Asia. His distinguished service to the profession is further acknowledged through awards from the Geotechnical Society of Singapore and national accreditation bodies. Through his contributions, Dr. Chian continues to shape resilient, safe, and sustainable geotechnical engineering practices worldwide.

Profiles: Scopus | Google Scholar

Publications

Chian, S. C., Tokimatsu, K., & Madabhushi, S. P. G. (2014). Soil liquefaction–induced uplift of underground structures: Physical and numerical modeling. Journal of Geotechnical and Geoenvironmental Engineering, 140(10), 04014057.

Qin, C. B., & Chian, S. C. (2018). Kinematic analysis of seismic slope stability with a discretisation technique and pseudo-dynamic approach: A new perspective. Géotechnique, 68(6), 492–503.

Fraser, S., Raby, A., Pomonis, A., Goda, K., Chian, S. C., Macabuag, J., Offord, M., … (2013). Tsunami damage to coastal defences and buildings in the March 11th 2011 Mw9.0 Great East Japan earthquake and tsunami. Bulletin of Earthquake Engineering, 11(1), 205–239.

Chian, S. C., & Madabhushi, S. P. G. (2012). Effect of buried depth and diameter on uplift of underground structures in liquefied soils. Soil Dynamics and Earthquake Engineering, 41, 181–190.

Goda, K., Pomonis, A., Chian, S. C., Offord, M., Saito, K., Sammonds, P., Fraser, S., … (2013). Ground motion characteristics and shaking damage of the 11th March 2011 Mw9.0 Great East Japan earthquake. Bulletin of Earthquake Engineering, 11(1), 141–170.

Gholamreza Keyvani Hafshejani | Soil-structure interaction | Best Researcher Award

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Gholamreza Keyvani Hafshejani | Soil-structure interaction | Best Researcher Award

Doctoral student | Islamic Azad University | Iran

Gholamreza Keyvani Hafshejani from the Islamic Azad University, Shahrekord Branch, Iran, has focused research on the seismic response of irregular neighboring structures founded at varying embedment depths with an emphasis on soil-structure interaction. His study, published in Structures (2025), explores how differences in foundation embedment and structural irregularities affect seismic performance, a critical issue in earthquake engineering and urban structural design. The research integrates analytical and numerical simulations to assess how differential soil behavior influences dynamic responses, including displacement, inter-story drift, and base shear, under seismic excitation. Keyvani Hafshejani’s work provides valuable insights into the interaction between soil layers and structural foundations, emphasizing the importance of considering soil-structure coupling effects when designing earthquake-resistant buildings. The research outcomes serve as an important reference for engineers and researchers seeking to enhance safety and resilience in infrastructure exposed to seismic hazards. His contributions contribute to the advancement of structural engineering knowledge by offering a framework to improve design codes and develop adaptive mitigation strategies for complex urban environments. This integrated approach ensures optimized seismic performance, minimizing structural vulnerabilities while promoting sustainable urban development.

Profile: Scopus | Google Scholar
Fearuted Publications:

  • Hafshejani, G. K., Dehkordi, P. F., & Ghaderi, R. (2025). Seismic response of neighboring irregular structures seated at different embedment depths considering soil-structure interaction. Structures, 78, 109298.

  • Keyvanihafshejani, G. (2021). Shahrekord earthquake risk assessment by neuro-fuzzy way method using seismic evaluation of structures. Amirkabir Journal of Civil Engineering, 53(1), 297–312.

Mingxuan Shen | Geotechnical Engineering | Best Researcher Award

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Prof. Mingxuan Shen | Geotechnical Engineering | Best Researcher Award

Guizhou University | China

Prof. Mingxuan Shen’s research primarily focuses on the mechanical behavior, microstructural evolution, and damage mechanisms of rock–concrete composites and other geomaterials under extreme environmental and stress conditions. His studies integrate experimental and numerical methods to investigate the coupled effects of temperature, moisture, stress, and chemical environments on the durability and strength of construction materials. By employing advanced analytical tools such as nuclear magnetic resonance (NMR) and low-field NMR technology, Shen explores pore structure characteristics, water distribution, and micro-damage evolution in cement-based materials and rock-concrete interfaces. His works contribute to understanding the long-term stability and failure mechanisms of composite materials used in large-scale engineering applications such as roller-compacted concrete dams and geotechnical structures. He has also explored nonlinear creep models based on fractional calculus theory and viscoplastic models for layered rocks, which provide significant theoretical support for predicting time-dependent deformation in rock engineering. Shen’s recent studies delve into sustainable and ecological material design, including recycled concrete and mortars utilizing corn cob and wood admixtures, aiming to enhance resource efficiency and environmental performance in the construction sector. His comprehensive approach bridges material science, structural engineering, and environmental sustainability, contributing valuable insights to both academic research and engineering practice. The body of work reflects consistent innovation in modeling, testing, and simulation of composite and recycled materials, reinforcing Shen’s contributions to advancing civil and materials engineering. Mingxuan Shen has achieved 302 Citations 35 Documents 10 h-index.

Profile: Scopus | ORCID
Featured Publications

Yuan, S., Du, B., & Shen, M. (2024). Experimental and numerical investigation of the mechanical properties and energy evolution of sandstone–concrete combined body. Scientific Reports, 14, Article 53959.

Zhao, Y., Bi, J., Wang, C., Du, B., & Shen, M. (2024). Microstructure evolution and damage mechanisms of concrete-rock-composite corrosion in acid environment. Journal of Building Engineering, 93, 108336.

Shen, M., Zhao, Y., Bi, J., Wang, C., Liu, T., & Du, B. (2024). Softening properties and damage evolution of the preloaded building sandstone after exposure to high temperature. Construction and Building Materials, 421, 134970.

Zhang, K., Wang, C., Zhao, Y., Bi, J., Shen, M., & Deng, X. (2024). Study on the effect of wood admixture on the physical and mechanical properties of corn cob ecological recycled concrete. Journal of Building Engineering, 95, 109116.

Zhao, Y., Zhang, K., Wang, C., Shen, M., Bi, J., & Zhang, K. (2024). Study on the hydration reaction and pore structure of ecologically recycled mortar with corn cob aggregates. Cement and Concrete Composites, 160, 105493.

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 💡.

Professional Profile

Scopus

ORCID

Google Scholar

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.

Sadjad Naderi | Rock Mechanics | Best Researcher Award

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Dr Sadjad Naderi | Rock Mechanics | Best Researcher Award

Senior Research Associate at Imperial College London, United Kingdom

Dr. Sadjad Naderi is a Senior Research Scientist/Engineer at Imperial College London, specializing in applied solid mechanics and microstructural analysis. With over 9 years of postdoctoral experience, he holds a PhD in failure analysis of reinforced polymer composites and is a Chartered Engineer (CEng) with the Institution of Mechanical Engineers (IMechE). Dr. Naderi has made significant contributions to AI-enhanced simulations, digital twin systems, and advanced stress analysis across aerospace, civil engineering, and geothermal drilling. His work integrates AI, FEM, DEM, and multiphysics modeling to solve complex engineering challenges. He is also an experienced mentor, educator, and advocate for EDI in academia.

Professional Profile

Google Scholar

Orcid

Scopus

Education 🎓

Dr. Naderi earned his PhD in Mechanical Engineering from the University of Malaya (2011-2015), focusing on failure analysis of polymer composites. He holds an MSc in Applied Mechanics from K.N. Toosi University of Technology, Iran (2006-2009), and a BEng in Solid Mechanics from Islamic Azad University, Iran (2001-2006). His academic journey has equipped him with expertise in computational mechanics, material characterization, and advanced simulation techniques, laying the foundation for his impactful research career.

Professional Experience 💼

Dr. Naderi has held key research roles at Imperial College London, University College London, and the University of Sheffield. At Imperial, he leads projects on digital twinning, AI-enhanced simulations, and geothermal drilling optimization. His work includes developing neural network-integrated DEM models, multiphysics frameworks for rock breakage, and surrogate models for real-time drilling optimization. Previously, he pioneered concrete fracture modeling at UCL and analyzed multi-layered ceramic capacitors at Sheffield. His industry collaborations include Fervo Energy, where he developed digital twin systems for geothermal drilling.

Awards and Honors 🏆

Dr. Naderi has received numerous accolades, including the Best Paper Award at the American Rock Mechanics Association (2024) and an £80k Impact Acceleration Account grant from Imperial College (2023). He was awarded a tuition waiver and High Impact Research grant by the University of Malaya (2012-2015). His work on AI-driven simulations and digital twins has been recognized internationally, cementing his reputation as a leader in computational solid mechanics.

Research Focus 🔍

Dr. Naderi’s research focuses on AI-enhanced simulations, digital twin systems, and multiphysics modeling for material and structural analysis. He specializes in fracture mechanics, fatigue, and impact damage, with applications in aerospace, civil engineering, and geothermal drilling. His work integrates machine learning with traditional methods like FEM and DEM to optimize material design, predict structural integrity, and develop real-time monitoring systems. He is also passionate about mentoring the next generation of researchers in computational mechanics.

Publication Top Notes 📚

  1. Optimised Hammer Drilling Bit Design using Artificial Neural Networks trained by FDEM
  2. A Discrete Element Solution Method Embedded within a Neural Network
  3. Three-Dimensional Numerical Study of DTH Bit-Rock Interaction with HPWJ Downhole Slotting
  4. 3D meso-scale modelling of tensile and compressive fracture behaviour of steel fibre reinforced concrete
  5. Meso-scale modelling of compressive fracture in concrete with irregularly shaped aggregates
  6. Meso-scale modelling of static and dynamic tensile fracture of concrete accounting for real-shape aggregates
  7. Two-scale modelling of fracture of magnesium phosphate cement under bending using X-ray computed tomography characterisation
  8. A novel framework for modelling the 3D mesostructure of steel fibre reinforced concrete
  9. An integrated framework for modelling virtual 3D irregulate particulate mesostructure
  10. Three-dimensional virtual microstructure generation of porous polycrystalline ceramics
  11. Morphology characterisation of inclusions to predict the breakdown strength in electro-ceramic materials: Microstructure modelling
  12. Thermomechanical advantages of functionally graded dental posts: A finite element analysis
  13. Modeling of porosity in hydroxyapatite for finite element simulation of nanoindentation test
  14. Alternative methods to determine the elastoplastic properties of sintered hydroxyapatite from nanoindentation testing
  15. Low-velocity impact damage of woven fabric composites: Finite element simulation and experimental verification
  16. An empirical modified fatigue damage model for impacted GFRP laminates
  17. Effect of curvature and thickness of aluminum shells on the energy absorption in low velocity impact
  18. ORCHYD: Combination of High-Pressure Water Jet and Percussion to Improve Drilling Performance in Hard Rocks

Conclusion 🌟

Dr. Sadjad Naderi is a distinguished researcher and engineer whose work bridges AI, computational mechanics, and real-world engineering challenges. His innovative approaches to digital twinning, AI-enhanced simulations, and multiphysics modeling have advanced fields ranging from aerospace to geothermal drilling. With a strong commitment to mentoring and education, Dr. Naderi continues to inspire the next generation of engineers while pushing the boundaries of computational solid mechanics. His contributions have earned him international recognition, making him a leader in his field.

 

MUHAMMAD ALI | Geotechnical Engineering | Best Scholar Award

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Dr MUHAMMAD ALI | Geotechnical Engineering | Best Scholar Award

Assistant Professor at University of Engineering and Technology, Pakistan

Dr. Muhammad Ali is a distinguished civil engineer and academician with a strong focus on geotechnical engineering, climate change mitigation, and nuclear waste disposal. A Fulbright scholar, he holds a Ph.D. from Texas A&M University, USA, and an M.Sc. from The University of Tokyo, Japan. With extensive teaching and research experience, Dr. Ali has contributed significantly to sustainable engineering solutions and climate change advocacy. He is also a prolific author, mentor, and community leader, recognized for his leadership and innovation in engineering and education.

Professional Profile

Google Scholar

Education 🎓

Dr. Muhammad Ali earned his Ph.D. in Civil Engineering from Texas A&M University, USA, with a CGPA of 3.88, under the prestigious Fulbright Scholarship. He completed his M.Sc. in Geotechnical Engineering from The University of Tokyo, Japan, and a B.Sc. in Civil Engineering from the University of Engineering and Technology (UET), Pakistan, graduating in the top 5%. His academic journey began with exceptional performance in GCE Ordinary and Advanced Levels at Cambridge University, UK.

Professional Experience 💼

Dr. Ali has served as an Assistant Professor and Lecturer at UET, Pakistan, and as a Teaching Assistant at Texas A&M University. He has supervised numerous undergraduate research projects, focusing on sustainable engineering solutions. His professional experience includes geotechnical investigations, slope stabilization, and project management. He has also conducted extensive training sessions on climate change, professional ethics, and scholarship applications for students and professionals globally.

Awards and Honors 🏆

Dr. Ali has received numerous accolades, including the Fulbright Scholarship (approx. 300,000),MEXTScholarship(approx.100,000), and the US Department of State Federal Assistance Award ($15,000) for climate change education. He has been recognized for outstanding leadership, mentorship, and academic excellence, earning fellowships from Texas A&M University and awards from professional organizations like ASCE and PUAN.

Research Focus 🔬

Dr. Ali’s research focuses on geotechnical engineering, climate change mitigation, and nuclear waste disposal. His work includes gas migration through engineered barriers, freeze-thaw cycles in rocks, and sustainable soil stabilization. He also explores early warning systems for landslides and the development of green resilient buildings, aiming to address global environmental and engineering challenges.

Publication Top Notes 📚

  1. Gas Migration Phenomena Through Interfaces in Engineering Barrier Systems
  2. Study of Gas Flow through Unsaturated Scaled Barrier for Nuclear Waste Disposal
  3. A Review on Gas Migration Processes Through Engineered and Geological Barriers
  4. Prediction of Small-Strain Elastic Stiffness of Natural and Artificial Soft Rocks
  5. A Novel Index to Predict the Cost of Green Resilient Buildings
  6. Freeze-Thaw: Anisotropic Shale Characteristic Evaluation for Crack Depth Prediction
  7. Laboratory Investigation on Gas Flow Through Clay-Rock Interface

Conclusion 🌟

Dr. Muhammad Ali is a visionary engineer, educator, and researcher dedicated to advancing sustainable engineering solutions and climate change mitigation. His exceptional academic achievements, professional contributions, and leadership in global initiatives make him a role model for aspiring engineers and scholars. Through his innovative research, mentorship, and community service, Dr. Ali continues to inspire and drive positive change in the field of civil engineering and beyond.

Hytham Elwardany | Earthquake and Dynamic Engineering | Best Researcher Award

Posted on by Civil Engineering Awards

Assoc. Prof. Dr Hytham Elwardany | Earthquake and Dynamic Engineering | Best Researcher Award

Associate professor, Delta university for science and technology, Egypt

Hytham Elwardany is an Associate Professor of Structural Engineering at Delta University for Science and Technology, Egypt. With 25 years of experience in structural engineering, he specializes in earthquake engineering, seismic analysis, and structural dynamics. He is the General Manager and owner of Power Building for Engineering and Design Services and has served as an expert engineer in Egypt’s Ministry of Justice. His academic contributions include extensive research on seismic pounding and mitigation techniques, with multiple publications in leading engineering journals.

PROFESSIONAL PROFILE

Google Scholar

EDUCATION 🎓

  • Ph.D. in Structural Engineering – Tanta University (2015)
  • M.Sc. in Structural Engineering – Tanta University (2007)
  • B.Sc. in Civil Engineering – Tanta University (2000) (Graduated with Very Good, Project Grade Excellent, Ranked 8th in the Department)

EXPERIENCE 🏗

  • Associate Professor of Structural Engineering, Delta University (2016–Present)
  • General Manager & Owner, Power Building for Engineering and Design Services (2019–Present)
  • Expert Engineer, Ministry of Justice, Egypt (2005–2016)
  • Senior Engineer (Part-Time), Consulting Engineering Co. (CEC) (2008–2016)
  • Structural Engineer, General Authority for Educational Buildings, Egypt (2001–2005)

AWARDS & HONORS 🏆

  • Egyptian Engineers Syndicate Honor Ship (2001)
  • Congratulation from President Hosni Mubarak (2001)

RESEARCH FOCUS 🔬

Hytham Elwardany’s research expertise includes earthquake engineering, structural dynamics, seismic pounding, experimental methods, and reinforced concrete & steel structures. His studies emphasize the behavior of buildings under seismic loads and innovative strategies for mitigating earthquake-induced damages.

PUBLICATION TOP NOTES📚

  • Seismic pounding behavior of multi-story buildings in series considering the effect of infill panels (2017)
  • Influence of soil–structure interaction on seismic pounding between steel frame buildings (2019)
  • Experimental study on pounding between structures during damaging earthquakes (2015)
  • Mitigating seismic pounding of multi-story buildings using viscous dampers (2021)
  • New alternative techniques for strengthening deep beams with openings (2023)
  • Effect of earthquake-induced pounding on four adjacent buildings (2022)
  • Comprehensive review on seismic pounding between adjacent buildings (2024)
  • Shear strengthening of wide-shallow beams by inserted fasteners (2022)

CONCLUSION 🏅

Hytham Elwardany is a distinguished academic and expert in structural and earthquake engineering. His research on seismic pounding and mitigation techniques has made significant contributions to the field. Through teaching, consulting, and engineering practice, he continues to shape the future of structural engineering in Egypt and beyond.