BE-SONOS:带隙工程SONOS,具有优异的性能和可靠性

H. Lue, Szu-Yu Wang, E. Lai, Y. Shih, S. Lai, Ling-Wu Yang, Kuang-Chao Chen, J. Ku, K. Hsieh, Rich Liu, Chih-Yuan Lu
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引用次数: 122

摘要

提出了一种可靠性大大提高的带隙工程SONOS。O1/N1/O2/N2/O3的多层结构证明了这一概念,其中超薄的“O1/N1/O2”作为非捕获的隧道电介质,N2是高捕获速率的电荷存储层,O3是阻塞氧化物。超薄的“O1/N1/O2”提供了一个“调制隧道势垒”——在保持过程中,它抑制了低电场下的直接隧道效应,而在高电场下,由于带偏移,它允许有效的空穴隧道擦除。因此,BE-SONOS提供了快速的洞隧道擦除,同时它不受传统SONOS的保留问题的影响。采用N+多栅极实现自收敛擦除Vt ~ 3v,适用于NOR闪存应用。另一方面,通过使用P+-聚栅极,获得了耗尽模式器件(Vt < 0),并且实现了非常大的存储窗口(> 6 V),非常适合MLC-NAND应用。优异的性能和可靠性证明了这两种应用。此外,由于这种简单的结构和没有新材料,BE-SONOS很容易制造
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BE-SONOS: A bandgap engineered SONOS with excellent performance and reliability
A bandgap engineered SONOS with greatly improved reliability properties is proposed. This concept is demonstrated by a multilayer structure of O1/N1/O2/N2/O3, where the ultra-thin "O1/N1/O2" serves as a non-trapping tunneling dielectric, N2 the high-trapping-rate charge storage layer, and O3 the blocking oxide. The ultra-thin "O1/N1/O2" provides a "modulated tunneling barrier" - it suppresses direct tunneling at low electric field during retention, while it allows efficient hole tunneling erase at high electric field due to the band offset. Therefore, this BE-SONOS offers fast hole tunneling erase, while it is immune to the retention problem of the conventional SONOS. With a N+-poly gate, we achieve self-convergent erased Vt ~3 V, suitable for NOR flash application. On the other hand, by using a P+-poly gate, a depletion mode device (Vt < 0) is obtained, and a very large memory window (> 6 V) is achieved, ideal for MLC-NAND application. Excellent performance and reliability for both applications are demonstrated. Furthermore, with this simple structure and no new materials BE-SONOS is readily manufacturable
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