4.8 Article

Attractive Pickering Emulsion Gels

期刊

ADVANCED MATERIALS
卷 33, 期 33, 页码 -

出版社

WILEY-V C H VERLAG GMBH
DOI: 10.1002/adma.202102362

关键词

3D printing; emulsion gels; pickering emulsions; porous materials; shear thinning

资金

  1. National Natural Science Foundation of China [21878258, 81874173, 82074208, 81472346]
  2. Zhejiang Provincial Natural Science Foundation of China [Y20B060027]
  3. Zhejiang University Education Foundation Global Partnership Fund
  4. National Science Foundation [DMR1310266]
  5. Harvard Materials Research Science and Engineering Center [DMR-1420570]
  6. China Postdoctoral Science Foundation [2019TQ0274]

向作者/读者索取更多资源

By bridging neighboring particle-stabilized droplets via telechelic polymers, attractive Pickering emulsion gels (APEGs) are designed and prepared. These gels exhibit typical shear-thinning behaviors and their viscoelastic properties can be tuned by temperature, pH, and molecular weight of the telechelic polymers, making them ideal for direct 3D printing. The APEGs can be photopolymerized to prepare APEG-templated porous materials with tailored microstructures for optimized performances, showing promise for a wide range of applications.
Properties of emulsions highly depend on the interdroplet interactions and, thus, engineering interdroplet interactions at molecular scale are essential to achieve desired emulsion systems. Here, attractive Pickering emulsion gels (APEGs) are designed and prepared by bridging neighboring particle-stabilized droplets via telechelic polymers. In the APEGs, each telechelic molecule with two amino end groups can simultaneously bind to two carboxyl functionalized nanoparticles in two neighboring droplets, forming a bridged network. The APEG systems show typical shear-thinning behaviors and their viscoelastic properties are tunable by temperature, pH, and molecular weight of the telechelic polymers, making them ideal for direct 3D printing. The APEGs can be photopolymerized to prepare APEG-templated porous materials and their microstructures can be tailored to optimize their performances, making the APEG systems promising for a wide range of applications.

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