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Macromolecular plasma-chemistry:an emerging field of polymer science

机译:大分子等离子体化学:高分子科学的新兴领域

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It is now well established that exposing inorganic and organic polymeric substrates to cold-plasma species represents an unusually convenient and versatile surface-modification and coating technology.The uniqueness of non-equilibrium plasma processes is related to the fact that they permit the conversion of a wide range of organic materials and organic compounds containing main group elements,including organometallic derivatives,into charged and neutral molecular-fragments and atomic species.These fragments can then promote surface-functionalization reactions or generate macromolecular thin layers as a result of recombination of nascent species on the surfaces that confine the plasma.In earlier work the control of the composition of polymeric films generated via plasma treatment was focused predominately on synthesis of unique,highly cross-linked polymers produced under relatively high power conditions.However,interest recently increased in providing less cross-linked,more highly functionalized films.Modern non-equilibrium plasma technologies are 'par excellence' surface modification processes which result in surface material layers that retain the inherent advantages of the substrates while providing more exact film chemistry control,and as a result they have potential appeal in many applications.Most of the prior research related to discharge-mediated surface-modification reactions involved low-pressure cold-plasma environments.However,in recent last years,atmospheric pressure non-equilibrium plasma installations have been designed,developed and tested with great success.This review on Macromolecular Plasma Chemistry illustrates the continuing interest in achieving controlled surface modification under plasma conditions,and the potential of plasma-chemistry for advancing future technologies.
机译:现已公认,将无机和有机聚合物基材暴露于冷等离子体物种代表了一种异常方便且用途广泛的表面修饰和涂层技术。非平衡等离子体工艺的独特性与以下事实有关:它们可以转化为包含主要金属元素的各种有机材料和有机化合物,包括有机金属衍生物,分为带电荷的和中性的分子碎片和原子物质,这些碎片可通过新生物质的重组促进表面功能化反应或生成大分子薄层在较早的工作中,对通过等离子体处理产生的聚合物薄膜组成的控制主要集中在合成在相对高功率条件下生产的独特的,高度交联的聚合物上。更少的交联,更高的功能现代非平衡等离子技术是“卓越的”表面改性工艺,可导致表面材料层保留基材的固有优势,同时提供更精确的薄膜化学控制,因此,它们在许多应用中具有潜在的吸引力与放电介导的表面改性反应相关的大多数现有研究涉及低压冷等离子体环境。然而,近年来,大气压非平衡等离子体装置已得到设计,开发和测试,取得了巨大成功。对大分子等离子体化学的评论说明了在等离子体条件下实现可控表面改性的持续兴趣,以及等离子体化学在推动未来技术发展方面的潜力。

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