Abstract:
PROBLEM TO BE SOLVED: To provide a method for forming a semiconductor structure including a plurality of fin FET devices. SOLUTION: This invention concretely provides the method for forming the semiconductor structure including a plurality of fin FET devices, and provides a method for using a mask getting across it together with a chemical oxide removing (COR) process when a rectangular pattern is formed to demarcate a relatively fine fin. This method further includes a step for uniting the adjacent fins together by selectively using a material comprising a silicon. This invention is further related to the semiconductor structure formed by using this method. COPYRIGHT: (C)2007,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide the structure and manufacturing method of a high-performance electric field effect device. SOLUTION: This MOS structure is equipped with a sort of conductive crystal Si main part, SiGe layer for which epitaxial growth has been performed on the Si main part that works as a buried channel of a hole, Si layer for which epitaxial growth has been performed on the SiGe layer that works as an electronic surface channel, and source/drain which accomodates strained SiGe for which conductive epitaxial growth has been performed in a way different from the Si main part. This SiGe source/drain forms hetero-junction and metallic bonding with the Si main part by overlapping each other with a tolerance of less than about 10 nm, preferably 5 nm. This heterostructure source/drain is useful for reducing a short channel effect. The foregoing structure increases hole mobility in a compressively strained SiGe channel, and therefore it is advantageous to PMOS. In typical embodiments, CMOS structure is provided on bulk and SOI. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
A strained Fin Field Effect Transistor (FinFET) (and method for forming the same) includes a relaxed first material having a sidewall, and a strained second material formed on the sidewall of the first material. The relaxed first material and the strained second material form a fin of the FinFET.
Abstract:
A silicon and silicon germanium based semiconductor MODFET device design and method of manufacture. The MODFET design includes a high-mobility layer structure capable of ultra high-speed, low-noise for a variety of communication applications including RF, microwave, sub-millimeter-wave and millimeter-wave. The epitaxial field effect transistor layer structure includes critical (vertical and lateral) device scaling and layer structure design for a high mobility strained n-channel and p-channel transistor incorporating silicon and silicon germanium layers to form the optimum modulation-doped heterostructure on an ultra thin SOI or SGOI substrate capable of achieving greatly improved RF performance.
Abstract:
PROBLEM TO BE SOLVED: To provide a high-mobility semiconductor layer and a structure of a MODFET (modulation-doped field-effect transistor) which include a high-mobility conduction channel and simultaneously maintain a counter dope to reduce a harmful short channel effect. SOLUTION: A high-performance n-MODFET transistor device is formed by providing an insulating gate dielectric on an Si cap layer, a gate electrode disposed on the insulating gate dielectric, and n-type source and drain contact areas which are disposed in contact with one side of the gate electrode and stretch from a surface of a multilayer structure into a p-type doped portion of a relaxed Si 1-X Ge X layer. This MODFET design includes the high-mobility conduction channel. This method forms a counter doped portion by using a standard technique such as ion implantation and bringing a high-mobility channel close to the counter doped portion without reducing a mobility. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract translation:要解决的问题:为了提供包括高迁移率传导通道的MODFET(调制掺杂场效应晶体管)的高迁移率半导体层和结构,并且同时保持反向掺杂以减少有害短路 渠道效应。 解决方案:通过在Si覆盖层上提供绝缘栅极电介质,设置在绝缘栅极电介质上的栅极电极和设置在绝缘栅极电介质上的n型源极和漏极接触区域来形成高性能n-MODFET晶体管器件 与栅电极的一侧接触并且从多层结构的表面拉伸成松弛的Si 1-X SB Ge x SB层的p型掺杂部分。 该MODFET设计包括高迁移率传导通道。 该方法通过使用诸如离子注入的标准技术形成反掺杂部分,并使高迁移率通道靠近反掺杂部分而不降低迁移率。 版权所有(C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a high-speed photodiode which essentially has very few slow carrier and substantially produces no etalon effect. SOLUTION: This high-speed photodiode comprises a photodetector 110, a substrate 100A formed below the photodetector, and a barrier layer 105 formed on the substrate. The embedded barrier layer includes a single/double pn junction or a bubble layer to block or remove slow photon generation carriers in a region with a low drift field. COPYRIGHT: (C)2004,JPO&NCIPI