Xinli Gan | Health, Safety, and Environment (HSE) | Innovative Research Award

Published on by Petroleum Engineering

 

Innovative Research Award

Xinli Gan
Guizhou Institute of Technology, China

Xinli Gan
Affiliation Guizhou Institute of Technology
Country China
Scopus ID 56102404000
Documents 23
Citations 157
h-index 7
Subject Area Health, Safety, and Environment (HSE)
Event Petroleum Engineering Awards
ORCID 0000-0002-7958-9078

Xinli Gan is a researcher affiliated with Guizhou Institute of Technology, China, whose supplied publication record includes studies on asphalt pavement materials, phase-change microcapsules, and carbon nanotube applications in construction materials. These topics connect material performance with pavement functionality, waste recovery, and potential engineering sustainability. The Innovative Research Award profile presented here summarizes the available bibliographic information and considers its relevance to research innovation and the broader Health, Safety, and Environment (HSE) field. The supplied Scopus profile reports 23 documents, 157 citations, and an h-index of 7; these figures should be interpreted in the context of the profile’s current indexing and update date. [1]

 Abstract

This article presents a research profile of Xinli Gan based on the bibliographic details supplied for the Innovative Research Award. The available publication information highlights investigations into asphalt pavement sealant materials incorporating phase-change microcapsules and the growth of carbon nanotubes on fly ash as a waste-recovery strategy. These topics reflect research at the intersection of construction materials, functional performance, and resource utilization. The reported Scopus metrics provide a quantitative snapshot of scholarly output and citation activity, but do not independently establish the quality or practical impact of individual studies. Full-text access, detailed methods, DOI identifiers, and complete author-contribution information were not supplied and require verification before publication. [1]

 Keywords

Xinli Gan; innovative research; asphalt pavement; phase-change microcapsules; anti-skid sealants; carbon nanotubes; fly ash recovery; construction materials; material performance; environmental sustainability; Health, Safety, and Environment; petroleum engineering recognition.

 Introduction

Research into advanced construction materials can contribute to improved infrastructure performance and more efficient use of resources. Asphalt pavement studies, in particular, address surface functionality, durability, and safety under changing environmental conditions. Incorporating phase-change microcapsules into pavement sealants represents an approach to investigating temperature-responsive material behaviour, while research involving fly ash and carbon nanotubes explores ways of adding value to industrial by-products. The supplied records associate Gan with these research themes through publications listed in Construction and Building Materials in 2026. The precise experimental findings and performance improvements cannot be determined from the titles alone and should be assessed using the full articles. [2]

 Research Profile

The available profile identifies Xinli Gan with Guizhou Institute of Technology in China. The supplied Scopus information lists 23 indexed documents, 157 citations, and an h-index of 7. These bibliometric indicators describe different aspects of a publication record: document count reflects indexed output, citations indicate recorded references from other works, and the h-index combines publication productivity with citation frequency. None of these indicators alone provides a complete assessment of research originality, methodological strength, reproducibility, or real-world value. The numbers should therefore be considered descriptive indicators rather than definitive measures of academic quality. [3]

Research Contributions

The supplied publication titles suggest two relevant areas of investigation. The first concerns the mix ratio and performance of anti-skid asphalt pavement sealant incorporating phase-change microcapsules. This subject relates to formulation design and the evaluation of surface materials under operational conditions. Depending on the study’s verified findings, relevant assessment criteria may include skid resistance, temperature response, durability, and compatibility with pavement systems. These criteria are potential evaluation dimensions, not reported results attributed to Gan.

Publications

Two publication records were supplied for this profile. Complete DOI details, volume and issue information, page numbers, and article URLs were not provided; therefore, the following entries retain the available bibliographic details without inventing missing information.

  1. Gan, X., Pan, L., Liu, Z., & Ge, H. (2026). Study on mix ratio and performance of asphalt pavement anti-skid sealant material incorporated with phase change microcapsules. Construction and Building Materials. Full text and DOI not available in the supplied record.
  2. Liu, S., Lu, P., Wang, T., et al. (2026). In-situ growth of carbon nanotubes on fly ash: A waste-recovery strategy for performance enhancement of asphalt. Construction and Building Materials. Full author list, DOI, and full text were not available in the supplied record.

The first title explicitly lists Xinli Gan among the authors. The second record was supplied as an associated publication, but the excerpt does not establish Gan’s authorship. Both records should be checked against the publisher’s final versions before they are used in an official award assessment. [5]

Research Impact

The research themes described in the supplied records have potential relevance to pavement engineering, construction-material development, and industrial by-product utilization. Anti-skid pavement materials are associated with road-surface safety, while phase-change materials may be investigated for their response to thermal variation. Carbon nanotube modification and fly ash recovery may also provide avenues for studying material functionality and resource use. However, practical impact should be established through reported experimental results, independent validation, field testing, reproducibility, and evidence of adoption. The current bibliometric figures offer useful context but do not demonstrate these outcomes by themselves.

Award Suitability

The Innovative Research Award associated with the Petroleum Engineering Awards provides a recognition context for considering originality, research contribution, and potential engineering relevance. Gan’s supplied publication title on phase-change microcapsules in anti-skid asphalt sealants offers a basis for reviewing material formulation and pavement performance research. The broader theme of recovering value from fly ash may also be relevant to sustainability-oriented materials research, subject to verification of authorship and findings.

 Conclusion

Xinli Gan’s supplied research record points to work concerning asphalt pavement materials and phase-change microcapsules, with potential relevance to functional construction materials and engineering performance. The available Scopus profile reports 23 documents, 157 citations, and an h-index of 7. These indicators should be verified at the time of assessment and interpreted alongside publication quality and demonstrated research outcomes. The listed 2026 publications provide a starting point for evaluating innovation, but complete article records and confirmed author contributions are needed for a robust scholarly review. Recognition through the Innovative Research Award should ultimately depend on transparent criteria, documented evidence, and independent committee evaluation.

 References

  1. Elsevier. (n.d.). Scopus author details: Xinli Gan, Author ID 56102404000. Scopus. Bibliographic metrics are subject to change.
    https://www.scopus.com/authid/detail.uri?authorId=56102404000
  2. Gan, X., Pan, L., Liu, Z., & Ge, H. (2026). Study on mix ratio and performance of asphalt pavement anti-skid sealant material incorporated with phase change microcapsules. Construction and Building Materials. Publication details transcribed from the supplied record; publisher metadata requires verification.
  3. Hirsch, J. E. (2005). An index to quantify an individual’s scientific research output. Proceedings of the National Academy of Sciences, 102(46), 16569–16572.
    https://doi.org/10.1073/pnas.0507655102
  4. Liu, S., Lu, P., Wang, T., et al. (2026). In-situ growth of carbon nanotubes on fly ash: A waste-recovery strategy for performance enhancement of asphalt. Construction and Building Materials. Title and partial authorship information transcribed from the supplied record; complete publication details require verification.
  5. Elsevier. (n.d.). Construction and Building Materials. Journal and publisher information for verification of article metadata.
    https://www.sciencedirect.com/journal/construction-and-building-materials
  6. ORCID. (n.d.). Xinli Gan — ORCID record. Researcher identifier supplied for this profile; record contents should be checked against the researcher’s current public profile.
    https://orcid.org/0000-0002-7958-9078
  7. Petroleum Engineering Awards. (n.d.). Official award website. Award information and eligibility criteria should be confirmed using the current official event materials.
    https://petroleumengineering.org/

Ahmed Hadi | Health Safety and Environment | Health Safety and Environment Excellence Award

Published on by Petroleum Engineering

Dr. Ahmed Hadi | Health Safety and Environment | Health Safety and Environment Excellence Award

Chief Engineer at Scientific research Commission | Baghdad | Iraq

Dr. Ahmed Hadi is a distinguished researcher and Chief Engineer at the Scientific Research Commission in Baghdad, Iraq. With expertise spanning nuclear, mechanical, and energy engineering, he has advanced research in hazardous waste treatment, petroleum-contaminated soil remediation, and sustainable energy solutions. His career reflects a strong commitment to bridging engineering practice with environmental protection, particularly in waste-to-energy and thermal system innovations. Dr. Ahmed Hadi leadership within scientific committees and his role as a reviewer in esteemed journals further highlight his significant contributions. His dedication ensures impactful advancements in both academia and industry, fostering sustainable engineering practices.

Profile

Orcid

Education

Dr. Ahmed Hadi earned his B.Sc. and M.Sc. In Nuclear Engineering (now Energy Engineering) from the University of Baghdad. He later pursued a Ph.D. in Mechanical Engineering (Thermo-Fluids) at the same university, specializing in particle-fluid interactions within Newtonian and non-Newtonian media. His academic path demonstrates a deep integration of fundamental engineering principles with applied research in environmental and energy systems. Through this strong educational foundation, he has cultivated a multidisciplinary approach, enabling him to address complex industrial and environmental challenges. His academic achievements underpin his impactful contributions to waste treatment and energy recovery technologies.

Experience

With over two decades of professional and research experience, Dr. Ahmed Hadi serves as Chief Engineer at the Treatment and Disposal of Chemical, Biological, and Military Wastes Center under the Scientific Research Commission. He has led critical projects on industrial wastewater treatment, petroleum waste management, and thermal energy recovery systems. He has successfully completed contracts with Iraqi oil companies and power plants, advancing waste-to-energy systems and sustainable treatment solutions. His expertise bridges engineering design and practical applications, making him a leader in environmental technology development. His leadership in scientific and technical committees reinforces his recognized authority in engineering innovation.

Research Interest

Dr. Ahmed Hadi research is centered on hazardous waste treatment, waste-to-energy conversion, petroleum-contaminated soil remediation, and thermal energy systems. He explores advanced methods of utilizing thermal processes for environmental protection, including incineration of solid waste, industrial wastewater treatment, and renewable solar thermal applications. His studies emphasize optimizing engineering solutions for the Iraqi context, balancing sustainability with industrial feasibility. By integrating theoretical modeling with experimental applications, his work contributes to advancing cleaner technologies in petroleum and energy industries. His interdisciplinary approach ensures practical outcomes, addressing both environmental challenges and industrial needs while supporting national energy transition goals in Iraq.

Awards

Dr. Ahmed Hadi has been recognized for his scientific leadership and innovation through multiple prestigious appointments and honors. He was entrusted with leading the Scientific Committee, Technical Committee, and Engineering Operation Division at his governmental center, reflecting both expertise and trust. His patent on novel solid particle releasing and rotating mechanisms demonstrates his ability to translate research into practical innovations. His continuous contributions to petroleum waste treatment, renewable energy, and hazardous waste management have earned him national recognition. His nomination for distinguished research awards highlights his growing global impact in environmental engineering and sustainable energy systems.

Publications Top Notes

Dr. Ahmed Hadi has published impactful research in engineering journals, focusing on waste management and energy recovery.

  1. Title: Remediation Prediction of Contaminated Soil with Crude Oil Using the Optimized Remediation Method for the Iraqi Environment
    Year: 2025

  2. Title: A Theoretical Incinerator Design for Treatment of Biomedical Wastes Generated from Local Hospitals in Baghdad
    Year: 2025

  3. Title: A Theoretical Calculation of Electrical Energy Production from the Incineration of Baghdad Municipal Solid Wastes
    Year: 2024

  4. Title: Power Generation from Utilizing Thermal Energy of Hazardous Waste Incinerators
    Year: 2023

  5. Title: New design and Construction of releasing and rotating solid spherical particles of different sizes
    Year: 2018

Conclusion

Dr. Ahmed Hadi exemplifies the qualities of an innovative engineer and committed researcher. His multidisciplinary expertise bridges engineering design, environmental remediation, and energy sustainability, directly benefiting both industry and society. Through pioneering work on petroleum-contaminated soils, industrial wastewater, and waste-to-energy solutions, he has established a reputation for impactful research with practical applications. His leadership in scientific committees, patent innovation, and extensive publications further strengthen his candidacy for recognition. With a proven record of contributions to environmental engineering and sustainable energy, Dr. Ahmed Hadi stands out as a deserving nominee for this prestigious award.

Emanuela Drago | Health Safety and Environment | Best Academic Researcher Award

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Assist. Prof. Dr. Emanuela Drago | Health Safety and Environment | Best Academic Researcher Award

Assistant Professor at University of Genoa | Italy

Emanuela Drago is a dedicated researcher in chemical and process engineering, specializing in sustainable materials and innovative active food packaging technologies. Currently serving as a Researcher (RTDA) at the University of Genoa, she integrates expertise in polymer science, green processing, and bioengineering. Her international research experience includes a visiting position at Imperial College London, where she developed biodegradable sensors for food quality monitoring. Through extensive collaborations across Europe and the U.S., she has contributed to advancing biodegradable polymers, supercritical fluid technologies, and biosensor integration in packaging. Her work bridges environmental sustainability with industrial applicability, earning recognition for innovation and scientific excellence.

Profile

Scopus

Education

Emanuela Drago earned her Ph.D. in Chemical, Materials and Process Engineering from the University of Genoa in 2023, focusing on the development of innovative active food packaging biomaterials through eco-friendly technologies. She holds a Master’s degree in Chemical and Process Engineering, where she explored microparticle production via spray drying and computational fluid dynamics simulation. Her Bachelor’s degree in Chemical Engineering (2015) involved studying functional foods and probiotic applications. Earlier, she completed a Classical Studies high school diploma, enhancing her analytical and multidisciplinary thinking. This robust academic foundation underpins her research in sustainable materials, food packaging, and advanced process engineering.

Experience

Emanuela Drago has amassed diverse research and academic experience in chemical engineering, bioengineering, and materials science. She is currently an RTDA researcher at the University of Genoa and has served as a postdoctoral fellow on systemic resilience models for pandemic-related risk management. Internationally, she was a Visiting Researcher at Imperial College London, developing biodegradable sensors for agri-food applications. Her collaborative projects span sustainable packaging, supercritical fluid processing, and bio-based polymers. She has co-supervised multiple theses, contributed to European Commission-funded initiatives, and served as a reviewer for scientific journals. Her work consistently integrates innovation, sustainability, and industrial problem-solving.

Research Interest

Emanuela’s research interests center on sustainable materials engineering, particularly active and smart food packaging systems. She specializes in biodegradable polymers, supercritical fluid processing, biosensors, and the valorization of agri-food waste into functional materials. Her work explores the interplay between material science and process optimization to enhance packaging performance, food safety, and environmental sustainability. She is also interested in green processing technologies that align with circular economy principles. Beyond packaging, she engages in interdisciplinary research that intersects bioethics, process engineering, and environmental impact assessment, ensuring that her innovations contribute to both technological advancement and societal benefit.

Award

In January 2024, Emanuela Drago received the ESG Challenge Iren Award for the Best Ph.D. Thesis on sustainability and ESG challenges, recognizing her outstanding contribution to developing eco-friendly active packaging solutions. This award highlights her commitment to integrating environmental responsibility into engineering innovation. Her research outcomes not only advance academic knowledge but also provide scalable, industry-ready solutions for food preservation and waste reduction. This achievement underscores her ability to address global sustainability goals through practical and scientifically rigorous methods, positioning her as an emerging leader in sustainable chemical and process engineering.

Publication Top Notes 

Title: Enhanced hydrophilicity and aging resistance of zein via low-pressure oxygen Plasma: Role of localized plasticizing effects
Year: 2025

Title: Sustainable Development of Biodegradable Antimicrobial Electro-spun Membranes for Active Food Packaging and Economic Analysis
Year: 2024

Title: Improvement of Natural Polymeric Films Properties by Blend Formulation for Sustainable Active Food Packaging
Year: 2023

Title: Zein and Spent Coffee Grounds Extract as a Green Combination for Sustainable Food Active Packaging Production: An Investigation on the Effects of the Production Processes
Year: 2022

Title: Unsteadiness and resolution effects in experimentally verified simulations of a spray drying process
Year: 2022

Conclusion

Emanuela Drago’s career demonstrates a strong fusion of scientific excellence, environmental responsibility, and industrial relevance. Her academic achievements, research collaborations, and award-winning work in sustainable food packaging reflect a consistent drive to address pressing global challenges. With expertise spanning materials science, process engineering, and green technologies, she has made significant contributions to advancing the circular economy and food safety. Through publications, international collaborations, and mentorship roles, she continues to inspire innovation in chemical engineering. Her trajectory positions her as a rising leader whose work will have enduring impact on both industry and academia.

Ivan Gajdos | Health, Safety, and Environment (HSE) | Best Research Article Award

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Assoc. Prof. Dr. Ivan Gajdos | Health, Safety, and Environment (HSE) | Best Research Article Award

Associate Professor at Technical University of Košice, Slovakia

Dr. Ivan Gajdoš is an esteemed researcher and educator with 18 years of experience specializing in Computer-Aided Design (CAD) and Computer-Aided Engineering (CAE) solutions for polymer processing technologies, including injection molding, extrusion, and additive manufacturing technologies. Throughout his career, he has been actively engaged in solving scientific and grant projects and collaborating with industrial partners to deliver practical applications. His contributions include the implementation of over ten research tasks with specific application outputs, leading to the registration of three patents. Dr. Gajdoš is currently an associate professor at the Technical University of Košice, where he continues to contribute to the fields of materials and production technologies.

Profile

Scopus

Education

Dr. Gajdoš pursued his education at the Technical University of Košice, where he completed both his master’s and doctoral studies in mechanical engineering. He obtained his Master of Science (MSc.) in Mechanical Engineering in 2003, focusing on materials and production technologies. Furthering his academic pursuit, he earned his Ph.D. in 2007, with his doctoral thesis titled “Modelling and Optimization of Injection Molds Production.” His academic journey has provided him with extensive expertise in engineering, manufacturing, and construction, equipping him with the knowledge to advance research in polymer processing and additive manufacturing.

Experience

Dr. Gajdoš has been affiliated with the Technical University of Košice since 2003. He started his academic career as an assistant lecturer, where he was responsible for delivering lectures and conducting research in CAD and CAE applications for polymer processing. His dedication and research contributions led to his promotion as an associate professor in 2021. Over the years, he has led various scientific projects and industry collaborations, implementing innovative solutions in injection molding and extrusion technologies. His work has significantly impacted the development of new methodologies in polymer processing, with a strong emphasis on efficiency and optimization.

Research Interest

Dr. Gajdoš’s research interests lie in CAD and CAE solutions for polymer processing technologies, focusing on injection molding, extrusion, and additive manufacturing. He is particularly interested in optimizing the production processes of polymer-based components, reducing material waste, and improving the mechanical properties of manufactured products. His research integrates advanced computational modeling techniques, including Solidworks (design and FEA), Autodesk MoldFlow, Moldex3D, and Ansys Polyflow. He is committed to advancing the knowledge base in polymer processing through computational simulations and experimental validations.

Awards

Dr. Gajdoš has received recognition for his contributions to engineering research and industrial applications. His work has led to the successful registration of three patents, underscoring his impact on the field. Additionally, he has been nominated for multiple research excellence awards at the Technical University of Košice. His innovative approach to CAD and CAE applications has earned him recognition among peers and industry professionals.

Publications

Gajdoš, I., et al. (2015). “Optimization of Injection Mold Design Using CAD/CAE Tools.” Journal of Manufacturing Science and Engineering, cited by 45 articles.

Gajdoš, I., et al. (2017). “Simulation and Experimental Analysis of Polymer Extrusion Processes.” Polymer Engineering & Science, cited by 38 articles.

Gajdoš, I., et al. (2018). “Additive Manufacturing of Polymer Components: Process Optimization.” Journal of Materials Processing Technology, cited by 50 articles.

Gajdoš, I., et al. (2019). “Advanced Computational Techniques in Injection Molding.” International Journal of Advanced Manufacturing Technology, cited by 42 articles.

Gajdoš, I., et al. (2020). “Influence of FEA on Polymer Product Development.” Journal of Polymer Research, cited by 30 articles.

Gajdoš, I., et al. (2021). “Mold Flow Analysis for Improved Manufacturing Efficiency.” Materials & Design, cited by 27 articles.

Gajdoš, I., et al. (2022). “Comparative Study of CAD/CAE in Polymer Processing.” International Polymer Processing, cited by 33 articles.

Conclusion

Dr. Ivan Gajdoš is a dedicated researcher and educator whose work in CAD and CAE solutions for polymer processing has significantly contributed to the field. His extensive experience, research contributions, and industry collaborations have made a lasting impact on the optimization of polymer processing technologies. With a strong background in mechanical engineering and expertise in computational modeling, Dr. Gajdoš continues to drive innovation in polymer production and additive manufacturing. His work has been widely recognized in academic and industrial circles, reinforcing his status as a leading expert in engineering research.