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Extreme Ultraviolet Interferometric Lithography: A Path to Nanopatterning

机译:极紫外干涉光刻技术:纳米图案化的途径

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摘要

The semiconductor industry continues in its relentless march to miniaturization [1]. Every four years or so, the dimensions of the features on an integrated circuit are halved, yielding an increase in density and functionality of the electronic “chip.” The economic advantages of more devices per unit area outweigh increases in fabrication costs and performance limitations, pushing the industry to seek ever-smaller patterns. At the time of writing (April 2008) advanced devices are patterned with the smallest features hovering around 45 nm, and the next generation of ∼32 nm devices is on the horizon. What is perhaps most remarkable is that this level of nanopatterning is achieved with optical imaging tools and processes that use an actinic wavelength of 193 nm, the ArF laser emission line. As taught in any elementary physics textbook, the wavelength of light ultimately limits the achievable optical resolution [2]. So how can we pattern 32 nm features using 193 nm radiation?
机译:半导体行业继续不懈地迈向小型化[1]。每四年左右,集成电路上特征的尺寸就会减半,从而增加电子“芯片”的密度和功能。每单位面积更多器件的经济优势超过了制造成本和性能限制的增长,促使业界寻求更小的图案。在撰写本文时(2008年4月),已对高级器件进行了构图,其最小特征在45nm左右徘徊,下一代32nm器件即将问世。也许最引人注目的是,这种水平的纳米图案是通过使用光成像波长为193 nm的ArF激光发射线的光学成像工具和工艺实现的。正如任何一本基础物理学教科书所述,光的波长最终限制了可达到的光学分辨率[2]。那么,我们如何使用193 nm的辐射图案化32 nm的特征呢?

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  • 来源
    《Synchrotron Radiation News》 |2008年第4期|12-24|共13页
  • 作者单位

    University of Wisconsin-Madison, Madison, WI, USA;

    University of Wisconsin-Madison, Madison, WI, USA;

    University of Wisconsin-Madison, Madison, WI, USA;

    University of Wisconsin-Madison, Madison, WI, USA;

    University of Wisconsin-Madison, Madison, WI, USA;

    University of Wisconsin-Madison, Madison, WI, USA;

    University of Wisconsin-Madison, Madison, WI, USA;

    University of Wisconsin-Madison, Madison, WI, USA;

    University of Wisconsin-Madison, Madison, WI, USA;

    University of Wisconsin-Madison, Madison, WI, USA;

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