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Effect of Various CVD-Coated Conditioning Disc Designs and Polisher Kinematics on Fluid Flow Characteristics during CMP

机译:各种CVD涂层调理椎间盘设计和抛光运动运动学对CMP流体流动特性的影响

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摘要

A novel experimental technique utilizing UV-enhanced fluorescence was developed and used to measure fluid film thicknesses and general flow patterns during conditioning on a polishing pad. The method was successfully applied to several case studies for analyses of how conditioners with different working face designs (i.e. complex vane, full-face and partial-face), in conjunction with different platen angular velocities, affected fluid transport. In general, for all discs types, fluid across the pad followed similar trends where films were thickest near the wafer track center and thinnest near the pad edge (measurements showed a thickness range of appx. 0.5 to 1.1 mm). For all discs, the time for the film thicknesses to reach steady-state increased in proportion to the distance away from the pad center (times ranged between 12 and 62 s). The full-face conditioner consistently produced the thinnest films and reached steady-state the fastest. In contrast, the complex vane conditioner created the thickest films and took longest to reach steady-state. The work demonstrated the significance of understanding and visualizing the mechanisms that can contribute to fluid transport during CMP and how our novel technique could contribute, in the near future, to a greater understanding of fluid transport during in-situ conditioning. (C) 2020 The Electrochemical Society ("ECS"). Published on behalf of ECS by IOP Publishing Limited.
机译:开发了一种新的实验技术,开发了利用紫外增强荧光的荧光,并用于在抛光垫上测量在调节过程中的流体膜厚度和一般流动模式。该方法被成功地应用于几种案例研究,用于分析不同工作面设计的调节器(即复杂的叶片,全面和局部面),与不同的压板角速度相结合,影响流体运输。通常,对于所有光盘类型,穿过垫的流体遵循类似的趋势,其中薄膜在晶片轨道中心附近最厚的薄膜和垫边缘附近的最薄(测量显示Appx的厚度范围。0.5至1.1 mm)。对于所有光盘,薄膜厚度达到稳态的时间与远离焊盘中心的距离成比例地增加(12至62秒之间的时间。全面调节器一致地生产最薄的薄膜并达到稳定状态。相比之下,复杂的叶片调节器创造了最厚的薄膜,并花了最长的时间来达到稳态。该工作证明了理解和可视化能够在CMP期间促进流体运输的机制以及我们的新技术在不久的将来贡献的机制,以更加了解原位调节期间的流体运输。 (c)2020电化学协会(“ECS”)。由IOP Publishing Limited代表ECS发布。

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