Huaxin LI, Junyong CHEN, Zhou XIAO, Xian YUE, Xianbo YU, Junhui XIANG. Research Progress of Biomimetic Self-assembly of Nanomaterials in Morphology and Performance Control [J]. Journal of Inorganic Materials, 2021, 36(7): 695

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- Journal of Inorganic Materials
- Vol. 36, Issue 7, 695 (2021)
![(a) Schematic procedure of micropattern fabrication employing a shielding reagent[32] and (b) route of self-assembled surface nanopatterns based on shielding effect[37]](/richHtml/jim/2021/36/7/695/img_1.png)
1. (a) Schematic procedure of micropattern fabrication employing a shielding reagent[32] and (b) route of self-assembled surface nanopatterns based on shielding effect[37]
![Schematic diagram of Pickering emulsion stability mechanism[40]](/richHtml/jim/2021/36/7/695/img_2.png)
2. Schematic diagram of Pickering emulsion stability mechanism[40]
![Preparation process and characterization of ultra-thin polyimide nanofilms[41]](/Images/icon/loading.gif)
3. Preparation process and characterization of ultra-thin polyimide nanofilms[41]
![(a) Schematic diagram of formation and transfer of interfacial self-assembly mlfs[42]; (b) Schematic diagram of anisotropic X-shaped goethite crystal self-assembly at oil/water interface to form micron scale hollow spheres[44]; (c) Schematic diagram of self-assembly of crystalline diblock copolymer at oil/water interface[45]](/Images/icon/loading.gif)
4. (a) Schematic diagram of formation and transfer of interfacial self-assembly mlfs[42]; (b) Schematic diagram of anisotropic X-shaped goethite crystal self-assembly at oil/water interface to form micron scale hollow spheres[44]; (c) Schematic diagram of self-assembly of crystalline diblock copolymer at oil/water interface[45]
![Effect of gold nanoparticles (AuNP) on self-assembly size in different phase interfaces[46]](/Images/icon/loading.gif)
5. Effect of gold nanoparticles (AuNP) on self-assembly size in different phase interfaces[46]
![(a,b) Schematic diagram of self-assembly and electric field induced self-assembly and assembly process with different morphologies[52]; (c) Schematic diagram of magnetic field-induced self-assembly of one-dimensional nanocube belts[56]; (d) Schematic diagram of magnetic nanopillar array (FFPDMS column array) inducing self-assembly of iron oxide nanoparticles[57]](/Images/icon/loading.gif)
6. (a,b) Schematic diagram of self-assembly and electric field induced self-assembly and assembly process with different morphologies[52]; (c) Schematic diagram of magnetic field-induced self-assembly of one-dimensional nanocube belts[56]; (d) Schematic diagram of magnetic nanopillar array (FFPDMS column array) inducing self-assembly of iron oxide nanoparticles[57]
![(a) Schematic diagram of self-assembly and reassembly induced by light and metal ions[58]; (b) Preparation of HRP-loaded temperature-sensitive polymer vesicles by seed Photo-PISA[59]; (c) Light-induced in-situ self-assembly synthesis of polymer nanostructures[60]](/Images/icon/loading.gif)
7. (a) Schematic diagram of self-assembly and reassembly induced by light and metal ions[58]; (b) Preparation of HRP-loaded temperature-sensitive polymer vesicles by seed Photo-PISA[59]; (c) Light-induced in -situ self-assembly synthesis of polymer nanostructures[60]
![(a) Preparation of hydrophobic polysiloxane in aqueous phase by Sol-Gel method[61]; (b) Schematic diagram of preparation of ternary composite hydrophobic polyurethane sponge PU/HEC/SiO2 by hydroxyl hydrogen bond induction self-assembly[61]; (c) Schematic diagram of PVA/SiO2 with hydrophobicity induced by hydroxyl hydrogen bond[62]](/Images/icon/loading.gif)
8. (a) Preparation of hydrophobic polysiloxane in aqueous phase by Sol-Gel method[61]; (b) Schematic diagram of preparation of ternary composite hydrophobic polyurethane sponge PU/HEC/SiO2 by hydroxyl hydrogen bond induction self-assembly[61]; (c) Schematic diagram of PVA/SiO2 with hydrophobicity induced by hydroxyl hydrogen bond[62]
![(a) SnS2/Zn2SnO4 hybrid membrane sensor performance under different applications: human exhalation, palm sweating, urine and water droplets on baby diapers[74]; (b) Glucose sensor based on GOx loaded H/G4-PANI hydrogel for detecting glucose[85]; (c) Real-time response of strain sensor arrays on human skin[83]](/Images/icon/loading.gif)
9. (a) SnS2/Zn2SnO4 hybrid membrane sensor performance under different applications: human exhalation, palm sweating, urine and water droplets on baby diapers[74]; (b) Glucose sensor based on GOx loaded H/G4-PANI hydrogel for detecting glucose[85]; (c) Real-time response of strain sensor arrays on human skin[83]
![(a) Rat liver hemostasis. Left: Liver produced massive bleeding after sagittal incision in the left lobe (Con. group). Right: Treatment with approximately 1%(w/v) (16 mmol/L) I3QGK aqueous solution leads to rapid hemostasis (I3QGK group)[120]; (b) Single-photon laser scanning confocal microscope for self-assembling peptides in PC-3 cells[122]](/Images/icon/loading.gif)
10. (a) Rat liver hemostasis. Left: Liver produced massive bleeding after sagittal incision in the left lobe (Con. group). Right: Treatment with approximately 1%(w /v ) (16 mmol/L) I3QGK aqueous solution leads to rapid hemostasis (I3QGK group)[120]; (b) Single-photon laser scanning confocal microscope for self-assembling peptides in PC-3 cells[122]

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