Near-Surfaces and Bulk Modification of Silicone Rubber under UV- and Vacuum UV-Irradiation Using Excimer and Hg Lamps

IF 4.3 3区 材料科学 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC
Christopher Dölle*, Christoph Schmüser, Igor Quiring and Ralph Wilken, 
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引用次数: 0

Abstract

The surface properties of silicone rubber can be modified by irradiation with light from the vacuum ultraviolet (VUV) spectral range of less than 200 nm. After VUV-irradiation at 185 nm with a low-pressure mercury (Hg) lamp, a reduction in residual-dust-coverage (PA fibers) of up to 80% was found. At the same time, the long wavelength UV-radiation at 254 nm of the Hg lamp causes a reduction in the optical transmission properties of the silicone bulk. The near-surface and bulk modification of optically highly transparent silicone rubber was analyzed using XPS, ATR, transmission measurements, and investigations into the reduction of the residual-dust-coverage. A comparison was made between a Hg lamp and an excimer lamp at 172 nm. The results provide valuable information for selecting the appropriate irradiation source, depending on the desired spectral range for a given application. The results indicate that excimer lamps should be preferred for optical applications in the UV-spectral range, while Hg lamps are equally suitable for applications in the visible spectral range despite low transmission losses of less than 0.5%. The irradiation dose data were obtained using a ray tracing simulation as part of these investigations to overcome limitations of UV-sensors, such as their accelerated aging and angular dependence.

使用准分子灯和汞灯在紫外和真空紫外辐照下对硅橡胶的近表面和块体进行改性
硅橡胶的表面特性可以通过小于 200 纳米的真空紫外线(VUV)光谱范围内的光照射来改变。使用低压汞灯在 185 纳米波长处进行紫外线照射后,残留灰尘覆盖率(PA 纤维)降低了 80%。同时,汞灯 254 纳米的长波长紫外线照射也会降低有机硅体的光学透射性能。通过 XPS、ATR、透射率测量以及对残留灰尘覆盖率降低的研究,分析了光学高透明硅橡胶的近表面和主体改性。对汞灯和 172 纳米准分子灯进行了比较。结果为根据特定应用所需的光谱范围选择合适的辐照源提供了宝贵的信息。结果表明,紫外光谱范围内的光学应用应首选准分子灯,而汞灯尽管透射损失小于 0.5%,但同样适用于可见光谱范围内的应用。作为这些研究的一部分,辐照剂量数据是通过光线跟踪模拟获得的,以克服紫外线传感器的局限性,如加速老化和角度依赖性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
7.20
自引率
4.30%
发文量
567
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