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    • 1. 发明申请
    • Heat Dissipation Structure of SOI Field Effect Transistor
    • SOI场效应晶体管的散热结构
    • US20130001655A1
    • 2013-01-03
    • US13582624
    • 2011-08-17
    • Ru HuangXin HuangShoubin XueYujie Ai
    • Ru HuangXin HuangShoubin XueYujie Ai
    • H01L23/38H01L29/80
    • H01L23/38H01L27/16H01L2924/0002H01L2924/00
    • The present invention discloses a heat dissipation structure for a SOI field effect transistor having a schottky source/drain, which relates to a field of microelectronics. The heat dissipation structure includes two holes connected with a drain terminal or with both a source terminal and a drain terminal, which are filled with an N-type material with high thermoelectric coefficient and a P-type material with high thermoelectric coefficient respectively. A metal wire for the N-type material with high thermoelectric coefficient in the vicinity of the drain terminal is applied a high potential with respect to the drain terminal, and a metal wire for the P-type material with high thermoelectric coefficient in the vicinity of the drain terminal is applied a low potential with respect to the drain terminal. A metal wire for the N-type material with high thermoelectric coefficient in the vicinity of the source terminal is applied a high potential with respect to the source terminal, and a metal wire for the P-type material in the vicinity of the source terminal is applied a lower potential with respect to the source terminal. By way of a Peltier effect, in the present invention heat can be absorbed at a contact portion between the thermoelectric material and the source/drain, and at the same time dissipated at a connection portion between the thermoelectric material and a bottom electrode metal, so that the heat generated in an active region of the device is effectively transferred to the substrate and dissipated through a heat sink.
    • 本发明公开了一种具有肖特基源极/漏极的SOI场效应晶体管的散热结构,涉及微电子领域。 散热结构包括与漏极端子或者源极端子和漏极端子连接的两个孔,其分别填充有高热电系数的N型材料和具有高热电系数的P型材料。 在漏极端子附近,用于具有高热电系数的N型材料的金属线相对于漏极端子施加高电位,并且用于具有高热电系数的P型材料的金属线 漏极端子相对于漏极端子施加低电位。 在源极端子附近具有高热电系数的N型材料的金属线相对于源极端子施加高电位,并且在源极端子附近的用于P型材料的金属线是 相对于源极端子施加较低的电位。 通过珀耳帖效应,在本发明中,热量可以在热电材料和源极/漏极之间的接触部分处被吸收,并且同时在热电材料和底部电极金属之间的连接部分消散,因此 在器件的有源区域中产生的热量有效地传递到衬底并通过散热器散发。
    • 2. 发明授权
    • Heat dissipation structure of SOI field effect transistor
    • SOI场效应晶体管的散热结构
    • US08598636B2
    • 2013-12-03
    • US13582624
    • 2011-08-17
    • Ru HuangXin HuangShoubin XueYujie Ai
    • Ru HuangXin HuangShoubin XueYujie Ai
    • H01L29/80
    • H01L23/38H01L27/16H01L2924/0002H01L2924/00
    • The present invention discloses a heat dissipation structure for a SOI field effect transistor having a schottky source/drain, which relates to a field of microelectronics. The heat dissipation structure includes two holes connected with a drain terminal or with both a source terminal and a drain terminal, which are filled with an N-type material with high thermoelectric coefficient and a P-type material with high thermoelectric coefficient respectively. A metal wire for the N-type material with high thermoelectric coefficient in the vicinity of the drain terminal is applied a high potential with respect to the drain terminal, and a metal wire for the P-type material with high thermoelectric coefficient in the vicinity of the drain terminal is applied a low potential with respect to the drain terminal. A metal wire for the N-type material with high thermoelectric coefficient in the vicinity of the source terminal is applied a high potential with respect to the source terminal, and a metal wire for the P-type material in the vicinity of the source terminal is applied a lower potential with respect to the source terminal. By way of a Peltier effect, in the present invention heat can be absorbed at a contact portion between the thermoelectric material and the source/drain, and at the same time dissipated at a connection portion between the thermoelectric material and a bottom electrode metal, so that the heat generated in an active region of the device is effectively transferred to the substrate and dissipated through a heat sink.
    • 本发明公开了一种具有肖特基源极/漏极的SOI场效应晶体管的散热结构,涉及微电子领域。 散热结构包括与漏极端子或者源极端子和漏极端子连接的两个孔,其分别填充有高热电系数的N型材料和具有高热电系数的P型材料。 在漏极端子附近,用于具有高热电系数的N型材料的金属线相对于漏极端子施加高电位,并且用于具有高热电系数的P型材料的金属线 漏极端子相对于漏极端子施加低电位。 在源极端子附近具有高热电系数的N型材料的金属线相对于源极端子施加高电位,并且在源极端子附近的用于P型材料的金属线是 相对于源极端子施加较低的电位。 通过珀耳帖效应,在本发明中,热量可以在热电材料和源极/漏极之间的接触部分处被吸收,并且同时在热电材料和底部电极金属之间的连接部分消散,因此 在器件的有源区域中产生的热量有效地传递到衬底并通过散热器散发。
    • 3. 发明授权
    • Method for fabricating silicon nanowire field effect transistor based on wet etching
    • 基于湿蚀刻制造硅纳米线场效应晶体管的方法
    • US09034702B2
    • 2015-05-19
    • US13511123
    • 2011-11-18
    • Ru HuangJiewen FanYujie AiShuai SunRunsheng WangJibin ZouXin Huang
    • Ru HuangJiewen FanYujie AiShuai SunRunsheng WangJibin ZouXin Huang
    • H01L21/336H01L21/8234H01L29/66H01L29/423H01L29/786
    • H01L29/66772H01L29/42392H01L29/78696
    • Disclosed herein is a method for fabricating a silicon nanowire field effect transistor based on a wet etching. The method includes defining an active region; depositing a silicon oxide film as a hard mask, forming a pattern of a source and a drain and a fine bar connecting the source and the drain; transferring the pattern on the hard mask to a silicon substrate by performing etching process for the silicon substrate; performing ion implanting; etching the silicon substrate by wet etching, so that the silicon fine bar connecting the source and the drain is suspended; reducing the silicon fine bar to a nano size to form a silicon nanowire; depositing a polysilicon film; forming a polysilicon gate line acrossing the silicon nanowire by electron beam lithography and forming a structure of nanowire-all-around; forming a silicon oxide sidewall at both sides of the polysilicon gate line, by depositing a silicon oxide film and subsequently etching the silicon oxide film; forming the source and the drain by using ion implantation and high temperature annealing, so that the silicon nanowire field effect transistor is finally fabricated. The method is compatible with a conventional integrated circuit fabrication technology. The fabrication process is simple and convenient, and has a short cycle.
    • 本文公开了一种基于湿蚀刻制造硅纳米线场效应晶体管的方法。 该方法包括定义活动区域; 沉积氧化硅膜作为硬掩模,形成源极和漏极的图案以及连接源极和漏极的细棒; 通过对硅衬底进行蚀刻处理,将硬掩模上的图案转移到硅衬底; 进行离子注入; 通过湿蚀刻蚀刻硅衬底,使得连接源极和漏极的硅细棒悬空; 将硅细棒还原成纳米尺寸以形成硅纳米线; 沉积多晶硅膜; 通过电子束光刻形成跨越硅纳米线的多晶硅栅极线,并形成全纳米线的结构; 在多晶硅栅极线的两侧形成硅氧化物侧壁,通过沉积氧化硅膜并随后蚀刻氧化硅膜; 通过离子注入和高温退火形成源极和漏极,从而最终制造出硅纳米线场效应晶体管。 该方法与传统的集成电路制造技术相兼容。 制造工艺简单方便,循环周期短。
    • 7. 发明授权
    • Fabrication method for surrounding gate silicon nanowire transistor with air as spacers
    • 围绕栅极硅纳米线晶体管的制造方法,其中空气为间隔物
    • US08513067B2
    • 2013-08-20
    • US13266791
    • 2011-07-15
    • Ru HuangJing ZhugeJiewen FanYujie AiRunsheng WangXin Huang
    • Ru HuangJing ZhugeJiewen FanYujie AiRunsheng WangXin Huang
    • H01L21/84
    • H01L29/66439B82Y10/00H01L29/775
    • The invention discloses a fabrication method for a surrounding gate silicon nanowire transistor with air as spacers. The method comprises: performing isolation, and depositing a material A which has a higher etch selectivity ratio with respect to Si; performing photolithography to define a Fin hard mask; etching the material A to form the Fin hard mask; performing source and drain implantation; performing photolithography to define a channel region and large source/drain regions; forming the Si Fin and the large source/drains; removing the hard mask of the material A; forming a nanowire; etching the SiO2 to form a floating nanowire; forming a gate oxide layer; depositing a polysilicon; performing polysilicon injection; performing annealing to activate dopants; etching the polysilicon; depositing SiN; performing photolithography to define a gate pattern; etching the SiN and the polysilicon to form the gate pattern; separating the gate and the source/drain with a space in between filled with air; depositing SiO2 to form air sidewalls; performing annealing to densify the SiO2 layer; using subsequent processes to complete the device fabrication. The invention is compatible with the CMOS process flow. The introduction of the air sidewalls can effectively reduce the parasitic capacitance of the device, and improve the transient response of the device, so that the method is applicable for a logic circuit with high performance.
    • 本发明公开了一种具有空气作为间隔物的周围栅极硅纳米线晶体管的制造方法。 该方法包括:执行隔离和沉积相对于Si具有较高蚀刻选择比的材料A; 执行光刻以限定Fin硬掩模; 蚀刻材料A以形成Fin硬掩模; 进行源极和漏极植入; 执行光刻以限定沟道区和大的源极/漏极区; 形成Si Fin和大源/排水; 去除材料A的硬掩模; 形成纳米线; 蚀刻SiO 2以形成浮动的纳米线; 形成栅氧化层; 沉积多晶硅; 执行多晶硅注入; 执行退火以激活掺杂剂; 蚀刻多晶硅; 沉积SiN; 执行光刻以限定栅极图案; 蚀刻SiN和多晶硅以形成栅极图案; 分离门和源/排水管之间的空间填充空气之间; 沉积SiO 2以形成空气侧壁; 进行退火以使SiO 2层致密化; 使用后续过程来完成器件制造。 本发明与CMOS工艺流程兼容。 空气侧壁的引入可以有效降低器件的寄生电容,提高器件的瞬态响应,使其适用于具有高性能的逻辑电路。
    • 9. 发明申请
    • FABRICATION METHOD FOR SURROUNDING GATE SILICON NANOWIRE TRANSISTOR WITH AIR AS SPACERS
    • 具有空气作为间隔件的环形硅纳米晶体管的制造方法
    • US20130017654A1
    • 2013-01-17
    • US13266791
    • 2011-07-15
    • Ru HuangJing ZhugeJiewen FanYujie AiRunsheng WangXin Huang
    • Ru HuangJing ZhugeJiewen FanYujie AiRunsheng WangXin Huang
    • H01L21/336B82Y99/00
    • H01L29/66439B82Y10/00H01L29/775
    • The invention discloses a fabrication method for a surrounding gate silicon nanowire transistor with air as spacers. The method comprises: performing isolation, and depositing a material A which has a higher etch selectivity ratio with respect to Si; performing photolithography to define a Fin hard mask; etching the material A to form the Fin hard mask; performing source and drain implantation; performing photolithography to define a channel region and large source/drain regions; forming the Si Fin and the large source/drains; removing the hard mask of the material A; forming a nanowire; etching the SiO2 to form a floating nanowire; forming a gate oxide layer; depositing a polysilicon; performing polysilicon injection; performing annealing to activate dopants; etching the polysilicon; depositing SiN; performing photolithography to define a gate pattern; etching the SiN and the polysilicon to form the gate pattern; separating the gate and the source/drain with a space in between filled with air; depositing SiO2 to form air sidewalls; performing annealing to densify the SiO2 layer; using subsequent processes to complete the device fabrication. The invention is compatible with the CMOS process flow. The introduction of the air sidewalls can effectively reduce the parasitic capacitance of the device, and improve the transient response of the device, so that the method is applicable for a logic circuit with high performance.
    • 本发明公开了一种具有空气作为间隔物的周围栅极硅纳米线晶体管的制造方法。 该方法包括:执行隔离和沉积相对于Si具有较高蚀刻选择比的材料A; 执行光刻以限定Fin硬掩模; 蚀刻材料A以形成Fin硬掩模; 进行源极和漏极植入; 执行光刻以限定沟道区和大的源极/漏极区; 形成Si Fin和大源/排水; 去除材料A的硬掩模; 形成纳米线; 蚀刻SiO 2以形成浮动的纳米线; 形成栅氧化层; 沉积多晶硅; 执行多晶硅注入; 执行退火以激活掺杂剂; 蚀刻多晶硅; 沉积SiN; 执行光刻以限定栅极图案; 蚀刻SiN和多晶硅以形成栅极图案; 分离门和源/排水管之间的空间填充空气之间; 沉积SiO 2以形成空气侧壁; 进行退火以使SiO 2层致密化; 使用后续过程来完成器件制造。 本发明与CMOS工艺流程兼容。 空气侧壁的引入可以有效降低器件的寄生电容,提高器件的瞬态响应,使其适用于具有高性能的逻辑电路。
    • 10. 发明申请
    • Method for Fabricating Silicon Nanowire Field Effect Transistor Based on Wet Etching
    • 基于湿蚀刻的硅纳米线场效应晶体管的制造方法
    • US20120302027A1
    • 2012-11-29
    • US13511123
    • 2011-11-18
    • Ru HuangJiewen FanYujie AiShuai SunRunsheng WangJibin ZouXin Huang
    • Ru HuangJiewen FanYujie AiShuai SunRunsheng WangJibin ZouXin Huang
    • H01L21/336B82Y40/00
    • H01L29/66772H01L29/42392H01L29/78696
    • Disclosed herein is a method for fabricating a silicon nanowire field effect transistor based on a wet etching. The method includes defining an active region; depositing a silicon oxide film as a hard mask, forming a pattern of a source and a drain and a fine bar connecting the source and the drain; transferring the pattern on the hard mask to a silicon substrate by performing etching process for the silicon substrate; performing ion implanting; etching the silicon substrate by wet etching, so that the silicon fine bar connecting the source and the drain is suspended; reducing the silicon fine bar to a nano size to form a silicon nanowire; depositing a polysilicon film; forming a polysilicon gate line acrossing the silicon nanowire by electron beam lithography and forming a structure of nanowire-all-around; forming a silicon oxide sidewall at both sides of the polysilicon gate line, by depositing a silicon oxide film and subsequently etching the silicon oxide film; forming the source and the drain by using ion implantation and high temperature annealing, so that the silicon nanowire field effect transistor is finally fabricated. The method is compatible with a conventional integrated circuit fabrication technology. The fabrication process is simple and convenient, and has a short cycle.
    • 本文公开了一种基于湿蚀刻制造硅纳米线场效应晶体管的方法。 该方法包括定义活动区域; 沉积氧化硅膜作为硬掩模,形成源极和漏极的图案以及连接源极和漏极的细棒; 通过对硅衬底进行蚀刻处理,将硬掩模上的图案转移到硅衬底; 进行离子注入; 通过湿蚀刻蚀刻硅衬底,使得连接源极和漏极的硅细棒悬空; 将硅细棒还原成纳米尺寸以形成硅纳米线; 沉积多晶硅膜; 通过电子束光刻形成跨越硅纳米线的多晶硅栅极线,并形成全纳米线的结构; 在多晶硅栅极线的两侧形成硅氧化物侧壁,通过沉积氧化硅膜并随后蚀刻氧化硅膜; 通过离子注入和高温退火形成源极和漏极,从而最终制造出硅纳米线场效应晶体管。 该方法与传统的集成电路制造技术相兼容。 制造工艺简单方便,循环周期短。