リケラボ論文検索は、全国の大学リポジトリにある学位論文・教授論文を一括検索できる論文検索サービスです。

リケラボ 全国の大学リポジトリにある学位論文・教授論文を一括検索するならリケラボ論文検索大学・研究所にある論文を検索できる

リケラボ 全国の大学リポジトリにある学位論文・教授論文を一括検索するならリケラボ論文検索大学・研究所にある論文を検索できる

大学・研究所にある論文を検索できる 「Studies on surface lubricated honeycomb films prepared by self-organization process for oil-water separation」の論文概要。リケラボ論文検索は、全国の大学リポジトリにある学位論文・教授論文を一括検索できる論文検索サービスです。

コピーが完了しました

URLをコピーしました

論文の公開元へ論文の公開元へ
書き出し

Studies on surface lubricated honeycomb films prepared by self-organization process for oil-water separation

Chen Bihai 東北大学

2022.09.26

概要

The separation of oil and water is important for solving various water-related problems, such as industrial wastewater purification. The separation of oil and water by gravity is an important technology and porous membranes are widely applied in oil-water separation. The wettability control of the membrane to oil and water is very important. The hydrophobic-oleophilic membranes can be used when the density of oil ( 𝜌𝑜𝑖𝑙 ) > 1 and the hydrophilic-oleophobic membranes can be used when 𝜌𝑜𝑖𝑙 < 1 in gravity-driven system.

A honeycomb-like polymer porous membrane, which has uniform pore sizes can be prepared by casting polymer solution under humid conditions and templating condensed water droplets as templates. A perforated honeycomb membrane can be fabricated by this “breath figure” technique and it has hexagonally-packed pores, and those have connected each other inside of the film. This perforated honeycomb membrane has ideal structure for oil/water separation membranes.

In this thesis, this is the first report about application of HC films to liquid separation membranes and variety of applications, including energy-saving separation and purification and removal of oil spills, are expected. Also, smart separation membranes can be realized to control oil and water separation selectively by introduction stimuli-responsive properties to the HC films, which have already reported in the previous literatures.

Relying on the lubricating layer as a transition switch, I use the same amphiphilic membrane to exhibit both hydrophilic-oleophobic and oleophilichydrophobic wettability, which allows the membrane to separate oil and water in gravity-driven system no matter 𝜌𝑜𝑖𝑙 > 1 or 𝜌𝑜𝑖𝑙 < 1.

It is known that hydrophilic micro-structured surfaces repel oil droplets, which is seen in a natural surface structure of a fish scale. The honeycomb film treated by UV-O3 becomes hydrophilic and underwater oleophobic which could use for oil-water separation. And the transparency of hydrophobic honeycomb and pincushion films will be significantly improved underwater.

The hydrophobic honeycomb film can also separate oil and water with oilremoving method. There is an interesting phenomenon that some spherical droplets come out from the films when measure the decane contact angle underwater. After dyeing the decane red, it can be known that the droplets come out from the films are bubbles. And through the analysis of surface tension changes, it can be obtained that the decane cannot spread but are absorbed in the honeycomb film.

この論文で使われている画像

参考文献

[1] Cheryan, M., and N. Rajagopalan. "Membrane processing of oily streams. Wastewater treatment and waste reduction." Journal of membrane science 151.1 (1998): 13-28.

[2] Garcıa-Sánchez, A., and E. Alvarez-Ayuso. "Sorption of Zn, Cd and Cr on calcite. Application to purification of industrial wastewaters." Minerals Engineering 15.7 (2002): 539- 547.

[3] Gatsios, Evangelos, John N. Hahladakis, and Evangelos Gidarakos. "Optimization of electrocoagulation (EC) process for the purification of a real industrial wastewater from toxic metals." Journal of Environmental Management 154 (2015): 117-127.

[4] Ani, J. U., et al. "Nephelometric and functional parameters response of coagulation for the purification of industrial wastewater using Detarium microcarpum." Journal of hazardous materials 243 (2012): 59-66.

[5] Anisuddin, S., Al Hashar, N., & Tahseen, S. (2005). PREVENTION OF OIL SPILL POLLUTION IN SEAWATER USING LOCALLY AVAILABLE MATERIALS. Arabian Journal for Science & Engineering (Springer Science & Business Media BV), 30.

[6] Sarbatly, Rosalam, Duduku Krishnaiah, and Zykamilia Kamin. "A review of polymer nanofibres by electrospinning and their application in oil–water separation for cleaning up marine oil spills." Marine pollution bulletin 106.1-2 (2016): 8-16.

[7] Gupta, Raju Kumar, et al. "Oil/water separation techniques: a review of recent progresses and future directions." Journal of Materials Chemistry A 5.31 (2017): 16025-16058.

[8] Liu, Qin, et al. "Recent advances in energy materials by electrospinning." Renewable and Sustainable Energy Reviews 81 (2018): 1825-1858.

[9] Alvarez, Pedro JJ, et al. "Emerging opportunities for nanotechnology to enhance water security." Nature nanotechnology 13.8 (2018): 634-641.

[10] Zhu, Liangliang, et al. "Recent progress in solar-driven interfacial water evaporation: Advanced designs and applications." Nano Energy 57 (2019): 507-518.

[11] Kuang, Yudi, et al. "A high‐performance self‐regenerating solar evaporator for continuous water desalination." Advanced materials 31.23 (2019): 1900498.

[12] Jiang, Kun, et al. "Highly selective oxygen reduction to hydrogen peroxide on transition metal single atom coordination." Nature communications 10.1 (2019): 1-11.

[13] Benito, JoséManuel, et al. "Design and construction of a modular pilot plant for the treatment of oil-containing wastewaters." Desalination 147.1-3 (2002): 5-10.

[14] Husseien, M., et al. "A comprehensive characterization of corn stalk and study of carbonized corn stalk in dye and gas oil sorption." Journal of Analytical and Applied Pyrolysis 86.2 (2009): 360-363.

[15] Fritt-Rasmussen, Janne, Susse Wegeberg, and Kim Gustavson. "Review on burn residues from in situ burning of oil spills in relation to Arctic waters." Water, Air, & Soil Pollution 226.10 (2015): 1-12.

[16] Bullock, Robin J., Robert A. Perkins, and Srijan Aggarwal. "In-situ burning with chemical herders for Arctic oil spill response: Meta-analysis and review." Science of the Total Environment 675 (2019): 705-716.

[17] Lessard, Richard R., and Greg DeMarco. "The significance of oil spill dispersants." Spill Science & Technology Bulletin 6.1 (2000): 59-68.

[18] Chapman, Helen, et al. "The use of chemical dispersants to combat oil spills at sea: A review of practice and research needs in Europe." Marine Pollution Bulletin 54.7 (2007): 827- 838.

[19] Schaflinger, Uwe. "Centrifugal separation of a mixture." Fluid Dynamics Research 6.5-6 (1990): 213.

[20] Wang, Xianfeng, et al. "Electrospun nanofibrous materials: a versatile medium for effective oil/water separation." Materials today 19.7 (2016): 403-414.

[21] SPCC GUIDANCE FOR REGIONAL INSPECTORS, December 16, 2013

[22] Gaaseidnes, Knut, and Joseph Turbeville. "Separation of oil and water in oil spill recovery operations." Pure and applied chemistry 71.1 (1999): 95-101.

[23] Frising, Tom, Christine Noïk, and Christine Dalmazzone. "The liquid/liquid sedimentation process: from droplet coalescence to technologically enhanced water/oil emulsion gravity separators: a review." Journal of dispersion science and technology 27.7 (2006): 1035-1057.

[24] Xu, Jiajie, et al. "In-line and selective phase separation of medium-chain carboxylic acids using membrane electrolysis." Chemical Communications 51.31 (2015): 6847-6850.

[25] Deng, Yuying, et al. "Recent development of super-wettable materials and their applications in oil-water separation." Journal of Cleaner Production 266 (2020): 121624.

[26] Padaki, Mahesh, et al. "Membrane technology enhancement in oil–water separation. A review." Desalination 357 (2015): 197-207.

[27] Gupta, Raju Kumar, et al. "Oil/water separation techniques: a review of recent progresses and future directions." Journal of Materials Chemistry A 5.31 (2017): 16025-16058.

[28] Wei, Yibin, et al. "Specially wettable membranes for oil–water separation." Advanced Materials Interfaces 5.23 (2018): 1800576.

[29] Yue, Xuejie, et al. "Design and fabrication of superwetting fiber-based membranes for oil/water separation applications." Chemical Engineering Journal 364 (2019): 292-309.

[30] Qiu, Lei, Yihan Sun, and Zhiguang Guo. "Designing novel superwetting surfaces for highefficiency oil–water separation: design principles, opportunities, trends and challenges." Journal of Materials Chemistry A 8.33 (2020): 16831-16853.

[31] Deng, Yuying, et al. "Metal-organic framework membranes: Recent development in the synthesis strategies and their application in oil-water separation." Chemical Engineering Journal 405 (2021): 127004.

[32] Rasouli, Seyedabbas, et al. "Superhydrophobic and superoleophilic membranes for oilwater separation application: A comprehensive review." Materials & Design 204 (2021): 109599.

[33] Lin, Xiangde, and Jinkee Hong. "Recent advances in robust superwettable membranes for oil–water separation." Advanced Materials Interfaces 6.12 (2019): 1900126.

[34] Junaidi, Nurul Fattin Diana, et al. "Recent development of graphene oxide-based membranes for oil–water separation: A review." Separation and Purification Technology 258 (2021): 118000.

[35] Ma, Wenjing, et al. "Electrospun fibers for oil–water separation." Rsc Advances 6.16 (2016): 12868-12884.

[36] Ryu, Ji Hyun, Seonki Hong, and Haeshin Lee. "Bio-inspired adhesive catechol-conjugated chitosan for biomedical applications: A mini review." Acta biomaterialia 27 (2015): 101-115.

[37] Marmur, Abraham. "The lotus effect: superhydrophobicity and metastability." Langmuir 20.9 (2004): 3517-3519.

[38] Rahim, Md Arifur, et al. "Phenolic building blocks for the assembly of functional materials." Angewandte Chemie International Edition 58.7 (2019): 1904-1927.

[39] Xu, Li Qun, Koon-Gee Neoh, and En-Tang Kang. "Natural polyphenols as versatile platforms for material engineering and surface functionalization." Progress in Polymer Science 87 (2018): 165-196.

[40] McKittrick, J., et al. "Energy absorbent natural materials and bioinspired design strategies: a review." Materials Science and Engineering: C 30.3 (2010): 331-342.

[41] Chen, Ke, et al. "Binary synergy strengthening and toughening of bio-inspired nacre-like graphene oxide/sodium alginate composite paper." Acs Nano 9.8 (2015): 8165-8175.

[42] San Ha, Ngoc, and Guoxing Lu. "A review of recent research on bio-inspired structures and materials for energy absorption applications." Composites Part B: Engineering 181 (2020): 107496.

[43] Kar, Arpan Kumar. "Bio inspired computing–a review of algorithms and scope of applications." Expert Systems with Applications 59 (2016): 20-32.

[44] Tadepalli, Sirimuvva, et al. "Bio-optics and bio-inspired optical materials." Chemical reviews 117.20 (2017): 12705-12763.

[45] Marmur, Abraham. "The lotus effect: superhydrophobicity and metastability." Langmuir 20.9 (2004): 3517-3519.

[46] Banerjee, Indrani, Ravindra C. Pangule, and Ravi S. Kane. "Antifouling coatings: recent developments in the design of surfaces that prevent fouling by proteins, bacteria, and marine organisms." Advanced materials 23.6 (2011): 690-718.

[47] Parvate, Sumit, Prakhar Dixit, and Sujay Chattopadhyay. "Superhydrophobic surfaces: insights from theory and experiment." The Journal of Physical Chemistry B 124.8 (2020): 1323- 1360.

[48] Wei, David W., et al. "Superhydrophobic modification of cellulose and cotton textiles: Methodologies and applications." Journal of Bioresources and Bioproducts 5.1 (2020): 1-15.

[49] Shi, Feng, et al. "Towards understanding why a superhydrophobic coating is needed by water striders." Advanced Materials 19.17 (2007): 2257-2261.

[50] Wang, Shutao, et al. "Bioinspired surfaces with superwettability: new insight on theory, design, and applications." Chemical reviews 115.16 (2015): 8230-8293.

[51] Darmanin, Thierry, and Frédéric Guittard. "Superhydrophobic and superoleophobic properties in nature." Materials today 18.5 (2015): 273-285.

[52] Ivanova, Elena P., et al. "Antifungal versus antibacterial defence of insect wings." Journal of Colloid and Interface Science 603 (2021): 886-897.

[53] Dizge, Nadir, Evyatar Shaulsky, and Vasiliki Karanikola. "Electrospun cellulose nanofibers for superhydrophobic and oleophobic membranes." Journal of Membrane Science 590 (2019): 117271.

[54] Wang, Chenghong, and Zhiguang Guo. "A comparison between superhydrophobic surfaces (SHS) and slippery liquid-infused porous surfaces (SLIPS) in application." Nanoscale 12.44 (2020): 22398-22424.

[55] Zdziennicka, Anna, et al. "Some remarks on the solid surface tension determination from contact angle measurements." Applied Surface Science 405 (2017): 88-101.

[56] Ross, Sydney, and Paul Becher. "The history of the spreading coefficient." Journal of colloid and interface science 149.2 (1992): 575-579.

[57] Schrader, Malcolm E. "Young-dupre revisited." Langmuir 11.9 (1995): 3585-3589.

[58] Wenzel, Robert N. "Resistance of solid surfaces to wetting by water." Industrial & Engineering Chemistry 28.8 (1936): 988-994.

[59] Cassie, A. B. D., and SJToTFS Baxter. "Wettability of porous surfaces." Transactions of the Faraday society 40 (1944): 546-551.

[60] Feng, Lin, et al. "A super‐hydrophobic and super‐oleophilic coating mesh film for the separation of oil and water." Angewandte Chemie 116.15 (2004): 2046-2048.

[61] Zhou, Xiaoyan, et al. "Robust and durable superhydrophobic cotton fabrics for oil/water separation." ACS applied materials & interfaces 5.15 (2013): 7208-7214.

[62] Xue, Chao-Hua, et al. "Fabrication of superhydrophobic and superoleophilic textiles for oil– water separation." Applied Surface Science 284 (2013): 464-471.

[63] Crick, Colin R., James A. Gibbins, and Ivan P. Parkin. "Superhydrophobic polymer-coated copper-mesh; membranes for highly efficient oil–water separation." Journal of Materials Chemistry A 1.19 (2013): 5943-5948.

[64] Gao, Xin, et al. "Robust superhydrophobic foam: a graphdiyne‐based hierarchical architecture for oil/water separation." Advanced Materials 28.1 (2016): 168-173.

[65] Li, Jian, et al. "Superhydrophobic meshes that can repel hot water and strong corrosive liquids used for efficient gravity-driven oil/water separation." Nanoscale 8.14 (2016): 7638-7645.

[66] Zhou, Cailong, et al. "Nature-inspired strategy toward superhydrophobic fabrics for versatile oil/water separation." ACS applied materials & interfaces 9.10 (2017): 9184-9194.

[67] Zhang, Zhi-hui, et al. "One-step fabrication of robust superhydrophobic and superoleophilic surfaces with self-cleaning and oil/water separation function." Scientific reports 8.1 (2018): 1- 12.

[68] Zhu, Xiaoying, et al. "Effective and low fouling oil/water separation by a novel hollow fiber membrane with both hydrophilic and oleophobic surface properties." Journal of membrane science 466 (2014): 36-44.

[69] Adewunmi, Ahmad A., and Muhammad Shahzad Kamal. "Effect of water/decane ratios and salt on the stability, rheology, and interfacial tension of water/decane emulsions." Energy & Fuels 33.9 (2019): 8456-8462.

[70] Ikhsan, Syarifah Nazirah Wan, et al. "Superwetting materials for hydrophilic-oleophobic membrane in oily wastewater treatment." Journal of Environmental Management 290 (2021): 112565.

[71] Wong, Tak-Sing, et al. "Bioinspired self-repairing slippery surfaces with pressure-stable omniphobicity." Nature 477.7365 (2011): 443-447.

[72] Vogel, Nicolas, et al. "Transparency and damage tolerance of patternable omniphobic lubricated surfaces based on inverse colloidal monolayers." Nature communications 4.1 (2013): 1-10.

[73] Waghmare, Prashant R., Naga Siva Kumar Gunda, and Sushanta K. Mitra. "Under-water superoleophobicity of fish scales." Scientific reports 4.1 (2014): 1-5.

[74] Chen, Chaolang, et al. "Separation mechanism and construction of surfaces with special wettability for oil/water separation." ACS applied materials & interfaces 11.11 (2019): 11006- 11027.

[75] Liu, Mingjie, et al. "Bioinspired design of a superoleophobic and low adhesive water/solid interface." Advanced Materials 21.6 (2009): 665-669.

[76] Wang, Yonghua, et al. "One-step method using laser for large-scale preparation of bionic superhydrophobic & drag-reducing fish-scale surface." Surface and Coatings Technology 409 (2021): 126801.

[77] He, Huaqiang, et al. "Superhydrophilic fish-scale-like CuC2O4 nanosheets wrapped copper mesh with underwater super oil-repellent properties for effective separation of oil-inwater emulsions." Colloids and Surfaces A: Physicochemical and Engineering Aspects 627 (2021): 127133.

[78] Su, Xin, et al. "Design of hierarchical comb hydrophilic polymer brush (HCHPB) surfaces inspired by fish mucus for anti-biofouling." Journal of Materials Chemistry B 7.8 (2019): 1322- 1332.

[79] Yong, Jiale, et al. "A review of femtosecond laser-structured superhydrophobic or underwater superoleophobic porous surfaces/materials for efficient oil/water separation." RSC advances 9.22 (2019): 12470-12495.

[80] Zhao, Siyang, et al. "A robust surface with superhydrophobicity and underwater superoleophobicity for on-demand oil/water separation." Nanoscale 13.36 (2021): 15334- 15342.

[81] Cheng, Zhongjun, et al. "pH-controllable on-demand oil/water separation on the switchable superhydrophobic/superhydrophilic and underwater low-adhesive superoleophobic copper mesh film." Langmuir 31.4 (2015): 1393-1399.

[82] Gou, Xiaodan, et al. "Superhydrophilic and underwater superoleophobic cement-coated mesh for oil/water separation by gravity." Colloids and Surfaces A: Physicochemical and Engineering Aspects 605 (2020): 125338.

[83] Wang, Meng, et al. "Mussel-inspired chitosan modified superhydrophilic and underwater superoleophobic cotton fabric for efficient oil/water separation." Carbohydrate polymers 244 (2020): 116449.

[84] Zeng, Zhi-wei Steven, and Spencer E. Taylor. "Facile preparation of superhydrophobic melamine sponge for efficient underwater oil-water separation." Separation and Purification Technology 247 (2020): 116996.

[85] Kavalenka, M. N., et al. "Wood-based microhaired superhydrophobic and underwater superoleophobic surfaces for oil/water separation." Rsc Advances 4.59 (2014): 31079-31083.

[86] Zeng, Minxiang, et al. "Highly biocompatible, underwater superhydrophilic and multifunctional biopolymer membrane for efficient oil–water separation and aqueous pollutant removal." ACS Sustainable Chemistry & Engineering 6.3 (2018): 3879-3887.

[87] Zhu, Meng, et al. "Robust superhydrophilic and underwater superoleophobic membrane optimized by Cu doping modified metal-organic frameworks for oil-water separation and water purification." Journal of Membrane Science 640 (2021): 119755.

[88] Wang, Jiaqi, et al. "Reversible wettability between underwater superoleophobicity and superhydrophobicity of stainless steel mesh for efficient oil–water separation." ACS omega 6.1 (2020): 77-84.

[89] Widawski, Gilles, Michel Rawiso, and Bernard François. "Self-organized honeycomb morphology of star-polymer polystyrene films." Nature 369.6479 (1994): 387-389.

[90] Yabu, Hiroshi, Kouta Inoue, and Masatsugu Shimomura. "Multiple-periodic structures of self-organized honeycomb-patterned films and polymer nanoparticles hybrids." Colloids and Surfaces A: Physicochemical and Engineering Aspects 284 (2006): 301-304.

[91] Chen, Bihai, Takehiko Wada, and Hiroshi Yabu. "Amphiphilic Perforated Honeycomb Films for Gravimetric Liquid Separation." Advanced Materials Interfaces 9.1 (2022): 2101954.

[92] Yabu, Hiroshi, and Masatsugu Shimomura. "Mesoscale pincushions, microrings, and microdots prepared by heating and peeling of self-organized honeycomb-patterned films deposited on a solid substrate." Langmuir 22.11 (2006): 4992-4997.

[93] Chen, Bihai, Takehiko Wada, and Hiroshi Yabu. "Underwater Bubble and Oil Repellency of Biomimetic Pincushion and Plastron-Like Honeycomb Films." Langmuir 36.23 (2020): 6365- 6369.

[94] Yabu, Hiroshi, et al. "Self-assembled porous templates allow pattern transfer to poly (dimethyl siloxane) sheets through surface wrinkling." Polymer journal 44.6 (2012): 573-578.

[95] Yamazaki, Hidekazu, et al. "Formation and control of line defects caused by tectonics of water droplet arrays during self-organized honeycomb-patterned polymer film formation." Soft Matter 10.16 (2014): 2741-2747.

[96] Yabu, Hiroshi, and Masatsugu Shimomura. "Single-step fabrication of transparent superhydrophobic porous polymer films." Chemistry of materials 17.21 (2005): 5231-5234.

[97] Yabu, Hiroshi, et al. "Superhydrophobic and lipophobic properties of self-organized honeycomb and pincushion structures." Langmuir 21.8 (2005): 3235-3237.

[98] Kamei, Jun, and Hiroshi Yabu. "On‐Demand Liquid Transportation Using Bioinspired Omniphobic Lubricated Surfaces Based on Self‐Organized Honeycomb and Pincushion Films." Advanced Functional Materials 25.27 (2015): 4195-4201.

[99] Kamei, Jun, and Hiroshi Yabu. "One step fabrication of mesh-reinforced hierarchic perforated microporous honeycomb films with tunable filtering property." Soft Matter 13.43 (2017): 7834-7839.

[100] El-Samak, Ali A., et al. "Designing flexible and porous fibrous membranes for oil water separation—A review of recent developments." Polymer Reviews 60.4 (2020): 671-716.

[101] Dunne, R., D. Desai, and R. Sadiku. "A review of the factors that influence sound absorption and the available empirical models for fibrous materials." Acoustics Australia 45.2 (2017): 453-469.

[102] Fan, Tingting, et al. "Robust graphene@ PPS fibrous membrane for harsh environmental oil/water separation and all-weather cleanup of crude oil spill by joule heat and photothermal effect." ACS Applied Materials & Interfaces 13.16 (2021): 19377-19386.

[103] Cheng, Qiaoyun, et al. "Facile fabrication of superhydrophilic membranes consisted of fibrous tunicate cellulose nanocrystals for highly efficient oil/water separation." Journal of Membrane Science 525 (2017): 1-8.

[104] Wang, Antuo, et al. "A tree-grapes-like PTFE fibrous membrane with super-hydrophobic and durable performance for oil/water separation." Separation and Purification Technology 275 (2021): 119165.

[105] Xu, Ying, Baoku Zhu, and Youyi Xu. "A study on formation of regular honeycomb pattern in polysulfone film." Polymer 46.3 (2005): 713-717.

[106] Yin, Ming-Jie, et al. "Precise micropatterning of a porous poly (ionic liquid) via maskless photolithography for high-performance nonenzymatic H2O2 sensing." ACS nano 12.12 (2018): 12551-12557.

[107] Pratiwi, Nuraini Dian, et al. "Fabrication of porous silicon using photolithography and reactive ion etching (RIE)." Materials Today: Proceedings 13 (2019): 92-96.

[108] Lorrain, Nathalie, et al. "Submicron gap reduction of micro-resonator based on porous silica ridge waveguides manufactured by standard photolithographic process." Optical Materials 88 (2019): 210-217.

[109] Hu, Yang, et al. "Surface engineering of spongy bacterial cellulose via constructing crossed groove/column micropattern by low-energy CO2 laser photolithography toward scarfree wound healing." Materials Science and Engineering: C 99 (2019): 333-343.

[110] Li, Tingjie, et al. "Self-detached membranes with well-defined pore size, shape and distribution fabricated by underexposure photolithography." Journal of Vacuum Science & Technology B, Nanotechnology and Microelectronics: Materials, Processing, Measurement, and Phenomena 38.4 (2020): 042601.

[111] Oliveira Jr, Osvaldo N., Luciano Caseli, and Katsuhiko Ariga. "The past and the future of Langmuir and Langmuir–Blodgett films." Chemical Reviews 122.6 (2022): 6459-6513.

[112] Hussain, Syed Arshad, et al. "Unique supramolecular assembly through Langmuir– Blodgett (LB) technique." Heliyon 4.12 (2018): e01038.

[113] Baratto, Camilla, et al. "On the alignment of ZnO nanowires by Langmuir–Blodgett technique for sensing application." Applied Surface Science 528 (2020): 146959.

[114] Chiu, Yu-Cheng, et al. "Highly ordered luminescent microporous films prepared from crystalline conjugated rod-coil diblock copolymers of PF-b-PSA and their superhydrophobic characteristics." Soft Matter 7.19 (2011): 9350-9358.

[115] Patankar, Neelesh A. "Supernucleating surfaces for nucleate boiling and dropwise condensation heat transfer." Soft Matter 6.8 (2010): 1613-1620.

[116] Kharangate, Chirag R., and Issam Mudawar. "Review of computational studies on boiling and condensation." International Journal of Heat and Mass Transfer 108 (2017): 1164-1196.

[117] Beysens, D., et al. "How does dew form?." Phase Transitions 31.1-4 (1991): 219-246.

[118] Fukuhira, Yukako, et al. "Interfacial tension governs the formation of self-organized honeycomb-patterned polymer films." Soft Matter 5.10 (2009): 2037-2041.

[119] Fukuhira, Yukako, et al. "Biodegradable honeycomb-patterned film composed of poly (lactic acid) and dioleoylphosphatidylethanolamine." Biomaterials 27.9 (2006): 1797-1802.

[120] Kawano, Takahito, et al. "Honeycomb-shaped surface topography induces differentiation of human mesenchymal stem cells (hMSCs): Uniform porous polymer scaffolds prepared by the breath figure technique." Biomaterials science 2.1 (2014): 52-56.

[121] Bui, Van-Tien, Seung Hyeon Ko, and Ho-Suk Choi. "A surfactant-free bio-compatible film with a highly ordered honeycomb pattern fabricated via an improved phase separation method." Chemical Communications 50.29 (2014): 3817-3819.

[122] Yabu, Hiroshi, Kouta Inoue, and Masatsugu Shimomura. "Multiple-periodic structures of self-organized honeycomb-patterned films and polymer nanoparticles hybrids." Colloids and Surfaces A: Physicochemical and Engineering Aspects 284 (2006): 301-304.

[123] Kamei, Jun, Hiroya Abe, and Hiroshi Yabu. "Biomimetic bubble-repellent tubes: Microdimple arrays enhance repellency of bubbles inside of tubes." Langmuir 33.2 (2017): 585- 590.

[124] Yong, Jiale, et al. "Bioinspired transparent underwater superoleophobic and anti-oil surfaces." Journal of Materials Chemistry A 3.18 (2015): 9379-9384.

[125] Ruffolo, Silvestro A., et al. "Antifouling coatings for underwater archaeological stone materials." Progress in Organic Coatings 104 (2017): 64-71.

[126] Del Grosso, Chelsey A., et al. "Surface hydration for antifouling and bioadhesion." Chemical Science 11.38 (2020): 10367-10377.

[127] Huo, Jinglan, et al. "Underwater transparent miniature “mechanical hand” based on femtosecond laser-induced controllable oil-adhesive patterned glass for oil droplet manipulation." Langmuir 33.15 (2017): 3659-3665.

[128] Zhou, Cailong, et al. "Superhydrophilic and underwater superoleophobic titania nanowires surface for oil repellency and oil/water separation." Chemical Engineering Journal 301 (2016): 249-256.

[129] Huynh, So Hung, et al. "Plastron-mediated growth of captive bubbles on superhydrophobic surfaces." Langmuir 31.24 (2015): 6695-6703.

[130] Li, Zhe, et al. "A porous superhydrophobic surface with active air plastron control for drag reduction and fluid impalement resistance." Journal of Materials Chemistry A 7.27 (2019): 16387-16396.

[131] Hirai, Yuji, Naoki Yanagi, and Masatsugu Shimomura. "Preparations of the artificial plastron device by self-organized honeycomb-patterned films." e-Journal of Surface Science and Nanotechnology 13 (2015): 90-92.

[132] Lucas, Richard. "Ueber das Zeitgesetz des kapillaren Aufstiegs von Flüssigkeiten." Kolloid-Zeitschrift 23.1 (1918): 15-22.

[133] Washburn, Edward W. "Note on a method of determining the distribution of pore sizes in a porous material." Proceedings of the National Academy of Sciences 7.4 (1921): 115-116.

[134] Zhang, Feng, et al. "Nanowire-haired inorganic membranes with superhydrophilicity and underwater ultralow adhesive superoleophobicity for high-efficiency oil/water separation." Advanced Materials 25.30 (2013): 4192-4198.

[135] Lafuma, Aurélie, and David Quéré. "Superhydrophobic states." Nature materials 2.7 (2003): 457-460.

[136] Finn, Robert. "The contact angle in capillarity." Physics of Fluids 18.4 (2006): 047102.

[137] Chen, Ting, et al. "Smart ZIF-L mesh films with switchable superwettability synthesized via a rapid energy-saving process." Separation and Purification Technology 240 (2020): 116647.

[138] Zhou, Peizhang, et al. "Ultrafast preparation of hydrophobic ZIF-67/copper mesh via electrodeposition and hydrophobization for oil/water separation and dyes adsorption." Separation and Purification Technology 272 (2021): 118871.

[139] Wen, Qiang, et al. "Zeolite-coated mesh film for efficient oil–water separation." Chemical Science 4.2 (2013): 591-595.

[140] Li, Jian, et al. "Underwater superoleophobic palygorskite coated meshes for efficient oil/water separation." Journal of materials chemistry A 3.28 (2015): 14696-14702.

[141] Griffin, William C. "Classification of surface-active agents by" HLB"." J. Soc. Cosmet. Chem. 1 (1949): 311-326.

[142] Qian, Dongliang, et al. "TiO2/sulfonated graphene oxide/Ag nanoparticle membrane: In situ separation and photodegradation of oil/water emulsions." Journal of membrane science 554 (2018): 16-25.

[143] Lin, Yi-Min, and Gregory C. Rutledge. "Separation of oil-in-water emulsions stabilized by different types of surfactants using electrospun fiber membranes." Journal of membrane science 563 (2018): 247-258.

[144] Yang, Hao-Cheng, et al. "Mussel-inspired modification of a polymer membrane for ultrahigh water permeability and oil-in-water emulsion separation." Journal of Materials Chemistry A 2.26 (2014): 10225-10230.

参考文献をもっと見る

全国の大学の
卒論・修論・学位論文

一発検索!

この論文の関連論文を見る