Junhao Hu | Catalytic Co-pyrolysis; Hydrogen Production; Carbon Nanotubes (CNTs) | Innovative Research Award

Innovative Research Award

Junhao Hu β€” Zhengzhou University, China

Junhao Hu
Affiliation Zhengzhou University
Country China
Scopus ID 55774098500
Documents 73
Citations 2,767
h-index 31
Subject Area Catalytic Co-pyrolysis; Hydrogen Production; Carbon Nanotubes (CNTs)
Event Global Composite Awards
ORCID 0000-0001-5179-5921

The Innovative Research Award recognizes scientific research that contributes to knowledge development, methodological advancement, and potential technological applications. This article presents the academic profile of Junhao Hu, affiliated with Zhengzhou University, China. The research areas supplied for this profile include catalytic co-pyrolysis, hydrogen production, and carbon nanotubes. These fields connect chemical processing, energy technologies, and advanced materials research. [1]

Abstract

Junhao Hu is associated with Zhengzhou University in China. The supplied profile identifies catalytic co-pyrolysis, hydrogen production, and carbon nanotubes as relevant research areas. These subjects have connections to thermochemical conversion, energy technologies, and nanomaterials. The provided bibliometric information lists 73 documents, 2,767 citations, and an h-index of 31. [1] [2]

Keywords

Junhao Hu, Innovative Research Award, Zhengzhou University, catalytic co-pyrolysis, hydrogen production, carbon nanotubes, nanomaterials, catalytic conversion, advanced materials, energy research, materials science, research impact, Global Composite Awards.

Introduction

Contemporary research in energy and materials science frequently combines chemical engineering, materials characterization, and process development. Catalytic co-pyrolysis investigates the thermal conversion of multiple feedstocks under oxygen-limited conditions, often with the aim of influencing product distribution. Hydrogen production encompasses several technological routes, each with different energy requirements and environmental considerations. [1]

Research Profile

The supplied profile identifies Junhao Hu with Zhengzhou University and gives the Scopus author identifier 55774098500. The associated ORCID identifier is 0000-0001-5179-5921. Scopus provides indexed publication and citation information, while ORCID supplies a persistent researcher identifier that can help distinguish academic records. Both resources should be consulted when verifying publication attribution and profile details. [1] [2]

Research Contributions

The listed research areas may intersect through catalyst development, carbon-material characterization, and energy-related material applications. For a composite-materials award, the strength of this relationship should be established by reviewing whether the research directly addresses composite fabrication, reinforcement, processing, interfaces, or performance. Subject labels alone are insufficient to confirm a specific research contribution. [3]

Publications

The supplied Scopus profile reports 73 documents. Individual publication titles, journal details, publication dates, and DOIs have not been included because a verified publication list was not provided for this article. The Scopus author profile is the primary starting point for reviewing indexed publications associated with the supplied author identifier. [1]

Research Impact

The supplied bibliometric indicators include 2,767 citations and an h-index of 31. Citation counts indicate how frequently scholarly works are cited within a particular database, while the h-index combines publication output with citation distribution. These measures can be useful when describing a research profile, but they are affected by subject area, publication age, database coverage, collaboration patterns, and author attribution. They should be considered alongside qualitative evaluation of individual publications. [1] [2]

Award Suitability

The Innovative Research Award profile is associated with the Global Composite Awards. The research areas supplied for Junhao Hu may have interdisciplinary relevance to materials science and energy research. Carbon nanotubes are directly relevant to advanced materials, while catalytic co-pyrolysis and hydrogen production may be relevant to composite research when supported by documented work on material synthesis, reinforcement, processing, functional properties, or performance. [1] [2]

Conclusion

Junhao Hu’s supplied academic profile identifies Zhengzhou University in China and lists catalytic co-pyrolysis, hydrogen production, and carbon nanotubes as research areas. The provided bibliometric figures are 73 documents, 2,767 citations, and an h-index of 31. These indicators offer quantitative context for reviewing scholarly activity, while publication-level verification remains necessary to assess the significance and relevance of specific contributions. [1]

References

  1. Elsevier. (2026). Scopus author details: Junhao Hu, Author ID 55774098500. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=55774098500
  2. ORCID. (2026). ORCID researcher profile: 0000-0001-5179-5921. ORCID.
    https://orcid.org/0000-0001-5179-5921
  3. Enhancing jet fuel production from catalytic co-pyrolysis of biomass and low-density polyethylene over sulfonated activated carbon catalysts.
    https://doi.org/10.1016/j.renene.2026.126253
  4. Catalytic co-pyrolysis of furfural residue and waste plastic for sustainable hydrogen and carbon nanotubes production through regulating the carbon precursor components.
    https://doi.org/10.1016/j.jaap.2026.108059
  5. Interpretable machine learning for optimizing product distribution in biomass-plastic co-pyrolysis: Unveiling synergistic mechanisms and operational windows.
    https://doi.org/10.1016/j.energy.2026.140729

Monika GΔ™bΒ­Β­ara | Magnetic Macrocomposites | Innovative Research Award

Monika GΔ™bΒ­Β­ara | Magnetic Macrocomposites | Innovative Research Award

Mrs. Monika GΔ™bΒ­Β­ara at Czestochowa University of Technology | Poland

Monika GΔ™bΒ­Β­ara is a researcher at CzΔ™stochowa University of Technology in Poland, focusing on condensed matter physics and materials science. Her research explores the magnetic properties of advanced materials, with a particular emphasis on understanding magnetization behavior under external influences such as DC-bias. Through her work, she applies theoretical models, including the T(x) model, to describe and predict magnetic response in complex systems, contributing to both fundamental insights and potential applications in electronics and magnetic devices. GΔ™bΒ­Β­ara has authored six peer-reviewed publications, which have collectively received 12 citations, reflecting the growing recognition of her work within the scientific community. She collaborates with multiple co-authors across interdisciplinary topics, indicating a strong engagement with international research networks. Her recent studies investigate how external electrical or magnetic fields influence material properties, aiming to optimize performance in functional materials and devices. By combining experimental investigation with theoretical modeling, her research provides a deeper understanding of structure–property relationships in magnetic systems. Although early in her career, GΔ™bΒ­Β­ara’s contributions show promise for advancing material characterization techniques and for developing novel materials with tunable magnetic properties, laying the groundwork for applications in sensors, spintronics, and energy-efficient electronic components.

Citation Metrics (Scopus Preview)

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12
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Citations
12

Documents
6

h-index
2

🟦 CitationsΒ Β Β  πŸŸ₯ DocumentsΒ Β Β  🟩 h-index

Featured Publications

Juanjuan Zhang | Nanocomposites | Editorial Board Member

Juanjuan Zhang | Nanocomposites | Editorial Board Member

Assoc. Prof. Dr. Juanjuan Zhang at Lanzhou University | China

Dr. Zhang Juanjuan is an interdisciplinary researcher whose work spans advanced functional materials, nanocomposites, and environmental geoscience, with a growing record of contributions across high-impact journals. Her research in materials science centers on understanding and engineering the mechanical, electrical, thermal, and multiferroic behaviors of polymer- and carbon-based composite systems. She has investigated the nonlinear mechanical responses and multi-field coupling characteristics of polymer-based multiferroic composites under combined tension and bending, offering critical insights for designing next-generation flexible and responsive materials. Her theoretical contributions include unified micromechanics-based models that reveal the effective electrical and thermal conductivities of MXene/polymer nanocomposites, advancing predictive capability for emerging MXene-enhanced functional materials. Zhang’s work on CNT-based nanocomposites extends to thermoelectric coupling around the glass-transition region, where she examines sensing performance and temperature-responsive characteristics essential for high-precision thermal sensors. She has also employed Monte Carlo methods to analyze electromagnetic shielding properties of CNT nanocomposite foams in the X-band frequency range, addressing challenges in lightweight, broadband shielding technologies. Beyond materials science, Zhang is a contributor to climate-focused environmental studies, including investigations into divergent phenological responses of soil microorganisms and plants to climate warming, and analyses of freeze–thaw cycle shifts along alpine wetland–grassland gradients, highlighting ecosystem vulnerabilities in a warming climate. Additionally, her work on CoFeβ‚‚Oβ‚„/P(VDF-TrFE) nanocomposites explores crystal phase transitions, multiferroic functionality, and associated biotoxicity considerations, integrating material performance with environmental and biological safety. Collectively, her research portfolio reflects a strong ability to bridge theoretical modeling, materials characterization, and environmental science, positioning her as a versatile scholar contributing to both advanced composite technologies and climate-related ecological understanding.

Profile:Β  Scopus | Googlescholar
Featured PublicationsΒ 

Dhirendra Jha | Nanocomposite | Best Researcher Award

Dhirendra Jha | Nanocomposite | Best Researcher Award

Mr. Dhirendra Jha, Tribhuvan University, Nepal.

Publication profile

Orcid

Education and Experience

EducationΒ πŸ“˜

  • M.Sc. in PhysicsΒ (Advanced Solid-State Physics): Tribhuvan University, Nepal, 1998 (First Division, 60.78%).
  • B.Sc. in Physics, Mathematics, Chemistry: Tribhuvan University, Nepal, 1995 (Second Division, 57.6%).
  • I.Sc. in Physics, Chemistry, Mathematics: Tribhuvan University, Nepal, 1992 (Second Division, 48%).
  • S.L.C.: Guru Nanak National High School, Guwahati, 1990 (First Division, 67%).

ExperienceΒ πŸ“‚

  • Assistant Professor, Physics:Β Amrit Science Campus, KathmanduΒ (2017–Present).
  • Lecturer (Part-time):Β National School of Sciences, KathmanduΒ (2007–Present).
  • Lecturer:Β Trinity International College, KathmanduΒ (2007–2017).
  • HOD (Physics):Β Mithila Institute of Technology, JanakpurΒ (1998–2007).
  • Campus Chief:Β Monastic H.S.E.B, JanakpurΒ (1998–2007).

Suitability For The Award

Mr. Dhirendra Jha is a highly experienced educator and researcher in physics with over 25 years of teaching and leadership experience. He holds a Master’s degree in Physics with specialization in Advanced Solid-State Physics and is currently pursuing a Ph.D. in Physics. Jha has contributed significantly through his roles as Campus Chief, Head of Department, and Lecturer at various institutions. His commitment to academic excellence and ongoing research makes him a strong candidate for the Best Researcher Award, with further emphasis on his research contributions.

Professional DevelopmentΒ 

Publications Top Notes

Enhanced super capacitance performance of Vβ‚‚Oβ‚…Β·nHβ‚‚O/g-C₃Nβ‚„ nanocomposites: Synthesis, characterizations, and electrochemical properties

Mabrouka Ghiloufi | Nanocomposites | Environmental Innovation Award

Mabrouka Ghiloufi | Nanocomposites | Environmental Innovation Award

Dr.Mabrouka Ghiloufi , Faculty of Sciences of Bizerte, Tunisia.

Publication profile

Orcid

Scopus

Education & Experience

  • πŸŽ“Β Ph.D.Β (2022–Present), Faculty of Sciences of Bizerte, Tunisia – Inorganic Chemistry
  • πŸŽ“Β Research MasterΒ (2019–2021), Faculty of Sciences of Bizerte, Tunisia – Inorganic Chemistry
  • πŸŽ“Β BachelorΒ (2015–2019), Faculty of Sciences of Bizerte, Tunisia – Chemistry
  • πŸ§ͺΒ Ph.D. Research InternΒ (2024–Present), Hof University of Applied Sciences, Germany – Photocatalysis
  • πŸ§ͺΒ Research InternΒ (2023), Hof University of Applied Sciences, Germany – TiO2 Photocatalytic Efficiency
  • 🧫 Student ResearcherΒ (2021), National Institute of Research, Tunisia – Nanocomposites for Degradation of Levofloxacin

Suitability for The Award

Dr.Mabrouka Ghiloufi is a commendable candidate for the Environmental Innovation Award, given her dedicated research in photocatalysis and her focus on developing nanocomposites for the degradation of pharmaceutical pollutants. As a Ph.D. student at the National Institute of Research and Physiochemical Analysis in Tunisia, she has actively contributed to the synthesis and characterization of TiO2-based nanocomposites, which are pivotal in addressing environmental contamination caused by pharmaceuticals. Her research not only emphasizes innovative solutions for pollution degradation but also explores the efficiency of these materials under various irradiation conditions, showcasing her commitment to advancing sustainable environmental technologies.

Professional Development (πŸ’ΌπŸ”¬)

Research Focus 🧫🧬

Awards and Honors (πŸ†πŸŽ–οΈ)

  • πŸ…Β Publication: “Investigation of the Effect of Oxide Additives on TiO2 Photocatalytic Efficiency,”Β Materials, 2024
  • πŸ…Β Publication: “Photocatalytic Activity of Ternary-Based-TiO2 Nanocomposite,”Β Inorganic and Nano-Metal Chemistry, 2024
  • πŸŽ–Β Workshop Attendance: Design of Experiments (DOE) using NemrodW Software, 2023
  • πŸŽ–Β Conference Attendance: 21st Tunisia Chemistry Conference, 2022
  • πŸ†Β Workshop Completion: Train the Trainer on Chemical Neutralization, USA, 2022

 

Publication Top Notes

  1. Investigation of the Effect of Oxide Additives on the Band Gap and Photocatalytic Efficiency of TiO2 as a Fixed Film
    Ghiloufi, M., Schnabel, T., Mehling, S., Kouass, S.
    Published:Β 2024,Β Cited by:Β 0Β πŸ“„
  2. Stability of power systems integrating renewable energy: Modal analysis of linear dynamic systems
    Ghiloufi, M., Sbita, L.
    Published:Β 2024,Β Cited by:Β 0Β πŸ“–
  3. Photocatalytic activity and electrochemical properties of a ternary-based-TiO2 nanocomposite
    Ghiloufi, M., Trifi, B., Kouass Sahbani, S., Dhaouadi, H., Kouass, S.
    Published:Β 2024,Β Cited by:Β 0Β πŸ“œ
  4. Impact of High Renewable Integration on Interarea Oscillations. Koopman Modal Analysis
    Boussaa, Y., Ghiloufi, M., Jlassi, Z., Ben Kilani, K., Elleuch, M.
    Published:Β 2022,Β Cited by:Β 0Β πŸ“Š

Conclusion

Dr.Mabrouka Ghiloufi Ghiloufi’s academic background, research initiatives, and collaborative efforts position her as a strong contender for the Environmental Innovation Award. Her work on photocatalytic nanocomposites addresses critical environmental challenges and demonstrates a commitment to innovative research that aligns with the award’s goals. Awarding her this recognition would not only honor her contributions but also encourage further advancements in sustainable practices within the field of chemistry.