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    • 1. 发明授权
    • Method of manufacturing a Schottky barrier tunnel transistor
    • 制造肖特基势垒隧道晶体管的方法
    • US07981735B2
    • 2011-07-19
    • US12434779
    • 2009-05-04
    • Yark Yeon KimSeong Jae LeeMoon Gyu JangChel Jong ChoiMyung Sim JunByoung Chul Park
    • Yark Yeon KimSeong Jae LeeMoon Gyu JangChel Jong ChoiMyung Sim JunByoung Chul Park
    • H01L21/336
    • H01L29/47H01L29/458H01L29/4908H01L29/66545H01L29/66772H01L29/7839
    • Provided are a Schottky barrier tunnel transistor and a method of manufacturing the same that are capable of minimizing leakage current caused by damage to a gate sidewall of the Schottky barrier tunnel transistor using a Schottky tunnel barrier naturally formed at a semiconductor-metal junction as a tunnel barrier. The method includes the steps of: forming a semiconductor channel layer on an insulating substrate; forming a dummy gate on the semiconductor channel layer; forming a source and a drain at both sides of the dummy gate on the insulating substrate; removing the dummy gate; forming an insulating layer on a sidewall from which the dummy gate is removed; and forming an actual gate in a space from which the dummy gate is removed. In manufacturing the Schottky barrier tunnel transistor using the dummy gate, it is possible to form a high-k dielectric gate insulating layer and a metal gate, and stable characteristics in silicidation of the metal layer having very strong reactivity can be obtained.
    • 提供了一种肖特基势垒隧道晶体管及其制造方法,该晶体管能够使用在半导体 - 金属结上自然形成的肖特基隧道势垒作为隧道来最小化对肖特基势垒隧道晶体管的栅极侧壁的损坏所造成的漏电流 屏障。 该方法包括以下步骤:在绝缘基板上形成半导体沟道层; 在半导体沟道层上形成虚拟栅极; 在绝缘基板上的虚拟栅极的两侧形成源极和漏极; 去除虚拟门; 在去除所述伪栅极的侧壁上形成绝缘层; 并且在从其中去除虚拟栅极的空间中形成实际栅极。 在使用伪栅极制造肖特基势垒隧道晶体管时,可以形成高k电介质栅极绝缘层和金属栅极,并且可以获得具有非常强反应性的金属层的硅化物的稳定特性。
    • 2. 发明授权
    • Schottky barrier tunnel transistor and method of manufacturing the same
    • 肖特基势垒隧道晶体管及其制造方法
    • US07545000B2
    • 2009-06-09
    • US11485837
    • 2006-07-13
    • Yark Yeon KimSeong Jae LeeMoon Gyu JangChel Jong ChoiMyung Sim JunByoung Chul Park
    • Yark Yeon KimSeong Jae LeeMoon Gyu JangChel Jong ChoiMyung Sim JunByoung Chul Park
    • H01L27/01
    • H01L29/47H01L29/458H01L29/4908H01L29/66545H01L29/66772H01L29/7839
    • Provided are a Schottky barrier tunnel transistor and a method of manufacturing the same that are capable of minimizing leakage current caused by damage to a gate sidewall of the Schottky barrier tunnel transistor using a Schottky tunnel barrier naturally formed at a semiconductor-metal junction as a tunnel barrier. The method includes the steps of: forming a semiconductor channel layer on an insulating substrate; forming a dummy gate on the semiconductor channel layer; forming a source and a drain at both sides of the dummy gate on the insulating substrate; removing the dummy gate; forming an insulating layer on a sidewall from which the dummy gate is removed; and forming an actual gate in a space from which the dummy gate is removed. In manufacturing the Schottky barrier tunnel transistor using the dummy gate, it is possible to form a high-k dielectric gate insulating layer and a metal gate, and stable characteristics in silicidation of the metal layer having very strong reactivity can be obtained.
    • 提供了一种肖特基势垒隧道晶体管及其制造方法,该晶体管能够使用在半导体 - 金属结上自然形成的肖特基隧道势垒作为隧道,将肖特基势垒隧道晶体管的栅极侧壁损坏所造成的漏电流减到最小 屏障。 该方法包括以下步骤:在绝缘基板上形成半导体沟道层; 在半导体沟道层上形成虚拟栅极; 在绝缘基板上的虚拟栅极的两侧形成源极和漏极; 去除虚拟门; 在去除所述伪栅极的侧壁上形成绝缘层; 并且在从其中去除虚拟栅极的空间中形成实际栅极。 在使用伪栅极制造肖特基势垒隧道晶体管时,可以形成高k电介质栅极绝缘层和金属栅极,并且可以获得具有非常强反应性的金属层的硅化物的稳定特性。
    • 5. 发明授权
    • Schottky barrier tunnel single electron transistor and method of manufacturing the same
    • 肖特基势垒隧道单电子晶体管及其制造方法
    • US07605065B2
    • 2009-10-20
    • US11839704
    • 2007-08-16
    • Moon Gyu JangYark Yeon KimJae Heon ShinSeong Jae Lee
    • Moon Gyu JangYark Yeon KimJae Heon ShinSeong Jae Lee
    • H01L21/28H01L21/44
    • H01L29/7613B82Y10/00H01L29/872
    • Provided are a Schottky barrier tunnel single electron transistor and a method of manufacturing the same that use a Schottky barrier formed between metal and semiconductor by replacing a source and a drain with silicide as a reactant of silicon and metal, instead of a conventional method of manufacturing a single electron transistor (SET) that includes source and drain regions by implanting dopants such that an artificial quantum dot is formed in a channel region. As a result, it does not require a conventional PADOX process to form a quantum dot for a single electron transistor (SET), height and width of a tunneling barrier can be artificially adjusted by using silicide materials that have various Schottky junction barriers, and it is possible to improve current driving capability of the single electron transistor (SET).
    • 提供了一种肖特基势垒隧道单电子晶体管及其制造方法,其替代传统的制造方法,而是用硅化物替代源极和漏极作为硅和金属的反应物,从而形成金属和半导体之间形成的肖特基势垒 单电子晶体管(SET),其通过注入掺杂剂而包括源极和漏极区域,使得在沟道区域中形成人造量子点。 结果,不需要传统的PADOX工艺来形成单电子晶体管(SET)的量子点,隧道势垒的高度和宽度可以通过使用具有各种肖特基结屏障的硅化物材料进行人工调整,而且 可以提高单电子晶体管(SET)的电流驱动能力。
    • 8. 发明授权
    • Device using ambipolar transport in SB-MOSFET and method for operating the same
    • 在SB-MOSFET中使用双极传输的器件及其操作方法
    • US07312510B2
    • 2007-12-25
    • US11187654
    • 2005-07-22
    • Jae Heon ShinMoon Gyu JangYark Yeon KimSeong Jae Lee
    • Jae Heon ShinMoon Gyu JangYark Yeon KimSeong Jae Lee
    • H01L29/47
    • H01L29/7839G11C11/56
    • A device using an ambipolar transport of an SB-MOSFET and a method for operating the same are provided. The SB-MOSFET includes: a silicon channel region; a source and a drain contacted on both sides of the channel region and formed of material including metal layer; and a gate formed on the channel region, with a gate dielectric layer interposed therebetween. Positive (+), 0 or negative (−) gate voltage is selectively applied to the gate, the channel becomes off-state when the gate voltage between a negative threshold voltage and a positive threshold voltage is applied, and the channel becomes a first on-state and a second on-state when the gate voltage is lower than the negative threshold voltage or higher than the positive threshold voltage. Accordingly, it is possible to implement three current states, that is, hole current, electron current, and no current. The SB-MOSFET can be applied to a multi-bit memory and/or multi-bit logic device.
    • 提供了使用SB-MOSFET的双极运输的装置及其操作方法。 SB-MOSFET包括:硅沟道区; 源极和漏极在沟道区域的两侧接触并由包括金属层的材料形成; 以及形成在沟道区上的栅极,介于其间的栅介质层。 正极(+),0或负( - )栅极电压选择性地施加到栅极,当施加负阈值电压和正阈值电压之间的栅极电压时,通道变为截止状态,并且通道变为第一个 当门电压低于负阈值电压或高于正阈值电压时,状态和第二导通状态。 因此,可以实现三种电流状态,即空穴电流,电子电流,无电流。 SB-MOSFET可以应用于多位存储器和/或多位逻辑器件。
    • 9. 发明授权
    • Schottky barrier tunnel single electron transistor and method of manufacturing the same
    • 肖特基势垒隧道单电子晶体管及其制造方法
    • US07268407B2
    • 2007-09-11
    • US11196180
    • 2005-08-03
    • Moon Gyu JangYark Yeon KimJae Heon ShinSeong Jae Lee
    • Moon Gyu JangYark Yeon KimJae Heon ShinSeong Jae Lee
    • H01L31/07
    • H01L29/7613B82Y10/00H01L29/872
    • Provided are a Schottky barrier tunnel single electron transistor and a method of manufacturing the same that use a Schottky barrier formed between metal and semiconductor by replacing a source and a drain with silicide as a reactant of silicon and metal, instead of a conventional method of manufacturing a single electron transistor (SET) that includes source and drain regions by implanting dopants such that an artificial quantum dot is formed in a channel region. As a result, it does not require a conventional PADOX process to form a quantum dot for a single electron transistor (SET), height and width of a tunneling barrier can be artificially adjusted by using silicide materials that have various Schottky junction barriers, and it is possible to improve current driving capability of the single electron transistor (SET).
    • 提供了一种肖特基势垒隧道单电子晶体管及其制造方法,其替代传统的制造方法,而是用硅化物替代源极和漏极作为硅和金属的反应物,从而形成金属和半导体之间形成的肖特基势垒 单电子晶体管(SET),其通过注入掺杂剂而包括源极和漏极区域,使得在沟道区域中形成人造量子点。 结果,不需要传统的PADOX工艺来形成单电子晶体管(SET)的量子点,隧道势垒的高度和宽度可以通过使用具有各种肖特基结屏障的硅化物材料进行人工调整,而且 可以提高单电子晶体管(SET)的电流驱动能力。
    • 10. 发明申请
    • THERMOELECTRIC ARRAY
    • 热电阵列
    • US20110192439A1
    • 2011-08-11
    • US13022251
    • 2011-02-07
    • Young Sam PARKMoon Gyu JangMyung Sim JunYoung Hoon Hyun
    • Young Sam PARKMoon Gyu JangMyung Sim JunYoung Hoon Hyun
    • H01L35/30
    • H01L35/30
    • Provided is a thermoelectric array including a plurality of thermoelectric elements arranged in m rows and n columns (each of m and n is an integer equal to or more than 1), each thermoelectric element including a heat absorption layer, a first heat sink layer, a second heat sink layer, a first-conductivity-type leg, and a second-conductivity-type leg formed on the same plane. The heat absorption layers of the thermoelectric elements adjacently disposed in a row or column direction are disposed adjacent to each other, and the first and second heat sink layers of the adjacent thermoelectric elements are disposed adjacent to each other. In this case, thermal interference between adjacent thermoelectric elements may be minimized, thereby obtaining a thermoelectric array having a high figure of merit.
    • 本发明提供一种热电阵列,其包括以m行n列(m和n为1以上的整数)排列的多个热电元件,热电元件包括​​吸热层,第1散热层, 第二散热层,第一导电型脚和形成在同一平面上的第二导电型脚。 相邻地配置在行或列方向上的热电元件的吸热层相邻配置,相邻的热电元件的第一和第二散热层相邻配置。 在这种情况下,相邻热电元件之间的热干扰可以最小化,从而获得具有高品质因数的热电阵列。