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SCIENTIA SINICA Chimica, Volume 48 , Issue 12 : 1611-1618(2018) https://doi.org/10.1360/N032018-00161

Sub-surface initiated atom transfer radical polymerization for robust embedded polymer brushes

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  • ReceivedJul 10, 2018
  • AcceptedSep 14, 2018
  • PublishedOct 31, 2018

Abstract


Funding

中国科学技术部重点研究项目(2016YFC1100401)

国家自然科学基金(51805514,21434009,51605470,51573199)

中国科学院前沿科学重点研究项目(QYZDY-SSW-JSC013)


Supplementary data

补充材料

本文的补充材料见网络版http://chemcn.scichina.com. 补充材料为作者提供的原始数据, 作者对其学术质量和内容负责.


References

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  • Figure 1

    Representative progress in SI-ATRP for surface modification (color online).

  • Figure 2

    Schematic view of the sSI-ATRP process on initiator-embedded polyacrylate acid substrates. The ATRP initiator is copolymerized with the bulk material. The ATRP reaction is triggered both at surface and subsurface when the polyacrylate swells in the monomer solution with catalyst, thick and robust polymer brushes hybrid layer can be formed. When the layer was removed, the underlying initiator moieties offer the opportunity to re-trigger the ATRP reaction when the polymer brush layer is scratched under external forces (color online).

  • Figure 3

    (a) The dependence of surface wettability on the content of initiator in PA-Br matrix after grafting PSPMA brushes. Reaction time, 2 h, the surface is super-hydrophilic after the polymerization when wt% of the initiator was used. (b) The thickness of PSPMA modified sub-surface with 8 wt% initiators with different polymerization time. As the time increased, the sub-surface modification layer thickness increased, when the reaction proceeds to 7 h with a thickness of 20 microns, the thickness of sub-surface modification layer is no longer increase. (c) The SEM and fluorescent images of sub-surface modification substrates. A1–F1, A2–F2 are the SEM photograph of the surface and the cross section micrograph of the substrate at the reaction time of 2–7 h, and A3–F3 are the corresponding fluorescence micrographs of cross section after stained by rhodamine (color online).

  • Figure 4

    (a) Schematic of the friction and abrasion behaviours on PSPMA coated Si wafer. (b) Substrate modified with thick PSPMA brush layer via sSI-ATRP. (c) The friction coefficients on the two kinds of substrates again the shearing loads, inset is the amplified starting stages of the friction. All samples with a grafting reaction time of 6 h were tested, the modified layer prepared by the sub-surface modification method can withstand higher load, and has better wear resistance (color online).

  • Figure 5

    The antifouling activity of substrate modified by PSPMA brush via sSI-ATRP. (a) Schematic view of antifouling on the substrate modifying with thick PSPMA brush layer via sSI-ATRP. (b) The algae cell density of Navicula sp. on PA-Br and PA-PSPMA substrates. The value was counted by optical microscope at 20× magnification. (c) The digital photos of marine antifouling on polyacrylate substrate with single layer of PSPMA brushes by conventional grafting polymerization, and (d) the PA-Br substrate modified with PSPMA brushes via sSI-ATRP after immersion in the South China Sea (April--May 2017, Shenzhen, China) for one month (color online).

  • Figure 6

    (a) The renewable initiation performance of PA-Br substrate. The wettability of PA-Br substrate can be switched from hydrophobic to hydrophilic after polishing and undergoing sSI-ATRP process. (b) Chemical structure of PU-Br, PE-Br and EP-Br. (c) Photographs and values of water contact angles (5 μL) on various polymeric substrates embedded with initiators and these substrates covered by various kinds of polymer brushes; PMAA: polymethylacrylic acid, PNIPAM: Poly(N-isopropyl acrylamide) (color online).

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