2003
DOI: 10.1002/pola.10819
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Self‐polyaddition of triethylsilyl perfluoroisopropenyl ether

Abstract: The results on radical self‐polyaddition reactivity of two trialkylsilyl perfluoroisopropenyl ethers, triethysilyl perfluoroisopropenyl ether [CF2C(CF3)OSi(C2H5)3] (FTEE) and dimethylphenylsilyl perfluoroisopropenyl ether [CF2C(CF3)OSi(CH3)2C6H5] (DMPE), and two perfluoroisopropenyl carboxylates, 2‐butyroxypentafluoropropene [CF2C(CF3)OCOC3H7] (BuFPP) and 2‐(methoxyacetoxy)pentafluoropropene [CF2C(CF3)OCOCH2OCH3] (MFPP), are described. Radical self‐polyaddition of FTEE afforded a polymer as high as 1.87 × … Show more

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Cited by 11 publications
(8 citation statements)
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References 15 publications
(26 reference statements)
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“…The monomers containing two different reactive groups can undergo self‐polyaddition. This is an expected concept to produce high molecular weight polymer easily and efficiently, because the unit ratio of the two functional groups is inevitably equal, and the obtained polymers are often hetero‐telechelic 32–38. Nevertheless, careful design is needed to synthesize functional monomers for self‐polyaddition, because those monomers are essentially unstable, and indeed, addition reactions of oxetane with protonic and aprotic reagents only proceed smoothly in the presence of appropriate catalysts 20…”
Section: Introductionmentioning
confidence: 99%
“…The monomers containing two different reactive groups can undergo self‐polyaddition. This is an expected concept to produce high molecular weight polymer easily and efficiently, because the unit ratio of the two functional groups is inevitably equal, and the obtained polymers are often hetero‐telechelic 32–38. Nevertheless, careful design is needed to synthesize functional monomers for self‐polyaddition, because those monomers are essentially unstable, and indeed, addition reactions of oxetane with protonic and aprotic reagents only proceed smoothly in the presence of appropriate catalysts 20…”
Section: Introductionmentioning
confidence: 99%
“…Fluoropolymers1–14 have been the focus of extensive research in the development of minimally adhesive surfaces because of their low surface energy, low wettability, and chemical stability, which have also led to studies of their utility as potential antifouling materials for marine applications,15–20 among other things 21–24. It has been established that fouling by marine organisms upon surfaces such as ship hulls involves a process by which the organism secretes an adhesive protein or glycoprotein, either of a hydrophobic25 or hydrophilic nature,26, 27 depending on the fouling species, that provides for binding to the surface through various modes of interaction, including chemical bonding, electrostatic interaction, diffusion, and mechanical interlocking 28.…”
Section: Introductionmentioning
confidence: 99%
“…This process relies on the thermodynamically driven phase segregation of hydrophilic poly(ethylene glycol) (PEG) and hydrophobic hyperbranched fluoropolymers (HBFPs), which is kinetically trapped by the reaction of amino termini present on each of the two chain ends of PEG and pentafluorophenyl groups that reside in large numbers as the chain termini of the hyperbranched architecture 36–38. Copolymerization with fluorinated monomers to tune the properties of polymers has been used in many examples,39, 40 and the strategy of using phase segregation in copolymers, especially those containing fluorinated blocks,8, 41–43 to prepare surfaces with ordered morphologies is well known 1. Moreover, there exist many examples of hybrid linear–dendritic block copolymers,44–46 as well as dendritic or hyperbranched polymers, modified via coupling with PEO into amphiphilic star structures47–50 that undergo interesting solution‐state,51 surface,52 and bulk microphase segregation53 or modified via the crosslinking of the branched macromolecules with PEG54, 55 into amphiphilic matrices as interpenetrating networks that contain domains rich in each of the components 56, 57.…”
Section: Introductionmentioning
confidence: 99%
“…Fluoropolymers [1][2][3][4][5][6][7][8][9][10][11][12][13][14] have been the focus of extensive research in the development of minimally adhesive surfaces because of their low surface energy, low wettability, and chemical stability, which have also led to studies of their utility as potential antifouling materials for marine applications, [15][16][17][18][19][20] among other things. [21][22][23][24] It has been established that fouling by marine organisms upon surfaces such as ship hulls involves a process by which the organism secretes an adhesive protein or glycoprotein, either of a hydrophobic 25 or hydrophilic nature, 26,27 depending on the fouling species, that provides for binding to the surface through various modes of interaction, including chemical bonding, electrostatic interaction, diffusion, and mechanical interlocking.…”
Section: Introductionmentioning
confidence: 99%