Innovative Research Award
Huiwen Pang
China Construction Eco-Development Group Co., Ltd., China
Huiwen Pang is a researcher affiliated with China Construction Eco-Development Group Co., Ltd., whose supplied scholarly profile identifies radiative cooling coatings as the principal subject area. Research in this field examines materials and surface designs that can manage thermal radiation and potentially reduce cooling energy demand in buildings and other applications. The profile information provided for this article reports 35 documents, 1,478 citations and an h-index of 20 in Scopus. These figures offer a bibliometric snapshot of the researcher’s reported publication and citation record; they do not independently establish the quality or practical impact of individual studies. [1]
Abstract
This article presents a bibliometric and subject-focused overview of Huiwen Pang, an affiliated researcher whose reported area of interest is radiative cooling coatings. These coatings are studied for their ability to influence heat exchange through solar reflectance and thermal-infrared emission. Depending on material composition, atmospheric conditions, surface properties and deployment, radiative cooling technologies may contribute to passive thermal management and improved building energy performance. The supplied Scopus profile figures list 35 documents, 1,478 citations and an h-index of 20. This information provides a starting point for examining publication activity and scholarly visibility. A full evaluation of research originality, technical performance and applied value would require examination of the underlying publications, experimental methods and independently verifiable results. [1] [2]
Keywords
Huiwen Pang; radiative cooling coatings; passive cooling; thermal radiation; solar reflectance; infrared emissivity; energy-efficient buildings; functional materials; thermal management; bibliometrics; research impact; Applied Scientist Awards.
Introduction
Radiative cooling is a thermal-management approach that uses the exchange of infrared radiation between a surface, the atmosphere and its surroundings. Under suitable conditions, a surface can release heat through wavelengths that pass through portions of the atmosphere while limiting the absorption of incoming sunlight. Research on radiative cooling coatings explores how material selection, optical response, durability and surface architecture affect cooling performance. [2] [3]
Research Profile
The supplied profile identifies Huiwen Pang with China Construction Eco-Development Group Co., Ltd., in China, and associates the researcher with radiative cooling coatings. The provided bibliometric figures are 35 documents, 1,478 citations and an h-index of 20. These metrics are reported inputs for this article and should be rechecked against the live Scopus author record before publication because citation counts and indexed document totals can change. [1]
Research Contributions
Radiative cooling coatings are designed to manage the balance between incoming solar energy and outgoing thermal radiation. Their performance is commonly assessed through spectral reflectance, thermal-infrared emissivity, surface temperature and net cooling power under specified environmental conditions. Published research has explored coatings and photonic structures that seek to improve daytime radiative cooling while accounting for the competing effects of solar absorption and atmospheric radiation. [2] [5]
Publications
The supplied Scopus information reports 35 documents associated with the researcher. Scopus indexes scholarly literature across scientific and technical disciplines, and its author records can be used to examine indexed publications, citation links and author-level indicators. [1] The live author profile should be consulted to confirm publication titles, author order, journal or conference details, publication dates and document types.
Research Impact
The supplied figures of 1,478 citations and an h-index of 20 indicate a reported level of scholarly referencing associated with the Scopus author profile. Citation counts reflect how frequently indexed documents are cited, while the h-index combines publication productivity with a threshold of citation activity across a researcher’s publications. Neither measure alone captures originality, reproducibility, societal benefit or the practical effectiveness of a technology.[4] [3]
Award Suitability
The Innovative Research Award presented by the Applied Scientist Awards provides a recognition context for research and applied innovation. Huiwen Pang’s supplied profile identifies a subject area with potential relevance to energy efficiency, materials development and sustainable building technologies. The reported publication and citation metrics can form part of an initial profile review but are not, by themselves, evidence of award selection or confirmation of a particular research achievement.
Conclusion
Huiwen Pang’s supplied research profile associates the researcher with radiative cooling coatings and reports 35 documents, 1,478 citations and an h-index of 20. The subject area is relevant to continuing research on passive cooling, thermal management and energy-conscious materials. A balanced evaluation of the researcher’s achievements should combine verified bibliographic information with a close examination of individual studies, technical validation and practical significance. All profile metrics and publication details should be checked against current authoritative records before this article is used for formal academic recognition.
External Links
References
- Elsevier. (n.d.). Scopus author details: Huiwen Pang, Author ID 57208203795. Scopus. Author metrics and indexed document details should be checked against the live record.
https://www.scopus.com/authid/detail.uri?authorId=57208203795
- J Xiao, Q Yan, H Pang, Y Ran, Y Shen, L Yao. (2026). Mild and controllable pore engineering of bamboo via a NaOH-heat dual-activated persulfate system for enhanced permeability.
https://www.sciencedirect.com/science/article/pii/S1385894726068841
- Y Ling, H Pang, L Li, K Zhang, X Li, Z Xu. (2024). Biobased antibacterial underwater adhesive based on in situ siliconization crosslinking.
https://www.sciencedirect.com/science/article/pii/S0143749624000794
- H Pang, R Yu, A Huang, X Li, Z Xu, S Yin. (2022). Topologically Enhanced Cation–π Interactions for Developing High‐Performance Underwater Adhesive.
https://onlinelibrary.wiley.com/doi/abs/10.1002/mame.202200531
- H Pang, S Zhao, et al. (2020). Mussel‐inspired bio‐based water‐resistant soy adhesives with low‐cost dopamine analogue‐modified silkworm silk Fiber.
https://onlinelibrary.wiley.com/doi/abs/10.1002/app.48785