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    • 3. 发明申请
    • TRANSISTOR WITH REDUCED PARASITIC CAPACITANCE
    • 具有降低PARASIIC电容的晶体管
    • US20130049142A1
    • 2013-02-28
    • US13218988
    • 2011-08-26
    • Yanxiang LiuJinping LiuMin DaiXiaodong Yang
    • Yanxiang LiuJinping LiuMin DaiXiaodong Yang
    • H01L29/78H01L21/336
    • H01L29/6653H01L29/4966H01L29/4983H01L29/513H01L29/517H01L29/66545H01L29/66553H01L29/66628
    • Scaled transistors with reduced parasitic capacitance are formed by replacing a high-k dielectric sidewall spacer with a SiO2 or low-k dielectric sidewall spacer. Embodiments include transistors comprising a trench silicide layer spaced apart from a replacement metal gate electrode, and a layer of SiO2 or low-k material on a side surface of the replacement metal gate electrode facing the trench silicide layer. Implementing methodologies may include forming an intermediate structure comprising a removable gate with nitride spacers, removing the removable gate, forming a layer of high-k material on the nitride spacers, forming a layer of metal nitride on the high-k material, filling the opening with insulating material and then removing a portion thereof to form a recess, removing the metal nitride layers and layers of high-k material, depositing a layer of SiO2 or low-k material, and forming a replacement metal gate in the remaining recess.
    • 具有减小的寄生电容的可缩放晶体管通过用SiO 2或低k电介质侧壁间隔物代替高k电介质侧壁间隔物而形成。 实施例包括晶体管,其包括与替代金属栅电极间隔开的沟槽硅化物层,以及位于替代金属栅电极的面对沟槽硅化物层的侧表面上的SiO 2或低k材料层。 实施方法可以包括形成包括具有氮化物间隔物的可移除栅极的中间结构,去除可移除栅极,在氮化物间隔物上形成高k材料层,在高k材料上形成金属氮化物层,填充开口 用绝缘材料,然后去除其一部分以形成凹槽,去除金属氮化物层和高k材料层,沉积SiO 2或低k材料层,并在剩余的凹槽中形成替换金属栅极。
    • 4. 发明授权
    • Transistor with reduced parasitic capacitance
    • 降低寄生电容的晶体管
    • US08809962B2
    • 2014-08-19
    • US13218988
    • 2011-08-26
    • Yanxiang LiuJinping LiuMin DaiXiaodong Yang
    • Yanxiang LiuJinping LiuMin DaiXiaodong Yang
    • H01L29/78H01L21/336H01L29/66H01L29/49H01L29/51
    • H01L29/6653H01L29/4966H01L29/4983H01L29/513H01L29/517H01L29/66545H01L29/66553H01L29/66628
    • Scaled transistors with reduced parasitic capacitance are formed by replacing a high-k dielectric sidewall spacer with a SiO2 or low-k dielectric sidewall spacer. Embodiments include transistors comprising a trench silicide layer spaced apart from a replacement metal gate electrode, and a layer of SiO2 or low-k material on a side surface of the replacement metal gate electrode facing the trench silicide layer. Implementing methodologies may include forming an intermediate structure comprising a removable gate with nitride spacers, removing the removable gate, forming a layer of high-k material on the nitride spacers, forming a layer of metal nitride on the high-k material, filling the opening with insulating material and then removing a portion thereof to form a recess, removing the metal nitride layers and layers of high-k material, depositing a layer of SiO2 or low-k material, and forming a replacement metal gate in the remaining recess.
    • 具有减小的寄生电容的可缩放晶体管通过用SiO 2或低k电介质侧壁间隔物代替高k电介质侧壁间隔物而形成。 实施例包括晶体管,其包括与替代金属栅电极间隔开的沟槽硅化物层,以及位于替代金属栅电极的面对沟槽硅化物层的侧表面上的SiO 2或低k材料层。 实施方法可以包括形成包括具有氮化物间隔物的可移除栅极的中间结构,去除可移除栅极,在氮化物间隔物上形成高k材料层,在高k材料上形成金属氮化物层,填充开口 用绝缘材料,然后去除其一部分以形成凹槽,去除金属氮化物层和高k材料层,沉积SiO 2或低k材料层,并在剩余的凹槽中形成替换金属栅极。
    • 8. 发明申请
    • SELF-ADJUSTING LATCH-UP RESISTANCE FOR CMOS DEVICES
    • 自适应CMOS器件的上拉电阻
    • US20130032890A1
    • 2013-02-07
    • US13197631
    • 2011-08-03
    • Yanxiang LiuXiaodong YangGan Wang
    • Yanxiang LiuXiaodong YangGan Wang
    • H01L27/092H01L21/8238
    • H01L27/0921
    • CMOS devices (60, 61, 61′) having improved latch-up robustness are provided by including with one or both WELL regions (22, 29) underlying the source-drains (24, 25; 31, 32) and the body contacts (27, 34), one or more further regions (62, 62′, 62-2) doped with deep acceptors or deep donors (or both) of the same conductivity type as the corresponding WELL region and whose ionization substantially increases as operating temperature increases. The increase in conductivity exhibited by these further regions as a result of the increasing ionization of the deep acceptors or donors off-sets, in whole or part, the temperature driven increase in gain of the parasitic NPN and/or PNP bipolar transistors inherent in prior art CMOS structures. By clamping or lowering the gain of the parasitic bipolar transistors, the CMOS devices (60, 61, 61′) are less likely to go into latch-up with increasing operating temperature.
    • 具有改进的闭锁稳健性的CMOS器件(60,61,61')通过包括源极 - 漏极(24,25; 31,32)下面的一个或两个WELL区域(22,29)和主体触点 掺杂与相应的WELL区相同导电类型的深受体或深供体(或两者)的一个或多个另外的区域(62,62',62-2),并且其电离随着工作温度的升高而显着增加 。 这些其他区域的电导率的增加是由于深受体或供体离子的电离增加导致的,全部或部分,先前的固有的寄生NPN和/或PNP双极晶体管的增益的温度驱动增加的结果 艺术CMOS结构。 通过钳位或降低寄生双极晶体管的增益,CMOS器件(60,61,61')不太可能随着工作温度的升高而进入闭锁状态。
    • 9. 发明授权
    • Self-adjusting latch-up resistance for CMOS devices
    • CMOS器件的自调节闭锁电阻
    • US08841732B2
    • 2014-09-23
    • US13197631
    • 2011-08-03
    • Yanxiang LiuXiaodong YangGan Wang
    • Yanxiang LiuXiaodong YangGan Wang
    • H01L27/092
    • H01L27/0921
    • CMOS devices (60, 61, 61′) having improved latch-up robustness are provided by including with one or both WELL regions (22, 29) underlying the source-drains (24, 25; 31, 32) and the body contacts (27, 34), one or more further regions (62, 62′, 62-2) doped with deep acceptors or deep donors (or both) of the same conductivity type as the corresponding WELL region and whose ionization substantially increases as operating temperature increases. The increase in conductivity exhibited by these further regions as a result of the increasing ionization of the deep acceptors or donors off-sets, in whole or part, the temperature driven increase in gain of the parasitic NPN and/or PNP bipolar transistors inherent in prior art CMOS structures. By clamping or lowering the gain of the parasitic bipolar transistors, the CMOS devices (60, 61, 61′) are less likely to go into latch-up with increasing operating temperature.
    • 具有改进的闭锁稳健性的CMOS器件(60,61,61')通过包括源极 - 漏极(24,25; 31,32)下面的一个或两个WELL区域(22,29)和主体触点 掺杂与相应的WELL区相同导电类型的深受体或深供体(或两者)的一个或多个另外的区域(62,62',62-2),并且其电离随着工作温度的升高而显着增加 。 这些其他区域的电导率的增加是由于深受体或供体的电离离子的增加,全部或部分地升高了先前的固有的寄生NPN和/或PNP双极晶体管的增益的温度驱动增加的结果 艺术CMOS结构。 通过钳位或降低寄生双极晶体管的增益,CMOS器件(60,61,61')不太可能随着工作温度的升高而进入闭锁状态。