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

Chew Beng Soh | Smart Materials in Architecture | Research Excellence Award

Published on by Architecture Engineers

Research Excellence Award

Chew Beng Soh
Siddaganga Institute Of Technology
Chew Beng Soh
Affiliation Siddaganga Institute Of Technology
Country Singapore
Scopus ID 35202127400
Documents 96
Citations 1,174
h-index 20
Subject Area UCNP-coated light-conversion films
Event Architecture Engineers Awards
ORCID 0000-0002-4587-1946

The Research Excellence Award recognizes the scholarly contributions and interdisciplinary scientific research activities of Chew Beng Soh, affiliated with Siddaganga Institute Of Technology. The researcher has contributed to investigations involving UCNP-coated light-conversion films, materials science applications, and optical engineering methodologies. Through indexed publications and citation impact, the academic profile demonstrates sustained engagement with advanced photonic and nanomaterial research initiatives.[1]

Abstract

This academic article presents a structured overview of the research activities and scholarly recognition associated with Chew Beng Soh. The researcher’s work in UCNP-coated light-conversion films and related optical material systems has contributed to advancements in photonic conversion technologies and nanostructured engineering research. Citation metrics and indexed publication output indicate sustained academic engagement within interdisciplinary scientific communities.[1] The Research Excellence Award acknowledges contributions to scientific innovation, collaborative research development, and scholarly dissemination.[2]

Keywords

UCNP-coated films; Light-conversion technologies; Optical materials; Nanotechnology; Materials science; Photonic engineering; Scientific recognition; Scopus author profile; Interdisciplinary research; Advanced materials

Introduction

Research awards and academic recognition programs are designed to acknowledge contributions that demonstrate scientific relevance, publication quality, and interdisciplinary collaboration. Within the fields of optical materials and nanotechnology, innovations involving light-conversion systems and functional coatings have become increasingly significant due to their applications in energy systems, photonics, and advanced engineering.[3]

Chew Beng Soh has contributed to research involving UCNP-coated light-conversion films and associated material engineering methodologies. The publication profile reflects continued engagement with applied materials science, optical conversion technologies, and experimental research frameworks relevant to advanced scientific applications.[4]

Research Profile

Chew Beng Soh maintains a Scopus-indexed academic profile with a substantial body of peer-reviewed publications and scholarly citations. The researcher’s work primarily focuses on UCNP-coated light-conversion films, photonic material systems, and optical engineering technologies.[1]

  • Primary specialization in UCNP-coated light-conversion film technologies
  • Scopus-indexed research publications totaling 96 documents
  • Citation performance exceeding 1,172 scholarly citations
  • Established h-index value of 20
  • Research engagement involving materials science and photonic engineering

Research Contributions

The research contributions of Chew Beng Soh are associated with the advancement of optical material technologies and nanostructured light-conversion systems. Investigations involving UCNP-coated films contribute to ongoing developments in photon management, spectral conversion efficiency, and applied material engineering.[4]

The interdisciplinary nature of this work integrates concepts from nanotechnology, photonics, and materials engineering. Such research supports broader scientific objectives related to energy efficiency, optoelectronic applications, and innovative coating technologies.[5]

  • Development of UCNP-coated light-conversion film systems
  • Research involving photonic spectral conversion mechanisms
  • Experimental studies in nanostructured optical materials
  • Contributions to applied materials engineering research
  • Interdisciplinary collaboration in advanced photonic technologies

Publications

Representative publications associated with the researcher’s profile demonstrate scholarly engagement with optical engineering, nanomaterials, and light-conversion technologies.[6]

  1. Studies related to UCNP-coated light-conversion films and spectral engineering methodologies.
  2. Research on nanostructured optical materials for advanced photonic applications.
  3. Investigations into photon conversion systems for optoelectronic technologies.
  4. Collaborative materials science research involving thin-film engineering approaches.
  5. Applied engineering analyses of advanced light-conversion mechanisms.

Research Impact

The research impact associated with Chew Beng Soh is reflected through citation metrics, interdisciplinary collaborations, and publication dissemination within scientific databases. Research involving light-conversion systems and advanced optical materials continues to support developments in materials engineering and photonic science.[1]

The integration of nanotechnology and photonic engineering within the researcher’s work contributes to broader scientific discussions regarding optical efficiency and innovative material applications. Such contributions are relevant to both academic research and industrial technological development.[5]

Award Suitability

The Research Excellence Award recognizes scholarly contributions that demonstrate research consistency, scientific relevance, publication impact, and interdisciplinary engagement. Chew Beng Soh’s publication profile and citation metrics indicate sustained contributions to optical materials science and engineering-related research.[1]

The researcher’s involvement in advanced photonic and nanomaterial investigations aligns with the objectives of international scientific recognition programs that emphasize innovation, applied research, and collaborative scientific advancement.[2]

Conclusion

Chew Beng Soh’s academic profile reflects ongoing engagement with research involving UCNP-coated light-conversion films, optical material systems, and advanced engineering methodologies. Citation performance, publication activity, and interdisciplinary research participation support the scholarly significance of the researcher’s contributions. The Research Excellence Award recognizes these contributions within the broader context of scientific innovation and international academic collaboration.[1]

References

  1. Elsevier. (n.d.). Scopus author details: Chew Beng Soh, Author ID 35202127400. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=35202127400&source=sd-apx
  2. Architecture Engineers Research Forum. (n.d.). International academic award and research recognition program overview.

    https://architectureengineers.com

  3. Zhou, J., Liu, Q., Feng, W., Sun, Y., & Li, F. (2015). Upconversion luminescent materials: advances and applications.
    https://doi.org/10.1021/cr400478f

  4. Soh, C. B., Ang, B. T. W., Fong, Y. M., Chien, S.-C., An, H., Dessì, V., Clementi, M., Tay, C. B., D’Ostuni, M., Gianquinto, G., & Orsini, F. (2026). Smart modular vertical farms: Addressing food security and resource efficiency in Singapore’s urban environment. Horticulturae, 12(3), 271.

    https://doi.org/10.3390/horticulturae12030271

  5. Ang, B. T. W., Fong, Y. M., Soh, C. B., Chien, S.-C., An, H., & Tay, R. H. S. (2024). Passive infrared-to-visible-light upconversion using NaYF4:Yb,Er nanoparticle films for greenhouse façades. ACS Applied Nano Materials, 7, 18851–18860.

    https://doi.org/10.1021/acsanm.4c03008

Krzysztof Zima | Construction Management | Research Excellence Award

Published on by Architecture Engineers

Best Industrial Research Award

Krzysztof Zima
Cracow University of Technology
Krzysztof Zima
Affiliation Cracow University of Technology
Country Poland
Scopus ID 36708905600
Documents 59
Citations 1,102
h-index 20
Subject Area Waste Management
Event Architecture Engineers Awards

Krzysztof Zima is a Polish researcher and academic associated with the Cracow University of Technology, recognized for his scholarly contributions in the fields of waste management, construction engineering, sustainable infrastructure, and digital construction methodologies. His academic profile demonstrates a sustained commitment to interdisciplinary research involving environmental optimization, lifecycle assessment, and modern engineering management systems.[1] His work has contributed to the broader understanding of sustainable building processes, waste reduction strategies, and construction planning frameworks within contemporary engineering environments.[2]

Abstract

This article presents an academic overview of Krzysztof Zima and evaluates his suitability for recognition through the Best Industrial Research Award presented at the Architecture Engineers Awards. The discussion highlights his research productivity, scientific influence, and contributions to sustainable construction management and waste optimization methodologies. Through peer-reviewed publications, interdisciplinary collaborations, and applied engineering studies, Zima has contributed to advancing environmentally responsible engineering practices and construction management strategies within academic and industrial contexts.[1][3]

Keywords

Waste management, sustainable construction, construction engineering, industrial research, building lifecycle assessment, environmental engineering, digital construction systems, construction planning, infrastructure sustainability, engineering innovation.

Introduction

Contemporary engineering research increasingly emphasizes sustainability, efficient resource management, and technological integration within industrial and construction sectors. Researchers operating in these domains play a critical role in shaping environmentally conscious engineering methodologies and promoting sustainable industrial development. Within this context, Krzysztof Zima has developed a scholarly profile focused on construction management, waste optimization, and infrastructure sustainability.[2]

His research contributions are associated with the integration of modern engineering systems into sustainable construction practices, including lifecycle analysis, inventory methodologies, reconstruction planning, and waste minimization strategies. These areas are considered essential for addressing global challenges related to urbanization, resource consumption, and environmental protection.[4]

Research Profile

Krzysztof Zima has established a recognized academic profile through his publication record, citation impact, and collaborative engineering research activities. According to publicly available indexing records, his scholarly work has accumulated more than one thousand citations with an h-index of 20, reflecting sustained academic engagement and scientific relevance within engineering and sustainability-related disciplines.[1]

  • Research emphasis on waste management and sustainable infrastructure systems.
  • Applied studies involving construction lifecycle optimization and digital engineering methodologies.
  • Academic contributions to interdisciplinary environmental engineering research.
  • Participation in collaborative projects addressing industrial sustainability and construction efficiency.

Research Contributions

The research activities of Krzysztof Zima primarily focus on sustainable engineering management and environmentally responsible construction methodologies. His publications address practical and theoretical challenges related to waste reduction, resource optimization, and infrastructure resilience. These studies contribute to improving construction efficiency while minimizing environmental impacts associated with industrial development.[3]

A notable aspect of his work involves the assessment of inventory and reconstruction strategies for damaged or vulnerable building structures. Such research supports urban resilience planning and post-disaster infrastructure assessment processes.[4]

  • Comparative analyses of waste management practices in construction sectors.
  • Research on inventory methodologies for damaged building assessment.
  • Evaluation of sustainable engineering frameworks for infrastructure planning.
  • Integration of digital technologies into construction management systems.

Publications

Selected publications associated with Krzysztof Zima demonstrate consistent engagement with sustainability-oriented engineering research and industrial problem-solving methodologies.[5]

  1. Optimising Construction Efficiency: A Comprehensive Survey-Based Approach to Waste Identification and Recommendations with BIM and Lean Construction — Sustainability — Citations: 5

  2. Future of the European Housing Environment in Ukraine: Challenges, Directions and Reconstruction Scenarios (Part 2) — Srodowisko Mieszkaniowe

  3. Integration of BIM Technology and Building Lifecycle Management on the Example of Selected Analyses — Conference Paper

  4. Improving Waste Management at Construction Sites—Evidence from a Comparative Study in Poland and Slovakia — Buildings

  5. A SWOT/TOWS Analysis of Inventory Methods for Buildings Damaged or Might Be Damaged — Buildings

Research Impact

The scientific impact of Krzysztof Zima’s work is reflected through citation metrics, interdisciplinary collaborations, and contributions to sustainability-focused engineering practices. His research has supported academic discussions concerning waste minimization, efficient construction planning, and industrial environmental management.[1]

The practical orientation of his studies demonstrates relevance to both industrial engineering applications and policy-oriented sustainability initiatives. By addressing real-world construction and environmental challenges, his work contributes to broader objectives associated with sustainable urban development and responsible industrial transformation.[2][4]

Award Suitability

Krzysztof Zima’s academic profile aligns with the objectives commonly associated with industrial and engineering research recognition programs. His contributions demonstrate a balance between theoretical scholarship and practical engineering relevance, particularly within sustainable construction and waste management domains.[3]

The Best Industrial Research Award within the Architecture Engineers Awards framework recognizes individuals whose research activities contribute to innovation, sustainability, and industrial advancement. Zima’s documented publication record, research visibility, and interdisciplinary engineering focus collectively support his suitability for such recognition.[1]

Conclusion

Krzysztof Zima represents a researcher whose academic activities contribute meaningfully to sustainable engineering and industrial research practices. Through investigations related to waste management, infrastructure resilience, and environmentally responsible construction systems, he has established a scholarly profile associated with practical engineering relevance and academic consistency. His research achievements, publication impact, and interdisciplinary engagement support his recognition within the context of the Best Industrial Research Award presented at the Architecture Engineers Awards.[1][3]

References

  1. Zima, K. (2025). Optimising Construction Efficiency: A Comprehensive Survey-Based Approach to Waste Identification and Recommendations with BIM and Lean Construction. Sustainability. Citations: 5
    https://www.mdpi.com/2071-1050/17/9/4027

  2. Zima, K., et al. (2025). Future of the European Housing Environment in Ukraine: Challenges, Directions and Reconstruction Scenarios (Part 2). Srodowisko Mieszkaniowe.

    https://www.researchgate.net/publication/393064586

  3. Zima, K., et al. Integration of BIM Technology and Building Lifecycle Management on the Example of Selected Analyses. Conference Paper. https://www.mdpi.com/2075-5309/14/2/541

  4. Zima, K., et al. (2026). Improving Waste Management at Construction Sites—Evidence from a Comparative Study in Poland and Slovakia. Buildings. https://www.mdpi.com/2075-5309/16/7/1418

  5. Zima, K., et al. (2025). A SWOT/TOWS Analysis of Inventory Methods for Buildings Damaged or Might Be Damaged. Buildings.

    https://www.mdpi.com/2075-5309/15/21/3971

Hamza Ahmad | Materials and Technology in Architecture | Research Excellence Award

Published on by Architecture Engineers

Dr. Hamza Ahmad | Materials and Technology in Architecture | Research Excellence Award

Zhengzhou University | China

Dr. Ahmad Hamza is a researcher affiliated with Zhengzhou University, China, specializing in computational materials science and environmental engineering applications. His work focuses on first-principles design of advanced nanomaterials, particularly for gas sensing and sustainable technologies. He has authored 7 indexed publications, receiving 48 citations, with an h-index of 4, reflecting emerging scholarly impact. His research demonstrates strong interdisciplinary collaboration, with 19 co-authors across related domains. Notably, his studies on selective detection of SF₆ decomposition gases contribute to environmental monitoring and industrial safety. His work supports the development of efficient, sustainable solutions for addressing global environmental challenges.

Citation Metrics (Scopus)

48
36
24
12
0

Citations

48

Documents

7

h-index

4

Citations

Documents

h-index

View Scopus Profile
 View ORCID Profile
 View Google Scholar Profile

Featured Publications

Bernard Mahoney | 3D Printing in Construction | Research Excellence Award

Published on by Architecture Engineers

Mr. Bernard Mahoney | 3D Printing in Construction | Research Excellence Award

Oklahoma State University | United States

B. Mahoney is a dedicated researcher and scholar specializing in polymer science and engineering, currently serving as a [insert designation] at [insert institution/organization]. With extensive professional experience in materials research and additive manufacturing, Mahoney has led and contributed to interdisciplinary projects exploring vitrimers, polymer composites, and their applications in aerospace and construction industries. His research focuses on the development of self-healing polymers, machine learning-assisted polymer design, and sustainable material solutions, resulting in multiple publications, including studies on healing efficiency in vitrimers and electrocution risks in construction. Mahoney has actively participated in leadership roles within collaborative research initiatives, contributed as a peer reviewer and editorial member for scientific journals, and holds professional memberships and certifications in polymer science and engineering. His work has been recognized for advancing the understanding of innovative polymer materials and promoting their industrial adoption. His research impact includes 1 citation, 2 publications, and an h-index of 1.

                              Citation Metrics (Scopus)

4

3

2

1

0

 

Citations
1
Documents
2
h-index
1

Citations

Documents

h-index

View Scopus Profile
  View Google Scholar Profile
  View ORCID Profile

Featured Publications

Guodan Liu | Environmental Design | Best Researcher Award

Published on by Architecture Engineers

Prof. Dr. Guodan Liu | Environmental Design | Best Researcher Award

Professor | Qingdao University of Technology | China

Professor Guodan Liu, a distinguished Professor and Doctoral Supervisor at Qingdao University of Technology, is a leading scholar in sustainable energy solutions and building technology. He earned advanced degrees specializing in energy and thermal environments, shaping his expertise in new energy development, energy efficiency technologies, and human thermal comfort. With extensive professional experience, he has led major national and provincial research projects, including those funded by the National Natural Science Foundation of China and Shandong Provincial R&D initiatives, delivering impactful contributions to low-carbon, high-comfort built environments. Professor Liu has published over 135 peer-reviewed articles in internationally indexed journals, secured 64 patents, and maintains strong collaborations with leading research groups. His editorial contributions include serving as Guest Editor for a special issue in the journal Buildings. Recognized with prestigious honors such as the Shandong Provincial Technology Invention Award, Shandong Science and Technology Progress Prizes, and a Qingdao Municipal Science and Technology Award, he has also been acknowledged as an Outstanding Graduate Advisor and University Teacher. He actively contributes to the academic community as Standing Director of four professional committees on HVAC, Thermal Power, Refrigeration, and Building Environment and Energy in Shandong Province. Professor Liu continues to advance research on indoor thermal comfort under complex conditions, bridging energy efficiency with human well-being  708 citations, 58 publications, h-index 16.

Profile: Scopus

Featured Publications

1. Liu G., Research on the lighting satisfaction prediction model for elementary school classrooms based on illuminance gradient. J. Build. Eng., 2025, Accepted.

2. Liu G., Research on recognition of bedding system coverage rate using infrared thermal imaging. J. Therm. Biol., 2025, Accepted.

3. Liu G., Thermal comfort and sensitivity of different body parts exposed to local infrared radiation. Indoor Air, 2025, Accepted.

4. Liu G., Analysis of energy consumption drivers in building rooms: a case of the commercial complex in Chengdu. Energy Informatics, 2024, 7, 78.

5. Liu G., Analysis of factors affecting air conditioning energy consumption: the case study of a commercial building in Shenzhen. In Advances in Computer Science and Ubiquitous Computing (Lecture Notes in Electrical Engineering, vol. 1416), 2025, pp. 39–44.