Best Researcher Award
National Chin-Yi University of Technology (NCUT), Taiwan
| Research Profile | |
|---|---|
| Affiliation | National Chin-Yi University of Technology |
| Country | Taiwan |
| Scopus ID | 57223193925 |
| Documents | 31 |
| Citations | 251 |
| h-index | 10 |
| Subject Area | Energy Harvesting Materials |
| Event | Architecture Engineers Awards |
| ORCID | 0000-0002-8948-6988 |
Yijen Huang is affiliated with the National Chin-Yi University of Technology in Taiwan and is recognized for scholarly contributions related to energy harvesting materials and advanced material applications. The researcher has developed a consistent publication record supported by indexed scientific outputs, citation performance, and interdisciplinary academic collaborations within materials engineering and applied technology research domains.[1]
Abstract
This article evaluates the academic profile and research performance of Yijen Huang from the National Chin-Yi University of Technology, Taiwan. The assessment highlights contributions to energy harvesting materials, scientific publications, interdisciplinary engineering studies, and citation performance indexed through Scopus records. Research outputs demonstrate involvement in advanced material characterization, sustainable energy technologies, and applied engineering investigations. The researcher maintains measurable scholarly visibility through citations, indexed documents, and collaborative publications. The presented evaluation supports the suitability of the researcher for recognition within the Architecture Engineers Awards based on academic productivity, research consistency, and contributions to material science and technological innovation.[1]
Keywords
Energy harvesting materials, material engineering, sustainable technology, nanomaterials, applied science, engineering research, Scopus indexed publications, interdisciplinary research, material characterization, technological innovation.
Introduction
Academic recognition programs frequently evaluate publication quality, citation influence, collaborative activities, and scientific relevance within specialized research domains. Yijen Huang has demonstrated continued involvement in engineering and material-related investigations associated with energy harvesting applications and interdisciplinary technology development. The researcher’s indexed publications contribute to the broader understanding of functional materials and sustainable engineering solutions within contemporary scientific research environments.[2]
Research Profile
The research profile of Yijen Huang reflects participation in experimental and applied engineering studies involving energy harvesting materials and advanced material processing techniques. The Scopus-authorized profile identifies multiple indexed documents and measurable citation activity supporting research visibility. The profile additionally indicates participation in collaborative scientific publications connected to engineering innovation and sustainable material development.[1]
Research Contributions
Research contributions associated with Yijen Huang include investigations into material synthesis, energy-related applications, and engineering optimization methods. Published studies address practical and theoretical considerations involving functional materials and performance enhancement techniques. These scholarly activities contribute to the advancement of engineering knowledge related to sustainable technologies and innovative material systems utilized within modern scientific applications.[3]
Publications
The publication record associated with the researcher includes peer-reviewed journal articles indexed through Scopus and related academic databases. These publications focus on energy harvesting materials, advanced engineering processes, and material characterization methodologies. Indexed outputs demonstrate sustained participation in scholarly communication and support measurable research dissemination across engineering and material science disciplines.[1]
- Research articles related to advanced material systems and energy applications.
- Collaborative engineering publications indexed in Scopus databases.
- Scientific studies associated with sustainable and applied technology research.
Research Impact
Citation metrics and indexed publication records indicate measurable academic influence within the researcher’s subject area. The available citation count and h-index suggest continued scholarly engagement and recognition from related scientific communities. Research visibility supported by database indexing contributes to institutional representation and encourages future interdisciplinary collaborations involving engineering and material innovation.[3]
Award Suitability
The academic profile of Yijen Huang demonstrates suitability for recognition within the Architecture Engineers Awards through measurable scholarly productivity, indexed publications, citation activity, and research specialization in energy harvesting materials. Contributions to applied engineering and sustainable technology research support the relevance of the researcher’s work within contemporary scientific and engineering evaluation criteria.[2]
Conclusion
Yijen Huang maintains a documented academic record characterized by indexed publications, citation performance, and engineering-focused research activities related to energy harvesting materials. The available scholarly indicators demonstrate consistent research engagement and contribution to interdisciplinary scientific studies. These academic characteristics support consideration for professional recognition within engineering and technology-oriented award evaluation frameworks.[4]
External Links
References
- Elsevier. (n.d.). Scopus author details: Yijen Huang, Author ID 57223193925. Scopus.
https://www.scopus.com/authid/detail.uri?authorId=57223193925 - ORCID. (n.d.). ORCID profile of Yijen Huang. ORCID Registry.
https://orcid.org/0000-0002-8948-6988 - Kamaraj, R., Lee, H., Huang, Y.-J., Chang, Y.-W., Hsu, R.-C., & Ahn, B. (2026). Controlling particle aggregation behavior and crystallinity of TiO₂
nanoparticles in supercritical anti-solvent processing. Journal of Nanoparticle Research, 28(4), 1–15. - Architecture Engineers Awards. (n.d.). Research recognition and academic excellence evaluation criteria.