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August 19, 2010Polymer1,670 citationsOpen Access

Surface hydration: Principles and applications toward low-fouling/nonfouling biomaterials

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SCShenfu ChenLLLingyan LiCZChao Zhao

Key Points

  • Review the fundamental mechanisms of surface hydration and evaluate hydrophilic and zwitterionic materials designed to resist nonspecific protein adsorption, cell adhesion, and biofilm formation.
  • Synthesized theoretical principles and empirical findings regarding surface hydration layers and nonfouling mechanisms.
  • Evaluated two primary classes of nonfouling chemistries: hydrophilic and zwitterionic materials.
  • Assessed surface modification techniques and physical properties necessary for long-term antifouling stability in biomedical devices.
  • Identified tightly bound surface hydration layers as the primary physical barrier inhibiting nonspecific protein adsorption and bacterial attachment.
  • Highlighted zwitterionic polymers as leading candidates for nonfouling surfaces due to high hydration capacity, ease of synthesis, abundant raw materials, and versatile functionalization.

Abstract

Surface resistance to nonspecific protein adsorption, cell/bacterial adhesion, and biofilm formation is critical for the development and performance of biomedical and analytical devices. Significant needs and efforts have been made in the development of biocompatible and bioactive materials for antifouling surfaces, but much of the work retains an empirical flavor due to the complexity of experiments and the lack of robust theoretical models. In this review, two major classes of nonfouling materials (i.e. hydrophilic and zwitterionic materials) and associated basic nonfouling mechanisms and practical examples are discussed. Highly hydrated chemical groups with optimized physical properties of the surface, along with appropriate surface coating methods, are the keys to developing effective and stable nonfouling materials for long-term biomedical applications. The zwitterionic polymers are promising nonfouling biomaterials due to the simplicity of synthesis, ease of applicability, abundance of raw materials, and availability of functional groups.

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Cite This Study

Chen et al. (2010) studied this question.

synapsesocial.com/papers/69d75c47f44a16d01ef30840https://doi.org/10.1016/j.polymer.2010.08.022
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