Yijen Huang | Materials and Technology in Architecture | Best Researcher Award

Published on by Architecture Engineers

Best Researcher Award

Yijen Huang
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]

References

  1. Elsevier. (n.d.). Scopus author details: Yijen Huang, Author ID 57223193925. Scopus.


    https://www.scopus.com/authid/detail.uri?authorId=57223193925

  2. ORCID. (n.d.). ORCID profile of Yijen Huang. ORCID Registry.

    https://orcid.org/0000-0002-8948-6988
  3. 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.

    https://doi.org/10.1007/s11051-026-06636-8

  4. Architecture Engineers Awards. (n.d.). Research recognition and academic excellence evaluation criteria.

    architectureengineers.com

Zhitong Li | Materials and Technology in Architecture | Research Excellence Award

Published on by Architecture Engineers

Research Excellence Award

Zhitong Li
Beijing University of Posts and Telecommunications, China

Zhitong Li
Affiliation Beijing University of Posts and Telecommunications
Country China
Scopus ID 57197866696
Documents 40
Citations 564
h-index 13
Subject Area Nanophotonics
Event Architecture Engineers Awards

The Research Excellence Award recognizes scholarly contributions that demonstrate measurable impact in scientific research, interdisciplinary innovation, and global academic engagement. Zhitong Li has contributed to the field of nanophotonics through publications associated with optical engineering, photonic integration, and nanoscale communication technologies. The researcher’s academic profile reflects sustained scientific activity supported by indexed publications, citation performance, and participation in internationally recognized engineering and photonics research environments.[1]

Abstract

This article presents an academic overview of Zhitong Li in relation to the Research Excellence Award presented through the Architecture Engineers Awards platform. The profile examines research performance indicators, scholarly contributions, and thematic specialization in nanophotonics and optical engineering. The assessment is based on publication records, citation metrics, and interdisciplinary scientific relevance associated with contemporary photonic technologies and nanoscale optical systems.[1]

Keywords

Nanophotonics, Optical Engineering, Photonic Integration, Scientific Research, Optical Communication, Engineering Innovation, Citation Impact, Research Excellence Award, Academic Recognition, Nanoscale Optics.

Introduction

Nanophotonics is an interdisciplinary research field focused on the manipulation and control of light at nanometer scales. The discipline integrates principles from optics, materials science, telecommunications, and engineering to support advancements in optical communication systems, sensing technologies, and integrated photonic devices. Research activity within this domain contributes to both theoretical and applied scientific developments in modern engineering infrastructures.[2]

Academic recognition within engineering and scientific communities increasingly depends on publication quality, citation visibility, interdisciplinary collaboration, and sustained contributions to innovation-oriented research. The research profile of Zhitong Li reflects engagement with internationally indexed scholarly activities associated with nanophotonics and optical systems engineering.[1]

Research Profile

Zhitong Li is affiliated with the Beijing University of Posts and Telecommunications, an institution recognized for research in telecommunications, electronics, and photonic engineering. The researcher’s academic portfolio includes publications indexed in Scopus and related scholarly databases, indicating active participation in photonics-oriented scientific investigations.[1]

The Scopus-based academic metrics associated with the profile include 40 indexed documents, 564 citations, and an h-index of 13. These indicators suggest sustained visibility and engagement within the broader scientific community associated with photonics and engineering research.[1]

  • Research specialization in nanophotonics and optical engineering.
  • Scholarly publications indexed within international citation databases.
  • Interdisciplinary engagement involving optical communication technologies.
  • Measurable citation impact within engineering-related scientific literature.

Research Contributions

The scholarly contributions associated with Zhitong Li involve nanoscale optical systems, photonic integration technologies, and optical communication mechanisms. Research within these domains supports the development of efficient photonic platforms and advanced optical transmission systems used in modern telecommunications and sensing applications.[3]

Additional research relevance is observed through interdisciplinary collaboration between materials science and photonic engineering. Such integration contributes to advancements in optical miniaturization, waveguide technologies, plasmonic structures, and photonic device optimization.[4]

  • Development of nanoscale optical and photonic systems.
  • Research associated with integrated photonic communication technologies.
  • Scientific engagement in advanced optical materials and engineering applications.
  • Contribution to interdisciplinary photonics innovation and applied engineering research.

Publications

The publication portfolio associated with Zhitong Li includes peer-reviewed research outputs related to nanophotonics, photonic systems, and optical engineering technologies. The research themes demonstrate consistency in scientific focus and interdisciplinary engineering relevance.[1]

  1. Research articles on integrated photonic structures and nanoscale optical platforms.
  2. Scientific studies involving optical communication systems and photonic signal transmission.
  3. Collaborative engineering publications indexed in international databases.
  4. Interdisciplinary investigations involving optical materials and nanophotonic applications.

The publication record contributes to scientific understanding related to optical integration, nanoscale signal control, and photonic system optimization for future communication technologies.[3]

Research Impact

Research impact is commonly evaluated through citation visibility, scholarly dissemination, and interdisciplinary relevance. The citation metrics associated with Zhitong Li demonstrate measurable academic engagement within photonics and engineering-related scientific literature.[1]

Nanophotonics research contributes to practical technological advancements involving telecommunications infrastructure, optical sensing, and integrated photonic platforms. These research directions remain relevant to emerging engineering applications and innovation-driven scientific development.[4]

  • Citation-based evidence of academic dissemination and research visibility.
  • Contribution to emerging photonic communication technologies.
  • Interdisciplinary relevance across engineering and materials science disciplines.
  • Continued scientific participation in nanophotonics research development.

Award Suitability

The Research Excellence Award emphasizes scholarly productivity, scientific contribution, interdisciplinary impact, and measurable academic recognition. The publication metrics and research themes associated with Zhitong Li align with these evaluation principles through contributions to photonic engineering and nanophotonics research.[5]

The researcher’s documented citation performance and international publication visibility support the suitability of the profile for recognition within engineering-oriented academic award frameworks. The interdisciplinary character of the work further enhances its relevance within contemporary scientific and technological research environments.[2]

Conclusion

Zhitong Li’s academic profile demonstrates sustained scholarly engagement in nanophotonics and optical engineering research. The combination of indexed publications, citation impact, interdisciplinary research contributions, and scientific visibility supports the recognition of the researcher within academic award evaluation contexts. The research themes associated with the profile remain relevant to advancing photonic technologies and contemporary engineering innovation.[1]

References

  1. Tao, C., Li, W.-F., Yang, Y., Li, Z.-T., Wang, Y.-S., Zhang, S., Liu, Y.-Y., & Yang, Z.-M. (2026). High-purity structural color filters with high near-infrared reflectivity via multi-cavity resonances. Optical Materials, 174, 118004.
    https://doi.org/10.1016/j.optmat.2026.118004

  2. Shan, S., Ye, H., Yang, Z., Hou, J., & Li, Z. (2026). Color2Struct: Efficient and accurate deep-learning inverse design of structural color with controllable inference. Optics Express, 34(7), 13123–13132.
    https://doi.org/10.1364/OE.588226

  3. Ai, Q., Ma, X., Barkhausen, F., Zhai, X., Xing, C., Yang, X., Wang, P., Liu, T., Zhang, Y., Gu, Y., Li, P., Li, Z., Hatzopoulos, Z., Savvidis, P. G., Schumacher, S., & Gao, T. (2025). Tuning polariton vortices in an asymmetric ring potential. Applied Physics Letters, 127(12), 121103. https://doi.org/10.1063/5.0287076

Muhammad Hafiz Hassan | Materials and Technology in Architecture | Research Excellence Award

Published on by Architecture Engineers

Dr. Muhammad Hafiz Hassan | Materials and Technology in Architecture | Research Excellence Award

Senior Lecturer | Universiti Sains Malaysia | Malaysia

Dr. Muhammad Hafiz bin Hassan is a Senior Lecturer at the School of Mechanical Engineering, Universiti Sains Malaysia, specializing in advanced manufacturing, composite machining, CNC processes, coating technologies, and the structural integrity of composite–metal systems. He has held impactful roles including Senior Lecturer, Application Specialist at Gandtrack Asia, and Material and Process Engineer at Spirit Aero Systems, while also serving as a research advisor, technical consultant, and collaborator for multiple engineering and industrial partners. His research focuses on single-shot drilling of CFRP/metal stacks, customized twist-drill geometry, DLC and nanocomposite coatings, polymer–MOF systems, machining optimization, and thermal–mechanical performance evaluation. He has led and participated in national grants, community-driven engineering initiatives, and postgraduate supervision in machining, materials engineering, and composite systems. His achievements include multiple international gold medals, best paper awards, invited and keynote speaker engagements, and recognition for innovative engineering solutions, strengthened by his credentials as a Professional Engineer (BEM) and Professional Technologist (MBOT), as well as active roles in academic, industrial, and vocational advisory committees. His research impact includes 458 citations, 47 publications, and an h-index of 10.

Profiles: Scopus | ORCID | Google Scholar

Featured Publications

1. Khan M.A., Halil A.M., Abidin M.S.Z., Hassan M.H., Ab Rahman A.A. Influence of laser surface texturing on adhesive bonding: a comprehensive review on surface morphology and strength enhancement. Optics & Laser Technology, 2025.

2. Hamidi M.N., Abdullah J., Mahmud A.S., Hassan M.H., Zainoddin A.Y. Influence of thermoplastic polyurethane (TPU) and printing parameters on the thermal and mechanical performance of polylactic acid (PLA)/thermoplastic polyurethane (TPU) polymer. Polymer Testing, 2025.

3. Rusdi M.S., Rosli M.S.A.M., Manap A.H.A., Hassan M.H., Seman S.A.H.A. A mini review on elucidating wire lifting defects due to Au₅Al₂ formation in LED thermosonic bonding. International Journal of Nanoelectronics and Materials (IJNeaM), 2025.

4. Hamidi M.N., Abdullah J., Mahmud A.S., Hassan M.H., Zainoddin A.Y. Thermal characteristic of melt blend polylactic acid (PLA)/thermoplastic polyurethane (TPU) with different blend ratio. International Conference on Advancement in Materials, Manufacturing, 2024.

5. Khan M.A., Halil A.M., Abidin M.S.Z., Hassan M.H., Ab Rahman A.A. Influence of laser surface texturing on the surface morphology and wettability of metals and non-metals: a review. Materials Today Chemistry, 2024.

Dr. Muhammad Hafiz bin Hassan advances scientific and industrial innovation through cutting-edge research in composite machining, advanced manufacturing, and coating technologies. His work enhances machining efficiency, structural reliability, and material performance across aerospace and engineering sectors. By translating research into practical industrial and community solutions, he contributes meaningfully to technological progress and societal development.