4.7 Review

Recent Development and Applications of Advanced Materials via Direct Ink Writing

期刊

ADVANCED MATERIALS TECHNOLOGIES
卷 7, 期 7, 页码 -

出版社

WILEY
DOI: 10.1002/admt.202101358

关键词

3D printing; biomedical; energy; nanomaterials gel; photocatalysts

资金

  1. Hong Kong-Scotland Partners in Post Doctoral Research Scheme under the Research Grants Council of Hong Kong
  2. National Natural Science Foundation of China (NSFC)
  3. Research Grants Council (RGC) of Hong Kong Joint Research Scheme [51561165015, N_HKU718/15]
  4. NSFC [21677179]
  5. Guangdong Special Fund for Science & Technology Development (Hong Kong Technology Cooperation Funding Scheme) [2016A050503022]
  6. Innovation Platform Construction of Guangdong and Hong Kong [2017B050504001]
  7. Guangzhou Science and Technology Project [201504301654288]
  8. Key Fundamental Research Fund for the Central Universities [17lgjc17]
  9. National Key Research and Development Program of China [2016YFC0204800]
  10. Science and Technology Development Fund, Macau SAR [0191/2017/A3, 0041/2019/A1, 0046/2019/AFJ, 0021/2019/AIR]
  11. University of Macau [MYRG2017-00216-FST, MYRG2018-00192-IAPME, MYRG2020-00187-IAPME]
  12. UEA
  13. Scotland Government [S-HKU702/15]

向作者/读者索取更多资源

Direct ink writing (DIW) is a low-cost and environmentally-friendly method for rapid design and construction of scalable 3D structures, utilizing optimized rheological properties and a wide range of nanomaterials to enhance performance. It has potential applications in medical, energy storage, and environmental treatment fields.
Direct ink writing (DIW), a type of extrusion-based 3D printing method, enables the rapid design and building of size- and shape-scalable 3D structures in a low-cost and green manner without the need for specific size reactors and secondary substrates compared to traditional synthesis methods. Coupling the use of sol-gel inks with optimized rheological properties (elastoviscosity and shear stress) and a wide range of nanomaterials enhances the mechanical and electrical conductivity of printed products. In this review, the recent development in DIW methods, critical requirements for printable DIW inks, and applications of DIW-printed products in medical, energy storage, and environmental treatment are reviewed. A perspective outlook associated with limitations from current DIW research is proposed for the breakthrough development of such technology in the future.

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