Tag: Engineering

SenthilPandian M, Engineering, Young Innovators Award

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Doctorate SenthilPandian M: Assistant Professor (Sr) at Vellore Institute of Technology Chennai, India

Dr. M. Senthil Pandian is a seasoned structural engineer and academician with over 16 years of professional experience, including 12 years in teaching and research and 4 years in structural design consultancy. Currently an Assistant Professor (Senior Grade II) at Vellore Institute of Technology (VIT), Chennai, he has made significant contributions to the fields of structural analysis, composite structures, and construction technology. His work is characterized by a strong interdisciplinary approach, integrating traditional civil engineering practices with modern computational methods, smart materials, and electronics in construction applications. Known for his commitment to both academic excellence and practical innovation, Dr. Senthil Pandian has mentored numerous postgraduate students and has actively contributed to the academic and infrastructural growth of VIT.

Online Profiles

Dr. Senthil Pandian maintains active academic profiles across key research databases and platforms. His ORCID 0000-0003-0261-8616 captures a unified record of his scholarly output. His Scopus Author ID 57205443018 tracks his contributions to peer-reviewed journals indexed in Scopus. On Google Scholar (Scholar Profile), his citations reflect the impact of his work across civil engineering, materials science, and interdisciplinary research fields. These platforms collectively showcase his expertise in structural engineering, smart infrastructure systems, and construction material innovations.

Education

Dr. Senthil Pandian holds a Ph.D. in Structural Engineering from Vellore Institute of Technology (VIT), Chennai, awarded in 2020 for his research on cold-formed steel connections and moment-resisting joints. He completed his M.E. in Structural Engineering from VLB Janakiammal College of Engineering & Technology, Coimbatore, in 2010, where he developed a strong foundation in advanced concrete and steel design. His academic journey began with a B.E. in Civil and Structural Engineering from Annamalai University in 2006. His solid academic background has played a pivotal role in shaping his research and teaching philosophy, focused on practical applications and innovative design solutions.

Research Focus

Dr. Senthil Pandian’s research encompasses a wide range of interests within structural engineering, with a strong emphasis on composite and cold-formed steel structures, finite element analysis, and seismic performance of irregular buildings. He has expanded his focus to deep learning applications in structural diagnostics, and the use of stretchable electronics and reconfigurable antennas in construction monitoring. His interdisciplinary work integrates civil engineering with electronics, particularly in RF antenna design for formwork and infrastructure health monitoring. His goal is to bridge emerging technologies with traditional engineering to develop intelligent, sustainable, and adaptive structures.

Experience

With a blend of academic and industry experience, Dr. Senthil Pandian brings a holistic perspective to civil engineering. He joined VIT Chennai in 2012 and has since played key academic roles including IQAC Coordinator, School Lab In-Charge, and postgraduate research supervisor. Before entering academia, he worked with Consulting Engineering Services (I) Pvt. Ltd., New Delhi, where he was involved in high-profile projects such as the Commonwealth Games stadiums, Panipat Elevated Corridor, and IISER Campus Thiruvananthapuram. His responsibilities spanned structural design (steel trusses and RCC), retrofitting assessments, tender documentation, and feasibility studies for national and international transit systems, including the Nairobi MRTS and Chennai-Trivandrum High-Speed Rail project.

Research Timeline

Dr. Senthil Pandian’s research journey began during his postgraduate studies and intensified with his doctoral work on extended end-plate connections in cold-formed steel. From 2014 onward, he has guided approximately 50 M.Tech and 30 B.Tech projects, and currently supervises 4 Ph.D. scholars working on themes such as smart structural systems, robotic inspection devices, and machine learning applications in civil engineering. His publications span journals indexed in Scopus, SCI, and IEEE, and reflect a steady evolution from core structural mechanics to emerging technologies. Through collaboration with interdisciplinary teams, he continues to expand his research to align with the latest developments in construction innovation.

Awards & Honors

Throughout his career, Dr. Senthil Pandian has been recognized for his dedication to institutional development and research contributions. He is a Lifetime Member of the Institute for Steel Development and Growth (INSDAG) and has held several leadership roles at VIT including Concrete & Structural Lab In-Charge, Civitek Club Coordinator, and TechnoVIT Event Coordinator. He has received multiple appreciations internally for establishing advanced laboratory facilities, integrating technology into civil education, and coordinating industry-academic initiatives. His role as IQAC Coordinator further highlights his commitment to academic quality and strategic institutional growth.

Top-Noted Publication

One of Dr. Senthil Pandian’s most distinguished works is the 2023 article in Soft Computing, titled “An intelligent prediction system for predicting the types of joints on extended endplate long bolted joint using fuzzy rules.” This paper highlights his pioneering effort in applying fuzzy logic and AI to structural joint prediction, improving the accuracy and efficiency of connection classification in steel structures. The research not only addresses practical design challenges but also opens new pathways for integrating computational intelligence in civil engineering design practices. This publication exemplifies his interdisciplinary approach and has received attention for its novelty and relevance in smart structural systems.

  • Enhancing Impact Resistance of Concrete Slabs
    Advances in Science and Technology Research Journal, Aug 2025
    DOI: 10.12913/22998624/204679
    Contributors: Hemanth Kumar Anbu, Udhayanithi P., Karthikeyan Kothandapani, M. Senthilpandian

  • Trash to Treasure: A Review on Integrating Nanomaterial and Industrial Waste for Sustainable Electromagnetic Interference Shielding Composites
    Advances in Science and Technology Research Journal, Apr 2025
    DOI: 10.12913/22998624/200108
    Contributors: G. Loganathan, M. Senthilpandian

  • Utilisation of Solid Waste Polyurethane Foam as Coarse Aggregate in Concrete: An Experimental Study with Ecological and Cost Assessment
    Journal of Material Cycles and Waste Management, Jan 2025
    DOI: 10.1007/s10163-024-02106-2
    Contributors: R. Rooban Kumar, M. Senthilpandian

  • A Review of Utilization of Waste Polyurethane Foam as Lightweight Aggregate in Concrete
    Heliyon, Dec 2024
    DOI: 10.1016/j.heliyon.2024.e40479
    Contributors: R. Roobankumar, M. Senthilpandian

Strength for the Young Innovators Award – Highlighted Topics

  • Synergistic Effects of Graphene Oxide, Steel Wire Mesh and Fibers on the Impact Resistance of Preplaced Aggregate Concrete
    Journal of Building Engineering, Oct 2024
    DOI: 10.1016/j.jobe.2024.110363
    Contributors: G. Murali, K. Karthikeyan, M. Senthilpandian, Leong Sing Wong, Sallal R. Abid, A. Hemanth Kumar

  • Sustainable Concrete Innovation Using Industrial Waste
    Recognized for developing concrete incorporating solid waste polyurethane foam and nanomaterials, offering enhanced mechanical performance and ecological sustainability.
    Citation: Rooban Kumar, R., & Senthilpandian, M. (2025). Utilisation of solid waste polyurethane foam as coarse aggregate in concrete. Journal of Material Cycles and Waste Management. https://doi.org/10.1007/s10163-024-02106-2.

  • AI-Driven Structural Joint Prediction Models
    Awarded for pioneering the application of fuzzy logic and machine learning in predicting extended end-plate joint behavior in steel structures, enabling automation and precision in structural design.
    Citation: Senthilpandian, M., Santhi, M.H., et al. (2023). An intelligent prediction system for predicting the types of joints on extended endplate long bolted joint using fuzzy rules. Soft Computing. https://doi.org/10.1007/s00500-023-08561-z.

  • Smart Infrastructure with Embedded Electronics and Antennas
    Recognized for integrating stretchable electronics and microstrip antennas into concrete structures for structural health monitoring and real-time diagnostics in construction environments.
    Citation: Nivethika, S.D., & Senthilpandian, M. (2022). Microstrip patch antenna for aluminium formwork applications in construction. IC3IoT Proceedings.

  • Mentorship and Capacity Building in Civil Engineering Research
    Acknowledged for mentoring over 50 M.Tech and 30 B.Tech students and guiding Ph.D. research in smart materials, robotics, and computational mechanics, significantly advancing postgraduate research at VIT.

  • Structural Resilience and Impact-Resistant Design
    Honored for his contributions to improving the impact resistance of concrete slabs through material optimization and hybrid reinforcement strategies, enhancing safety and durability in civil infrastructure.
    Citation: Hemanth Kumar Anbu, U., Karthikeyan, K., & Senthilpandian, M. (2025). Enhancing Impact Resistance of Concrete Slabs. Advances in Science and Technology Research Journal. https://doi.org/10.12913/22998624/204679.

Yadvendra Singh, Engineering, Best Researcher Award

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Doctorate Yadvendra Singh: Post Doctoral Fellow at Oregon State University, Corvallis, Oregon, USA

Dr. Yadvendra Singh is an accomplished optical sensing specialist currently working as a Postdoctoral Fellow at the School of Electrical Engineering and Computer Science, Oregon State University, USA. With over a decade of experience in academia and research, Dr. Singh has built a strong portfolio in the field of optical fiber sensors, plasmonics, and nanophotonics. His work combines advanced theoretical modeling with hands-on experimental implementation, targeting real-world applications such as toxic chemical detection, food quality monitoring, and biosensing. His international exposure across premier Indian institutions and U.S. universities has enriched his technical competencies and collaborative research outlook. He is recognized for his meticulous sensor design using COMSOL Multiphysics and his innovative approach to integrating fiber optics with emerging plasmonic materials.

Online Profiles

Google Scholar Profile

Dr. Singh has contributed significantly to the field of optical sensing, as evidenced by his growing scholarly impact. As of now, he has accumulated over 1,050 citations, with an h-index of 17 and an i10-index of 22, reflecting both the depth and consistency of his research contributions. His work has been cited by researchers across domains such as nanophotonics, optical sensor development, and biosensing. His successful participation in high-impact projects funded by BRNS-DAE and CSIR-India, along with competitive postdoctoral appointments at prestigious institutions like IIT Roorkee, Boise State University, and Oregon State University, further underscores the recognition and value of his scientific contributions in both national and international research communities.

Education

Dr. Singh received his Ph.D. in Electronics Engineering from the Indian Institute of Technology (ISM), Dhanbad in 2021, with a focus on enhancing the performance of fiber Bragg gratings (FBG) and surface plasmon resonance (SPR)-based sensors. His doctoral work, supervised by Prof. Sanjeev Kumar Raghuwanshi, was both theoretical and experimental and included the design, simulation, and characterization of novel optical sensors. He holds a Master of Engineering in Electronic Instrumentation and Control from Thapar University (2011–2013), where he explored electromyography signal analysis using LabVIEW. His undergraduate studies were completed with a B.Tech in Electronics and Communication Engineering from U.P. Technical University in 2009. His academic foundation is further strengthened by his early schooling under the U.P. Board in India.

Research Focus

Dr. Singh’s primary research domains include optical fiber sensors, fiber optic plasmonic and Bragg grating-based configurations, nanophotonic integration, biosensor design, and sensor modeling using COMSOL Multiphysics. He is particularly interested in the development of compact, deployable sensors that utilize plasmonic effects to detect minute refractive index changes for chemical and biological analytes. His work bridges theory and experiment by designing complex sensor architectures using simulation tools such as the Wave Optics, Ray Optics, and AC/DC Modules in COMSOL, and fabricating devices for practical sensing environments. He also has a growing interest in label-free biosensing technologies, evanescent wave interactions, and sensor integration for biomedical and food safety applications.

Experience

Dr. Singh is currently a postdoctoral fellow at Oregon State University, where he is involved in advanced optical sensing and device prototyping. Prior to this, he held postdoctoral research positions at Boise State University (2022) and IIT Roorkee (2021–2022), where he contributed to the development of nanophotonic sensing platforms. His academic journey includes serving as a Teaching Assistant at IIT (ISM) Dhanbad from 2016 to 2021, where he mentored students and supported lab-based teaching while pursuing his Ph.D. Before entering research, he worked as an Assistant Professor at B.T. Kumaon Institute of Technology (2013–2016), an autonomous government college in Uttarakhand. His career began as a trainee at the Dynamic Institute of Automation and Control, where he gained foundational experience in instrumentation and industrial control systems.

Research Timeline

Dr. Singh’s research trajectory reflects a strong interdisciplinary evolution. He began his journey in biomedical instrumentation during his M.E. by working on EMG signal classification. This transitioned into photonics and sensor research during his Ph.D., where he explored fiber Bragg grating modifications and SPR-based configurations for precision sensing. Between 2016 and 2021, his work gained momentum through two major government-funded projects on chemical detection and food adulteration sensors. After completing his doctorate, he moved into postdoctoral roles where he broadened his research into integrated nanophotonics, device fabrication, and computational modeling. His progression from teaching and prototyping in India to cutting-edge sensor development in the United States illustrates his adaptability and research maturity.

Awards & Honors

Dr. Singh’s research was supported by competitive funding from premier agencies such as the Board of Research in Nuclear Sciences (BRNS-DAE) and the Council of Scientific and Industrial Research (CSIR), India. These grants are awarded to select high-impact projects and indicate his credibility as a lead researcher. Although specific personal awards are not explicitly mentioned, his postdoctoral appointments at IIT Roorkee, Boise State University, and Oregon State University reflect merit-based selection and recognition in the research community. His work continues to contribute to strategic sectors including chemical safety, biomedical diagnostics, and food quality assurance.

Top-Noted Publication

Among Dr. Singh’s notable research outputs is the development of a field-deployable fiber Bragg grating sensor for the detection of hazardous toxic chemicals, under a BRNS-DAE-funded initiative. This work integrates nanostructured materials and fiber optics for real-time monitoring applications and exemplifies innovation in harsh-environment sensing. He has also contributed to CSIR-funded research on thin-film evanescent field sensors for food adulteration analysis. His publications reflect a careful balance between numerical simulation and real-world implementation, targeting sensor performance enhancement, sensitivity optimization, and scalability.

  • Surface plasmon biosensor based on Bi₂Te₃ antimonene heterostructure for the detection of cancer cells
    A. Uniyal, B. Chauhan, A. Pal, Y. Singh
    Applied Optics, 61(13), 3711–3719 (2022)
    Citations: 71
    DOI: 10.1364/AO.449682

  • Theoretical analysis of the LRSPR sensor with enhanced FOM for low refractive index detection using MXene and fluorinated graphene
    P. S. Pandey, Y. Singh, S. K. Raghuwanshi
    IEEE Sensors Journal, 21(21), 23979–23986 (2021)
    Citations: 69
    DOI: 10.1109/JSEN.2021.3105834

  • Titanium dioxide (TiO₂) coated optical fiber-based SPR sensor in near-infrared region with bimetallic structure for enhanced sensitivity
    Y. Singh, S. K. Raghuwanshi
    Optik, 226, 165842 (2021)
    Citations: 63
    DOI: 10.1016/j.ijleo.2020.165842

  • Sensitivity enhancement of surface plasmon resonance biosensor with 2D franckeite nanosheets
    B. Karki, S. Sharma, Y. Singh, A. Pal
    Plasmonics, 17(1), 71–78 (2022)
    Citations: 52
    DOI: 10.1007/s11468-021-01470-w

  • Surface plasmon resonance biosensor sensitivity improvement employing 2D materials and BaTiO₃ with bimetallic layers of silver
    A. Uniyal, A. Pal, G. Srivastava, M. M. Rana, S. A. Taya, A. Sharma, B. R. Altahan, Y. Singh, et al.
    Journal of Materials Science: Materials in Electronics, 34(6), 466 (2023)
    Citations: 46
    DOI: 10.1007/s10854-023-10534-1

Hamdy Abdelsalam Elgohary, Engineering, Best Researcher Award

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Professor Hamdy Abdelsalam Elgohary: Professor at Mansoura University, Egypt

 

Prof. Hamdy A. El-Gohary is a renowned Professor of Reinforced Concrete Structures with over 36 years of comprehensive experience in research, teaching, and professional consulting in structural engineering. He earned his Ph.D. from Moscow Institute of Municipal Economy and Construction in 1992 and has since established a strong academic and professional reputation through numerous international publications, conference presentations, and authored books. His expertise lies in reinforced concrete design, seismic behavior of structures, and advanced analytical methods. He has supervised many M.Sc. and Ph.D. students, contributing significantly to the development of structural engineering knowledge worldwide.

Online Profiles

ORCID Profile

Prof. El-Gohary maintains an active presence on academic platforms such as ResearchGate and Google Scholar, where his extensive research output is accessible to the global engineering community. He regularly participates in international conferences and workshops, sharing insights on seismic design and structural dynamics. His profiles highlight collaborations with researchers across Europe, the Middle East, and Russia, reflecting a robust network of scholarly and industry connections.

Education

Prof. El-Gohary completed his Ph.D. in Structural Engineering at Moscow Institute of Municipal Economy and Construction, Soviet Union, in 1992, specializing in building construction and structures. He holds a Master of Science degree in Structural Engineering from Mansoura University (1987) and a Bachelor of Science in Civil Engineering from the same institution (1982). This solid academic foundation has enabled him to integrate theoretical concepts with practical engineering applications throughout his career.

Research Focus

His research centers on the behavior and design of reinforced concrete structures subjected to seismic and lateral loads, with a focus on improving earthquake resistance and structural stability. Key areas include nonlinear stability analysis of beam-columns, dynamic response of precast and coupled shear wall systems, and empirical modeling for vibration periods and crack width control. He also investigates advanced bracing systems, slender column design, and the use of modern codes such as ACI and Saudi Building Code for optimized structural performance.

Experience

With a distinguished academic career at Umm Al-Qura University and Mansoura University, Prof. El-Gohary has been deeply involved in teaching, research, and administration. His professional experience extends to leading structural design projects at Qatar Foundation and heading consulting engineering groups. He founded the Structural Consulting and Design Center in Egypt, providing expertise to engineering firms and overseeing complex infrastructure projects, bridging the gap between academia and industry.

Research Timeline

Prof. El-Gohary began his research journey in the late 1980s, focusing on experimental and theoretical studies of precast frames and seismic response. Throughout the 1990s, he expanded his work to seismic regulation reviews and dynamic analysis of multistory frames. The 2000s saw a shift toward nonlinear analysis, bracing systems, and column behavior under eccentric compression. His recent research since 2010 has emphasized empirical formula development, crack width prediction, and structural optimization compliant with international codes, culminating in influential papers and books up to 2023.

Awards & Honors

Throughout his career, Prof. El-Gohary has been honored with multiple “Who’s Who” awards recognizing his outstanding contributions to structural engineering education and research. He is a respected member of editorial boards for several journals and a frequent peer reviewer for international conferences and publications. These accolades reflect his standing as a leading expert in earthquake-resistant design and reinforced concrete structures.

Top-Noted Publication

One of Prof. El-Gohary’s most impactful publications is “Empirical Formula for the Fundamental Period of Vibration of Multi-story RC Framed Buildings,” presented at the 2013 Vienna Congress on Recent Advances in Earthquake Engineering and Structural Dynamics. This work has significantly influenced seismic design methodologies by providing practical, validated equations for structural vibration periods, aiding engineers worldwide in improving building safety and code compliance.

A Simplified Trilinear Concrete Stress–Strain Curve: Energy-Based Modeling of Experimental Data Compliant with Various Codes

Journal of Umm Al-Qura University for Engineering and Architecture
2025-06 | Journal Article
DOI: 10.1007/s43995-025-00117-0
In this article, Prof. El-Gohary proposes a simplified trilinear stress–strain curve for concrete, developed using an energy-based modeling approach. The model is grounded on experimental data and complies with various international concrete codes. This work aims to offer more accurate predictions of concrete behavior under stress, enhancing the design and safety of structural elements.

Evaluation of the Dynamic Characteristics of Coupled Shear Wall System under Seismic Loads

Engineering, Technology & Applied Science Research (ETASR)
2025-06-01 | Journal Article
Contributors: Hamdy A. Elgohary, Hytham Alhunami, Rabeea W. Bazuhair
This study evaluates the dynamic behavior of coupled shear wall systems subjected to seismic forces. It presents a comprehensive analysis of the system’s response, incorporating conceptualization, formal analysis, and detailed investigations. The article explores the system’s structural resilience under varying seismic conditions and offers insights into improving design practices for earthquake-resistant buildings.

Refined Nonlinear Estimation of Effective Flexural Rigidity in Reinforced Concrete Beams Using Curvature Integration

Engineering, Technology & Applied Science Research (ETASR)
2025-04 | Journal Article
Prof. El-Gohary introduces a refined approach to estimating the effective flexural rigidity of reinforced concrete beams, utilizing curvature integration. This nonlinear method provides a more accurate representation of beam behavior under loading, offering a valuable tool for structural engineers designing reinforced concrete beams subjected to complex bending moments.

Refined Span-to-Depth Ratio Expressions for One-Way Slabs Aligned with ACI-318 Deflection Limits

Journal of Umm Al-Qura University for Engineering and Architecture
2025-03-07 | Journal Article
In this paper, Prof. El-Gohary presents refined expressions for the span-to-depth ratio of one-way slabs, ensuring alignment with ACI-318 deflection limits. The study focuses on improving design parameters for reinforced concrete slabs, ensuring compliance with deflection criteria while optimizing structural efficiency and safety.

Punching Shear Revised Equations for Edge Column-Slab Joints Complying with Different Current Codes

Innovative Infrastructure Solutions
2025-02-11 | Journal Article
DOI: 10.1007/s41062-024-01822-w
Contributors: Hamdy A. Elgohary, Mohamed A. El Zareef
This article revises existing equations for evaluating punching shear at edge column-slab joints. By considering compliance with multiple modern design codes, the study enhances the reliability of current methods for predicting punching shear behavior and improving structural safety in reinforced concrete buildings.

Atulkumar Manchalwar, Engineering, Best Researcher Award

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Doctorate Atulkumar Manchalwa: Assistant Professor at AISSMS College of Engineering Pune, India

Dr. Atulkumar Anil Manchalwar is a Structural Engineering expert with a primary focus on seismic hazard assessment and earthquake response control of buildings. With a Ph.D. from Visvesvaraya National Institute of Technology (VNIT), Nagpur, he has dedicated his career to enhancing the seismic resilience of reinforced concrete structures. He has a reputation for his innovative work on performance-based seismic analysis, optimization of metallic dampers, and the design of base isolation systems. Dr. Manchalwar is committed to exploring new frontiers in earthquake engineering and mentoring the next generation of engineers.

Online Profiles

  • Scopus Profile
    Access Dr. Manchalwar’s research output, citations, and co-authors through his comprehensive Scopus profile.

  • Google Scholar Profile
    View Dr. Manchalwar’s Google Scholar profile to explore his top-cited papers and academic contributions.

  • Research Impact Metrics

    • Citations by Documents: Dr. Manchalwar’s 47 documents have been cited 70 times, indicating a strong influence in his field of study.

    • h-index: An h-index of 5 means that Dr. Manchalwar has 5 papers each with at least 5 citations, reflecting a consistent academic contribution to seismic engineering and structural dynamics.

Education

Dr. Manchalwar’s educational journey began with a Bachelor’s degree in Civil Engineering from Babasaheb Naik College of Engineering, Pusad, where he graduated in 2010 with a solid academic record (70.38%). He pursued his Master’s in Structural Engineering at Kavikulguru Institute of Technology and Science, Ramtek, where he was awarded the 5th rank in his university. His academic excellence culminated in a Ph.D. at VNIT Nagpur, where his research focused on seismic response control of buildings using supplementary devices. His doctoral studies were supervised by renowned experts, and his work continues to shape the future of structural engineering.

Research Focus

Dr. Manchalwar’s research spans multiple domains within Structural Engineering, with a primary emphasis on seismic hazard assessment, earthquake response control, and vulnerability analysis of RC structures. His pioneering work includes optimizing seismic response through devices like metallic dampers, base isolation techniques, and soil-structure interaction models. Additionally, he investigates how structural dynamics can be leveraged to mitigate damage in buildings during seismic and blast events. His research continues to influence the design of more resilient infrastructures, particularly in seismic zones.

Experience

Dr. Manchalwar has an extensive academic career spanning over a decade. He currently serves as a faculty member at AISSMS College of Engineering, Pune. He has previously taught at institutions such as Gokaraju Rangaraju Institute of Engineering and Technology, Hyderabad, and G H Raisoni College of Engineering, Nagpur. His academic roles involve teaching core subjects like Earthquake Engineering, Structural Dynamics, and Prestressed Concrete Structures at both undergraduate and postgraduate levels. In addition to teaching, he has held multiple administrative roles, including NAAC and NBA accreditation coordination and as the IIC Department Coordinator. He is also involved in organizing hackathons, technical events, and innovation activities within his academic community.

Research Timeline

  • 2013-2019: Ph.D. Research (VNIT Nagpur):
    Dr. Manchalwar’s doctoral research concentrated on seismic response control using supplementary damping devices such as metallic dampers and isolators. His work utilized advanced structural analysis tools like SAP2000 and MATLAB to model and simulate the effects of different damping strategies on the performance of RC buildings under seismic loads.

  • 2019-Present: Post-Ph.D. Research:
    After completing his Ph.D., Dr. Manchalwar continued exploring the dynamic behavior of buildings, focusing on response control under both seismic and blast loading conditions. His ongoing projects investigate the efficacy of hybrid damping systems, base isolation systems, and the optimization of structural elements to reduce vulnerability to natural and man-made forces.

Awards & Honors

Dr. Manchalwar’s academic and research accomplishments have been widely recognized. Some of his most notable awards include:

  • Dr. Jai Krishna Prize by The Institution of Engineers (India) for exceptional academic performance in his field.

  • Top Performing Mentor award from NPTEL for his contributions to online teaching and mentoring of students in Civil Engineering.

  • University ranks during his academic tenure: 5th rank in M.Tech and several top placements in undergraduate competitions.

Top-Noted Publication

Dr. Manchalwar has authored and co-authored numerous influential publications in top-tier journals and conferences. Some of his most significant works include:

  1. “Performance of RC Structures Equipped with Steel and Aluminium X-Plate Dampers” – Journal of Institute of Engineers India Series A, 2016. This paper analyzes the effectiveness of different damper materials in enhancing the seismic performance of RC structures.

  2. “Seismic Response Control of Building with Optimal Location of Metallic Damper” – Structures and Buildings, 2019. In this paper, Dr. Manchalwar introduces methods for optimizing damper placement to maximize seismic performance.

  3. “Seismic Performance of Structure with Isolated Foundation Using U-shape Steel Damper as an Isolator” – Soil Mechanics & Foundation Engineering, 2020. This work focuses on improving building resilience by utilizing advanced isolation techniques.

  4. “Vibration Control of Structure Using Inelastic Tuned Mass Damper” – Asian Journal of Civil Engineering, 2024 (Accepted). A cutting-edge study on the application of inelastic tuned mass dampers to control structural vibrations.

His work has been published in leading SCI and Scopus-indexed journals, contributing valuable insights to the field of earthquake engineering.

Research Impact & Innovations

Beyond publications, Dr. Manchalwar has significantly impacted the industry with his innovative approaches. His patent on “Water Distribution Apparatus with Inbuilt Flow Rate Control Mechanism” (2024), and others focusing on plant monitoring and railway wagon load monitoring, illustrate his commitment to practical applications of engineering solutions. His innovations are aimed at improving the efficiency, safety, and sustainability of structural and civil engineering systems.

Filippo Laganà, Engineering, Best Innovator Award

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Doctorate Filippo Laganà: Research fellow at University Magna Graecia Catanzaro, Italy

Filippo Laganà is a university lecturer and researcher with expertise in digital electronics, biomedical measurements, and environmental engineering. Currently, he is a lecturer at the University ‘Magna Graecia’ of Catanzaro, where he specializes in subjects related to biomedical and computer engineering. Filippo has a multidisciplinary background, with significant contributions in industrial engineering, environmental acoustics, and signal processing. He is passionate about developing advanced electronic systems for biomedical applications, particularly focusing on sensors for biopotential acquisition in ECG, ICG, and EMG.

Online Profiles

ORCID Profile

Filippo maintains an active presence on academic platforms such as ResearchGate and Google Scholar, where he shares his scientific publications and ongoing research efforts. His online professional profiles reflect a commitment to both education and advanced research in the fields of electronics and biomedical engineering. He is also affiliated with various academic and engineering networks, ensuring his work reaches a global audience in the field of industrial and biomedical engineering.

Education

Filippo holds a Ph.D. in Biomedical Engineering and Computer Science from the University ‘Magna Graecia’ of Catanzaro, where he conducted pioneering research on bio-inspired ultrasonic systems for time-of-flight detection. He also completed a second-level master’s degree in Information & Communication Technology (ICT) at the University for Foreigners ‘Dante Alighieri’ of Reggio Calabria. His academic journey includes a variety of specialized courses, such as psychopedagogy, environmental acoustics, and safety engineering, reflecting his broad interdisciplinary expertise.

Research Focus

Filippo’s research primarily revolves around the development and application of electronic systems for healthcare and environmental engineering. He focuses on sensors and biopotential acquisition for diagnostic tools like ECG, ICG, and EMG. His work integrates soft computing techniques, signal processing algorithms, and non-destructive testing methods to improve measurement accuracy and system reliability. Additionally, his research explores environmental monitoring, with a particular interest in electromagnetic wave propagation and safety standards.

Experience

Filippo’s professional experience spans academia and public sector work. As a university lecturer, he teaches courses in digital electronics and biomedical measurements while also conducting significant research. Prior to his academic roles, he worked as a civil servant at the Metropolitan City of Reggio Calabria, where he led projects in workplace safety, environmental protection, and police planning. His broad skill set includes technical leadership, project management, and educational roles, enabling him to bridge research, education, and practical applications in engineering.

Research Timeline

Filippo’s research career began during his time at the Mediterranea University of Reggio Calabria, where he contributed to projects on non-destructive testing and electromagnetic compatibility. His Ph.D. research focused on bio-inspired ultrasonic systems, a topic that continued to shape his work. In recent years, his focus has shifted towards biomedical sensor systems, leading to his current research fellowship at the University ‘Magna Graecia’ of Catanzaro. His research is ongoing, with a clear emphasis on improving healthcare technology and environmental monitoring.

Awards & Honors

Filippo has earned several academic distinctions and certifications throughout his career. Notably, he graduated with top honors in multiple programs, including his Ph.D. and Master’s degrees. He received the “110/110 cum Laude” grade for his Postgraduate Course in Psychopedagogy and Didactics for Specific Learning Disorders. He has also contributed to various scientific publications that have been widely recognized within the research community, showcasing his significant impact in the field of engineering.

Top-Noted Publication

One of Filippo’s most notable publications is “Evaluating Support Vector Machines for Path Loss Estimation on Urban Environments,” presented at the 19th Italian Workshop on Neural Networks in 2009. This work, which explored the application of machine learning algorithms to electromagnetic signal propagation, received widespread recognition for its innovative approach. His other influential works include contributions to studies on non-destructive testing and the modeling of electromagnetic wave propagation, which have enhanced the understanding of environmental and engineering systems.

  • Integration of LSTM and U-Net Models for Monitoring Electrical Absorption with a System of Sensors and Electronic Circuits
    IEEE Transactions on Instrumentation and Measurement | 2025
    DOI: 10.1109/TIM.2025.3573363
    Contributors: Danilo Pratticò, Filippo Laganà, Giuseppe Oliva, Antonino S. Fiorillo, Salvatore Andrea Pullano, Salvatore Calcagno, Domenico De Carlo, Fabio La Foresta
    This paper presents an innovative approach by combining Long Short-Term Memory (LSTM) and U-Net deep learning models for the effective monitoring of electrical absorption in systems equipped with sensors and electronic circuits. The hybrid model provides significant advancements in real-time monitoring and prediction, demonstrating high accuracy and efficiency.

  • FEM-Based Modelling and AI-Enhanced Monitoring System for Upper Limb Rehabilitation
    Electronics | 2025-05-31
    DOI: 10.3390/electronics14112268
    Contributors: Filippo Laganà, Diego Pellicanò, Mariangela Arruzzo, Danilo Pratticò, Salvatore A. Pullano, Antonino S. Fiorillo
    This article focuses on a FEM-based (Finite Element Method) model combined with AI techniques to enhance the monitoring system for upper limb rehabilitation. It emphasizes the integration of smart technology to improve the rehabilitation process for patients, combining biomechanics with real-time AI-based analysis.

  • MEMS and IoT in HAR: Effective Monitoring for the Health of Older People
    Applied Sciences | 2025-04-14
    DOI: 10.3390/app15084306
    Contributors: Luigi Bibbò, Giovanni Angiulli, Filippo Laganà, Danilo Pratticò, Francesco Cotroneo, Fabio La Foresta, Mario Versaci
    This publication highlights the use of Micro-Electromechanical Systems (MEMS) and the Internet of Things (IoT) for Health and Activity Recognition (HAR) to monitor the health of elderly individuals. The research explores advanced technologies aimed at improving health monitoring and early detection of potential health issues in older populations.

  • Smart Electronic Device-Based Monitoring of SAR and Temperature Variations in Indoor Human Tissue Interaction
    Applied Sciences | 2025-02-25
    DOI: 10.3390/app15052439
    Contributors: Filippo Laganà, Luigi Bibbò, Salvatore Calcagno, Domenico De Carlo, Salvatore A. Pullano, Danilo Pratticò, Giovanni Angiulli
    This study examines the use of smart electronic devices to monitor Specific Absorption Rate (SAR) and temperature variations within human tissue during indoor interactions. It contributes to the safety and effectiveness of electronic device usage, particularly for medical and wellness applications.

  • A Soft Computing Approach for Sensory Analysis with Thermographic Techniques for Structural Monitoring of Bronze Statues
    Book Chapter | 2024
    DOI: 10.1007/978-3-031-74716-8_16
    Contributors: Danilo Pratticò, Salvatore Calcagno, Fabio Gattuso, Filippo Laganà, Giuseppe Oliva, Salvatore A. Pullano, Fabio La Foresta
    This book chapter explores the integration of soft computing and thermographic techniques to monitor the structural integrity of bronze statues. It offers an innovative solution for cultural heritage preservation, using sensory and computational methods to detect degradation and potential risks to the statues.

Strengths for the Best Innovator Award

Filippo Laganà stands out as a leading innovator in the fields of biomedical and environmental engineering, with a robust track record of groundbreaking contributions. His multidisciplinary expertise, spanning digital electronics, biomedical measurements, and environmental engineering, provides him with a unique ability to develop innovative solutions across multiple domains. Here are some key strengths that make him an exceptional candidate for the Best Innovator Award:

  1. Cutting-Edge Research and Technology Development
    Filippo has consistently pushed the boundaries of scientific and technological innovation, particularly in the development of biomedical sensors and advanced monitoring systems. His pioneering work on integrating LSTM and U-Net models for real-time monitoring of electrical absorption is a prime example of how he leverages state-of-the-art machine learning techniques to enhance the effectiveness of sensor systems. This hybrid model has already demonstrated considerable improvements in accuracy and efficiency, significantly advancing the field of electrical absorption monitoring.

  2. Interdisciplinary Expertise
    With a solid academic background and experience in industrial engineering, environmental acoustics, and signal processing, Filippo approaches problems from a wide-ranging perspective. His work in environmental monitoring—ranging from MEMS-based systems to electromagnetic wave propagation—has enhanced both safety and efficiency in real-world applications, from healthcare to public health. His understanding of both biomedical and environmental engineering allows him to innovate in contexts that require cross-disciplinary knowledge and integration.

  3. Impactful Publications and Research
    Filippo has published multiple high-impact research articles, including his recent contributions to IEEE Transactions on Instrumentation and Measurement and Applied Sciences. His research on AI-enhanced systems for upper limb rehabilitation, MEMS for elderly health monitoring, and SAR and temperature variations in human tissue interaction demonstrates his ability to develop systems with immediate real-world applications. These studies contribute not only to academic knowledge but also to practical solutions that have the potential to revolutionize healthcare and public safety.

  4. Commitment to Advancing Healthcare and Environmental Safety
    A key strength lies in Filippo’s ability to solve pressing societal problems. His work in healthcare technology, particularly in biopotential acquisition for ECG, ICG, and EMG, aims to improve diagnostic capabilities in clinical settings. Similarly, his research in environmental acoustics and non-destructive testing helps preserve cultural heritage while also ensuring public health safety. His holistic approach places significant emphasis on human well-being and safety in both medical and environmental contexts.

  5. Leadership in Education and Mentorship
    As a lecturer at the University Magna Graecia of Catanzaro, Filippo has not only contributed to the academic community but also mentored the next generation of engineers. His role in teaching and guiding students in digital electronics and biomedical measurements reflects his deep commitment to advancing education and fostering innovation through mentorship.

  6. Global Influence and Networking
    Filippo’s active involvement in academic networks, such as ResearchGate and Google Scholar, as well as his collaboration with a wide range of engineers and researchers across the globe, ensures that his work reaches a diverse audience. His ability to network and collaborate on interdisciplinary projects contributes to the global dissemination of innovative ideas and solutions.

  7. Awards and Academic Excellence
    Filippo’s academic achievements, including his “110/110 cum Laude” graduation in psychopedagogy and his top honors in biomedical engineering, highlight his consistent pursuit of excellence. These accolades underscore his dedication to rigorous scientific exploration, innovative thinking, and educational impact.

Fulin Zhou, Engineering, Best Researcher Award

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Doctorate Fulin Zhou: Associate Professor at Shanghai Jiao Tong University, China

Dr. Fulin Zhou is an Associate Professor at the School of Ocean and Civil Engineering at Shanghai Jiao Tong University, specializing in underwater acoustics. His research explores both theoretical and experimental aspects of acoustic wave propagation and scattering, with a focus on complex structures such as inflatable systems, cylindrical shells, and acoustic black holes. With a strong foundation in mechanical and ocean engineering, Dr. Zhou has made significant contributions to underwater detection technologies, structural acoustics, and sonar system development. He has published extensively in peer-reviewed journals and frequently collaborates with domestic and international researchers to address critical challenges in underwater sensing and acoustic modeling.

Online Profiles

Scopus Profile

ORCID Profile

Although Dr. Zhou does not currently maintain an official LinkedIn or academic personal website, his work is accessible through institutional platforms and major academic databases such as Elsevier, Springer, and IEEE Xplore. His publications can be found by searching his name on Google Scholar or institutional repositories. He is actively engaged with the research community through academic conferences, journal editorial activities, and collaborative research programs.

Total Publications (Scopus-indexed): 26
Citations: 69 (by 55 documents)
h-index: 6

Education

Dr. Zhou received his Ph.D. in Underwater Acoustics from the School of Ocean and Civil Engineering at Shanghai Jiao Tong University in June 2019. During his doctoral studies, he focused on acoustic scattering theory and its applications in underwater environments. His academic training combines advanced fluid dynamics, structural mechanics, and signal processing, providing a multidisciplinary platform for addressing complex acoustic phenomena. His commitment to academic excellence has been demonstrated through consistent scholarly output and rigorous peer-reviewed research since his graduation.

Research Focus

Dr. Zhou’s research centers on underwater acoustics, with special emphasis on the acoustic behavior of submerged elastic and composite structures. He investigates how sound waves interact with objects such as cylindrical shells, inflatable bodies, and structures containing acoustic black holes, aiming to improve sonar detection and underwater communication techniques. His work also includes the development of acoustic barcodes for underwater target identification, scattering pattern modeling at low frequencies, and understanding bistatic and subcritical scattering properties. His research supports both theoretical advancements and real-world engineering applications, particularly in ocean exploration, defense technology, and maritime structural design.

Experience

Since joining Shanghai Jiao Tong University, Dr. Zhou has progressed from Assistant Professor to Associate Professor, reflecting his academic contributions and leadership in research. He has led multiple research projects funded by national science foundations and internal university grants. His responsibilities include supervising postgraduate research, publishing high-impact papers, contributing to curriculum development, and collaborating with interdisciplinary teams. Beyond his academic duties, he regularly participates in technical symposiums and serves as a reviewer for prominent journals in acoustics and marine engineering.

Research Timeline

Dr. Zhou’s research trajectory began with foundational work during his Ph.D. on acoustic backscattering from submerged structures. From 2019 to 2022, his focus expanded into multi-shell acoustic interactions and low-frequency scattering analysis. In 2023, he presented his findings at the International Conference on Acoustics in Sydney, marking a significant milestone in his international academic engagement. Between 2023 and 2025, his work has evolved into more applied areas, including acoustic material design and experimental verification of inflatable underwater structures, leading to several high-impact publications and recognition within the field.

Awards & Honors

Dr. Zhou has received internal commendations from Shanghai Jiao Tong University for academic excellence and has been recognized for his contributions to research in ocean and civil engineering. While specific national or international awards have not been listed, his work’s impact is evident through citations, peer recognition, and inclusion in prestigious journals such as Applied Acoustics, Physics of Fluids, and Ocean Engineering. His role as a corresponding author on several collaborative studies reflects his leadership in guiding innovative and interdisciplinary research.

Top-Noted Publication

One of Dr. Zhou’s most recognized works is the 2025 paper titled “Flexible Inflatable Structures in Underwater Acoustics: Scattering Experiments”, published in Applied Acoustics. This study explored the acoustic scattering properties of inflatable underwater structures, offering a novel approach to sonar stealth and identification applications. The research combined experimental data and simulation results to demonstrate how flexible, pressure-sensitive surfaces interact with underwater sound waves. This paper has been widely cited and praised for its originality, technical rigor, and potential impact on both military and civilian underwater technologies.

1. Zhou, F., Wang, Z., Liu, Z., Xiong, J., Peng, Z., & Fan, J. (2025). Flexible inflatable structures in underwater acoustics: Scattering experiments. Applied Acoustics, Article 110825. https://doi.org/10.1016/j.apacoust.2025.110825
ISSN: 0003-682X / 1872-910X | EID: 2-s2.0-105005006023
This paper introduces innovative acoustic scattering experiments involving flexible inflatable underwater structures, contributing novel insights into stealth design and target identification.

2. Li, B., Zhou, F., Wang, Z., Yang, Y., Fan, J., & Wang, B. (2025). Bistatic subcritical scattering characteristics of a buried solid-filled cylindrical shell at low-frequency. Ocean Engineering, Article 121542. https://doi.org/10.1016/j.oceaneng.2025.121542
ISSN: 0029-8018 | EID: 2-s2.0-105005105253
A comprehensive low-frequency scattering analysis offering valuable implications for sonar detection of buried objects in marine environments.

3. Wang, W.-T., Wang, B., Fan, J., & Zhou, F.-L. (2024). Acoustic radiation characteristics of partially immersed and filled cylindrical shell (部分浸没充液无限长圆柱壳声辐射特性研究). Journal of Ship Mechanics, Issue 1, 2024. https://doi.org/10.3969/j.issn.1007-7294.2024.01.013
ISSN: 1007-7294 | EID: 2-s2.0-85182747297
This research explores acoustic radiation from cylindrical shells under partial immersion, with applications in ship noise modeling and control.

4. Xu, S., Peng, Z., Zhou, F., Miu, X., & Ke, H. (2024). Prediction Method and Characteristics of Static Acoustic Scattering for Marine Composite Propellers. Archives of Acoustics, 49(1). https://doi.org/10.24425/aoa.2024.148815
ISSN: 0137-5075 / 2300-262X | EID: 2-s2.0-85213816482
A predictive model for analyzing static acoustic scattering of marine propellers, aiding in noise signature reduction of naval vessels.

5. Ke, H., Peng, Z., Zhou, F., & Chen, T. (2024). Prediction Method and Characteristics of Static Acoustic Scattering from Marine Propellers (船用螺旋桨静态声散射预报方法及特性). Acta Armamentarii (兵工学报). https://doi.org/10.12382/bgxb.2023.0017
ISSN: 1000-1093 | EID: 2-s2.0-85195030656
This article complements previous work on marine acoustics with a focus on propeller noise prediction methods and their implications in underwater acoustics.

Nisarg Purabiarao, Engineering, Best Researcher Award

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Doctorate Nisarg Purabiarao: Research Scholar at Kyushu Institute of Technology, Japan

Purabiarao Nisarg Hirens is a materials science researcher specializing in the development of next-generation biodegradable and wearable electronics. Currently serving as a MEXT-funded Research Scholar at the Kyushu Institute of Technology, Japan, he is actively engaged in designing and optimizing flexible energy devices including piezoelectric nanogenerators and quantum dot solar cells. His research integrates both experimental fabrication and computational simulations to enhance device performance, sustainability, and integration into real-world applications. With publications in high-impact journals and presentations at international conferences, he has emerged as a promising early-career researcher in flexible electronics and sustainable energy systems.

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ORCID Profile

Education

Nisarg is currently completing his Master of Technology in Biodegradable Electronics at the Kyushu Institute of Technology, with an expected graduation in September 2025. He is set to begin his Ph.D. in the same field and institute from October 2025, continuing under the Japanese Government’s MEXT Research Scholarship. His education combines interdisciplinary knowledge in materials science, nanotechnology, organic electronics, and energy harvesting systems. His academic training also includes prior research work at the Indian Institute of Technology, Indore (IIT Indore), where he developed key foundational skills in thin-film fabrication and semiconductor materials.

Research Focus

Nisarg’s primary research revolves around the fabrication and performance enhancement of flexible, biodegradable electronic devices such as piezoelectric nanogenerators, organic thin-film transistors (OTFTs), and quantum dot solar cells. He is especially interested in surface/interface engineering, defect tuning, lattice strain modulation, and polymer semiconductors like P3HT. His work also explores sustainable alternatives in device architecture for environmentally friendly, self-powered systems. The broader objective of his research is to enable practical applications of these devices in areas such as wearable health monitoring, portable energy sources, and green electronics.

Experience

Over the past four years, Nisarg has built a robust profile in both theoretical and applied research. At IIT Indore, he worked on nanomaterials for piezoelectric applications, gaining hands-on experience in hydrothermal synthesis, UV laser texturing, and material characterization. Since joining Kyutech in 2023 as a MEXT Research Scholar, he has led and co-authored several high-impact studies on ZnO-based energy harvesters and quantum dot solar cells. He has collaborated with interdisciplinary teams, presented internationally, and integrated simulation tools like SCAPS-1D to complement experimental findings. His research experience reflects a blend of innovation, sustainability, and practical device engineering.

Research Timeline

Nisarg’s research progression demonstrates a structured and impactful trajectory. In 2022, he began working on nanogenerators using laser-textured substrates at IIT Indore. In 2023, he transitioned to Japan under the MEXT scholarship and joined Kyutech, expanding his scope to include colloidal quantum dots and organic semiconductors. In 2024 alone, he co-authored three journal articles and presented at six notable international conferences, including ISOME and SAES. His Ph.D. starting in October 2025 will focus on biodegradable device integration for real-world wearables and low-power electronics, further pushing the boundary of eco-friendly energy solutions.

Awards & Honors

Nisarg has received multiple accolades recognizing his academic excellence and research contributions. He was awarded the prestigious MEXT Scholarship by the Government of Japan for both his M.Tech and upcoming Ph.D. studies, covering full tuition and research support. He won the Best Poster Award at the International Conference on New Materials for Industry and Medicine (NMIM-24) in 2024 for his work on ZnO-based nanogenerators. He has also been recognized as a lead presenter at several international events across Japan and India for his innovative contributions to the fields of organic semiconductors and piezoelectric energy harvesting.

Top-Noted Publication

Among his notable works, the 2023 publication titled “Investigations on the Effect of Laser Texturing of Kapton Polyimide on the Piezoelectric Response of ZnO-Based Nanogenerators” in Physica Status Solidi A stands out for its pioneering approach in enhancing nanogenerator performance. The study demonstrated a more than threefold improvement in output voltage and current by using laser-textured polyimide substrates, offering a practical path for high-efficiency, flexible energy harvesters. This work has been widely cited and appreciated for its experimental rigor and direct applicability in self-powered electronics and wearable devices.

  • Purabiarao, N. H., Bhargava, K., & Pandey, S. S. (2025). Enhancing the performance of PbS colloidal quantum dot solar cell: A computational study on absorber crystallinity and interfacial defect engineering. Next Materials, 8, 100689. https://doi.org/10.1016/j.nxmate.2025.100689

  • Purabiarao, N. H., Lahane, T. K., Agarwal, J., Sahu, A., Singh, V., & Palani, I. A. (2023). Investigations on the Effect of Laser Texturing of Kapton Polyimide on the Piezoelectric Response of ZnO‐Based Nanogenerators. Physica Status Solidi (a), 2300255. https://doi.org/10.1002/pssa.202300255

Mahamat Nour Issa Abdallah, Engineering, Young Researcher Award

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Asst. Prof. Mahamat Nour Issa Abdallah: Student at Beijing Jiaotong University, China

 

Nourissa Abdallah is a dedicated civil engineer with a strong academic foundation and diverse practical experience across China and the United Arab Emirates. He has demonstrated expertise in site supervision, fit-out inspection, project documentation, and coordination with regulatory authorities. His professional journey reflects a consistent focus on project delivery, construction quality assurance, and stakeholder communication. Nourissa is recognized for his organizational skills, multilingual communication abilities (English, Arabic, Mandarin), and in-depth understanding of local construction standards. He is currently serving as the Engineering Department Supervisor at Origin International Management L.L.C, where he leads multidisciplinary coordination efforts for commercial fit-out and building approval projects.

Online Profiles

ORCID Profile

Nourissa maintains an active online presence through LinkedIn, where he shares insights on construction management, authority approval processes, and project execution strategies. He is open to networking with professionals and industry leaders in the fields of engineering, architecture, and infrastructure development.

Education

  1. Nourissa earned his Bachelor of Science degree in Civil Engineering from Shenyang Jianzhu University, China, in 2020. During his undergraduate years, he developed strong foundational skills in structural analysis, construction materials, and project supervision. Currently, he is pursuing a Master’s degree in Civil Engineering at Beijing Jiaotong University, with a focus on advanced construction management and sustainable urban infrastructure. His education blends technical coursework with practical case studies, preparing him for high-impact roles in engineering and development sectors in international environments.

Research Focus

Nourissa’s research interests revolve around modern civil engineering practices that integrate smart technologies, energy efficiency, and safety systems into commercial and residential building projects. He is particularly focused on the optimization of fit-out procedures, fire safety compliance (such as FACP and Hassantuk systems), and the alignment of shop drawing designs with regulatory authority standards like ADDC, ADCD, and DMT. He is also exploring how digital tools and BIM (Building Information Modeling) can improve coordination, reduce project delays, and ensure long-term sustainability in urban construction.

Experience

Over the span of four years, Nourissa has held multiple technical and supervisory roles in the construction sector. He started as an intern at Shenyang ZhongHeng Construction Engineering L.L.C, where he gained exposure to quality control, drawing reviews, and site inspections. He then served as a Site Engineer at DHCN Construction L.L.C in Dubai, managing daily reports, material requests, inspection coordination, and NCR follow-ups. Currently, he is employed as the Engineering Department Supervisor at Origin International Management L.L.C in Abu Dhabi. In this role, he manages authority submissions, organizes annual shop inspections, handles tenant billing for utilities, and ensures timely project handovers to clients. His cross-functional skills bridge engineering execution with regulatory compliance.

Research Timeline

  • 2019–2020: Participated in an internship at Shenyang ZhongHeng Construction Engineering, engaging in technical drawing reviews, labor monitoring, and on-site QC reporting.
  • 2021–2022: Worked as a Site Engineer with DHCN Construction L.L.C in Dubai, focusing on material estimation, RFI submissions, NCR resolutions, and site supervision of security fencing and concrete works.
  • 2022–Present: Serves as Engineering Department Supervisor at Origin International in Abu Dhabi, responsible for project documentation, coordination with consultants, shop drawing approvals, and managing inspection processes with local authorities such as ADDC and ADCD.

Awards & Honors

Throughout his professional journey, M. Nourissa has received internal recognition from project managers and department heads for his proactive problem-solving and reliable execution. At Origin International Management L.L.C, he was commended for successfully managing multiple authority approvals and efficiently coordinating fire system installations across complex commercial projects. He has also been appreciated for his leadership in handling cross-functional teams, his commitment to safety standards, and his effective communication with clients and contractors.

Top-Noted Publication

While Nourissa’s career has been heavily focused on practical site engineering and project execution, he is currently drafting a technical report titled “Fit-Out Compliance and Fire Safety Integration in UAE Commercial Projects”. This upcoming publication will highlight challenges and solutions in obtaining authority approvals, the role of engineering documentation in fire control compliance (Hassantuk & FACP systems), and lessons learned from his experience managing fit-out inspections in Abu Dhabi. The publication aims to support engineers and project managers working within the UAE’s rigorous regulatory framework.

One of M. Nourissa Abdallah’s most notable scholarly contributions is the journal article titled “Mitigation Measures for Wind Erosion and Sand Deposition in Desert Railways: A Geospatial Analysis of Sand Accumulation Risk,” published in Sustainability on April 29, 2025. This research presents a comprehensive geospatial analysis of sand accumulation risks affecting railway infrastructure in desert environments, emphasizing preventive engineering strategies and spatial planning. The study identifies high-risk zones for sand deposition using GIS-based modeling and proposes mitigation techniques such as optimized fencing, vegetation barriers, and landform adjustments. Co-authored with Tan Qulin, Mohamed Ramadan, and Providence Habumuremyi, this work advances knowledge on sustainable infrastructure development in arid regions. DOI: 10.3390/su17094016

Dahai Wang, Engineering, Best Researcher Award

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Doctorate at Dahai Wang: Researcher at Sinopec Petroleum Exploration and Production Research Institute, China

Dahai Wang is a researcher at Sinopec Petroleum Exploration and Production Research Institute, specializing in fine-grained sedimentary reservoir research. With a Ph.D. in Geological Resources and Geological Engineering, he has become a leading figure in petroleum exploration. His expertise lies in geological modeling, reservoir heterogeneity analysis, and the exploration of unconventional gas reservoirs, particularly in the Ordos Basin. Wang’s innovative approach integrates cutting-edge techniques in geological evaluation, enhancing the efficiency of gas field development. He is recognized for his pivotal role in developing strategies that have led to breakthroughs in reservoir characterization, fluid flow mechanisms, and hydraulic fracturing optimization. His research aims to advance understanding in both conventional and unconventional hydrocarbon exploration, with a keen focus on subsalt and helium-rich gas reservoirs.

Online Profiles

ORCID Profile

Dahai Wang maintains a professional digital footprint to stay connected with the global scientific community. His ORCID profile showcases his academic contributions and ongoing research. In addition, his LinkedIn profile offers insights into his professional network and career trajectory, providing a platform to exchange ideas with peers in geological research and petroleum engineering. His online presence serves as a hub for his publications, conference presentations, and collaboration opportunities.

Education

Dahai Wang completed his Ph.D. in Geological Resources and Geological Engineering at Southwest Petroleum University in June 2020. His dissertation focused on the exploration and development of low-permeability oil and gas reservoirs, a subject central to his ongoing research. Wang also holds a postdoctoral entry certificate and other relevant academic certifications that complement his extensive knowledge of petroleum exploration, sedimentary geology, and reservoir engineering. His academic training has positioned him as a thought leader in geological research and exploration technologies, enabling him to make significant contributions to the scientific community.

Research Focus

Wang’s primary research interest is in fine-grained sedimentary reservoirs, particularly their geological modeling, fluid migration mechanisms, and their role in unconventional gas exploration. His recent work delves into subsalt reservoir evaluation, gas reservoir heterogeneity, and the development of helium-rich gas resources in the Ordos Basin. He has pioneered the use of advanced computational techniques to create more accurate reservoir models and predict fluid flow behavior in complex subsurface environments. Additionally, his research is expanding the understanding of the geological conditions necessary for helium enrichment, which is a key area of focus for future energy solutions. His work has practical implications for improving the exploration, development, and sustainability of energy resources.

Experience

Dahai Wang has held key positions in major research projects, first as an engineer at the Research Institute of Petroleum Exploration and Development, CNPC, and now as a researcher at Sinopec Petroleum Exploration and Production Research Institute. During his tenure at CNPC, Wang led the “Demonstration Project for Large Low-Permeability Lithologic Oil and Gas Reservoirs in the Ordos Basin,” focusing on overcoming challenges in reservoir characterization and optimization of hydraulic fracturing techniques. This project led to improvements in production rates and the development of more accurate prediction models for reservoir behavior. Currently, at Sinopec, Wang is leading major science and technology projects that target subsalt reservoirs, Lower Paleozoic gas reservoirs, and helium-rich gas reservoirs. His leadership has resulted in the identification of new exploration targets and improved techniques for assessing subsalt reservoirs, significantly reducing exploration risks.

Research Timeline

  • 2021-2023: As an engineer at CNPC, Wang played a central role in developing an integrated reservoir prediction and fracturing design system. His work contributed to a 10% increase in annual production at the Changqing Oilfield, providing critical insights into reservoir characterization and optimization strategies.
  • 2023-Present: At Sinopec, Wang has spearheaded major research projects targeting the evaluation and development of subsalt Ordovician reservoirs, Lower Paleozoic gas reservoirs, and helium-rich gas accumulations. His research has led to the identification of new exploration targets with over 500 BCM of potential gas resources in the Ordos Basin and has contributed to the discovery of China’s first bauxite-hosted helium reservoir.

Awards & Honors

Wang’s groundbreaking research has earned him several prestigious awards. In 2023, he received Asia’s Outstanding Researcher Award for his contributions to the exploration of unconventional gas reservoirs. He has also been recognized with awards such as the National Scholarship and the China Scholarship Council, showcasing his academic excellence. His research has received accolades for its impact on the petroleum industry, particularly in advancing the understanding of low-permeability and subsalt reservoirs. His ability to tackle complex geological problems has earned him a reputation as an innovator in petroleum research.

Top-Noted Publication

Among his top publications is “Identifying the Key Control Factors of Deep Marine Shale Gas Reservoirs: A Case Study on Lower Cambrian Fine-Grained Sedimentary Rocks in Cen Gong, Guizhou, China,” published in Minerals in May 2025. This paper highlights the key geological factors influencing deep marine shale gas reservoirs and provides a case study of the Lower Cambrian rocks in Southern China. Wang’s research has been widely cited for its insights into shale gas properties and its contribution to optimizing shale gas exploration strategies. Another significant paper, “The Resource Potential and Development Prospect of Helium in Changqing Gas Field,” published in Geofluids in July 2022, discusses the untapped potential of helium resources in the Changqing field, marking a significant step in the exploration of rare gas resources.

Identifying the Key Control Factors of Deep Marine Shale Gas Reservoirs: A Case Study on Lower Cambrian Fine-Grained Sedimentary Rocks in Cen Gong, Guizhou, China
Published in Minerals on May 9, 2025. This article explores the key geological factors that control deep marine shale gas reservoirs, focusing on a case study of Lower Cambrian fine-grained sedimentary rocks in Cen Gong, Guizhou.
DOI: 10.3390/min15050505
Contributors: Dahai Wang, Lichi Ma, Qian Yu, Tao Zhang, Jian Bai, Chuan An, Chuntang Li, Jun Peng

Microscopic Pore Structure Characteristics and Controlling Factors of Marine Shale: A Case Study of Lower Cambrian Shales in the Southeastern Guizhou, Upper Yangtze Platform, South China
Published in Frontiers in Earth Science on April 10, 2024. This paper examines the microscopic pore structure and the controlling factors of marine shale gas reservoirs in the Southeastern Guizhou region of China.
DOI: 10.3389/feart.2024.1368326
Contributors: Ruyue Wang, Yuejiao Liu, Zhi Li, Dahai Wang, Guanping Wang, Fuqiang Lai, Zhihao Li, Jianhua He

The Resource Potential and Development Prospect of Helium in Changqing Gas Field
Published in Geofluids on July 23, 2022. This paper investigates the resource potential of helium in the Changqing Gas Field, offering insights into its future development prospects.
DOI: 10.1155/2022/9094667
Contributors: Dahai Wang, Jinbu Li, Zhanhai Yu, Ji Zhang, Lili Liu, Feng Xiao, Changan Shan

Influence of Organic Matter on Gas-Bearing Properties and Analysis of Sedimentary Mechanism of Organic Matter Enrichment: A Case Study on the Yangtze Region of Southern China During the Early Cambrian
Published in Geofluids on February 4, 2022. This article examines the role of organic matter in gas-bearing properties and analyzes the sedimentary mechanism of organic matter enrichment in the Yangtze region of southern China.
DOI: 10.1155/2022/8714919
Contributors: Qinyu Li, Kun Zhang, Lin Wei, Dahai Wang, Zhiyuan Chen, Xiangdong Yin, Fengli Han, Pei Liu, Liangyi Tang, Xuejiao Yuan

A New Method for Calculating the Cementation Exponent of Triple-Porosity Media Reservoirs
Published in Geofluids on January 10, 2022. This paper introduces a new method for calculating the cementation exponent in triple-porosity media reservoirs, a significant advancement for reservoir evaluation.
DOI: 10.1155/2022/4336067
Contributors: Dahai Wang, Jinbu Li, Lili Liu, Ji Zhang, Zhanhai Yu, Jun Peng

Determination of the Appropriate Value of m for Evaluation of Carbonate Reservoirs With Vugs and Fractures at the Well-Log Scale
Published in Petrophysics – The SPWLA Journal of Formation Evaluation and Reservoir Description on June 1, 2019. This paper presents methods for determining the appropriate value of “m” for evaluating carbonate reservoirs, focusing on those with vugs and fractures at the well-log scale.
DOI: 10.30632/pjv60n3-2019a6
Contributors: Southwest Petroleum University, Dahai Wang, Jun Peng

·  Support Vector Machine Algorithm for Automatically Identifying Depositional Microfacies Using Well Logs
Published in Sustainability on March 31, 2019. This article discusses the application of a Support Vector Machine algorithm to automatically identify depositional microfacies using well logs, offering a machine learning-based approach for geological studies.
DOI: 10.3390/su11071919
Contributors: Dahai Wang, Jun Peng, Qian Yu, Yuanyuan Chen, Hanghang Yu

Nur Aziemah Abd Rashid, Engineering, Best Researcher Award

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Dr. Nur Aziemah Abd Rashid: Doctorate at universiti kebangsaan malaysis, Malaysia

Dr. Nur Aziemah Abd Rashid is a dedicated environmental engineer specializing in water resources management and riverbank filtration systems. With a focus on improving water quality through innovative treatment technologies, she has significantly contributed to both academic research and practical applications in sustainable water engineering. Over the years, Dr. Rashid has become a thought leader in her field, with multiple publications in high-impact journals, and is actively engaged in both local and international environmental engineering communities.

Online Profiles

Scopus Profile

ORCID Profile

Dr. Rashid NAA maintains an active professional presence online through platforms such as Google Scholar, ResearchGate, and LinkedIn, where she shares her work on water quality, riverbank filtration, and environmental sustainability. Her research articles and conference proceedings are available for public access, contributing to the global discourse on water security and engineering innovations.

profile for Abd Rashid, Nur Aziemah from Universiti Sains Malaysia with Scopus ID: 24741062100. The profile shows details such as 16 citations from 14 documents, with an h-index of 2.

Education

Dr. Rashid holds a Ph.D. in Environmental Engineering from Universiti Sains Malaysia (USM), where she specialized in riverbank filtration and water quality enhancement. She completed her Master’s degree in Environmental Engineering at the same institution, followed by a Bachelor’s degree in Civil Engineering. Her academic journey has been marked by a passion for sustainable water management and a strong commitment to research excellence.

Research Focus

Dr. Rashid’s primary research focus is on the application of innovative technologies for water treatment, particularly riverbank filtration and artificial barriers to improve water quality. Her work spans various aspects of environmental engineering, including the characterization of water resources, turbidity removal, and the use of coagulants in wastewater treatment. She is also interested in the impacts of climate change on water systems and the application of sustainable practices in water management.

Experience

With over a decade of experience in both academia and practical environmental engineering, Dr. Rashid has worked as a researcher, lecturer, and consultant. She has been involved in numerous projects focusing on water quality, riverbank filtration, and the development of sustainable engineering solutions. Dr. Rashid has contributed significantly to the scientific community by publishing her research and reviewing papers for prominent journals.

Research Timeline

Dr. Rashid’s research journey began with her work on water quality improvements in riverbank filtration in 2015. Over the years, her research has expanded to include studies on turbidity removal, the use of artificial barriers, and the characterization of river water filtration systems. Notable research projects have been published in journals since 2016, with ongoing contributions to the field of water resource management and sustainability.

Awards & Honors

Throughout her career, Dr. Rashid has received several accolades for her contributions to environmental engineering, including the Bestari List Award from the School of Environmental Engineering, UniMAP, and awards for her innovative work in sustainable water treatment systems. She has also been recognized for her leadership in various professional associations and her involvement in community work related to water security and sustainability.

Top-Noted Publication

Dr. Rashid’s top-noted publication is her chapter on the application of artificial barriers in riverbank filtration, which has been widely cited in the field of environmental engineering. Her research on improving the removal of Escherichia coli and turbidity from river water using these barriers has made a significant impact on the design and implementation of sustainable water filtration systems. This publication is part of her extensive body of work on riverbank filtration and water treatment technology.

1. Protection of Water: Robust of Artificial Barriers in Application of Riverbank Filtration Abstraction for Water Sustainability

  • Journal: Desalination and Water Treatment
  • Year: 2025
  • DOI: 10.1016/J.DWT.2025.101034
  • Contributors: Nur Aziemah Abd Rashid, Mohamad Faiz Mohd Amin, Mohd Remy Rozainy Mohd Arif Zainol, Ismail Abustan, Wan Hanna Melini Wan Mohtar, Mohd Khairul Nizar Shamsuddin

2. Determination of Water Resources in Tube Well Using Hydrofacies for Riverbank Filtration

  • Journal: International Journal of Integrated Engineering
  • Year: 2023
  • DOI: 10.30880/IJIE.2023.15.02.013
  • WOSUID: WOS:001137920600005
  • Contributors: Zakaria, Siti Nor Farhana; Abd Rashid, Nur Aziemah; Abustan, Ismail; Aziz, Hamidi Abdul

3. Water Security: Application of Artificial Barriers in Riverbank Filtration Abstraction

  • Book Chapter: Water for All: A Tribute to Prof. Dr. Hj. Ismail Abustan
  • Year: 2022
  • Contributors: Nur Aziemah Abd Rashid; Ismail Abustan; Universiti Sains Malaysia

4. Application of Artificial Barrier as Mitigation of E. coli Which Pass through Riverbank Filtration

  • Book Chapter: New Insight into Brucella Infection and Foodborne Diseases
  • Year: 2020
  • DOI: 10.5772/intechopen.86079
  • Contributors: Nur Aziemah Abd Rashid; Ismail Abustan

5. Effect of Particle Size Distribution on the Removal of Color and Escherichia coli in Shallow Groundwater

  • Journal: Hydrological Research Letters
  • Year: 2016
  • DOI: 10.3178/HRL.10.34
  • WOSUID: WOS:000416305500006
  • Contributors: Abd Rashid, Nur Aziemah; Abustan, Ismail; Adlan, Mohd Nordin; Ismail, Mohd Ashraf Mohamad; Awalluddin, Nur Atiqah Ahmad