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Characterization of Stress Transfer from Process Induced Stressor Layer to Substrate in MOSFETs

机译:从工艺诱导应力层对MOSFET衬底的应力转移的表征

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The performance of electronic devices can be improved by applying stress to conduction channel to increase the carrier mobility. This can be achieved using a contact etch stop layer (CESL). Its intrinsic stress is transmitted into the silicon substrate, inducing a strain in the conduction channel. This phenomenon results in an enhancement of between 8% to 10% in the channel electrical conductivity. Several techniques exist that can characterize the stress. Currently, to obtain a high spatial resolution, the only possible solution to characterize the stress is to use TEM-based techniques. Dark-field electron holography has the advantage of producing strain maps that combine a nanometre-scale spatial resolution, a high sensitivity and a large field of view. As a consequence, this technique is employed in this paper to observe the deformation of silicon crystalline lattice in the transistor conduction channel.
机译:通过向传导通道施加应力来提高电子设备的性能以增加载流子迁移率。这可以使用触点蚀刻停止层(CESL)来实现。将其固有应力传递到硅衬底中,诱导导通通道中的应变。这种现象导致通道导电率的增强率为8%至10%。存在的几种技术可以表征压力。目前,为了获得高空间分辨率,唯一可能的解决应力的解决方案是使用基于TEM的技术。暗野电子全全息术具有产生结合纳米级空间分辨率,高灵敏度和大视野的应变图的优点。结果,本文采用该技术,以观察晶体管导通通道中硅结晶晶格的变形。

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