[1] et alRecent developments in superhydrophobic surfaces with unique structural and functional properties[J]. Soft Matter, 8, 11217-11231(2012).
Zhang Y L, Xia H, Kim E et al. Recent developments in superhydrophobic surfaces with unique structural and functional properties[J]. Soft Matter, 8, 11217-11231(2012).
[3] Liu K S, Yao X, Jiang L. Recent developments in bio-inspired special wettability[J]. Chemical Society Reviews, 39, 3240-3255(2010).
Recent developments in bio-inspired special wettability[J]. Chemical Society Reviews, 39, 3240-3255(2010).
[4] Bio-inspired, smart, multiscale interfacial materials[J]. Advanced Materials, 20, 2842-2858(2008).
Xia F, Jiang L. Bio-inspired, smart, multiscale interfacial materials[J]. Advanced Materials, 20, 2842-2858(2008).
[5] et alExtreme wettability and tunable adhesion: biomimicking beyond nature?[J]. Soft Matter, 8, 2070-2086(2012).
Liu X J, Liang Y M, Zhou F et al. Extreme wettability and tunable adhesion: biomimicking beyond nature?[J]. Soft Matter, 8, 2070-2086(2012).
[6] Chang B S, Zhang M X, Qing G Y et al. Dynamic biointerfaces: from recognition to function[J]. Small, 11, 1097-1112(2015).
et alDynamic biointerfaces: from recognition to function[J]. Small, 11, 1097-1112(2015).
[11] McDowell D, et al. Removal of pharmaceuticals during drinking water treatment[J]. Environmental Science & Technology, 36, 3855-3863(2002).
Ternes T A, Meisenheimer M. McDowell D, et al. Removal of pharmaceuticals during drinking water treatment[J]. Environmental Science & Technology, 36, 3855-3863(2002).
Hydrogen bubble flotation of silica[J]. Advanced Powder Technology, 21, 412-418(2010).
[14] Siddiqui M S, Amy G L, Murphy B D. Ozone enhanced removal of natural organic matter from drinking water sources[J]. Water Research, 31, 3098-3106(1997).
Ozone enhanced removal of natural organic matter from drinking water sources[J]. Water Research, 31, 3098-3106(1997).
[15] Bonn D, Eggers J, Indekeu J et al. Wetting and spreading[J]. Reviews of Modern Physics, 81, 739-805(2009).
et alWetting and spreading[J]. Reviews of Modern Physics, 81, 739-805(2009).
[17] et alSuperwetting electrodes for gas-involving electrocatalysis[J]. Accounts of Chemical Research, 51, 1590-1598(2018).
Xu W W, Lu Z Y, Sun X M et al. Superwetting electrodes for gas-involving electrocatalysis[J]. Accounts of Chemical Research, 51, 1590-1598(2018).
[18] et alElectrocatalytic properties improvement on carbon-nanotubes coated reaction surface for micro-DMFC[J]. Journal of Power Sources, 167, 413-419(2007).
Wang S K, Tseng F, Yeh T K et al. Electrocatalytic properties improvement on carbon-nanotubes coated reaction surface for micro-DMFC[J]. Journal of Power Sources, 167, 413-419(2007).
[19] et alSurface, kinetics and electrocatalytic properties of Ti/( IrO2 + Ta2O5) electrodes, prepared using controlled cooling rate, for ozone production[J]. Electrochimica Acta, 49, 3977-3988(2004).
da Silva L M, Franco D V, de Faria L A et al. Surface, kinetics and electrocatalytic properties of Ti/( IrO2 + Ta2O5) electrodes, prepared using controlled cooling rate, for ozone production[J]. Electrochimica Acta, 49, 3977-3988(2004).
[20] Handa-Corrigan A, Emery A N, Spier R E. Effect of gas: liquid interfaces on the growth of suspended mammalian cells: mechanisms of cell damage by bubbles[J]. Enzyme and Microbial Technology, 11, 230-235(1989).
Effect of gas: liquid interfaces on the growth of suspended mammalian cells: mechanisms of cell damage by bubbles[J]. Enzyme and Microbial Technology, 11, 230-235(1989).
[21] Wu J Y, Ruan Q. Peter Lam H Y. Effects of surface-active medium additives on insect cell surface hydrophobicity relating to cell protection against bubble damage[J]. Enzyme and Microbial Technology, 21, 341-348(1997).
Peter Lam H Y. Effects of surface-active medium additives on insect cell surface hydrophobicity relating to cell protection against bubble damage[J]. Enzyme and Microbial Technology, 21, 341-348(1997).
[22] Yap R K L, Whittaker M, Diao M et al. Hydrophobically-associating cationic polymers as micro-bubble surface modifiers indissolved air flotation for cyanobacteria cell separation[J]. Water Research, 61, 253-262(2014).
et alHydrophobically-associating cationic polymers as micro-bubble surface modifiers indissolved air flotation for cyanobacteria cell separation[J]. Water Research, 61, 253-262(2014).
[23] Ceccio S L. Friction drag reduction of external flows with bubble and gas injection[J]. Annual Review of Fluid Mechanics, 42, 183-203(2010).
Friction drag reduction of external flows with bubble and gas injection[J]. Annual Review of Fluid Mechanics, 42, 183-203(2010).
[24] et alUnderwater drag-reducing effect of superhydrophobic submarine model[J]. Langmuir, 31, 587-593(2015).
Zhang S S, Ouyang X, Li J et al. Underwater drag-reducing effect of superhydrophobic submarine model[J]. Langmuir, 31, 587-593(2015).
[26] Chen C, Shi L A, Huang Z C et al. Microhole-arrayed PDMS with controllable wettability gradient by one-step femtosecond laser drilling for ultrafast underwater bubble unidirectional self-transport[J]. Advanced Materials Interfaces, 6, 1900297(2019).
et alMicrohole-arrayed PDMS with controllable wettability gradient by one-step femtosecond laser drilling for ultrafast underwater bubble unidirectional self-transport[J]. Advanced Materials Interfaces, 6, 1900297(2019).
[27] et alAnisotropic sliding of underwater bubbles on microgrooved slippery surfaces by one-step femtosecond laser scanning[J]. ACS Applied Materials & Interfaces, 11, 20574-20580(2019).
Lü X D, Jiao Y L, Wu S Z et al. Anisotropic sliding of underwater bubbles on microgrooved slippery surfaces by one-step femtosecond laser scanning[J]. ACS Applied Materials & Interfaces, 11, 20574-20580(2019).
[29] Wang X, Wang Z B, Heng L P et al. Stableomniphobic anisotropic covalently grafted slippery surfaces for directional transportation of drops and bubbles[J]. Advanced Functional Materials, 30, 1902686(2020).
et alStableomniphobic anisotropic covalently grafted slippery surfaces for directional transportation of drops and bubbles[J]. Advanced Functional Materials, 30, 1902686(2020).
[30] Lu Z Y, Xu W W, Ma J et al. Superaerophilic carbon-nanotube-array electrode for high-performance oxygen reduction reaction[J]. Advanced Materials, 28, 7155-7161(2016).
et alSuperaerophilic carbon-nanotube-array electrode for high-performance oxygen reduction reaction[J]. Advanced Materials, 28, 7155-7161(2016).
[31] et alMorphology-control strategy of the superhydrophobic poly(methyl methacrylate) surface for efficient bubble adhesion and wastewater remediation[J]. Advanced Functional Materials, 27, 1702020(2017).
Zhang C H, Cao M Y, Ma H Y et al. Morphology-control strategy of the superhydrophobic poly(methyl methacrylate) surface for efficient bubble adhesion and wastewater remediation[J]. Advanced Functional Materials, 27, 1702020(2017).
[32] et alDirectional andcontinuous transport of gas bubbles on superaerophilic geometry-gradient surfaces in aqueous environments[J]. Advanced Functional Materials, 28, 1705091(2018).
Ma H Y, Cao M Y, Zhang C H et al. Directional andcontinuous transport of gas bubbles on superaerophilic geometry-gradient surfaces in aqueous environments[J]. Advanced Functional Materials, 28, 1705091(2018).
[33] Lee C, Kim C J. Underwater restoration and retention of gases on superhydrophobic surfaces for drag reduction[J]. Physical Review Letters, 106, 014502(2011).
Underwater restoration and retention of gases on superhydrophobic surfaces for drag reduction[J]. Physical Review Letters, 106, 014502(2011).
[34] Wu Y, Wei Q B, Cai M R et al. Interfacial friction control[J]. Advanced Materials Interfaces, 2, 1400392(2015).
et alInterfacial friction control[J]. Advanced Materials Interfaces, 2, 1400392(2015).
[35] Zhang X, Liu H W, Huang X Z et al. One-step femtosecond laser patterning of light-trapping structure on dye-sensitized solar cell photoelectrodes[J]. Journal of Materials Chemistry C, 3, 3336-3341(2015).
et alOne-step femtosecond laser patterning of light-trapping structure on dye-sensitized solar cell photoelectrodes[J]. Journal of Materials Chemistry C, 3, 3336-3341(2015).
[36] ElKabbash M, et al. Spectral absorption control of femtosecond laser-treated metals and application in solar-thermal devices[J]. Light: Science & Applications, 9, 14(2020).
Jalil S A, Lai B. ElKabbash M, et al. Spectral absorption control of femtosecond laser-treated metals and application in solar-thermal devices[J]. Light: Science & Applications, 9, 14(2020).
[39] et alA review of femtosecond-laser-induced underwater superoleophobic surfaces[J]. Advanced Materials Interfaces, 5, 1701370(2018).
Yong J L, Chen F, Yang Q et al. A review of femtosecond-laser-induced underwater superoleophobic surfaces[J]. Advanced Materials Interfaces, 5, 1701370(2018).
[40] et alUltrafast nano-structuring of superwetting Ti foam with robust antifouling and stability towards efficient oil-in-water emulsion separation[J]. Nanoscale, 11, 17607-17614(2019).
Yang S, Yin K, Wu J R et al. Ultrafast nano-structuring of superwetting Ti foam with robust antifouling and stability towards efficient oil-in-water emulsion separation[J]. Nanoscale, 11, 17607-17614(2019).
[42] et alA simple way to achieve bioinspired hybrid wettability surface with micro/nanopatterns for efficient fog collection[J]. Nanoscale, 9, 14620-14626(2017).
Yin K, Du H F, Dong X R et al. A simple way to achieve bioinspired hybrid wettability surface with micro/nanopatterns for efficient fog collection[J]. Nanoscale, 9, 14620-14626(2017).
[43] Yin K, Chu D K, Dong X R et al. Femtosecond laser induced robust periodic nanoripple structured mesh for highly efficient oil-water separation[J]. Nanoscale, 9, 14229-14235(2017).
et alFemtosecond laser induced robust periodic nanoripple structured mesh for highly efficient oil-water separation[J]. Nanoscale, 9, 14229-14235(2017).
[45] et alBioinspired wetting surface via laser microfabrication[J]. ACS Applied Materials & Interfaces, 5, 6777-6792(2013).
Chen F, Zhang D S, Yang Q et al. Bioinspired wetting surface via laser microfabrication[J]. ACS Applied Materials & Interfaces, 5, 6777-6792(2013).
[46] et alFemtosecond laser controlled wettability of solid surfaces[J]. Soft Matter, 11, 8897-8906(2015).
Yong J L, Chen F, Yang Q et al. Femtosecond laser controlled wettability of solid surfaces[J]. Soft Matter, 11, 8897-8906(2015).
[47] et alUnderwater transparent miniature “mechanical hand” based on femtosecond laser-induced controllable oil-adhesive patterned glass for oil droplet manipulation[J]. Langmuir, 33, 3659-3665(2017).
Huo J L, Yang Q, Chen F et al. Underwater transparent miniature “mechanical hand” based on femtosecond laser-induced controllable oil-adhesive patterned glass for oil droplet manipulation[J]. Langmuir, 33, 3659-3665(2017).
[48] Liu M J, Wang S T, Jiang L. Nature-inspired superwett ability systems[J]. Nature Reviews Materials, 2, 17036(2017).
Nature-inspired superwett ability systems[J]. Nature Reviews Materials, 2, 17036(2017).
[49] Fabrication of superwetting surfaces by ultrafast lasers and mechanical durability of superhydrophobic surfaces[J]. Chinese Science Bulletin, 64, 1268-1289(2019).
Pan R, Zhong ML. Fabrication of superwetting surfaces by ultrafast lasers and mechanical durability of superhydrophobic surfaces[J]. Chinese Science Bulletin, 64, 1268-1289(2019).
[50] Yong J L, Chen F, Yang Q et al. Superoleophobic surfaces[J]. Chemical Society Reviews, 46, 4168-4217(2017).
et alSuperoleophobic surfaces[J]. Chemical Society Reviews, 46, 4168-4217(2017).
[51] et alFemtosecond laser-induced superwetting surfaces[J]. Chinese Science Bulletin, 64, 1213-1237(2019).
Yong J L, Yang Q, Chen F et al. Femtosecond laser-induced superwetting surfaces[J]. Chinese Science Bulletin, 64, 1213-1237(2019).
[52] Zhang P C, Wang S S, Wang S T et al. Superwetting surfaces under different media: effects of surface topography on wettability[J]. Small, 11, 1939-1946(2015).
et alSuperwetting surfaces under different media: effects of surface topography on wettability[J]. Small, 11, 1939-1946(2015).
[53] Yu C M, Zhang P P, Wang J M et al. Superwettability of gas bubbles and its application: from bioinspiration to advanced materials[J]. Advanced Materials, 29, 1703053(2017).
et alSuperwettability of gas bubbles and its application: from bioinspiration to advanced materials[J]. Advanced Materials, 29, 1703053(2017).
[54] Xue X Z, Wang R X, Lan L W et al. Reliable manipulation of gas bubble size on superaerophilic cones in aqueous media[J]. ACS applied materials & interfaces, 10, 5099-5106(2018).
et alReliable manipulation of gas bubble size on superaerophilic cones in aqueous media[J]. ACS applied materials & interfaces, 10, 5099-5106(2018).
[55] Ling W Y L, Lu G, Ng T W. Increased stability and size of a bubble on a superhydrophobic surface[J]. Langmuir, 27, 3233-3237(2011).
Increased stability and size of a bubble on a superhydrophobic surface[J]. Langmuir, 27, 3233-3237(2011).
[56] et alSuperaerophilic copper nanowires for efficient and switchable CO2 electroreduction[J]. Nanoscale Horizons, 4, 490-494(2019).
Zhang Y, Cai Z, Zhao Y et al. Superaerophilic copper nanowires for efficient and switchable CO2 electroreduction[J]. Nanoscale Horizons, 4, 490-494(2019).
[57] de Maleprade H, Clanet C, Quéré D. Spreading of bubbles after contacting the lower side of an aerophilic slide immersed in water[J]. Physical Review Letters, 117, 094501(2016).
Spreading of bubbles after contacting the lower side of an aerophilic slide immersed in water[J]. Physical Review Letters, 117, 094501(2016).
[58] et alPreparation of superaerophilic copper mesh for underwater gas collection by combination of spraying technology and flame treatment[J]. Applied Physics A, 126, 24(2020).
Wang J P, Wu Y L, Zhang D G et al. Preparation of superaerophilic copper mesh for underwater gas collection by combination of spraying technology and flame treatment[J]. Applied Physics A, 126, 24(2020).
[59] Li Z, Cao C, Zhu Z et al. Superaerophilic materials are surprising catalysts: wettability-induced excellent hydrogenation activity under ambient H2 pressure[J]. Advanced Materials Interfaces, 5, 1801259(2018).
et alSuperaerophilic materials are surprising catalysts: wettability-induced excellent hydrogenation activity under ambient H2 pressure[J]. Advanced Materials Interfaces, 5, 1801259(2018).
[60] Dorrer C, Rühe J. Superaerophobicity: repellence of air bubbles from submerged, surface-engineered silicon substrates[J]. Langmuir, 28, 14968-14973(2012).
Superaerophobicity: repellence of air bubbles from submerged, surface-engineered silicon substrates[J]. Langmuir, 28, 14968-14973(2012).
[61] Recent progress infabricating superaerophobic and superaerophilic surfaces[J]. Advanced Materials Interfaces, 4, 1601088(2017).
George J E, Chidangil S, George S D. Recent progress infabricating superaerophobic and superaerophilic surfaces[J]. Advanced Materials Interfaces, 4, 1601088(2017).
[62] et alFemtosecond laser modification of fused silica: the effect of writing polarization on Si-O ring structure[J]. Optics Express, 16, 20029-20037(2008).
Little D J, Ams M, Dekker P et al. Femtosecond laser modification of fused silica: the effect of writing polarization on Si-O ring structure[J]. Optics Express, 16, 20029-20037(2008).
[63] He S T, Yu J, Hu M L. Femtosecond laser high precision fabrication for novel applications[J]. Current Nanoscience, 12, 676-684(2016).
Femtosecond laser high precision fabrication for novel applications[J]. Current Nanoscience, 12, 676-684(2016).
[64] Li Y J, Zhang H C, Xu T H et al. Under-water superaerophobic pine-shaped Pt nanoarray electrode for ultrahigh-performance hydrogen evolution[J]. Advanced Functional Materials, 25, 1737-1744(2015).
et alUnder-water superaerophobic pine-shaped Pt nanoarray electrode for ultrahigh-performance hydrogen evolution[J]. Advanced Functional Materials, 25, 1737-1744(2015).
[65] Yang H C, Hou J W, Wan L S et al. Janus membranes with asymmetric wettability for fine bubble aeration[J]. Advanced Materials Interfaces, 3, 1500774(2016).
et alJanus membranes with asymmetric wettability for fine bubble aeration[J]. Advanced Materials Interfaces, 3, 1500774(2016).
[66] Chu D K, Sun X Y, Hu Y W et al. Substrate-independent, switchable bubble wettability surfaces induced by ultrasonic treatment[J]. Soft Matter, 15, 7398-7403(2019).
et alSubstrate-independent, switchable bubble wettability surfaces induced by ultrasonic treatment[J]. Soft Matter, 15, 7398-7403(2019).
[67] et alFemtosecond laser structuring of Janus foam: water spontaneous antigravity unidirectional penetration and pumping[J]. Applied Physics Letters, 113, 203701(2018).
Yang S, Yin K, Chu D K et al. Femtosecond laser structuring of Janus foam: water spontaneous antigravity unidirectional penetration and pumping[J]. Applied Physics Letters, 113, 203701(2018).
[68] Yin K, Dong X R, Zhang F et al. Superamphiphobic miniature boat fabricated by laser micromachining[J]. Applied Physics Letters, 110, 121909(2017).
et alSuperamphiphobic miniature boat fabricated by laser micromachining[J]. Applied Physics Letters, 110, 121909(2017).
[69] et alUnder-oil self-driven and directional transport of water on a femtosecond laser-processed superhydrophilic geometry-gradient structure[J]. Nanoscale, 12, 4077-4084(2020).
Wu J R, Yin K, Li M et al. Under-oil self-driven and directional transport of water on a femtosecond laser-processed superhydrophilic geometry-gradient structure[J]. Nanoscale, 12, 4077-4084(2020).
[70] Zhang C H, Zhang B, Ma H Y et al. Bioinspired pressure-tolerant asymmetric slippery surface for continuous self-transport of gas bubbles in aqueous environment[J]. ACS Nano, 12, 2048-2055(2018).
et alBioinspired pressure-tolerant asymmetric slippery surface for continuous self-transport of gas bubbles in aqueous environment[J]. ACS Nano, 12, 2048-2055(2018).
[71] Ma R, Wang J M, Yang Z J et al. Bioinspired gas bubble spontaneous and directional transportation effects in an aqueous medium[J]. Advanced Materials, 27, 2384-2389(2015).
et alBioinspired gas bubble spontaneous and directional transportation effects in an aqueous medium[J]. Advanced Materials, 27, 2384-2389(2015).
[72] Geyer F, Schönecker C, Butt H J et al. Enhancing CO2 capture using robust superomniphobic membranes[J]. Advanced Materials, 29, 1603524(2017).
et alEnhancing CO2 capture using robust superomniphobic membranes[J]. Advanced Materials, 29, 1603524(2017).
[73] et alSuperaerophobic electrodes for direct hydrazine fuel cells[J]. Advanced Materials, 27, 2361-2366(2015).
Lu Z Y, Sun M, Xu T H et al. Superaerophobic electrodes for direct hydrazine fuel cells[J]. Advanced Materials, 27, 2361-2366(2015).
[75] Yang S, Yin K, Dong X R et al. Lasers tructuring of underwater bubble-repellent surface[J]. Journal of Nanoscience and Nanotechnology, 18, 8381-8385(2018).
et alLasers tructuring of underwater bubble-repellent surface[J]. Journal of Nanoscience and Nanotechnology, 18, 8381-8385(2018).
[76] Jiao Y L, Lü X, Zhang Y Y et al. Pitcher plant-bioinspired bubble slippery surface fabricated by femtosecond laser for buoyancy-driven bubble self-transport and efficient gas capture[J]. Nanoscale, 11, 1370-1378(2019).
et alPitcher plant-bioinspired bubble slippery surface fabricated by femtosecond laser for buoyancy-driven bubble self-transport and efficient gas capture[J]. Nanoscale, 11, 1370-1378(2019).
[77] Yong J L, Chen F, Fang Y et al. Bioinspired design of underwater superaerophobic and superaerophilic surfaces by femtosecond laser ablation for anti- or capturing bubbles[J]. ACS Applied Materials & Interfaces, 9, 39863-39871(2017).
et alBioinspired design of underwater superaerophobic and superaerophilic surfaces by femtosecond laser ablation for anti- or capturing bubbles[J]. ACS Applied Materials & Interfaces, 9, 39863-39871(2017).
[78] et alSpontaneous and directional transportation of gas bubbles on superhydrophobic cones[J]. Advanced Functional Materials, 26, 3236-3243(2016).
Yu C M, Cao M Y, Dong Z C et al. Spontaneous and directional transportation of gas bubbles on superhydrophobic cones[J]. Advanced Functional Materials, 26, 3236-3243(2016).
[79] Pei C T, Peng Y, Zhang Y et al. An integrated Janus mesh: underwater bubble antibuoyancy unidirectional penetration[J]. ACS Nano, 12, 5489-5494(2018).
et alAn integrated Janus mesh: underwater bubble antibuoyancy unidirectional penetration[J]. ACS Nano, 12, 5489-5494(2018).
[80] Zhu S W, Li J W, Cai S W et al. Unidirectional transport and effective collection of underwater CO2 bubbles utilizing ultrafast-laser-ablated Janus foam[J]. ACS Applied Materials & Interfaces, 12, 18110-18115(2020).
et alUnidirectional transport and effective collection of underwater CO2 bubbles utilizing ultrafast-laser-ablated Janus foam[J]. ACS Applied Materials & Interfaces, 12, 18110-18115(2020).
[81] The wettability of gas bubbles: from macro behavior to nano structures to applications[J]. Nanoscale, 10, 19659-19672(2018).
Huang C, Guo Z G. The wettability of gas bubbles: from macro behavior to nano structures to applications[J]. Nanoscale, 10, 19659-19672(2018).
[82] ElKabbash M, Cheng J L, et al. Highly floatable superhydrophobic metallic assembly for aquatic applications[J]. ACS Applied Materials & Interfaces, 11, 48512-48517(2019).
Zhan Z B. ElKabbash M, Cheng J L, et al. Highly floatable superhydrophobic metallic assembly for aquatic applications[J]. ACS Applied Materials & Interfaces, 11, 48512-48517(2019).
[83] Hu Y L, Qiu W X, Zhang Y Y et al. Channel-controlled Janus membrane fabricated by simultaneous laser ablation and nanoparticles deposition for underwater bubbles manipulation[J]. Applied Physics Letters, 114, 173701(2019).
et alChannel-controlled Janus membrane fabricated by simultaneous laser ablation and nanoparticles deposition for underwater bubbles manipulation[J]. Applied Physics Letters, 114, 173701(2019).
[84] et alSuperhydrophobic and superaerophilic hierarchical Pt@MIL-101/PVDF composite for hydrogen water isotope exchange reactions[J]. Journal of Hazardous Materials, 380, 120904(2019).
Fu X L, Hou J W, Chen C et al. Superhydrophobic and superaerophilic hierarchical Pt@MIL-101/PVDF composite for hydrogen water isotope exchange reactions[J]. Journal of Hazardous Materials, 380, 120904(2019).
[85] et al“superaerophobic” nickel phosphide nanoarray catalyst for efficient hydrogen evolution at ultrahigh current densities[J]. Journal of the American Chemical Society, 141, 7537-7543(2019).
Yu X X, Yu Z Y, Zhang X L et al. “superaerophobic” nickel phosphide nanoarray catalyst for efficient hydrogen evolution at ultrahigh current densities[J]. Journal of the American Chemical Society, 141, 7537-7543(2019).
[86] Gao A L, Fan H Q, Zhang G F et al. Facile construction of gas diode membrane towards in situ gas consumption via coupling two chemical reactions[J]. Journal of Colloid and Interface Science, 557, 282-290(2019).
et alFacile construction of gas diode membrane towards in situ gas consumption via coupling two chemical reactions[J]. Journal of Colloid and Interface Science, 557, 282-290(2019).
[87] et alSmart transportation between three phases through a stimulus-responsive functionally cooperating device[J]. Advanced Materials, 25, 2915-2919(2013).
Ju G N, Cheng M J, Xiao M et al. Smart transportation between three phases through a stimulus-responsive functionally cooperating device[J]. Advanced Materials, 25, 2915-2919(2013).
[88] et alUnderwater thermoresponsive surface with switchable oil-wettability between superoleophobicity and superoleophilicity[J]. Small, 11, 3338-3342(2015).
Liu H L, Zhang X Q, Wang S T et al. Underwater thermoresponsive surface with switchable oil-wettability between superoleophobicity and superoleophilicity[J]. Small, 11, 3338-3342(2015).
[90] et alLight-induced amphiphilic surfaces[J]. Nature, 388, 431-432(1997).
Wang R, Hashimoto K, Fujishima A et al. Light-induced amphiphilic surfaces[J]. Nature, 388, 431-432(1997).
[92] et alReversible switching between superhydrophilicity and superhydrophobicity[J]. Angewandte Chemie International Edition, 43, 357-360(2004).
Sun T L, Wang G J, Feng L et al. Reversible switching between superhydrophilicity and superhydrophobicity[J]. Angewandte Chemie International Edition, 43, 357-360(2004).
[93] et alPhotoinduced underwater superoleophobicity of TiO2 thin films[J]. Langmuir, 29, 6784-6789(2013).
Sawai Y, Nishimoto S, Kameshima Y et al. Photoinduced underwater superoleophobicity of TiO2 thin films[J]. Langmuir, 29, 6784-6789(2013).
[94] Liu Y, Lin Z Y, Lin W et al. Reversible superhydrophobic-superhydrophilic transition of ZnO nanorod/epoxy composite films[J]. ACS Applied Materials & Interfaces, 4, 3959-3964(2012).
et alReversible superhydrophobic-superhydrophilic transition of ZnO nanorod/epoxy composite films[J]. ACS Applied Materials & Interfaces, 4, 3959-3964(2012).
[95] et alDual-responsive surfaces that switch between superhydrophilicity and superhydrophobicity[J]. Advanced Materials, 18, 432-436(2006).
Xia F, Feng L, Wang S et al. Dual-responsive surfaces that switch between superhydrophilicity and superhydrophobicity[J]. Advanced Materials, 18, 432-436(2006).
[96] Huo J L, Yong J L, Chen F et al. Air bubble control: trapped air-induced reversible transition between underwater superaerophilicity and superaerophobicity on the femtosecond laser-ablated superhydrophobic PTFE surfaces[J]. Advanced Materials Interfaces, 6, 1970106(2019).
et alAir bubble control: trapped air-induced reversible transition between underwater superaerophilicity and superaerophobicity on the femtosecond laser-ablated superhydrophobic PTFE surfaces[J]. Advanced Materials Interfaces, 6, 1970106(2019).
[97] Yong J L, Chen F, Huo J L et al. Femtosecond laser induced underwater superaerophilic and superaerophobic PDMS sheets with through microholes for selective passage of air bubbles and further collection of underwater gas[J]. Nanoscale, 10, 3688-3696(2018).
et alFemtosecond laser induced underwater superaerophilic and superaerophobic PDMS sheets with through microholes for selective passage of air bubbles and further collection of underwater gas[J]. Nanoscale, 10, 3688-3696(2018).
[98] Jiao Y L, Li C Z, Wu S Z et al. Switchable underwater bubble wettability on laser-induced titanium multiscale micro-/nanostructures by vertically crossed scanning[J]. ACS Applied Materials & Interfaces, 10, 16867-16873(2018).
et alSwitchable underwater bubble wettability on laser-induced titanium multiscale micro-/nanostructures by vertically crossed scanning[J]. ACS Applied Materials & Interfaces, 10, 16867-16873(2018).
[99] Jiao Y L, Li C Z, Lü X et al. In situ tunable bubble wettability with fast response induced by solution surface tension[J]. Journal of Materials Chemistry A, 6, 20878-20886(2018).
et alIn situ tunable bubble wettability with fast response induced by solution surface tension[J]. Journal of Materials Chemistry A, 6, 20878-20886(2018).
[100] et alSubstrate-independent, fast, and reversible switching between underwater superaerophobicity and aerophilicity on the femtosecond laser-induced superhydrophobic surfaces for selectively repelling or capturing bubbles in water[J]. ACS Applied Materials & Interfaces, 11, 8667-8675(2019).
Yong J L, Singh S C, Zhan Z B et al. Substrate-independent, fast, and reversible switching between underwater superaerophobicity and aerophilicity on the femtosecond laser-induced superhydrophobic surfaces for selectively repelling or capturing bubbles in water[J]. ACS Applied Materials & Interfaces, 11, 8667-8675(2019).
[101] Verschoof R A, Sun C et al. Bubble drag reduction requires large bubbles[J]. Physical Review Letters, 117, 104502(2016).
et alBubble drag reduction requires large bubbles[J]. Physical Review Letters, 117, 104502(2016).
[102] et alManipulating bubbles in aqueous environment via a lubricant-infused slippery surface[J]. Advanced Functional Materials, 27, 1701605(2017).
Yu C M, Zhu X B, Li K et al. Manipulating bubbles in aqueous environment via a lubricant-infused slippery surface[J]. Advanced Functional Materials, 27, 1701605(2017).
[103] et alTerminating marine methane bubbles by superhydrophobic sponges[J]. Advanced Materials, 24, 5884-5889(2012).
Chen X, Wu Y C, Su B et al. Terminating marine methane bubbles by superhydrophobic sponges[J]. Advanced Materials, 24, 5884-5889(2012).
[104] et alFemtosecond laser fabrication of shape-gradient platform: underwater bubbles continuous self-driven and unidirectional transportation[J]. Applied Surface Science, 471, 999-1004(2019).
Yin K, Yang S, Dong X R et al. Femtosecond laser fabrication of shape-gradient platform: underwater bubbles continuous self-driven and unidirectional transportation[J]. Applied Surface Science, 471, 999-1004(2019).
[105] et alA hierarchical superaerophilic cone: robust spontaneous and directional transport of gas bubbles[J]. Applied Physics Letters, 113, 203704(2018).
Duan J A, Dong X R, Yin K et al. A hierarchical superaerophilic cone: robust spontaneous and directional transport of gas bubbles[J]. Applied Physics Letters, 113, 203704(2018).
[106] et alRobust laser-structured asymmetrical PTFE mesh for underwater directional transportation and continuous collection of gas bubbles[J]. Applied Physics Letters, 112, 243701(2018).
Yin K, Yang S, Dong X R et al. Robust laser-structured asymmetrical PTFE mesh for underwater directional transportation and continuous collection of gas bubbles[J]. Applied Physics Letters, 112, 243701(2018).
[107] Yan S G, Ren F F, Li C Z et al. Unidirectional self-transport of air bubble via a Janus membrane in aqueous environment[J]. Applied Physics Letters, 113, 261602(2018).
et alUnidirectional self-transport of air bubble via a Janus membrane in aqueous environment[J]. Applied Physics Letters, 113, 261602(2018).
[108] Chen C, Huang Z C, Shi L A et al. Remote photothermal actuation of underwater bubble toward arbitrary direction on planar slippery Fe3O4 -doped surfaces[J]. Advanced Functional Materials, 29, 1904766(2019).
et alRemote photothermal actuation of underwater bubble toward arbitrary direction on planar slippery Fe3O4 -doped surfaces[J]. Advanced Functional Materials, 29, 1904766(2019).