Biomaterials for Integration with 3-D Bioprinting

被引:316
作者
Skardal, Aleksander [1 ]
Atala, Anthony [1 ]
机构
[1] Wake Forest Sch Med, Wake Forest Inst Regenerat Med, Winston Salem, NC 27157 USA
关键词
Bioprinting; Biomaterials; Biocompatibility; Viability; Biofabrication; Stability; Bioink; Cells; Hydrogel; EXTRACELLULAR MATRICES; STEM-CELLS; TISSUE; HYDROGELS; HYALURONAN; BIOREACTOR; SCAFFOLD; FABRICATION; DEPOSITION; COMPOSITE;
D O I
10.1007/s10439-014-1207-1
中图分类号
R318 [生物医学工程];
学科分类号
0831 ;
摘要
Bioprinting has emerged in recent years as an attractive method for creating 3-D tissues and organs in the laboratory, and therefore is a promising technology in a number of regenerative medicine applications. It has the potential to (i) create fully functional replacements for damaged tissues in patients, and (ii) rapidly fabricate small-sized human-based tissue models, or organoids, for diagnostics, pathology modeling, and drug development. A number of bioprinting modalities have been explored, including cellular inkjet printing, extrusion-based technologies, soft lithography, and laser-induced forward transfer. Despite the innovation of each of these technologies, successful implementation of bioprinting relies heavily on integration with compatible biomaterials that are responsible for supporting the cellular components during and after biofabrication, and that are compatible with the bioprinting device requirements. In this review, we will evaluate a variety of biomaterials, such as curable synthetic polymers, synthetic gels, and naturally derived hydrogels. Specifically we will describe how they are integrated with the bioprinting technologies above to generate bioprinted constructs with practical application in medicine.
引用
收藏
页码:730 / 746
页数:17
相关论文
共 50 条
  • [31] Engineered assistive materials for 3D bioprinting: support baths and sacrificial inks
    Brunel, Lucia G.
    Hull, Sarah M.
    Heilshorn, Sarah C.
    BIOFABRICATION, 2022, 14 (03)
  • [32] 3D Bioprinting of Cell-Laden Hydrogels for Improved Biological Functionality
    Hull, Sarah M.
    Brunel, Lucia G.
    Heilshorn, Sarah C.
    ADVANCED MATERIALS, 2022, 34 (02)
  • [33] Responsive biomaterials for 3D bioprinting: A review
    Fu, Zhouquan
    Ouyang, Liliang
    Xu, Runze
    Yang, Yang
    Sun, Wei
    MATERIALS TODAY, 2022, 52 : 112 - 132
  • [34] Current developments in 3D bioprinting for tissue engineering
    Cornelissen, Dirk-Jan
    Faulkner-Jones, Alan
    Shu, Wenmiao
    CURRENT OPINION IN BIOMEDICAL ENGINEERING, 2017, 2 : 76 - 82
  • [35] Applications of Light-Based 3D Bioprinting and Photoactive Biomaterials for Tissue Engineering
    Zhang, Xueqin
    Zhang, Xin
    Li, Ying
    Zhang, Yuxuan
    MATERIALS, 2023, 16 (23)
  • [36] Biomatrices and biomaterials for future developments of bioprinting and biofabrication
    Nakamura, M.
    Iwanaga, S.
    Henmi, C.
    Arai, K.
    Nishiyama, Y.
    BIOFABRICATION, 2010, 2 (01)
  • [37] Bioprinting and biomaterials for dental alveolar tissue regeneration
    Ostrovidov, Serge
    Ramalingam, Murugan
    Bae, Hojae
    Orive, Gorka
    Fujie, Toshinori
    Shi, Xuetao
    Kaji, Hirokazu
    FRONTIERS IN BIOENGINEERING AND BIOTECHNOLOGY, 2023, 11
  • [38] In Vitro Human Tissues via Multi-material 3-D Bioprinting
    Kolesky, David B.
    Homan, Kimberly A.
    Skylar-Scott, Mark
    Lewis, Jennifer A.
    ATLA-ALTERNATIVES TO LABORATORY ANIMALS, 2018, 46 (04): : 209 - 215
  • [39] Special Issue "Biomaterials and Bioprinting"
    Chua, Chee Kai
    Yeong, Wai Yee
    An, Jia
    MOLECULES, 2016, 21 (09)
  • [40] 3D bioprinting: an emerging technology full of opportunities and challenges
    Zhang, Bin
    Luo, Yichen
    Ma, Liang
    Gao, Lei
    Li, Yuting
    Xue, Qian
    Yang, Huayong
    Cui, Zhanfeng
    BIO-DESIGN AND MANUFACTURING, 2018, 1 (01) : 2 - 13