Abstract
“Breath figure formation” during the casting process of polymer solutions under high atmospheric humidity provides honeycomb-patterned polymer films (honeycomb films) with regularly arranged micropores. The development of production technology for large-area honeycomb films is indispensable for their various applications. Manufacturing equipment consisting of three zones (for casting, humidification, and drying of polymer solutions) for successive formation of large-area honeycomb films was newly designed and constructed. By using this equipment, physicochemical experimental parameters, e.g., the surface temperature of polymer solutions, dew point of the humidification zone, humidification time, and interfacial tension between water and the polymer solution, were effectively changed to optimize the density and size of condensed water droplets. Large-area honeycomb films were formed by a roll-to-roll process. Herein, recent developments in biomedical applications of honeycomb films are described.
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Acknowledgements
Parts of these studies were supported by 2004–2005 R&D projects of regional regeneration consortiums commissioned by the Ministry of Economy, Trade and Industry and 2007–2011 R&D projects commissioned by the New Energy and Industrial Technology Development Organization (NEDO) for practical application of nanotechnology and advanced materials. We are deeply grateful to these related departments and stakeholders as well as to Professor Kohji Nakazawa of the University of Kitakyushu, Associate Professor Hiroshi Yabu of Tohoku University, Professor Hidetoshi Nishida, Professor Tomohiro Takagi, and Professor Masashi Yamakawa of Kyoto Institute of Technology, Professor Masaru Tanaka of Kyushu University, Professor Yasutaka Matsuo of Hokkaido University, Associate Professor Yuji Hirai of Chitose Institute of Science and Technology and all those involved for their invaluable support in promoting each research area.
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Yamazaki, H., Kohashi, S., Ito, K. et al. Production technology and applications of honeycomb films. Polym J 54, 107–120 (2022). https://doi.org/10.1038/s41428-021-00549-0
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DOI: https://doi.org/10.1038/s41428-021-00549-0