Zhoupeng Han | Engineering | Best Faculty Award

Best Faculty Award

Zhoupeng Han
Affiliation Xi’an University of Technology
Country China
Scopus ID 57193993403
Documents 23
Citations 230
h-index 9
Subject Area Engineering
Event International Forensic Scientist Awards
ORCID 0000-0003-0139-4630
Zhoupeng Han
Xi’an University of Technology, China

Zhoupeng Han is affiliated with Xi’an University of Technology, China, and has established a scholarly profile in the field of engineering research, particularly within industrial systems optimization, prognostics, reliability engineering, and intelligent manufacturing methodologies. His publication record indexed in Scopus demonstrates consistent engagement with computational engineering research and interdisciplinary industrial applications.[1] The researcher has contributed to studies involving prognostics frameworks, assembly line optimization, and algorithmic decision systems relevant to modern engineering environments.[2]

Abstract

This academic recognition article presents an overview of the scholarly activities and research profile of Zhoupeng Han of Xi’an University of Technology. The article highlights the researcher’s contribution to engineering science, particularly in industrial engineering systems, reliability analysis, intelligent optimization algorithms, and multi-sensor prognostics. Based on Scopus-indexed metrics, including publication output, citation performance, and h-index indicators, the profile reflects active participation in internationally recognized engineering research domains.[1] The article further evaluates the researcher’s suitability for recognition under the Best Faculty Award category associated with the International Forensic Scientist Awards program.[5]

Keywords

Engineering Research, Reliability Engineering, Intelligent Manufacturing, Prognostics, Optimization Algorithms, Industrial Engineering, Q-Learning, Multi-Sensor Systems, Academic Recognition, Best Faculty Award

Introduction

The advancement of engineering sciences increasingly depends on interdisciplinary methodologies integrating artificial intelligence, computational optimization, industrial systems engineering, and reliability analytics. Researchers contributing to these fields support the modernization of manufacturing systems and predictive engineering frameworks used in contemporary industrial environments.[2]

Zhoupeng Han has contributed to these developments through research publications associated with intelligent optimization approaches and prognostic system frameworks. His affiliation with Xi’an University of Technology situates his research within a recognized academic institution focused on engineering innovation and applied industrial research.[3] According to Scopus author metrics, the researcher has accumulated 23 indexed documents and 230 citations with an h-index of 9, indicating measurable scholarly influence within the engineering discipline.[1]

Research Profile

The research profile of Zhoupeng Han encompasses industrial optimization systems, predictive maintenance methodologies, reliability engineering, and computational learning frameworks. His recent publications address engineering challenges associated with uncertain industrial environments and multi-sensor data integration systems.[2]

A notable publication titled Hierarchical physics-embedded fusion framework for multi-sensor prognostics with application to diamond wire breakage and extended validation demonstrates involvement in advanced prognostic systems intended for industrial process monitoring and predictive reliability applications.[2] Another publication, Optimizing mixed-model assembly line efficiency under uncertain demand: A Q-Learning-Inspired differential evolution algorithm, reflects research activity involving machine learning-inspired optimization methodologies within manufacturing engineering contexts.[3]

  • Industrial engineering and systems optimization
  • Reliability engineering and prognostics
  • Machine learning-inspired engineering algorithms
  • Manufacturing efficiency analysis
  • Multi-sensor fusion and predictive maintenance

Research Contributions

Zhoupeng Han’s research contributions are associated with practical engineering applications emphasizing system efficiency, predictive diagnostics, and algorithmic optimization. His work contributes to the broader objective of improving operational reliability in manufacturing and industrial systems.[2]

The integration of Q-learning-inspired optimization techniques within assembly line engineering research represents an interdisciplinary contribution linking artificial intelligence methodologies with industrial production systems.[3] Similarly, his work involving hierarchical physics-embedded fusion frameworks addresses challenges related to predictive diagnostics and sensor-based reliability analysis.[2]

  1. Development of computational optimization strategies for assembly line systems.
  2. Research into reliability engineering and prognostic modeling.
  3. Integration of machine learning concepts into industrial engineering research.
  4. Contribution to predictive maintenance and multi-sensor engineering frameworks.

Publications

Selected publications indexed within Scopus include research articles addressing engineering reliability systems and optimization methodologies.[1]

  • Han, Z. et al. Hierarchical physics-embedded fusion framework for multi-sensor prognostics with application to diamond wire breakage and extended validation. Reliability Engineering and System Safety, 2026.[2]
  • Han, Z. et al. Optimizing mixed-model assembly line efficiency under uncertain demand: A Q-Learning-Inspired differential evolution algorithm. Computers and Industrial Engineering, 2025.[3]

These publications indicate active engagement with internationally indexed engineering journals and contemporary engineering problems involving intelligent industrial systems.[4]

Research Impact

Research impact within engineering disciplines is frequently evaluated through citation metrics, publication visibility, interdisciplinary influence, and practical applicability. According to Scopus author metrics, Zhoupeng Han has accumulated 230 citations across 196 citing documents, reflecting engagement from the wider research community.[1]

The h-index value of 9 further indicates sustained scholarly output and citation continuity across engineering-related publications.[1] Research themes related to industrial optimization and prognostics are particularly relevant to contemporary manufacturing systems where predictive analytics and operational efficiency remain significant priorities.[2]

Award Suitability

The Best Faculty Award category under the International Forensic Scientist Awards recognizes academic professionals demonstrating measurable scholarly contribution, publication consistency, and engagement with impactful scientific research.[5]

Zhoupeng Han’s research profile demonstrates several characteristics relevant to such recognition, including international publication visibility, engineering-focused innovation, citation-based academic impact, and interdisciplinary research integration. His contributions to intelligent manufacturing systems and predictive engineering frameworks align with broader scientific objectives related to technological advancement and applied industrial research.[2]

  • Consistent publication activity in indexed journals.
  • Demonstrated engineering research impact through citation metrics.
  • Engagement with computational and industrial innovation research.
  • Contribution to interdisciplinary engineering methodologies.

Conclusion

Zhoupeng Han has developed a documented academic profile within the engineering sciences through contributions to optimization systems, prognostics, reliability engineering, and intelligent industrial methodologies. His Scopus-indexed research output, citation performance, and involvement in contemporary engineering challenges reflect continued scholarly engagement within the global engineering research community.[1]

The researcher’s academic record and interdisciplinary engineering contributions support consideration for scholarly recognition under the Best Faculty Award category associated with the International Forensic Scientist Awards.[5]

References

  1. Elsevier. (n.d.). Scopus author details: Zhoupeng Han, Author ID 57193993403. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57193993403
  2. Han, Z. et al. (2026). Hierarchical physics-embedded fusion framework for multi-sensor prognostics with application to diamond wire breakage and extended validation. Reliability Engineering and System Safety.
    https://www.sciencedirect.com/science/article/abs/pii/S0951832026002619
  3. Han, Z. et al. (2025). Optimizing mixed-model assembly line efficiency under uncertain demand: A Q-Learning-Inspired differential evolution algorithm. Computers and Industrial Engineering.
    https://www.sciencedirect.com/science/article/abs/pii/S0360835224008659
  4. Xi’an University of Technology. (n.d.). Institutional overview and engineering research activities.
  5. International Forensic Scientist Awards. (2026). Academic recognition and award categories.

Ho-Young Jung | Engineering | Innovative Research Award

Innovative Research Award

Ho-Young Jung
Chonnam National University, South Korea

Ho-Young Jung
Affiliation Chonnam National University
Country South Korea
Scopus ID 60590026600
Documents 69
Citations 3,574
h-index 28
Subject Area Engineering
Event International Forensic Scientist Awards

The Innovative Research Award recognizes distinguished scientific achievements and sustained scholarly contributions in advanced engineering and environmental technologies. Ho-Young Jung of Chonnam National University has established a significant academic profile through research in hydrogen storage systems, fuel cell technologies, membrane electrode assemblies, renewable energy materials, microbial fuel cells, and environmental purification systems.[1] His scholarly publications demonstrate interdisciplinary integration between environmental engineering, electrochemical energy conversion, advanced materials science, and sustainable technological development.[2]

Abstract

Ho-Young Jung has contributed extensively to the advancement of sustainable engineering research through studies on fuel cells, electrochemical systems, hydrogen storage materials, environmental remediation technologies, and membrane engineering.[3] His research portfolio includes highly cited review articles and experimental investigations that address contemporary challenges associated with renewable energy conversion, water purification, toxic pollutant adsorption, and hydrogen-based energy systems.[4] With a Scopus h-index of 28 and more than 3,574 citations, his scholarly impact demonstrates substantial international recognition within engineering and energy science communities.[1]

Keywords

Fuel Cells; Hydrogen Storage; Membrane Electrode Assembly; Renewable Energy Engineering; Microbial Fuel Cells; Environmental Remediation; Water Purification; Metal-Organic Frameworks; Electrochemical Engineering; Sustainable Materials Science

Introduction

Engineering research related to sustainable energy and environmental protection has become increasingly important in response to global climate challenges and industrial development demands. Within this context, Professor Ho-Young Jung has established a research career focused on energy-efficient electrochemical systems, renewable fuel technologies, and environmental materials engineering.[5] His interdisciplinary investigations combine advanced material science, electrochemistry, membrane technology, and environmental engineering to improve energy storage, hydrogen conversion, and pollutant remediation processes.[6]

His academic contributions have addressed both theoretical and applied engineering challenges through review articles, experimental analyses, and collaborative international research projects. The resulting body of work has significantly contributed to scholarly understanding of fuel cell operation, microbial energy systems, metal-organic frameworks, and multifunctional environmental purification materials.[7]

Research Profile

Ho-Young Jung serves in the Department of Environment and Energy Engineering at Chonnam National University, South Korea. His academic profile reflects extensive expertise in renewable energy systems, electrochemical engineering, and environmental materials science.[1] His research activities emphasize technologically relevant engineering applications associated with sustainable fuel systems and environmental sustainability.

  • Research specialization in fuel cell engineering and membrane electrode assembly technologies.
  • Investigation of hydrogen storage materials and electrochemical conversion systems.
  • Development of microbial fuel cell technologies for energy and environmental applications.
  • Research on metal-organic frameworks and adsorption materials for water purification.
  • Collaborative interdisciplinary studies in renewable energy and environmental sustainability.

Research Contributions

Ho-Young Jung’s most influential contributions is his work on vanadium redox flow batteries, which provided a comprehensive review of vanadium electrolyte systems and their operational efficiencies.[8] The publication became widely referenced within renewable energy storage research because of its detailed analysis of electrolyte performance and future development strategies.

His collaborative review on microbial fuel cell technologies further expanded scientific understanding of bio electrochemical systems, highlighting electrode optimization, membrane developments, and energy conversion mechanisms.[9] This research contributed to broader applications of sustainable bioenergy technologies and wastewater treatment integration.

Jung has also contributed substantially to hydrogen storage engineering through investigations of nanostructured magnesium hydride systems.[10] These studies examined dimensional effects in hydrogen adsorption and storage behavior, supporting the advancement of hydrogen-based clean energy technologies.

Additional contributions include environmental purification research involving cerium-based UiO-66 metal-organic frameworks and adsorption systems designed for toxic dye and metal ion removal.[11] Such studies demonstrate the interdisciplinary integration of advanced materials engineering with environmental sustainability objectives.

Publications

Selected high-impact publications associated with Professor Ho-Young Jung include the following scholarly works:

  1. Choi, C., Kim, S., Kim, R., Choi, Y., Kim, S., Jung, H., Yang, J.H., and Kim, H.T. “A review of vanadium electrolytes for vanadium redox flow batteries.” Renewable and Sustainable Energy Reviews, 69, 263–274 (2017).
  2. Palanisamy, G., Jung, H.Y., Sadhasivam, T., Kurkuri, M.D., Kim, S.C., and Roh, S.H. “A comprehensive review on microbial fuel cell technologies.” Journal of Cleaner Production, 221, 598–621 (2019).
  3. Sadhasivam, T., Kim, H.T., Jung, S., Roh, S.H., Park, J.H., and Jung, H.Y. “Dimensional effects of nanostructured Mg/MgH2 for hydrogen storage applications.” Renewable and Sustainable Energy Reviews, 72, 523–534 (2017).
  4. Rego, R.M., Sriram, G., Ajeya, K.V., Jung, H.Y., Kurkuri, M.D., and Kigga, M. “Cerium based UiO-66 MOF as a multipollutant adsorbent for universal water purification.” Journal of Hazardous Materials, 416, 125941 (2021).
  5. Jung, H.Y., Huang, S.Y., Ganesan, P., and Popov, B.N. “Performance of gold-coated titanium bipolar plates in unitized regenerative fuel cell operation.” Journal of Power Sources, 194(2), 972–975 (2009).

Research Impact

The scholarly impact of  Ho-Young Jung is reflected through extensive citation performance and sustained publication visibility across engineering and energy science disciplines.[1] His publications are frequently referenced in studies concerning electrochemical energy systems, environmental remediation technologies, advanced adsorption materials, and hydrogen energy infrastructure.

Research contributions involving microbial fuel cells and renewable energy storage have influenced subsequent investigations related to sustainable industrial systems and clean energy technologies.[9] His interdisciplinary collaborations further demonstrate integration between engineering innovation and environmental sustainability objectives.

  • More than 3,574 citations indexed within Scopus databases.
  • An h-index of 28 demonstrating sustained scholarly influence.
  • Publication of 69 indexed scholarly documents in internationally recognized journals.
  • High citation rates in renewable energy and environmental engineering literature.

Award Suitability

Ho-Young Jung demonstrates strong suitability for recognition through the Innovative Research Award due to his sustained scholarly productivity, interdisciplinary engineering research, and internationally cited contributions to renewable energy technologies.[2] His investigations into fuel cells, hydrogen storage systems, and environmental purification technologies align with global priorities related to sustainable engineering innovation and clean energy transition.

The combination of high-impact review publications, advanced electrochemical engineering studies, and collaborative environmental research reflects a broad scientific contribution with practical industrial relevance.[11] These characteristics support recognition within international academic and scientific award platforms.

Conclusion

Ho-Young Jung has established a distinguished research profile within engineering and environmental science through contributions to fuel cell systems, renewable energy technologies, hydrogen storage engineering, and advanced environmental materials. His publication record, citation performance, and interdisciplinary collaborations demonstrate sustained academic impact and international scholarly recognition.[1] The breadth and relevance of his engineering research support his recognition within the framework of the Innovative Research Award and related international scientific honors.

References

  1. Elsevier. (n.d.). Scopus author details: Ho-Young Jung, Author ID 60590026600. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=60590026600
  2. Google Scholar. (n.d.). Ho-Young Jung citation profile and scholarly metrics.
    https://scholar.google.com/citations?hl=en&user=t9DTaOIAAAAJ
  3. Jung, H.Y., et al. (2012). Role of the glass transition temperature of Nafion 117 membrane in membrane electrode assembly preparation. International Journal of Hydrogen Energy.
    https://www.sciencedirect.com/science/article/abs/pii/S0360319912012645
  4. Sriram, G., et al. (2022). Recent trends in the application of metal-organic frameworks for toxic dye removal. Sustainable Materials and Technologies.
    https://doi.org/10.1016/j.susmat.2021.e00378
  5. Chonnam National University. (n.d.). Department of Environment and Energy Engineering faculty profile.
  6. Sriram, G., et al. (2017). Microfluidic analytical devices for colorimetric detection of toxic ions. TrAC Trends in Analytical Chemistry.
  7. Sriram, G., et al. (2020). Naturally available diatomite and surface modification for hazardous dye removal. Advances in Colloid and Interface Science.
    https://doi.org/10.1016/j.cis.2020.102198
  8. Choi, C., et al. (2017). A review of vanadium electrolytes for vanadium redox flow batteries. Renewable and Sustainable Energy Reviews.
    https://doi.org/10.1016/j.rser.2016.11.188
  9. Palanisamy, G., et al. (2019). A comprehensive review on microbial fuel cell technologies. Journal of Cleaner Production.
    https://doi.org/10.1016/j.jclepro.2019.02.172
  10. Sadhasivam, T., et al. (2017). Dimensional effects of nanostructured Mg/MgH2 for hydrogen storage applications. Renewable and Sustainable Energy Reviews.
    https://www.sciencedirect.com/science/article/abs/pii/S1364032117301028
  11. Rego, R.M., et al. (2021). Cerium based UiO-66 MOF as a multipollutant adsorbent for universal water purification. Journal of Hazardous Materials.
    https://doi.org/10.1016/j.jhazmat.2021.125941

Hong Zhang | Medicine and Health Sciences | Innovative Research Award

Innovative Research Award

Hong Zhang
University of Texas Southwestern Medical Center, United States
Hong Zhang
Affiliation University of Texas Southwestern Medical Center
Country United States
Scopus ID 57192482890
Documents 28
Citations 550
h-index 13
Subject Area Medicine and Health Sciences
Event International Forensic Scientist Awards
ORCID 0000-0003-3056-0343

Hong Zhang, is an orthopedic surgeon, biomedical innovator, and musculoskeletal research specialist affiliated with the University of Texas Southwestern Medical Center and Texas Scottish Rite Hospital for Children in Dallas, Texas. His research activities focus primarily on pediatric spinal deformities, growth modulation, spinal instrumentation development, scoliosis correction technologies, and minimally invasive spinal surgery. Through a combination of clinical orthopedic expertise and translational biomedical engineering, Zhang has contributed to the development of novel surgical systems and patented technologies intended to improve the treatment of severe spinal deformities and early-onset scoliosis.[1]

As Director of the Division of Creative Innovations within the Seay Center for Musculoskeletal Research, Zhang has overseen multidisciplinary investigations involving experimental spine biomechanics, orthopedic implant design, pediatric spine growth modulation, and surgical correction strategies. His publication record, citation metrics, and patent portfolio demonstrate sustained scholarly engagement in orthopedic research and spinal deformity innovation.[2]

Abstract

Hong Zhang is recognized for contributions to orthopedic surgery research, spinal deformity correction technologies, and pediatric musculoskeletal innovation. His work has focused on improving surgical outcomes for severe scoliosis and kyphosis through biomechanical research, implant design, and translational clinical investigations. Zhang has also contributed to orthopedic device development through multiple United States patents related to spinal correction systems and stabilization technologies.[3] His scholarly publications in journals such as Spine Deformity, European Spine Journal, and Seminars in Spine Surgery highlight continued engagement in experimental spine research and orthopedic innovation.[4]

Keywords

Orthopedic Surgery, Pediatric Scoliosis, Spinal Deformity, Spine Research, Musculoskeletal Innovation, Early-Onset Scoliosis, Orthopedic Instrumentation, Growth Modulation, Biomedical Engineering, Pediatric Orthopedics

Introduction

The field of pediatric spinal deformity research requires coordinated advances in biomechanics, surgical techniques, implant engineering, and long-term clinical evaluation. Hong Zhang has contributed to this interdisciplinary area through research addressing early-onset scoliosis, thoracic deformities, vertebral correction systems, and growth-preserving spinal interventions. His investigations combine experimental orthopedic science with clinically applicable instrumentation design.[5]

Zhang obtained his medical degree from Tianjin Medical University in China and completed orthopedic surgery training at Tianjin Hospital before undertaking international orthopedic research and clinical scholarship programs in Italy and the United States. Since joining the University of Texas Southwestern Medical Center and Texas Scottish Rite Hospital for Children, he has participated in numerous collaborative orthopedic research initiatives focused on pediatric spine disorders and surgical innovation.[6]

Research Profile

Hong Zhang currently serves as Director of the Division of Creative Innovations within the Center of Excellence in Spine Research at the Seay Center for Musculoskeletal Research, Texas Scottish Rite Hospital for Children, Dallas, Texas. He also holds the academic position of Associate Professor in the Department of Orthopaedic Surgery at the University of Texas Southwestern Medical Center.[1]

His research profile demonstrates sustained focus on pediatric spinal deformities, including early-onset scoliosis, thoracic kyphosis, spinal growth modulation systems, minimally invasive thoracoscopic procedures, and spinal instrumentation biomechanics. Zhang’s work frequently integrates engineering methodologies, experimental spine models, and translational orthopedic device development.[7]

  • Early-onset scoliosis and pediatric spine growth research
  • Orthopedic implant and spinal instrumentation development
  • Growth modulation systems for spinal correction
  • Biomechanical evaluation of spinal deformity devices
  • Experimental and translational musculoskeletal research
  • Minimally invasive spinal surgical technologies

Research Contributions

Zhang has contributed extensively to the development of innovative spinal correction systems intended for severe spinal deformities and pediatric scoliosis treatment. His patented orthopedic technologies include spinal rod reduction devices, pedicle screw systems, stabilization fasteners, and hinge-link spinal correction devices designed to improve alignment control and surgical correction efficiency.[8]

A significant component of his recent research involves the development of growth modulation systems using dynamic spinal correction approaches. Experimental investigations involving porcine models and three-dimensional simulation technologies have supported the evaluation of biomechanical effectiveness and safety profiles of novel correction systems.[9]

Zhang’s work on vertebral column resection systems and angular kyphosis reduction devices has also contributed to understanding correction strategies for severe thoracic spinal deformities. These studies have explored both implant mechanics and surgical feasibility in complex deformity correction procedures.[10]

  • Development of hinge-link spinal correction technologies
  • Novel uniplanar correction systems for angular kyphosis
  • Dynamic scoliosis correction and growth modulation research
  • Biomechanical studies of pediatric spinal instrumentation
  • Experimental orthopedic implant design and testing

Publications

Hong Zhang has authored and co-authored multiple peer-reviewed scientific publications addressing pediatric scoliosis, thoracic deformity correction, spine biomechanics, and orthopedic surgical technologies.[11]

  1. Zhang H, Lima JM, Jo CH, and Sucato DJ. The closing triradiate cartilage stage identifies accelerated curve progression in idiopathic scoliosis. Spine Deformity (2026).
  2. Zhang H, Ross D, and Sucato DJ. Evaluation of a novel angular kyphosis reduction device for vertebral column resection in severe angular kyphosis. European Journal of Orthopaedic Surgery & Traumatology (2026).
  3. Zhang H, Ross D, and Sucato DJ. A new uniplanar correction strategy for severe thoracic kyphosis: concept, device design, and simulation with a 3D-printed model. Spine Deformity (2026).
  4. Zhang H, Niese B, and Sucato DJ. Growth modulation and dynamic correction of early-onset thoracic scoliosis using a PEEK spring rib plate system: a porcine model study. Spine Deformity (2026).
  5. Brooks JT, Carron CJ, Zhang H, and Sucato DJ. Going anterior for the surgical management of pediatric scoliosis: Indications and technique pearls. Seminars in Spine Surgery (2025).

Research Impact

According to available Scopus metrics, Zhang has produced 28 indexed scholarly documents with approximately 550 citations and an h-index of 13, reflecting measurable academic influence within orthopedic surgery and musculoskeletal research communities.[1] His research output has contributed to the scientific understanding of pediatric spinal deformities, spinal growth dynamics, and orthopedic implant biomechanics.

His work has also received recognition through national and international awards, including the John H. Moe Award for Best Basic Science presented by the Scoliosis Research Society in both 2009 and 2010.[12] Additional grant support from organizations such as the Pediatric Orthopedic Society of North America and the Scoliosis Research Society further reflects the relevance of his investigations within pediatric orthopedic research.

Award Suitability

Hong Zhang’s academic profile aligns with the objectives of the Innovative Research Award due to his sustained contributions to orthopedic surgery innovation, spinal deformity correction technologies, and translational pediatric spine research. His work demonstrates interdisciplinary integration between clinical orthopedic practice, biomechanical engineering, and experimental medical device development.[8]

The combination of peer-reviewed publications, patented surgical systems, funded research projects, and international scientific recognition supports consideration of Zhang’s contributions within the field of medicine and health sciences. His focus on improving treatment strategies for complex pediatric spinal conditions reflects ongoing commitment to clinically relevant biomedical innovation.[10]

Conclusion

Hong Zhang has established a scholarly and clinical research profile centered on pediatric orthopedic innovation and spinal deformity correction. Through collaborative orthopedic research, patented instrumentation systems, and translational experimental studies, he has contributed to the advancement of spinal surgery technologies and pediatric musculoskeletal care. His publication history, research awards, and scientific contributions collectively support recognition within international academic and biomedical innovation platforms.[11]

References

  1. Elsevier. (n.d.). Scopus author details: Hong Zhang, Author ID 57192482890. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57192482890
  2. University of Texas Southwestern Medical Center. (n.d.). Faculty and research profile information for Hong Zhang.
  3. United States Patent and Trademark Office. (2010). Method for the Correction of Spinal Deformities Using Rod-Plate Anterior System.
  4. Springer Nature. (2026). Spine Deformity journal publications authored by Hong Zhang.
  5. Zhang H, Ross D, and Sucato DJ. (2026). Evaluation of a novel angular kyphosis reduction device for vertebral column resection in severe angular kyphosis.
    https://doi.org/10.1007/s00590-026-04778-y
  6. Texas Scottish Rite Hospital for Children. (n.d.). Seay Center for Musculoskeletal Research profile.
  7. Zhang H, Niese B, and Sucato DJ. (2026). Growth modulation and dynamic correction of early-onset thoracic scoliosis using a PEEK spring rib plate system.
    https://doi.org/10.1007/s43390-026-01284-3
  8. United States Patent and Trademark Office. (2023). Hinge-Link Spinal Correction Device and Method.
  9. Wang XB, Zhang H, and Sucato DJ. (2023). Unilateral thoracic spinal nerve resection creates early onset thoracic scoliosis in an immature porcine model.
    https://doi.org/10.1007/s00586-023-07804-3
  10. Zhang H, Ross D, and Sucato DJ. (2024). A Novel Uniplanar Clamp-Hinge Correction System for Vertebral Column Resection of Severe Angular Kyphosis.
    https://doi.org/10.1007/s43390-023-00770-2
  11. Elsevier. (n.d.). Publication and citation metrics for Hong Zhang in orthopedic research.
  12. Scoliosis Research Society. (2010). John H. Moe Award for Best Basic Science.

Georgia Niolaki | Psychology | Research Excellence Award

Research Excellence Award

Georgia Z. Niolaki
University of Birmingham, United Kingdom
Georgia Niolaki
Affiliation University of Birmingham
Country United Kingdom
Scopus ID 55355418400
Documents 15
Citations 107
h-index 6
Subject Area Psychology
Event International Forensic Scientist Awards
ORCID 0000-0002-1825-141X

Georgia Z. Niolaki is a researcher in psychology, literacy development, dyslexia studies, and educational inclusion currently affiliated with the University of Birmingham. Her scholarly contributions focus on spelling development, bilingual literacy, neurodiversity, visual attention span, and dyslexia intervention methodologies within multilingual educational settings.[1] Her interdisciplinary work combines cognitive psychology, educational assessment, and inclusive pedagogical practices, contributing to the broader understanding of literacy acquisition and special educational needs.[2]

Abstract

Georgia Z. Niolaki has developed a research portfolio centered on dyslexia, spelling acquisition, bilingual literacy, and educational psychology. Her studies investigate the linguistic and cognitive processes involved in spelling development across monolingual and bilingual populations, with particular emphasis on children experiencing specific learning difficulties.[3] Through empirical studies, intervention-based methodologies, and educational assessments, her work has contributed to contemporary understandings of literacy acquisition and inclusive educational practices.[4]

Keywords

Dyslexia, spelling assessment, bilingualism, literacy development, educational psychology, neurodiversity, visual attention span, spelling predictors, inclusive education, cognitive psychology.

Introduction

The field of literacy research increasingly recognizes the importance of interdisciplinary frameworks integrating psychology, linguistics, and education. Georgia Z. Niolaki has contributed to this evolving field through investigations into spelling acquisition, bilingual literacy performance, and intervention strategies for learners with dyslexia and related learning differences.[5] Her research has examined how phonological awareness, rapid naming, orthographic knowledge, and visual processing interact during literacy development in children and adults.[6]

Her academic career includes appointments at Coventry University, Bath Spa University, and the University of Birmingham, where she has worked in areas related to neurodiversity, inclusion, and educational support systems. In addition to journal publications, her contributions include educational resources, intervention programs, conference presentations, and the development of the Spelling Profile Assessment (SPA), a standardized spelling evaluation framework designed for English primary school children.[7]

Research Profile

Niolaki completed doctoral research at the Institute of Education, University of London, focusing on spelling processes among bilingual and monolingual English- and Greek-speaking children.[8] Her subsequent academic positions enabled her to expand her work in dyslexia assessment, literacy interventions, and educational inclusion. She later became involved in teaching and supervision within psychology and neurodiversity programs while continuing active research in spelling assessment methodologies.[9]

Her research interests span multilingual literacy, developmental dyslexia, spelling predictors, educational inclusion, semantic priming, and visual attention span. These themes are reflected across multiple publications, conference presentations, and collaborative projects conducted in the United Kingdom and internationally.[10]

  • Assistant Professor in Neurodiversity at the University of Birmingham.
  • Former Senior Lecturer in SpLD/Dyslexia and Inclusion at Bath Spa University.
  • Research contributor to bilingual literacy and dyslexia intervention studies.
  • Member of the British Dyslexia Association since 2016.

Research Contributions

One of Niolaki’s most recognized contributions is the development of the Spelling Profile Assessment (SPA), which provides educators and researchers with an interpretative framework for understanding spelling performance among primary school children.[11] The SPA project integrates linguistic, morphological, and cognitive dimensions of spelling assessment and has been presented in several academic and practitioner-oriented forums.[12]

Her research also explores bilingual spelling acquisition and transfer effects between transparent and opaque orthographies. Studies involving Greek- and English-speaking children have provided evidence regarding how phonological and orthographic systems interact in multilingual learners.[13] These investigations contribute to broader discussions concerning multilingual education and literacy support strategies for children with dyslexia.[14]

Niolaki has additionally examined the role of self-compassion in adults with dyslexia and the educational experiences of families supporting children with special educational needs.[15] Such studies demonstrate the social and psychological dimensions of learning differences and emphasize the importance of inclusive educational practices.[16]

Publications

Selected publications and scholarly works associated with Georgia Z. Niolaki include the following:

  • Spelling predictors; investigating the role of phonological ability and rapid naming in a large cross-sectional British study, published in Learning and Instruction (2022).
  • What spelling errors can tell us about the development of processes involved in children’s spelling, published in Frontiers in Psychology (2023).
  • Greek-spelling predictors; an investigation of literacy- and cognitive-related factors, published in Journal of Cognitive Psychology (2024).
  • Predictors of single word spelling in English speaking children, published in Journal of Research in Reading (2020).
  • Transfer effects in spelling from transparent Greek to opaque English in seven-to-ten-year-old children, published in Bilingualism (2012).

Research Impact

According to Scopus records, Niolaki’s scholarly output has received over 100 citations across international academic publications.[1] Her research has contributed to evidence-based approaches in literacy intervention, educational psychology, and dyslexia support systems. The practical orientation of her work has made it relevant for educators, psychologists, inclusion specialists, and policy-oriented discussions surrounding neurodiversity in education.[17]

Her work on spelling assessment frameworks has also informed educational practice by offering tools that support early identification of spelling and literacy difficulties.[18] Through conference activities and collaborative outreach initiatives, she has promoted broader awareness of dyslexia and inclusive educational environments.[19]

Award Suitability

Georgia Z. Niolaki’s research profile demonstrates sustained contributions to educational psychology, literacy assessment, dyslexia intervention, and inclusive education. Her interdisciplinary work integrates theoretical inquiry with practical educational applications, particularly in the development of standardized spelling assessment methodologies and bilingual literacy research.[20]

The breadth of her publication record, citation impact, international collaborations, and continued engagement with neurodiversity research aligns with the objectives commonly associated with academic excellence and research recognition programs. Her contributions have relevance for both scholarly communities and educational practitioners working with diverse learner populations.[21]

Conclusion

Georgia Z. Niolaki has established a notable academic profile within psychology and literacy studies through research addressing dyslexia, spelling acquisition, bilingual education, and inclusive learning environments. Her contributions reflect an integration of cognitive psychology, educational practice, and assessment development, supporting ongoing advancements in neurodiversity research and literacy education.[22]

References

  1. Elsevier. (n.d.). Scopus author details: Georgia Z. Niolaki, Author ID 55355418400. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=55355418400
  2. ORCID. (n.d.). Georgia Z. Niolaki ORCID profile.
    https://orcid.org/0000-0002-1825-141X
  3. Niolaki, G. Z. (2023). What spelling errors can tell us about the development of processes involved in children’s spelling. Frontiers in Psychology.
    https://doi.org/10.3389/fpsyg.2023.1178427
  4. Niolaki, G. Z. (2022). Spelling predictors; investigating the role of phonological ability and rapid naming in a large cross-sectional British study. Learning and Instruction.
    https://doi.org/10.1016/j.learninstruc.2022.101635
  5. Niolaki, G. Z. (2024). Greek-spelling predictors; an investigation of literacy- and cognitive-related factors. Journal of Cognitive Psychology.
    https://doi.org/10.1080/20445911.2024.2322766
  6. Niolaki, G. Z. (2020). Predictors of single word spelling in English speaking children. Journal of Research in Reading.
    https://doi.org/10.1111/1467-9817.12330
  7. University of Birmingham. (2025). Introduction to the Spelling Profile Assessment (SPA).
  8. Institute of Education, University of London. (2013). Processes involved in spelling in bilingual and monolingual English- and Greek-speaking children with typical and atypical spelling performance.
  9. University of Birmingham. (2024). Assistant Professor in Neurodiversity profile.
  10. British Dyslexia Association. (n.d.). Membership and professional engagement records.
  11. Niolaki, G. Z. (2025). A brief description of the Spelling Profile Assessment.
  12. Niolaki, G. Z. (2025). Spelling Profile Assessment (SPA). Public Policy Exchange.
  13. Niolaki, G. Z. (2012). Transfer effects in spelling from transparent Greek to opaque English in seven-to-ten-year-old children. Bilingualism.
    https://doi.org/10.1017/S1366728911000721
  14. Niolaki, G. Z. (2014). Spelling improvement through letter-sound and whole-word training in two multilingual Greek- and English-speaking children. Multilingual Education.
    https://doi.org/10.1186/s13616-014-0020-3
  15. Niolaki, G. Z. (2025). The role of self-compassion in adults with dyslexia. Annals of Dyslexia.
    https://doi.org/10.1007/s11881-025-00327-0
  16. Niolaki, G. Z. (2022). Eastern European parents’ experiences of parenting a child with SEN in England. Educational Psychology in Practice.
    https://doi.org/10.1080/02667363.2022.2100320
  17. Niolaki, G. Z. (2023). Psychology and Educational Inclusion. Open University Press.
  18. Niolaki, G. Z. (2025). Diagnostic Tests for Reading Age and Dyslexia. Reference Module in Social Sciences.
    https://doi.org/10.1016/B978-0-323-95504-1.01007-3
  19. Niolaki, G. Z. (2024). Increasing awareness of dyslexia; A knowledge exchange project linking schools, the Gloucestershire Dyslexia Association (GDA), and Bath Spa University.
  20. Bath Spa University. (2021–2024). Senior Lecturer in SpLD/Dyslexia and Inclusion profile.
  21. International Forensic Scientist Awards. (n.d.). Award recognition platform.
    forensicscientist.org
  22. University of Birmingham. (2025). Research and educational inclusion activities related to neurodiversity and dyslexia.

Keping Zhang | Engineering | Innovative Research Award

Innovative Research Award

Keping Zhang
Chongqing Jiaotong University, China

Keping Zhang
Affiliation Chongqing Jiaotong University
Country China
Scopus ID 57211047324
Documents 15
Citations 131
h-index 6
Subject Area Engineering
Event International Forensic Scientist Awards
ORCID 0000-0002-5370-3784

Keping Zhang is a researcher affiliated with Chongqing Jiaotong University in China whose academic work focuses primarily on civil engineering, tunnel mechanics, railway infrastructure systems, and transportation engineering. His research profile demonstrates sustained contributions to the analysis of shield tunnel structures, subgrade settlement behavior, high-speed railway systems, and reinforced underground infrastructure technologies. Through scholarly publications indexed in Scopus and related international databases, Zhang has contributed to engineering studies involving structural mechanics, experimental analysis, constitutive modeling, and infrastructure durability evaluation.[1] His scholarly output reflects interdisciplinary engagement between transportation engineering, geotechnical systems, and underground construction technologies.[2]

Abstract

This article presents an academic overview of the engineering research activities and scholarly contributions of Keping Zhang of Chongqing Jiaotong University. His work emphasizes transportation infrastructure engineering, shield tunnel mechanics, high-speed railway systems, and reinforcement technologies for underground structures. Zhang has participated in studies involving dynamic railway behavior, constitutive relationships in reinforced tunnel interfaces, and experimental evaluations of infrastructure resilience under settlement and loading conditions. His published works in peer-reviewed journals and conference proceedings demonstrate contributions to modern civil engineering methodologies, particularly in tunnel reinforcement systems and railway infrastructure performance analysis.[3]

Keywords

Civil Engineering; Tunnel Engineering; Transportation Infrastructure; Shield Tunnels; High-Speed Railway Systems; Structural Mechanics; Reinforcement Technology; Subgrade Settlement; Underground Construction; Engineering Structures

Introduction

The advancement of transportation infrastructure and underground engineering has become increasingly important in rapidly urbanizing regions where railway systems, tunnels, and underground transit networks require reliable structural performance and long-term operational safety. Researchers in civil and transportation engineering continue to investigate methods to improve infrastructure durability, reduce settlement-related risks, and optimize reinforcement systems for complex underground environments.[4]

Keping Zhang has contributed to these areas through research involving experimental testing, constitutive modeling, structural analysis, and engineering simulations. His academic work spans tunnel reinforcement technologies, railway dynamic response systems, and deformation analysis under variable geological and operational conditions. Zhang’s research profile also demonstrates international academic engagement through educational affiliations with Tongji University and the University of Toronto.[5]

Research Profile

Keping Zhang’s academic profile is associated with research in engineering mechanics, transportation systems, and underground infrastructure technologies. His Scopus-indexed publications reflect investigations into shield tunnel reinforcement interfaces, railway settlement dynamics, and structural performance under loading and unloading conditions. Several of his studies focus on the use of steel plates, carbon fiber shells, and bonded reinforcement systems for tunnel stabilization and performance enhancement.[6]

The researcher has produced journal articles, conference papers, and technical studies appearing in engineering journals such as Construction and Building Materials, Engineering Structures, Composite Structures, and Structures. These publications demonstrate involvement in both theoretical and experimental engineering investigations involving advanced transportation infrastructure systems.[7]

  • Research specialization in shield tunnel reinforcement and railway infrastructure engineering.
  • Scopus-indexed author with publications in international engineering journals.
  • Research interests include constitutive modeling, settlement mechanics, and structural durability analysis.
  • Academic affiliations include Tongji University and the University of Toronto.

Research Contributions

A significant portion of Zhang’s research contributions involves the investigation of bond interfaces and reinforcement systems in shield tunnels. His studies have examined viscoelastic creep behavior, constitutive relationships, and mechanical performance of reinforced tunnel interfaces using experimental and analytical approaches.[8] These investigations contribute to understanding the long-term performance and reliability of underground tunnel systems subjected to structural stresses and environmental conditions.

Another important aspect of his research concerns railway infrastructure settlement and dynamic response behavior. Zhang has participated in studies analyzing differential settlement impacts on high-speed train systems and vehicle-track interaction mechanisms. These studies address operational safety and infrastructure resilience in high-speed railway networks operating under varying geotechnical conditions.[9]

His research portfolio additionally includes studies on carbon fiber shell reinforcement systems, mechanical testing of tunnel segments, aggregate morphology characterization, and engineering simulations related to railway and tunnel structures. These works collectively contribute to transportation infrastructure engineering and structural optimization research.[10]

Publications

Selected publications associated with Keping Zhang include peer-reviewed journal articles and conference proceedings in civil engineering and transportation infrastructure research.

  • “Viscoelastic creep model and parameter inversion of bond interface in steel plate reinforced tunnel lining,” Construction and Building Materials, 2024.
  • “Mechanical behavior and constitutive relationship of bond interface in steel plate-reinforced shield tunnels,” Construction and Building Materials, 2024.
  • “Analysis on dynamic behavior of 400 km/h high-speed train system under differential settlement of subgrade,” Engineering Structures, 2023.
  • “Full-scale experimental test for load-bearing behavior of the carbon fiber shell reinforced stagger-jointed shield tunnel,” Composite Structures, 2023.
  • “Effect and evaluation model of adjacent pile construction on high-speed railway piers in soft soils,” Structures, 2024.

Research Impact

According to available Scopus data, Keping Zhang has accumulated more than 130 citations across engineering publications, reflecting scholarly engagement with his research contributions in transportation infrastructure and tunnel engineering.[1] His publications have addressed practical engineering challenges including tunnel reinforcement reliability, subgrade settlement effects, and railway system dynamics.

The combination of experimental methods, constitutive modeling, and infrastructure performance analysis within his research portfolio contributes to engineering applications relevant to modern urban transportation systems and underground construction technologies. His studies are aligned with broader international research efforts focused on improving infrastructure safety, sustainability, and resilience.[11]

Award Suitability

Keping Zhang’s engineering research profile demonstrates suitability for recognition within academic and professional award frameworks associated with infrastructure engineering and applied transportation research. His scholarly contributions include peer-reviewed publications, international academic collaborations, and research addressing practical engineering challenges relevant to underground transportation systems.[12]

The interdisciplinary character of his work, particularly in tunnel reinforcement systems and railway dynamic analysis, reflects continued engagement with technically demanding engineering problems. These contributions support the relevance of his profile to academic recognition programs such as the International Forensic Scientist Awards and related interdisciplinary engineering distinctions.

Conclusion

Keping Zhang is an engineering researcher whose work contributes to transportation infrastructure analysis, tunnel reinforcement technologies, and railway system engineering. Through publications in recognized engineering journals and conference proceedings, he has examined structural behavior, settlement mechanisms, and underground infrastructure reinforcement systems using analytical and experimental methodologies. His research profile demonstrates academic productivity and engagement with engineering challenges associated with modern transportation systems and underground construction technologies.

References

  1. Elsevier. (n.d.). Scopus author details: Keping Zhang, Author ID 57211047324. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57211047324
  2. ORCID. (n.d.). Keping Zhang ORCID Profile.
    https://orcid.org/0000-0002-5370-3784
  3. Zhang, K. (2024). Viscoelastic creep model and parameter inversion of bond interface in steel plate reinforced tunnel lining. Construction and Building Materials.
    https://doi.org/10.1016/j.conbuildmat.2024.137346
  4. Zhang, K. (2023). Analysis on dynamic behavior of 400 km/h high-speed train system under differential settlement of subgrade. Engineering Structures.
    https://doi.org/10.1016/j.engstruct.2022.115521
  5. Tongji University. (2024). Academic qualification and engineering research profile of Keping Zhang.
  6. Zhang, K. (2024). Mechanical behavior and constitutive relationship of bond interface in steel plate-reinforced shield tunnels. Construction and Building Materials.
    https://doi.org/10.1016/j.conbuildmat.2023.134178
  7. Zhang, K. (2023). Full-scale experimental test for load-bearing behavior of the carbon fiber shell reinforced stagger-jointed shield tunnel. Composite Structures.
    https://doi.org/10.1016/j.compstruct.2023.116773
  8. Zhang, K. (2025). Mechanical Properties of Bonding Interfaces of Shield Tunnels Reinforced with Inner Steel Rings. Tongji Daxue Xuebao.
    https://doi.org/10.11908/j.issn.0253-374x.23208
  9. Zhang, K. (2021). Effect of lateral differential settlement of high-speed railway subgrade on dynamic response of vehicle-track coupling systems. Structural Engineering and Mechanics.
    https://doi.org/10.12989/SEM.2021.80.5.491
  10. Zhang, K. (2024). Research on the influencing factors and correlation of multi-scale morphological descriptors of coarse aggregate. Construction and Building Materials.
    https://doi.org/10.1016/j.conbuildmat.2024.139402
  11. Zhang, K. (2024). Effect and evaluation model of adjacent pile construction on high-speed railway piers in soft soils. Structures.
    https://doi.org/10.1016/j.istruc.2024.107687
  12. International Forensic Scientist Awards. (n.d.). Award recognition and academic distinction platform.
    forensicscientist.org

Jinran Wang | Chemical Engineering | Best Researcher Award

Best Researcher Award

Jinran Wang
China University Of Petroleum
Jinran Wang
Affiliation China University Of Petroleum
Country China
Scopus ID 58794217800
Documents 8
Citations 10
h-index 1
Subject Area Chemical Engineering
Event International Forensic Scientist Awards

Jinran Wang is a researcher affiliated with China University Of Petroleum, China, whose scholarly work focuses primarily on thermo-sensitive polymers, drilling and completion fluids, rheological modification systems, and advanced materials for petroleum engineering applications. Wang has contributed to research within the broader domain of chemical engineering, particularly in relation to intelligent responsive polymer systems designed for challenging downhole environments.[1] The researcher has established an emerging publication profile indexed within Scopus, demonstrating involvement in interdisciplinary studies associated with drilling fluid technologies, polymer science, and oilfield chemistry.[2]

Abstract

The Best Researcher Award recognition article highlights the academic profile and scientific contributions of Jinran Wang in the field of chemical engineering and intelligent polymer systems for drilling and completion fluids. Wang’s research demonstrates engagement with thermo-sensitive polymer technologies and their applications in petroleum engineering environments characterized by high temperature, pressure variability, and complex geological conditions.[2] Through publications indexed in Scopus and contributions to polymer-responsive drilling systems, the researcher has contributed to the ongoing advancement of environmentally adaptive drilling technologies and fluid engineering strategies.

Keywords

  • Thermo-sensitive polymers
  • Chemical engineering
  • Drilling fluids
  • Responsive polymer systems
  • Petroleum engineering

Introduction

Recent developments in petroleum engineering and drilling technologies have increased the need for advanced responsive materials capable of functioning effectively under harsh subsurface conditions. Thermo-sensitive polymers and intelligent drilling fluid systems have emerged as important research areas because of their ability to adapt dynamically to environmental changes such as temperature and pressure fluctuations.[2] Within this evolving scientific landscape, Jinran Wang has contributed to the study of responsive polymer systems and their applications in drilling and completion fluid technologies.

The researcher’s publication profile reflects involvement in investigations related to rheological modifiers, environmentally adaptive polymers, and multifunctional additives for water-based drilling fluids. Such research aligns with global efforts to improve drilling efficiency, operational safety, and sustainability within oil and gas exploration sectors.

Research Profile

Jinran Wang is associated with China University Of Petroleum in Beijing, China, and maintains an indexed author profile in Scopus under Author ID 58794217800.[1] The available bibliometric data indicate eight indexed documents with citation activity and an h-index reflecting emerging scholarly engagement within the chemical engineering discipline.

The researcher’s work primarily focuses on thermo-responsive polymers and their integration into drilling fluid systems designed for complex geological and downhole environments. The research profile also demonstrates interdisciplinary collaboration involving polymer chemistry, nanocomposite engineering, rheological control systems, and petroleum fluid technologies.[2]

  • Thermo-sensitive polymer systems
  • Water-based drilling fluid technologies
  • Rheological modification strategies
  • Oilfield chemistry and drilling engineering
  • Nanocomposite polymer applications

Research Contributions

Among Wang’s notable academic contributions is the study titled Application of thermo-sensitivity polymers in drilling and completion fluids, published in Chemical Engineering Science.[2] The article systematically reviewed mechanisms associated with lower critical solution temperature and upper critical solution temperature behaviors in intelligent polymers while discussing their applications as rheology modifiers, plugging agents, viscosity reducers, and fluid-loss additives.

The research addressed challenges associated with deep high-temperature and high-pressure drilling environments, where conventional fluid systems often experience thermal degradation and instability.[2] Through analysis of thermo-responsive polymer systems, the study explored pathways toward intelligent drilling fluids capable of adaptive in situ performance regulation.

Another documented publication involved the preparation and performance evaluation of a water-in-water drag reducer published in Colloid and Polymer Science.[1] This contribution reflects ongoing engagement with advanced polymeric fluid systems and material performance optimization relevant to industrial chemical engineering processes.

Publications

Selected publications associated with Jinran Wang include peer-reviewed works in chemical engineering, drilling fluid science, and polymer-responsive systems.[1]

  • Wang, J., Jiang, G., Li, X., He, Y., Dong, T., & Yang, L. (2026). Application of thermo-sensitivity polymers in drilling and completion fluids. Chemical Engineering Science.
  • Wang, J. et al. (2025). Preparation and performance evaluation of a water-in-water drag reducer. Colloid and Polymer Science.

Research Impact

The research contributions associated with Jinran Wang contribute to ongoing scientific discussions concerning intelligent responsive materials for petroleum engineering applications. Thermo-sensitive polymers have become increasingly significant because of their potential to improve drilling fluid adaptability under extreme downhole conditions.[2]

Wang’s publication activity demonstrates involvement in the advancement of smart polymeric systems capable of autonomous environmental response. Such studies may support future improvements in drilling efficiency, fluid stability, rheological regulation, and environmentally adaptive engineering solutions.

The interdisciplinary character of this work, combining chemical engineering, materials science, and petroleum engineering, reflects broader scientific efforts aimed at creating intelligent industrial systems for challenging operational environments.

Award Suitability

Jinran Wang’s academic activities and publication record demonstrate suitability for recognition within scientific and engineering award frameworks focused on emerging research excellence. The researcher’s engagement with advanced polymer systems, intelligent drilling fluid technologies, and environmentally adaptive engineering materials aligns with contemporary priorities in industrial chemical research and petroleum engineering innovation.[2]

The Best Researcher Award consideration is further supported by contributions to peer-reviewed scientific literature indexed in recognized databases, interdisciplinary collaboration, and participation in research themes with industrial and technological relevance.[1]

Conclusion

Jinran Wang represents an emerging researcher in the field of chemical engineering whose work contributes to the development of thermo-sensitive polymer systems and intelligent drilling fluid technologies. Through publications focused on responsive polymer behavior, rheological modification, and adaptive drilling systems, the researcher has participated in advancing scientific understanding within petroleum-related engineering applications.[2] The documented scholarly profile, interdisciplinary research orientation, and contributions to indexed scientific literature collectively support recognition within academic and professional research award initiatives.

References

    1. Elsevier. (n.d.). Scopus author details: Jinran Wang, Author ID 58794217800. Scopus.
      https://www.scopus.com/authid/detail.uri?authorId=58794217800
    2. Wang, J., Jiang, G., Li, X., He, Y., Dong, T., & Yang, L. (2026). Application of thermo-sensitivity polymers in drilling and completion fluids. Chemical Engineering Science, 334, 124152. DOI: https://doi.org/10.1016/j.ces.2026.124152

Neusa Steiner | Ecology and Conservation | Women Researcher Award

Women Researcher Award

Neusa Steiner
University of Hawai‘i at Mānoa, United States
Neusa Steiner
Affiliation University of Hawai‘i at Mānoa
Country United States
Scopus ID 7006954823
Documents 60
Citations 957+
h-index 17
Subject Area Ecology and Conservation
Event International Forensic Scientist Awards
ORCID 0000-0001-6063-9242

Neusa Steiner is a researcher associated with the University of Hawai‘i at Mānoa whose scholarly work has contributed significantly to plant biotechnology, conservation biology, seed physiology, somatic embryogenesis, and cryopreservation studies. Her academic record reflects sustained contributions to the understanding of ex situ plant conservation and the developmental physiology of forest and tropical plant species.[1] Through collaborative international research, Steiner has contributed to advances in plant developmental biology and ecological conservation methodologies relevant to sustainable biodiversity management.[2]

Abstract

This article presents an academic overview of the research profile and scholarly contributions of Neusa Steiner in the fields of ecology, conservation biology, plant physiology, and biotechnology. Steiner’s research activities have focused on somatic embryogenesis, conservation of forest genetic resources, cryopreservation technologies, seed biology, and in vitro culture systems for endangered and economically significant plant species.[3] Her publication record demonstrates interdisciplinary collaboration and scientific engagement across multiple botanical and environmental research domains. The article further examines her suitability for recognition through the Women Researcher Award presented at the International Forensic Scientist Awards.

Keywords

Plant Biotechnology, Ecology and Conservation, Somatic Embryogenesis, Cryopreservation, Seed Physiology, Forest Genetic Resources, In Vitro Culture, Ex Situ Conservation, Araucaria angustifolia, Women Researcher Award

Introduction

The advancement of plant biotechnology and conservation sciences has become increasingly important in response to global biodiversity loss and environmental change. Researchers contributing to these areas play a critical role in developing strategies for species preservation, propagation, and ecological sustainability. Neusa Steiner has contributed to this scientific landscape through research on embryogenic cultures, seed conservation technologies, and physiological mechanisms associated with plant development.[4]

Her academic collaborations have involved institutions and researchers across Latin America and international scientific communities, with studies frequently addressing conservation challenges related to Araucaria angustifolia and other native species.[5] The integration of molecular, histological, and physiological methodologies within her research portfolio has contributed to broader understanding in plant developmental biology and biotechnology.

Research Profile

Neusa Steiner’s scholarly profile reflects a sustained commitment to plant conservation and developmental physiology. Her documented academic output includes more than sixty indexed publications with substantial citation activity across biotechnology and ecological sciences.[1] Her work frequently investigates somatic embryogenesis and cellular differentiation processes in gymnosperm species, particularly Araucaria angustifolia.

Steiner’s research interests include:

  • Ex situ plant conservation methodologies
  • Seed physiology and seed storage technologies
  • Cryopreservation systems for endangered plant species
  • In vitro culture and embryogenic development
  • Forest genetic resource conservation

Her collaborations with specialists in plant developmental physiology, molecular biology, and environmental biotechnology demonstrate an interdisciplinary approach to botanical sciences.[6]

Research Contributions

Steiner’s scientific contributions include investigations into polyamine-mediated regulation of embryogenic cultures and endogenous hormone interactions in conifer species.[7] Her studies have explored how biochemical signaling pathways influence embryogenic competence and developmental transitions in plant tissue cultures.

Several of her publications address the conservation and propagation of Araucaria angustifolia, a species of ecological and conservation significance in South America. Research outputs associated with this work have provided insights into embryogenic tissue characterization, metabolic regulation, and somatic embryo development.[8]

Her work has additionally contributed to:

  • Improvement of somatic embryogenesis protocols
  • Morphological and ultrastructural characterization of embryogenic tissues
  • Biochemical analysis of developmental pathways
  • Studies related to seed dormancy and environmental adaptation
  • Biotechnological approaches for forest species conservation

Publications

Selected publications associated with Neusa Steiner include the following:

  1. Steiner, N., Santa-Catarina, C., Silveira, V., Floh, E.I.S., and Guerra, M.P. “Polyamine effects on growth and endogenous hormones levels in Araucaria angustifolia embryogenic cultures.” Plant Cell, Tissue and Organ Culture, 89(1), 55–62 (2007).
  2. Steiner, N., Santa-Catarina, C., Guerra, M.P., Cutri, L., Dornelas, M.C., and Floh, E.I.S. “A gymnosperm homolog of SOMATIC EMBRYOGENESIS RECEPTOR-LIKE KINASE-1 is expressed during somatic embryogenesis.” Plant Cell, Tissue and Organ Culture, 109(1), 41–50 (2012).
  3. Farias-Soares, F.L., Steiner, N., Schmidt, É.C., Pereira, M.L.T., et al. “The transition of proembryogenic masses to somatic embryos in Araucaria angustifolia is related to endogenous contents of IAA and ABA.” Acta Physiologiae Plantarum, 36(7), 1853–1865 (2014).
  4. Stefenon, V.M., Steiner, N., Guerra, M.P., and Nodari, R.O. “Integrating approaches towards the conservation of forest genetic resources.” Biodiversity and Conservation, 18(9), 2433–2448 (2009).

Research Impact

The research impact associated with Neusa Steiner is reflected through citation metrics, interdisciplinary collaborations, and long-term scientific contributions to conservation biotechnology.[9] Her studies are widely referenced in research concerning plant embryogenesis, seed conservation, and forest biotechnology.

Steiner’s work has supported improved understanding of developmental physiology in threatened plant species while contributing to conservation-oriented biotechnology applications. Her research findings continue to inform ongoing investigations into cryopreservation, tissue culture optimization, and environmental adaptation mechanisms in plants.[10]

Award Suitability

Neusa Steiner demonstrates several characteristics aligned with the objectives of the Women Researcher Award presented through the International Forensic Scientist Awards. Her publication record, citation performance, collaborative scientific engagement, and contribution to ecological and conservation sciences collectively indicate sustained academic productivity and research influence.[11]

The interdisciplinary relevance of her work in biotechnology, conservation, and plant developmental physiology reflects scientific leadership in areas important to biodiversity preservation and sustainable environmental research. Her contributions also illustrate the role of women researchers in advancing international scientific collaboration and innovation within applied biological sciences.

Conclusion

Neusa Steiner has established a notable academic profile through her contributions to plant biotechnology, ecology, and conservation-oriented research. Her investigations into somatic embryogenesis, cryopreservation, and seed physiology have contributed to scientific understanding of plant developmental processes and forest genetic resource conservation. Through a combination of scholarly publications, collaborative research, and interdisciplinary scientific engagement, Steiner’s work represents a meaningful contribution to contemporary conservation biology and plant science research.[12]

References

  1. Elsevier. (n.d.). Scopus author details: Neusa Steiner, Author ID 7006954823. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=7006954823
  2. ORCID. (n.d.). Neusa Steiner ORCID Profile.
    https://orcid.org/0000-0001-6063-9242
  3. Steiner, N. et al. (2007). Polyamine effects on growth and endogenous hormones levels in Araucaria angustifolia embryogenic cultures.
    https://link.springer.com/article/10.1007/s11240-007-9216-5
  4. Santos, A.L.W. et al. (2002). Somatic embryogenesis in parana pine (Araucaria angustifolia).
  5. Stefenon, V.M., Steiner, N., Guerra, M.P., and Nodari, R.O. (2009). Integrating approaches towards the conservation of forest genetic resources.
    https://link.springer.com/article/10.1007/s10531-009-9600-z
  6. University of Hawai‘i at Mānoa. (n.d.). Research affiliation and academic activities.
  7. Dutra, N.T. et al. (2013). Polyamines affect cellular growth and structure of pro-embryogenic masses.
  8. Farias-Soares, F.L. et al. (2014). Transition of proembryogenic masses to somatic embryos in Araucaria angustifolia.
    https://link.springer.com/article/10.1007/s11738-014-1560-6
  9. Google Scholar. (n.d.). Neusa Steiner citation metrics and publication records.
  10. Castander-Olarieta, A. et al. (2019). Thermal stress and metabolite profiles during radiata pine somatic embryogenesis.
  11. Steiner, N. et al. (2016). Morphological and ultrastructural characterization of proembryogenic masses and early somatic embryos.

Anna Sójka-Makowska | Medicine and Health Sciences | Forensic Scientist of the Year Award

Forensic Scientist of the Year Award

Anna Sójka-Makowska
Poznan University of Medical Sciences, Poznan, Poland
Anna Sójka-Makowska
Affiliation Poznan University of Medical Sciences
Country Poland
Scopus ID 57196022239
Documents 5
Citations 165
h-index 5
Subject Area Medicine and Health Sciences
Event International Forensic Scientist Awards
ORCID 0000-0002-0193-0491

Anna Sójka-Makowska is associated with the Poznan University of Medical Sciences in Poland and has contributed to interdisciplinary clinical research involving temporomandibular disorders, neurophysiological diagnostics, dentistry, and related biomedical sciences. Her scholarly activities include investigations into temporomandibular dysfunctions, headache disorders, neuroendocrine biomarkers, and patient-centered therapeutic methodologies within modern dental and medical practice.[1] Her publication profile reflects continued academic engagement in diagnostic sciences and clinical assessment methodologies relevant to forensic and health-related research domains.[2]

Abstract

The professional activities of Anna Sójka-Makowska demonstrate sustained involvement in clinical and diagnostic investigations within dentistry and biomedical sciences. Her work has addressed temporomandibular disorders, neurophysiological examinations, headache-associated dysfunctions, and biomarker-oriented clinical studies. Through peer-reviewed publications and collaborative research projects, she has contributed to evidence-based methodologies that support patient diagnostics and interdisciplinary healthcare research.[3] The combination of clinical relevance and analytical rigor supports recognition within the framework of the Forensic Scientist of the Year Award.

Keywords

Temporomandibular Disorders, Dentistry, Neurophysiology, Biomarkers, Clinical Diagnostics, Prosthodontics, Oral Health Research, Forensic Medicine, Medical Sciences, Temporomandibular Joint Disorders.

Introduction

Research involving temporomandibular disorders and associated neurological or psychological conditions represents an important area within contemporary clinical medicine. Anna Sójka-Makowska has participated in studies examining the relationship between temporomandibular dysfunctions, headache disorders, stress-related conditions, and neuroendocrine biomarkers.[4] Her investigations have contributed to the understanding of diagnostic frameworks such as DC/TMD and related clinical assessment methodologies applied in patient-centered healthcare environments.[5]

The interdisciplinary nature of her research reflects collaboration across dentistry, neurology, behavioral sciences, and rehabilitation-oriented medicine. Such integration of clinical knowledge and analytical approaches aligns with the objectives of academic recognition programs focused on healthcare innovation and applied scientific contributions.

Research Profile

Anna Sójka-Makowska serves within the academic and clinical environment of Poznan University of Medical Sciences. Her research profile includes publications in journals related to craniofacial medicine, behavioral sciences, prosthodontics, and neurophysiology. She has participated in investigations concerning temporomandibular disorders among adolescents and adults, clinical examination protocols, patient satisfaction in prosthodontic treatment, and biomarker studies associated with neurological conditions.[6]

According to indexed academic records, her Scopus profile reports measurable citation activity and scholarly visibility within medical and dental sciences.[1] Her work demonstrates consistent involvement in clinically applicable research supported by peer-reviewed dissemination and interdisciplinary cooperation.

Research Contributions

A significant component of Anna Sójka-Makowska’s contributions involves the study of temporomandibular disorders and their relationship with neurological, psychological, and physiological indicators. Her studies have explored stress manifestations, anxiety, and psychosocial influences associated with temporomandibular dysfunctions in clinical populations.[7]

Recent investigations have focused on biomarkers including Nesfatin-1 and Ghrelin/GOAT in adolescent headache and epilepsy-related studies. These projects contribute to ongoing scientific discussions concerning neuroendocrine regulation, pain mechanisms, and diagnostic biomarkers relevant to neurological and craniofacial disorders.[8]

  • Clinical investigations into temporomandibular disorders and patient diagnostics.
  • Research on neuroendocrine biomarkers associated with headache and epilepsy conditions.
  • Comparative studies involving DC/TMD and RDC/TMD diagnostic methodologies.
  • Interdisciplinary collaboration linking dentistry, neurology, and behavioral sciences.
  • Peer-reviewed dissemination in clinical and biomedical journals.

Publications

Selected scholarly publications associated with Anna Sójka-Makowska include peer-reviewed articles, literature reviews, conference papers, and clinical studies relevant to dentistry and medical sciences.[9]

  • Is there a relationship between psychological factors and TMD? — Brain and Behavior (2019). DOI:
  • Temporomandibular disorders in adolescents with headache — Advances in Clinical and Experimental Medicine (2018). DOI:
  • Relations between the results of complex clinical and neurophysiological examinations in patients with temporomandibular disorders symptoms — CRANIO (2017). DOI:
  • Comparison of Diagnostic Criteria for Temporomandibular Disorders (DC/TMD) and RDC/TMD — IRONS Journal (2016).
  • Nesfatin-1 and Ghrelin/GOAT as Potential Biomarkers in Adolescent Headache with Temporomandibular Disorders — Journal of Medical Science (2025).

Research Impact

The academic impact of Anna Sójka-Makowska’s work is reflected through citation activity, collaborative publications, and participation in clinically oriented biomedical research. Her studies have addressed practical diagnostic challenges within dentistry and craniofacial medicine while also contributing to broader discussions involving pain disorders, neurophysiology, and behavioral health.[10]

Research concerning temporomandibular disorders and neuroendocrine biomarkers carries importance for both diagnostic sciences and patient management frameworks. The integration of clinical examinations with evidence-based analysis supports scientific advancement within healthcare disciplines and contributes to ongoing improvements in interdisciplinary diagnostic methodologies.

Award Suitability

Anna Sójka-Makowska demonstrates professional and academic characteristics relevant to the objectives of the Forensic Scientist of the Year Award. Her involvement in diagnostic research, clinical methodologies, and biomarker-based investigations illustrates a commitment to scientific rigor and interdisciplinary healthcare research.[11]

The combination of indexed publications, citation visibility, collaborative investigations, and contributions to patient-oriented diagnostics supports consideration for scholarly recognition. Her research profile reflects continued engagement with scientifically relevant issues that intersect clinical medicine, dentistry, neurophysiology, and evidence-based diagnostic practice.

Conclusion

Anna Sójka-Makowska has established a research portfolio centered on temporomandibular disorders, clinical diagnostics, neurophysiological assessment, and interdisciplinary medical investigations. Her scholarly contributions within dentistry and health sciences demonstrate consistency in research activity and participation in clinically applicable scientific studies.[12] Through publications, collaborative projects, and analytical clinical research, she represents a suitable candidate for recognition within international scientific award frameworks.

References

  1. Elsevier. (n.d.). Scopus author details: Anna Sójka-Makowska, Author ID 57196022239. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57196022239
  2. ORCID. (n.d.). Anna Sójka-Makowska ORCID Profile.
    https://orcid.org/0000-0002-0193-0491
  3. Sójka, A., et al. (2017). Relations between the results of complex clinical and neurophysiological examinations in patients with temporomandibular disorders symptoms. CRANIO.
    https://www.tandfonline.com/doi/full/10.1080/08869634.2017.1290907
  4. Sójka, A., et al. (2018). Temporomandibular disorders in adolescents with headache. Advances in Clinical and Experimental Medicine.
    https://www.researchgate.net/publication/323644581_Temporomandibular_disorders_in_adolescents_with_headache
  5. Sójka, A., Pilarski, J., & Hędzelek, W. (2021). Description of the methodology for clinical examination of patients with temporomandibular disorders according to DC/TMD classification. Dental Forum.
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David Pialla | Engineering | Industry Impact Award

Industry Impact Award

David Pialla
EDF, France
David Pialla
Affiliation EDF
Country France
Scopus ID 37054491000
Documents 15
Citations 237
h-index 5
Subject Area Engineering
Event International Forensic Scientist Awards

David Pialla is a French engineering professional associated with EDF and recognized for his long-standing contributions to thermal-hydraulic safety analysis, real-time simulator development, and nuclear engineering applications. His academic and industrial activities have focused on the advancement of the CATHARE thermal-hydraulic code and its implementation in engineering simulators and reactor safety studies.[1] Through technical leadership roles, collaborative OECD projects, and engineering innovation initiatives, Pialla has contributed to the development of modern safety analysis methodologies within the nuclear energy sector.[2]

Abstract

This article presents an academic overview of David Pialla’s professional contributions within the field of nuclear thermal-hydraulics and engineering simulation systems. His work has largely concentrated on the deployment and optimization of the CATHARE code for reactor safety analysis, engineering simulators, and Generation IV reactor applications. Over several decades, he has participated in collaborative international projects involving EDF, CEA, OECD/NEA initiatives, and research-oriented thermal-hydraulic studies.[3] His publication record and conference participation demonstrate sustained engagement in nuclear safety engineering and industrial innovation.

Keywords

Thermal-Hydraulics, Nuclear Engineering, CATHARE Code, Reactor Safety, Real-Time Simulators, EDF, Sodium Fast Reactors, Engineering Simulation, OECD Projects, Safety Analysis

Introduction

Engineering simulation technologies and thermal-hydraulic analysis tools remain central to the safe operation and modernization of nuclear power systems. David Pialla has contributed to this domain through technical leadership and research activities associated with EDF and earlier roles at the Commissariat à l’Energie Atomique et aux Energies Alternatives (CEA).[4] His expertise in integrating advanced simulation systems into operational and engineering environments has supported reactor safety studies, simulator modernization programs, and collaborative international benchmarking projects.

Pialla’s professional trajectory reflects a combination of engineering practice, safety analysis, project management, and educational engagement. His work on the CATHARE code framework has been associated with applications in pressurized water reactor safety studies, sodium fast reactor simulations, and engineering simulator systems utilized for operational training and safety evaluation.[5]

Research Profile

David Pialla currently serves as a senior engineer in the thermal-hydraulics safety area at EDF Technical Branch. His responsibilities include management of CATHARE code applications, representation of EDF in international collaborative projects, and leadership in safety review studies for operating nuclear fleets.[1]

Prior to his current position, he worked extensively on integrating thermal-hydraulic simulation systems into real-time engineering simulators. Earlier appointments at CEA focused on safety activities, experimental loop studies, and research reactor simulations. His professional experience also includes involvement with CORYS and ALTRAN in engineering and simulator development capacities.[6]

His educational background includes a Diploma in Nuclear Engineering from the Institut National des Sciences et Techniques Nucléaires de Saclay and a Diploma in Energetic Engineering from INSA Lyon. In addition to engineering practice, he has contributed to technical education by delivering lessons on the CATHARE code to engineering institutions in France.

Research Contributions

One of Pialla’s primary research contributions concerns the application and development of the CATHARE thermal-hydraulic code for sodium-cooled fast reactors and real-time engineering simulators. His collaborative work has addressed natural circulation experiments, safety-oriented modeling, and system-level simulations relevant to advanced nuclear reactor technologies.[7]

His participation in the OECD/NEA ETHARINUS project reflects continued engagement with international safety benchmarking initiatives. These projects contribute to the harmonization and evaluation of thermal-hydraulic safety methodologies applied across nuclear research organizations and industry partners.[8]

Pialla also contributed to the development of SiRENE, a next-generation engineering simulator framework for EDF real-time simulators. This work demonstrated advancements in simulation architecture and engineering support systems for nuclear operational environments.[9]

  • Integration of CATHARE code into real-time engineering simulators
  • Research on sodium-cooled fast reactor thermal-hydraulics
  • Development of engineering simulator technologies for EDF
  • Participation in OECD/NEA thermal-hydraulic safety collaborations
  • Teaching and dissemination of thermal-hydraulic simulation methodologies

Publications

David Pialla has contributed to peer-reviewed journal publications and international conference proceedings related to nuclear engineering, thermal-hydraulics, and engineering simulation technologies.[10]

  • Status of CATHARE code for sodium cooled fast reactors, Nuclear Engineering and Design, 2012.
  • Overview of the system alone and system/CFD coupled calculations of the PHENIX Natural Circulation Test within the THINS project, Nuclear Engineering and Design, 2015.
  • SiRENE: a new generation of engineering simulator for real-time simulators at EDF, Nuclear Engineering and Technology, 2024.
  • Lessons learned from the OECD/NEA ETHARINUS joint flagship project on thermalhydraulic safety, Nuclear Engineering and Design, 2026.

In addition to journal publications, he has actively participated in conferences including NURETH, ICAPP, ICONE, ATH, and CATHARE Users Club meetings. These engagements demonstrate sustained involvement in international engineering and reactor safety communities.

Research Impact

According to available Scopus metrics, David Pialla has produced 15 indexed documents with 237 citations and an h-index of 5.[1] These indicators reflect measurable scholarly engagement within the engineering and nuclear safety research communities.

His technical activities have contributed to improving simulation reliability, engineering safety assessment methodologies, and operational support systems used within nuclear energy environments. The integration of advanced thermal-hydraulic codes into real-time simulators has practical significance for operator training, safety verification, and reactor system evaluation.[9]

Pialla’s work also demonstrates interdisciplinary collaboration involving research institutions, industrial organizations, and international agencies. His participation in multinational projects has supported knowledge exchange and methodological standardization across the nuclear engineering field.

Award Suitability

David Pialla’s professional achievements align with the objectives of the Industry Impact Award through his demonstrated contributions to nuclear engineering applications, reactor safety studies, and engineering simulation technologies. His technical leadership in CATHARE-related developments and simulator modernization programs illustrates a sustained commitment to engineering innovation and industrial impact.[5]

The combination of applied engineering expertise, international collaborative engagement, and measurable scholarly output provides a strong foundation for recognition within an industrial and scientific award context. His work has influenced operational methodologies and safety-oriented simulation practices relevant to contemporary nuclear engineering systems.

  • Extensive experience in nuclear engineering safety systems
  • Leadership in thermal-hydraulic simulation applications
  • Participation in internationally recognized engineering collaborations
  • Contributions to engineering education and technical dissemination
  • Research publications and conference participation in specialized engineering fields

Conclusion

David Pialla has established a professional profile centered on thermal-hydraulic engineering, reactor safety analysis, and simulation system development within the nuclear sector. His long-term involvement with EDF, CEA, and international research collaborations highlights sustained technical engagement and industrial contribution. Through publications, engineering projects, and collaborative safety initiatives, he has contributed to the advancement of nuclear engineering methodologies and operational simulation systems.[2]

References

  1. Elsevier. (n.d.). Scopus author details: David Pialla, Author ID 37054491000. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=37054491000
  2. EDF Technical Branch. (2026). Thermal-hydraulic safety and engineering simulation activities.
  3. Pialla, D., et al. (2024). SiRENE: a new generation of engineering simulator for real-time simulators at EDF. Nuclear Engineering and Technology, 56(3), 880-885.
    https://ui.adsabs.harvard.edu/abs/2024NuEnT..56..880P/abstract
  4. CEA. (2015). Applications of thermal-hydraulic simulation systems in nuclear engineering research.
  5. Pialla, D., Tenchine, D., Li, S., et al. (2015). Overview of the system alone and system/CFD coupled calculations of the PHENIX Natural Circulation Test within the THINS project. Nuclear Engineering and Design, 290, 78-86.
    https://www.sciencedirect.com/science/article/abs/pii/S0029549314006542
  6. INSTN Saclay. (1993). Diploma in Nuclear Engineering program details.
  7. Tenchine, D., Baviere, R., Bazin, P., et al. (2012). Status of CATHARE code for sodium cooled fast reactors. Nuclear Engineering and Design, 245, 140-152.
    https://www.sciencedirect.com/science/article/abs/pii/S0029549312000520
  8. OECD/NEA. (2025). ETHARINUS project on thermal-hydraulic safety analysis.
  9. Pialla, D., Sala, S., Morvan, Y., et al. (2024). Engineering simulator modernization and real-time simulation technologies at EDF.
  10. International Conference Proceedings. (2011–2025). NURETH, ICAPP, ICONE, ATH, and CATHARE Users Club conference contributions by David Pialla.