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Evolution of Wavelength Shrinkage in Lithography

机译:光刻中波长收缩的演变

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Optical lithography has driven on-going miniaturization in the microelectronics industry, thereby enabling continuation of 'Moore's Law'. To achieve this, lithographers have steadily reduced the wavelength of the illumination light used in the optical systems. However, as we transition from the visible spectrum, through ultra-violet, and now towards the soft x-ray wavelength regime, a host of new challenges are introduced. The majority of these challenges are related to material properties, as wavelength reduction significantly narrows the field of available materials that are both sufficiently transparent, as well as radiation resistant to the illumination light. We also are limited by the actual wavelengths that can be produced which deliver sufficient power to provide a production-worthy light source. In this paper, we will examine the history of wavelength transition in optical lithography, explaining the key material developments that enabled wavelengths such as 248nm to be highly successful, as well as explain the reasons wavelengths such as 157nm and 126nm were not adopted.
机译:光刻技术推动了微电子行业的不断小型化,从而使“摩尔定律”得以延续。为了实现这一点,光刻师已经稳定地减小了光学系统中使用的照明光的波长。但是,随着我们从可见光谱到紫外线的转变,再到柔和的X射线波长体制,引入了许多新的挑战。这些挑战中的大多数与材料特性有关,因为波长减小会大大缩小可用材料的领域,这些材料既足够透明,又具有耐照射光的能力。我们还受到可以产生的实际波长的限制,这些实际波长可以提供足够的功率以提供有价值的光源。在本文中,我们将研究光学光刻中波长转变的历史,解释使248nm等波长获得高度成功的关键材料发展,并解释未采用157nm和126nm等波长的原因。

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