Enhanced in-vitro blood compatibility of 316L stainless steel surfaces by reactive landing of hyaluronan ions

被引:32
|
作者
Volny, Michael
Elam, W. Timothy
Ratner, Buddy D.
Turecek, Frantisek
机构
[1] Univ Washington, Dept Chem, Seattle, WA 98195 USA
[2] Univ Washington, Appl Phys Lab, Seattle, WA 98195 USA
[3] Univ Washington Engn Biomat, Seattle, WA 98195 USA
关键词
reactive landing; sodium hyaluronan; haemocompatibility; surface immobilization; surface plasma treatment;
D O I
10.1002/jbm.b.30624
中图分类号
R318 [生物医学工程];
学科分类号
0831 ;
摘要
A novel dry process for immobilization of hyaluronan on stainless steel surfaces is presented. This process that we call reactive landing is based on an interaction of hyperthermal gas-phase hyaluronan ions with plasma-cleaned and activated stainless steel surfaces. Reactive landing is performed on a unique instrument that combines an in-situ plasma reactor with an electrospray ion source and ion transfer optics. Gas-phase hyaluronan anions are obtained by electrospray ionization of sodium hyaluronan solutions and immobilized by reactive landing on large-area stainless steel surfaces. The immobilized hyaluronan withstands extensive washing with polar solvents and solutions, and the washed surfaces maintain the protective properties against blood platelet activation. The mechanism of hyaluronan discharge and immobilization is discussed. (c) 2006 Wiley Periodicals, Inc.
引用
收藏
页码:505 / 510
页数:6
相关论文
共 50 条
  • [31] Electrochemical and in vitro behaviour of sol-gel coated 316L stainless steel
    Gallardo, J
    Durán, A
    de Damborenea, JJ
    CORROSION SCIENCE, 2004, 46 (04) : 795 - 806
  • [32] Tensile characteristics of nitrogen enhanced powder injection moulded 316L stainless steel
    Rawers, J
    Croydon, F
    Krabbe, R
    Duttlinger, N
    POWDER METALLURGY, 1996, 39 (02) : 125 - 129
  • [33] Enhanced impact toughness of 316L stainless steel welded joint by ultrasonic impact
    Gu, Bangping
    Yin, Chengjian
    Xu, Guanhua
    Gao, Liqiang
    Zheng, He
    Chu, Jiahao
    MATERIALS TODAY COMMUNICATIONS, 2024, 39
  • [34] Comparative MRI compatibility of 316L stainless steel alloy and nickel-titanium alloy stents
    Holton, A
    Walsh, E
    Anayiotos, A
    Pohost, G
    Venugopalan, R
    JOURNAL OF CARDIOVASCULAR MAGNETIC RESONANCE, 2002, 4 (04) : 423 - 430
  • [35] Accelerated Stainless Steel 316L Material Compatibility Assessment of Chemical Products Using Potentiodynamic Polarization
    Moloney, Jeremy
    De-Abreu, Yolanda
    Helander, Jason
    CORROSION, 2016, 72 (05) : 692 - 703
  • [36] Effect of Nitrate Ions on Repassivation Behavior of Crevice Corrosion on Type 316L Stainless Steel
    Aoyama, Takahito
    Muto, Izumi
    Sugawara, Yu
    Hara, Nobuyoshi
    SELECTED PROCEEDINGS FROM THE 232ND ECS MEETING, 2017, 80 (10): : 519 - 526
  • [37] The study of bubble formation in 316L stainless steel irradiated with helium ions at 873 K
    Wang, YS
    Chen, KQ
    Zhang, CH
    Quan, JM
    Sun, JG
    Zhao, ZY
    JOURNAL OF NUCLEAR MATERIALS, 1996, 240 (01) : 70 - 74
  • [38] Efficient fabrication of ultrafine-grained 316L stainless steel surfaces for orthopaedic applications
    Tufan, Yigithan
    Demir, Eyuep Can
    Efe, Mert
    Ercan, Batur
    MATERIALS SCIENCE AND TECHNOLOGY, 2019, 35 (15) : 1891 - 1897
  • [39] An experimental study on tribological properties of groove-textured surfaces of 316L stainless steel
    Li, Gan
    Shen, Ming-Xue
    Meng, Xiang-Kai
    Li, Ji-Yun
    Li, Xiao
    Peng, Xu-Dong
    Gongneng Cailiao/Journal of Functional Materials, 2015, 46 (02): : 02033 - 02037
  • [40] Influence of chemical etchings on surface properties, in-vitro degradation and ion releases of 316l stainless steel alloy for biomedical applications
    Say, Y.
    Aslan, N.
    Alla, A. M. A.
    Ozmen, H.
    MATERIALS CHEMISTRY AND PHYSICS, 2023, 295