采用本体固定部分沟槽隔离(PTI)的批量布局兼容0.18 /spl mu/m SOI-CMOS技术

Y. Hirano, S. Maeda, T. Matsumoto, K. Nii, T. Iwamatsu, Y. Yamaguchi, T. Ipposhi, H. Kawashima, S. Maegawa, M. Inuishi, T. Nishimura
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引用次数: 3

摘要

为了实现高度集成的智能系统lsi,晶体管性能的改进是非常必要的。为了满足这一需求,绝缘体上硅(SOI)已成为下一代设备的主要兴趣,因为与批量设备相比,它可以提供持久的设备缩放(Schepis et al. 1997)。SOI的关键问题是浮体效应,如漏极电流恶化(Matsumoto et al. 1999)、动态阈值电压不稳定(Lu et al. 1997)和软错误率增加(Wada et al. 1998)。这些限制了浮动SOI的应用,特别是在模拟电路中。一些电路修改和身体接触插入是必要的。完整的身体固定结构是另一种方法,已经提出了一些技术(Koh等人,1997;Iwamatsu et al. 1995)。然而,当使用这些技术时,在可伸缩性和布局兼容性方面存在一些缺点。在本报告中,我们提出了一种局部沟槽隔离(PTI)技术,其中身体电位通过沟槽氧化物下的区域固定。使用PTI技术,我们可以在保持soi固有优点的同时消除浮体效应,并且可以在不修改布局的情况下利用累积的批量设计特性实现可扩展的深亚四分之一微米lsi。此外,一个功能齐全的4mbit SRAM证明了ulsi的可行性。
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Bulk-layout-compatible 0.18 /spl mu/m SOI-CMOS technology using body-fixed partial trench isolation (PTI)
Transistor performance improvement has been strongly required for work toward highly integrated intelligent system LSIs. To meet this demand, silicon on insulator (SOI) has become of major interest for next generation devices, because it can offer durable device scaling as compared with bulk devices (Schepis et al. 1997). The critical issues for SOI are floating-body effects such as deterioration in drain current (Matsumoto et al. 1999), dynamic threshold voltage instability (Lu et al. 1997), and increased soft error rate (Wada et al. 1998). These have restricted the application of floating SOI, especially to analog circuits. Some circuit modifications and body contact insertions are necessary. A full body-fixing structure is another approach and some techniques have been proposed (Koh et al. 1997; Iwamatsu et al. 1995). However, when using these techniques, there have been some shortcomings in terms of scalability and layout compatibility. In this report, we propose a partial trench isolation (PTI) technique in which the body potential is fixed through the region under the trench oxide. With the PTI technology, we can eliminate floating-body effects while maintaining SOI-inherent merits and can realize scalable deep sub-quarter micron LSIs using accumulated bulk-design properties without layout modification. Moreover, the feasibility for ULSIs is demonstrated by a fully functional 4 Mbit SRAM.
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