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    • 1. 发明申请
    • Trench isolation type semiconductor device and related method of manufacture
    • 沟槽隔离型半导体器件及相关制造方法
    • US20070164391A1
    • 2007-07-19
    • US11650418
    • 2007-01-08
    • Ki-seog YounJong-hyon AhnKwan-Jong RohHye-Kyoung Lee
    • Ki-seog YounJong-hyon AhnKwan-Jong RohHye-Kyoung Lee
    • H01L29/00
    • H01L21/76224
    • A semiconductor device and related method of manufacture are disclosed. The device comprises; a trench having a corner portion formed in the semiconductor substrate, a first oxide film formed on an inner wall of the trench and having an upper end portion exposing the corner portion of the semiconductor substrate, a nitride liner formed on the first oxide film, a second oxide film formed in contact with the upper end of the first oxide film and on the exposed corner portion and an upper surface of the semiconductor substrate, a field insulating film formed on the nitride liner to substantially fill the trench, and a field protecting film formed in contact with the second oxide film and filling a trench edge recess formed between the field insulating film and the second oxide film.
    • 公开了一种半导体器件及其制造方法。 该装置包括: 具有形成在所述半导体衬底中的角部的沟槽,形成在所述沟槽的内壁上并具有暴露所述半导体衬底的角部的上端部的第一氧化膜,形成在所述第一氧化物膜上的氮化物衬垫, 与第一氧化物膜的上端接触形成的第二氧化物膜,暴露的角部和半导体衬底的上表面,形成在氮化物衬垫上以基本上填充沟槽的场绝缘膜,以及场保护膜 形成为与第二氧化物膜接触并填充形成在场绝缘膜和第二氧化物膜之间的沟槽边缘凹陷。
    • 4. 发明授权
    • Method for forming a metal silicide layer in a semiconductor device
    • 在半导体器件中形成金属硅化物层的方法
    • US07375025B2
    • 2008-05-20
    • US11280425
    • 2005-11-16
    • Eung-Joon LeeIn-Sun ParkKwan-Jong Roh
    • Eung-Joon LeeIn-Sun ParkKwan-Jong Roh
    • H01L21/4763
    • H01L29/6653H01L21/823418H01L21/823468H01L21/823814H01L21/823835H01L21/823864H01L29/665
    • On first and second regions of a substrate are formed a first gate structure including a first gate electrode and a first spacer, and a second gate structure including a second gate electrode and a second spacer, respectively. The first and second spacers are removed to different depths such that side portions of the first and second gate electrodes have different exposed thicknesses. A metal silicide layer is formed on the first and second regions including the first and second gate structures. The metal silicide layer formed on the second gate electrode has a second thickness that is greater than a first thickness of the metal silicide layer formed on the first gate electrode. The spacers in the gate structures of resulting N type and P type MOS transistors are removed to different thicknesses, thereby minimizing deformation in the gate structures and also improving electrical characteristics and thermal stability of the gate electrodes.
    • 在衬底的第一和第二区域上分别形成包括第一栅极和第一间隔物的第一栅极结构,以及包括第二栅电极和第二间隔物的第二栅极结构。 将第一和第二间隔物移除到不同的深度,使得第一和第二栅极的侧部具有不同的暴露厚度。 在包括第一和第二栅极结构的第一和第二区域上形成金属硅化物层。 形成在第二栅电极上的金属硅化物层具有大于形成在第一栅电极上的金属硅化物层的第一厚度的第二厚度。 所得N型和P型MOS晶体管的栅极结构中的间隔物被去除到不同的厚度,从而最小化栅极结构中的变形,并且还改善栅电极的电特性和热稳定性。
    • 5. 发明授权
    • Nickel salicide process with reduced dopant deactivation
    • 具有减少掺杂剂钝化的镍硅化物工艺
    • US07232756B2
    • 2007-06-19
    • US10812003
    • 2004-03-30
    • Ja-Hum KuKwan-Jong RohMin-Chul SunMin-Joo KimSug-Woo JungSun-Pil Youn
    • Ja-Hum KuKwan-Jong RohMin-Chul SunMin-Joo KimSug-Woo JungSun-Pil Youn
    • H01L21/44
    • H01L29/665H01L21/28052H01L21/28061H01L21/28518H01L29/66545H01L29/6656H01L29/6659H01L29/7833
    • Provided are exemplary methods for forming a semiconductor devices incorporating silicide layers formed at temperatures below about 700° C., such as nickel silicides, that are formed after completion of a silicide blocking layer (SBL). The formation of the SBL tends to deactivate dopant species in the gate, lightly-doped drain and/or source/drain regions. The exemplary methods include a post-SBL activation anneal either in place of or in addition to the traditional post-implant activation anneal. The use of the post-SBL anneal produces CMOS transistors having properties that reflect reactivation of sufficient dopant to overcome the SBL process effects, while allowing the use of lower temperature silicides, including nickel silicides and, in particular, nickel silicides incorporating a minor portion of an alloying metal, such as tantalum, the exhibits reduced agglomeration and improved temperature stability.
    • 提供了形成在硅化物阻挡层(SBL)完成之后形成的在低于约700℃的温度下形成的硅化物层的半导体器件(例如硅化镍)的示例性方法。 SBL的形成倾向于使栅极,轻掺杂漏极和/或源极/漏极区域中的掺杂物质失活。 示例性方法包括后SBL激活退火,代替传统的植入物后激活退火或替代传统的植入后激活退火。 后SBL退火的使用产生具有反映充分掺杂剂的再活化以克服SBL工艺效应的性质的CMOS晶体管,同时允许使用较低温度的硅化物,包括硅化镍,特别是掺入较小部分的硅化镍 合金金属如钽,表现出减少的团聚和改善的温度稳定性。
    • 9. 发明授权
    • Method for forming a metal silicide layer in a semiconductor device
    • 在半导体器件中形成金属硅化物层的方法
    • US07005373B2
    • 2006-02-28
    • US10790921
    • 2004-03-02
    • Eung-Joon LeeIn-Sun ParkKwan-Jong Roh
    • Eung-Joon LeeIn-Sun ParkKwan-Jong Roh
    • H01L21/4763
    • H01L29/6653H01L21/823418H01L21/823468H01L21/823814H01L21/823835H01L21/823864H01L29/665
    • On first and second regions of a substrate are formed a first gate structure including a first gate electrode and a first spacer, and a second gate structure including a second gate electrode and a second spacer, respectively. The first and second spacers are removed to different depths such that side portions of the first and second gate electrodes have different exposed thicknesses. A metal silicide layer is formed on the first and second regions including the first and second gate structures. The metal silicide layer formed on the second gate electrode has a second thickness that is greater than a first thickness of the metal silicide layer formed on the first gate electrode. The spacers in the gate structures of resulting N type and P type MOS transistors are removed to different thicknesses, thereby minimizing deformation in the gate structures and also improving electrical characteristics and thermal stability of the gate electrodes.
    • 在衬底的第一和第二区域上分别形成包括第一栅极和第一间隔物的第一栅极结构,以及包括第二栅电极和第二间隔物的第二栅极结构。 将第一和第二间隔物移除到不同的深度,使得第一和第二栅极的侧部具有不同的暴露厚度。 在包括第一和第二栅极结构的第一和第二区域上形成金属硅化物层。 形成在第二栅电极上的金属硅化物层具有大于形成在第一栅电极上的金属硅化物层的第一厚度的第二厚度。 所得N型和P型MOS晶体管的栅极结构中的间隔物被去除到不同的厚度,从而最小化栅极结构中的变形,并且还改善栅电极的电特性和热稳定性。