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    • 1. 发明授权
    • Thyristor-based device having dual control ports
    • 具有双控制端口的基于晶闸管的装置
    • US06965129B1
    • 2005-11-15
    • US10288953
    • 2002-11-06
    • Andrew HorchScott RobinsFarid Nemati
    • Andrew HorchScott RobinsFarid Nemati
    • G11C11/39H01L21/8239H01L27/08H01L27/102H01L27/105H01L27/108H01L29/74
    • G11C11/39H01L27/1025H01L27/1027H01L27/105H01L27/1052H01L27/108H01L29/7436
    • Switching operations, such as those used in memory devices, are enhanced using a thyristor-based semiconductor device adapted to switch between a blocking state and a conducting state. According to an example embodiment of the present invention, a thyristor-based semiconductor device includes a thyristor having first and second base regions coupled between first and second emitter regions, respectively. A first control port capacitively couples a first signal to the first base region, and a second control port capacitively couples a second signal to the second base region. Each of the first and second signals have a charge that is opposite in polarity, and the opposite polarity signals effect the switching of the thyristor at a lower power, relative to the power that would be required to switch the thyristor having only one control port. In this manner, power consumption for a switching operation can be reduced, which is useful, for example, to correspond with reduced power supplied to other devices in a semiconductor device employing the thyristor.
    • 使用适于在阻塞状态和导通状态之间切换的基于晶闸管的半导体器件来增强诸如存储器件中使用的切换操作。 根据本发明的示例性实施例,基于晶闸管的半导体器件包括分别具有耦合在第一和第二发射极区之间的第一和第二基极区域的晶闸管。 第一控制端口将第一信号电容耦合到第一基区,并且第二控制端口将第二信号电容耦合到第二基区。 第一和第二信号中的每一个具有极性相反的电荷,相反的极性信号相对于仅具有一个控制端口的晶闸管所需的功率,以较低的功率影响晶闸管的开关。 以这种方式,可以减少用于开关操作的功耗,这对于例如提供给采用晶闸管的半导体器件中的其它器件的降低的功率是有用的。
    • 3. 发明授权
    • Thyristor having a first emitter with relatively lightly doped portion to the base
    • 晶闸管具有第一发射极,该基极具有相对轻掺杂的部分
    • US06828176B1
    • 2004-12-07
    • US10650334
    • 2003-08-28
    • Farid NematiScott RobinsAndrew Horch
    • Farid NematiScott RobinsAndrew Horch
    • H01L21332
    • G11C11/39H01L27/1203H01L29/0834H01L29/41725H01L29/7436
    • A thyristor-based semiconductor device exhibits a relatively increased base-emitter capacitance. According to an example embodiment of the present invention, a base region and an adjacent emitter region of a thyristor are doped such that the emitter region has a lightly-doped portion having a light dopant concentration, relative to the base region. In one embodiment, the thyristor is implemented in a memory circuit, wherein the emitter region is coupled to a reference voltage line and a control port is arranged for capacitively coupling to the thyristor for controlling current flow therein. In another implementation, the thyristor is formed on a buried insulator layer of a silicon-on-insulator (SOI) structure. With these approaches, current flow in the thyristor, e.g., for data storage therein, can be tightly controlled.
    • 基于晶闸管的半导体器件表现出相对增加的基极 - 发射极电容。 根据本发明的示例性实施例,晶闸管的基极区域和相邻发射极区域被掺杂,使得发射极区域相对于基极区域具有光掺杂剂浓度的轻掺杂部分。 在一个实施例中,晶闸管实现在存储器电路中,其中发射极区域耦合到参考电压线,并且控制端口布置成电容耦合到晶闸管以控制其中的电流流动。 在另一实施方案中,晶闸管形成在绝缘体上硅(SOI)结构的掩埋绝缘体层上。 利用这些方法,可以严格控制晶闸管中的电流,例如用于数据存储在其中。
    • 5. 发明授权
    • Thyristor with lightly-doped emitter
    • 晶闸管具有在基极上具有相对轻掺杂部分的第一发射极
    • US06703646B1
    • 2004-03-09
    • US10253363
    • 2002-09-24
    • Farid NematiScott RobinsAndrew Horch
    • Farid NematiScott RobinsAndrew Horch
    • H01L2974
    • G11C11/39H01L27/1203H01L29/0834H01L29/41725H01L29/7436
    • A thyristor-based semiconductor device exhibits a relatively increased base-emitter capacitance. According to an example embodiment of the present invention, a base region and an adjacent emitter region of a thyristor are doped such that the emitter region has a lightly-doped portion having a light dopant concentration, relative to the base region. In one embodiment, the thyristor is implemented in a memory circuit, wherein the emitter region is coupled to a reference voltage line and a control port is arranged for capacitively coupling to the thyristor for controlling current flow therein. In another implementation, the thyristor is formed on a buried insulator layer of a silicon-on-insulator (SOI) structure. With these approaches, current flow in the thyristor, e.g., for data storage therein, can be tightly controlled.
    • 基于晶闸管的半导体器件表现出相对增加的基极 - 发射极电容。 根据本发明的示例性实施例,晶闸管的基极区域和相邻发射极区域被掺杂,使得发射极区域相对于基极区域具有光掺杂剂浓度的轻掺杂部分。 在一个实施例中,晶闸管实现在存储器电路中,其中发射极区域耦合到参考电压线,并且控制端口布置成电容耦合到晶闸管以控制其中的电流流动。 在另一实施方案中,晶闸管形成在绝缘体上硅(SOI)结构的掩埋绝缘体层上。 利用这些方法,可以严格控制晶闸管中的电流,例如用于数据存储在其中。
    • 6. 发明授权
    • Self-aligned thin capacitively-coupled thyristor structure
    • 自对准薄电容耦合晶闸管结构
    • US06911680B1
    • 2005-06-28
    • US10890031
    • 2004-07-13
    • Andrew HorchScott RobinsFarid Nemati
    • Andrew HorchScott RobinsFarid Nemati
    • H01L21/331H01L27/11H01L29/74H01L29/745
    • H01L29/66242H01L27/11H01L29/7436H01L29/7455
    • A semiconductor memory device having a thyristor is manufactured in a manner that makes possible self-alignment of one or more portions of the thyristor. According to an example embodiment of the present invention, a gate is formed over a first portion of doped substrate. The gate is used to mask a portion of the doped substrate and a second portion of the substrate is doped before or after a spacer is formed. After the second portion of the substrate is doped, the spacer is then formed adjacent to the gate and used to mask the second portion of the substrate while a third portion of the substrate is doped. The gate and spacer are thus used to form self-aligned doped portions of the substrate, wherein the first and second portions form base regions and the third portion form an emitter region of a thyristor. In another implementation, the spacer is also adapted to prevent formation of salicide on the portion of the thyristor beneath the spacer, self-aligning the salicide to the junction between the second and third portions. In addition, dimensions such as width and other characteristics of the doped portions that are used to form a thyristor can be controlled without necessarily using a separate mask.
    • 制造具有晶闸管的半导体存储器件以能够使晶闸管的一个或多个部分自对准的方式。 根据本发明的示例性实施例,在掺杂衬底的第一部分上形成栅极。 栅极用于掩模掺杂衬底的一部分,并且衬底的第二部分在形成间隔物之前或之后被掺杂。 在衬底的第二部分被掺杂之后,然后在衬底的第三部分被掺杂的同时,将衬底形成为邻近栅极并用于掩蔽衬底的第二部分。 因此,栅极和间隔物用于形成衬底的自对准掺杂部分,其中第一和第二部分形成基极区,第三部分形成晶闸管的发射极区。 在另一实施方案中,间隔物还适于防止在间隔物下方的可控硅部分上形成自对准硅化物,使自对准硅化物与第二和第三部分之间的连接处。 此外,可以控制用于形成晶闸管的掺杂部分的宽度和其它特性的尺寸,而不必使用单独的掩模。
    • 8. 发明授权
    • Thyristor-based device including trench isolation
    • 基于晶闸管的器件包括沟槽隔离
    • US06777271B1
    • 2004-08-17
    • US10201654
    • 2002-07-23
    • Scott RobinsAndrew HorchFarid NematiHyun-Jin Cho
    • Scott RobinsAndrew HorchFarid NematiHyun-Jin Cho
    • H01L21332
    • H01L29/66363H01L21/76229H01L21/76237H01L21/763H01L27/0617H01L27/0817
    • A semiconductor device includes a thyristor designed to reduce or eliminate manufacturing and operational difficulties commonly experienced in the formation and operation of NDR devices. According to one example embodiment of the present invention, the semiconductor substrate is trenched adjacent a doped or dopable substrate region, which is formed to included at least two vertically-adjacent thyristor regions of different polarity. A capacitively-coupled control port for the thyristor is coupled to at least one of the thyristor regions. The trench also includes a dielectric material for electrically insulating the vertically-adjacent thyristor regions. The thyristor is electrically connected to other circuitry in the device, such as a transistor, and used to form a device, such as a memory cell.
    • 半导体器件包括设计用于减少或消除在NDR器件的形成和操作中通常经历的制造和操作困难的晶闸管。 根据本发明的一个示例实施例,半导体衬底在掺杂或可掺杂的衬底区域附近被沟槽,该衬底区域形成为包括不同极性的至少两个垂直相邻的晶闸管区域。 用于晶闸管的电容耦合控制端口耦合到至少一个晶闸管区域。 沟槽还包括用于使垂直相邻的晶闸管区域电绝缘的电介质材料。 晶闸管电连接到器件中的其它电路,例如晶体管,并用于形成诸如存储器单元的器件。
    • 9. 发明授权
    • Thyristor-based device having dual control ports
    • 具有双控制端口的基于晶闸管的装置
    • US07320895B1
    • 2008-01-22
    • US11086113
    • 2005-03-22
    • Andrew HorchScott RobinsFarid Nemati
    • Andrew HorchScott RobinsFarid Nemati
    • H01L21/00H01L21/332
    • G11C11/39H01L27/1025H01L27/1027H01L27/105H01L27/1052H01L27/108H01L29/7436
    • Switching operations, such as those used in memory devices, are enhanced using a thyristor-based semiconductor device adapted to switch between a blocking state and a conducting state. According to an example embodiment of the present invention, a thyristor-based semiconductor device includes a thyristor having first and second base regions coupled between first and second emitter regions, respectively. A first control port capacitively couples a first signal to the first base region, and a second control port capacitively couples a second signal to the second base region. Each of the first and second signals have a charge that is opposite in polarity, and the opposite polarity signals effect the switching of the thyristor at a lower power, relative to the power that would be required to switch the thyristor having only one control port. In this manner, power consumption for a switching operation can be reduced, which is useful, for example, to correspond with reduced power supplied to other devices in a semiconductor device employing the thyristor.
    • 使用适于在阻塞状态和导通状态之间切换的基于晶闸管的半导体器件来增强诸如存储器件中使用的切换操作。 根据本发明的示例性实施例,基于晶闸管的半导体器件包括分别具有耦合在第一和第二发射极区之间的第一和第二基极区域的晶闸管。 第一控制端口将第一信号电容耦合到第一基区,并且第二控制端口将第二信号电容耦合到第二基区。 第一和第二信号中的每一个具有极性相反的电荷,相反的极性信号相对于仅具有一个控制端口的晶闸管所需的功率,以较低的功率影响晶闸管的开关。 以这种方式,可以减少用于开关操作的功耗,这对于例如提供给采用晶闸管的半导体器件中的其它器件的降低的功率是有用的。
    • 10. 发明授权
    • Self-aligned thin capacitively-coupled thyristor structure
    • 自对准薄电容耦合晶闸管结构
    • US07125753B1
    • 2006-10-24
    • US11159738
    • 2005-06-23
    • Andrew HorchScott RobinsFarid Nemati
    • Andrew HorchScott RobinsFarid Nemati
    • H01L21/332
    • H01L29/7436H01L29/66393
    • A semiconductor memory device having a thyristor is manufactured in a manner that makes possible self-alignment of one or more portions of the thyristor. According to an example embodiment of the present invention, a gate is formed over a first portion of doped substrate. The gate is used to mask a portion of the doped substrate and a second portion of the substrate is doped before or after a spacer is formed. After the second portion of the substrate is doped, the spacer is then formed adjacent to the gate and used to mask the second portion of the substrate while a third portion of the substrate is doped. The gate and spacer are thus used to form self-aligned doped portions of the substrate, wherein the first and second portions form base regions and the third portion form an emitter region of a thyristor. In another implementation, the spacer is also adapted to prevent formation of salicide on the portion of the thyristor beneath the spacer, self-aligning the salicide to the junction between the second and third portions. In addition, dimensions such as width and other characteristics of the doped portions that are used to form a thyristor can be controlled without necessarily using a separate mask.
    • 制造具有晶闸管的半导体存储器件以能够使晶闸管的一个或多个部分自对准的方式。 根据本发明的示例性实施例,在掺杂衬底的第一部分上形成栅极。 栅极用于掩模掺杂衬底的一部分,并且衬底的第二部分在形成间隔物之前或之后被掺杂。 在衬底的第二部分被掺杂之后,然后在衬底的第三部分被掺杂的同时,将衬底形成为邻近栅极并用于掩蔽衬底的第二部分。 因此,栅极和间隔物用于形成衬底的自对准掺杂部分,其中第一和第二部分形成基极区域,第三部分形成晶闸管的发射极区域。 在另一实施方案中,间隔物还适于防止在间隔物下方的可控硅部分上形成自对准硅化物,使自对准硅化物与第二和第三部分之间的连接处。 此外,可以控制用于形成晶闸管的掺杂部分的宽度和其它特性的尺寸,而不必使用单独的掩模。