Surface-modified 3D scaffolds for tissue engineering

被引:0
|
作者
R. F. S. Lenza
W. L. Vasconcelos
J. R. Jones
L. L. Hench
机构
[1] Federal University of Minas Gerais,Department of Metallurgical and Materials Engineering
[2] Imperial College of Science,undefined
[3] Technology and Medicine,undefined
[4] Centre for Tissue Engineering and Repair,undefined
[5] Department of Materials,undefined
关键词
SiO2; Foam; Tissue Engineering; P2O5; High Surface Area;
D O I
暂无
中图分类号
学科分类号
摘要
The aim of this work was to use sol–gel processing to develop bioactive materials to serve as scaffolds for tissue engineering that will allow the incorporation and release of proteins to stimulate cell function and tissue growth. We obtained organofunctionalized silica with large content of amine and mercaptan groups (up to 25%). The developed method can allow the incorporation and delivery of proteins at a controlled rate. We also produced bioactive foams with binary SiO2–CaO and ternary SiO2–CaO–P2O5 compositions. In order to enhance peptide–material surface properties, the bioactive foams were modified with amine and mercaptan groups. These materials exhibit a highly interconnected macroporous network and high surface area. These textural features together with the incorporation of organic functionally groups may enable them to be used as scaffolds for the engineering of soft tissue.
引用
收藏
页码:837 / 842
页数:5
相关论文
共 50 条
  • [1] Surface-modified 3D scaffolds for tissue engineering
    Lenza, RFS
    Vasconcelos, WL
    Jones, JR
    Hench, LL
    JOURNAL OF MATERIALS SCIENCE-MATERIALS IN MEDICINE, 2002, 13 (09) : 837 - 842
  • [2] Surface-modified 3D starch-based scaffold for improved endothelialization for bone tissue engineering
    Santos, M. I.
    Pashkuleva, I.
    Alves, C. M.
    Gomes, M. E.
    Fuchs, S.
    Unger, R. E.
    Reis, R. L.
    Kirkpatrick, C. J.
    JOURNAL OF MATERIALS CHEMISTRY, 2009, 19 (24) : 4091 - 4101
  • [3] Gene-activation of surface-modified 3D printed calcium phosphate scaffolds
    Noah Z. Laird
    Pornpoj Phruttiwanichakun
    Esraa Mohamed
    Timothy M. Acri
    Leela R. Jaidev
    Aliasger K. Salem
    BMC Chemistry, 19 (1)
  • [4] 3D polymer scaffolds for tissue engineering
    Seunarine, K.
    Gadegaard, N.
    Tormen, M.
    O Meredith, D.
    O Riehle, M.
    Wilkinson, C. D. W.
    NANOMEDICINE, 2006, 1 (03) : 281 - 296
  • [5] 3D CELL SCAFFOLDS FOR TISSUE ENGINEERING
    Lamponi, S.
    Di Canio, C.
    Forbicioni, M.
    Guerrini, A.
    Barbucci, R.
    INTERNATIONAL JOURNAL OF ARTIFICIAL ORGANS, 2009, 32 (07): : 455 - 456
  • [6] Application of 3D Scaffolds in Tissue Engineering
    Khoshnazar S.M.
    Asadi A.
    Roshancheshm S.
    Karimian A.
    Abdolmaleki A.
    Cell and Tissue Biology, 2023, 17 (5) : 454 - 464
  • [7] 3D nanofibrous scaffolds for tissue engineering
    Holzwarth, Jeremy M.
    Ma, Peter X.
    JOURNAL OF MATERIALS CHEMISTRY, 2011, 21 (28) : 10243 - 10251
  • [8] Surface-modified polymers for cardiac tissue engineering
    Moorthi, Ambigapathi
    Tyan, Yu-Chang
    Chung, Tze-Wen
    BIOMATERIALS SCIENCE, 2017, 5 (10) : 1976 - 1987
  • [9] 3D Printing of Microspheres for Tissue Engineering Scaffolds
    Lohfeld, S.
    Salash, J. R.
    McHugh, P. E.
    Detamore, M. S.
    TISSUE ENGINEERING PART A, 2015, 21 : S340 - S340
  • [10] 3D printed foamed scaffolds for tissue engineering
    Esposito, Claudio
    Mazio, Claudia
    Cesarelli, Giuseppe
    Tammaro, Daniele
    Netti, Paolo Antonio
    Maffettone, Pier Luca
    TISSUE ENGINEERING PART A, 2023, 29 (13-14)