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(Invited) How Far Can We Push Conventional Silicon Technology and What are the Future Alternatives?

机译:(邀请)我们可以推动传统的硅技术,未来的替代方案是多远的?

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Si CMOS technology has dominated the microelectronics industry, with continued scaling. However, future scaling is reaching practical and fundamental limits. Currently, strained-Si channel with high-k/metal gate is the dominant technology. Si FinFETs have provided further innovation to improve electrostatic control of the channel and thus reduce leakage. However, performance enhancement of Si CMOS is beginning to saturate with scaling to nanoscale. To go beyond these limits novel materials and structures are being aggressively studied. Higher mobility semiconductors, like Ge, GeSn and III-Vs, together with innovative device structures could increase drive current and reduce power consumption and delay. Carbon nanotubes and graphene offer very high mobility, excellent electrostatic control of the channel but have problems in manufacturability. Graphene also has the problem of ï½0 bandgap making it not very useful for logic. Recently 2D materials like metal sulfides, telurides and selenides have emerged as potential candidates for nanoscale devices.
机译:SI CMOS技术占据了微电子工业,继续缩放。然而,未来的扩展正在达到实际和基本的限制。目前,具有高k /金属门的紧张-SI通道是主导技术。 SI FinFet提供了进一步的创新,以改善通道的静电控制,从而减少泄漏。然而,Si CMOS的性能增强开始饱和到纳米级。超越这些限制,正在积极研究新颖的材料和结构。较高的移动性半导体,如GE,GESN和III-VS,与创新的设备结构一起可以提高驱动电流并降低功耗和延迟。碳纳米管和石墨烯提供非常高的迁移率,通道的优异静电控制,但具有可制造性的问题。 Graphene还存在ï½0带隙的问题,使其对逻辑不太有用。最近的第二种材料如金属硫化物,透射肽和硒化肽都被出现为纳米级装置的潜在候选物。

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