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    • 3. 发明授权
    • Digital-to-analog converter, display panel driver having the same, and digital-to-analog converting method
    • 数模转换器,具有相同功能的显示面板驱动器和数 - 模转换方法
    • US07573411B2
    • 2009-08-11
    • US12007333
    • 2008-01-09
    • Yun-seung ShinJu-hyun Ko
    • Yun-seung ShinJu-hyun Ko
    • H03M1/68G09G5/10
    • H03M1/667H03M1/662H03M1/682H03M1/765
    • A digital-to-analog converter outputting an analog data voltage corresponding to n-bit data, includes a chopping amplification unit adapted to receive an upper bit voltage corresponding to upper x bits of the n-bit data and a lower bit voltage corresponding to lower y bits of the n-bit data and to output the analog data voltage. The chopping amplification unit may include a sample and hold capacitor adapted to be charged with the upper bit voltage in a non-inverting mode, and a chopping amplifier adapted to supply the upper bit voltage to the sample and hold capacitor in the non-inverting mode and adapted to output a voltage corresponding to the sum of the upper bit voltage and the lower bit voltage as the analog data voltage in an inverting mode.
    • 输出对应于n位数据的模拟数据电压的数模转换器包括斩波放大单元,其适于接收对应于n位数据的高x位的高位电压和对应于低位的低位电压 y比特数据,并输出模拟数据电压。 斩波放大单元可以包括适于以非反相模式对高位电压进行充电的采样和保持电容器,以及斩波放大器,其适于以非反相模式将采样和保持电容器提供高位电压 并且适于在反相模式中输出对应于高位电压和低位电压之和的电压作为模拟数据电压。
    • 4. 发明申请
    • Magnetoresistive RAM and associated methods
    • 磁阻RAM及相关方法
    • US20080074917A1
    • 2008-03-27
    • US11902711
    • 2007-09-25
    • Woo-yeong ChoYun-seung Shin
    • Woo-yeong ChoYun-seung Shin
    • G11C11/02
    • G11C11/1675G11C11/1655G11C11/1659Y10S977/935
    • A magnetoresistive random access memory (RAM) may include a plurality of variable resistance devices, a plurality of read bitlines electrically connected to respective variable resistance devices, and a plurality of write bitlines alternating with the read bitlines. The magnetoresistive RAM may be configured to apply a first write current through a first write bitline adjacent to a first variable resistance device when writing a first data to the first variable resistance device, and apply a first inhibition current through a second write bitline adjacent to a second variable resistance device, the second variable resistance device being adjacent to the first write bitline, and between the first write bitline and the second write bitline, and the first write current and the first inhibition current flowing in a same direction.
    • 磁阻随机存取存储器(RAM)可以包括多个可变电阻器件,电连接到相应的可变电阻器件的多个读位线以及与读位线交替的多个写位线。 磁阻RAM可以被配置为当向第一可变电阻器件写入第一数据时,通过与第一可变电阻器件相邻的第一写入位线施加第一写入电流,并且将第一写入电流施加到与第一可写入位置相邻的第二写入位置 第二可变电阻器件,第二可变电阻器件与第一写入位线相邻,第一写入位线和第二写入位线之间以及第一写入电流和第一抑制电流沿相同的方向流动。
    • 5. 发明授权
    • Method of operating a magnetoresistive RAM
    • 操作磁阻RAM的方法
    • US07952918B2
    • 2011-05-31
    • US12875297
    • 2010-09-03
    • Woo-yeong ChoYun-seung Shin
    • Woo-yeong ChoYun-seung Shin
    • G11C11/00
    • G11C11/1675G11C11/1655G11C11/1659Y10S977/935
    • A magnetoresistive random access memory (RAM) may include a plurality of variable resistance devices, a plurality of read bitlines electrically connected to respective variable resistance devices, and a plurality of write bitlines alternating with the read bitlines. The magnetoresistive RAM may be configured to apply a first write current through a first write bitline adjacent to a first variable resistance device when writing a first data to the first variable resistance device, and apply a first inhibition current through a second write bitline adjacent to a second variable resistance device, the second variable resistance device being adjacent to the first write bitline, and between the first write bitline and the second write bitline, and the first write current and the first inhibition current flowing in a same direction.
    • 磁阻随机存取存储器(RAM)可以包括多个可变电阻器件,电连接到相应的可变电阻器件的多个读位线以及与读位线交替的多个写位线。 磁阻RAM可以被配置为当向第一可变电阻器件写入第一数据时,通过与第一可变电阻器件相邻的第一写入位线施加第一写入电流,并且将第一写入电流施加到与第一可写入位置相邻的第二写入位置 第二可变电阻器件,第二可变电阻器件与第一写入位线相邻,第一写入位线和第二写入位线之间以及第一写入电流和第一抑制电流沿相同的方向流动。
    • 7. 发明授权
    • Method for forming a device isolation film of a semiconductor device
    • 用于形成半导体器件的器件隔离膜的方法
    • US5523255A
    • 1996-06-04
    • US455646
    • 1995-05-31
    • Yong-woo HyungDon-young KuByung-hong ChungYong-oon HwangHung-mo YangYun-seung Shin
    • Yong-woo HyungDon-young KuByung-hong ChungYong-oon HwangHung-mo YangYun-seung Shin
    • H01L21/316H01L21/318H01L21/32H01L21/76
    • H01L21/32Y10S438/911
    • A method for forming a device isolation film of a semiconductor device, which includes the steps of forming a pad oxide film on a semiconductor substrate, forming an oxidation buffer layer on the pad oxide film, forming an oxidation prevention film on the oxidation buffer layer, forming an aperture in the oxidation prevention film and a longitudinally co-extensive recess in the oxidation buffer layer, to thereby expose a portion of the oxidation buffer layer, forming a cap oxide film on the exposed portion of the oxidation buffer layer by subjecting a first resultant structure obtained by the preceding steps to a thermal oxidation process, forming an oxynitride film at an interface between the cap oxide film and the oxidation buffer layer by heat-treating a second resultant structure obtained by the preceding steps in a nitrogen atmosphere, and, forming the device isolation film by subjecting a third resultant structure obtained by the preceding steps to a thermal oxidation process.
    • 一种形成半导体器件的器件隔离膜的方法,包括以下步骤:在半导体衬底上形成衬垫氧化膜,在衬垫氧化膜上形成氧化缓冲层,在氧化缓冲层上形成氧化防止膜, 在氧化防止膜中形成孔,在氧化缓冲层中形成纵向共同延伸的凹部,从而暴露出氧化缓冲层的一部分,在氧化缓冲层的暴露部分上形成帽氧化膜, 通过前述步骤获得的热成型结构,通过在氮气气氛中热处理由前述步骤获得的第二结果结构,在盖氧化膜和氧化缓冲层之间的界面处形成氧氮化物膜, 通过将由前述步骤获得的第三结果结构进行热氧化处理来形成器件隔离膜。
    • 8. 发明授权
    • Methods including oxide masks for fabricating capacitor structures for
integrated circuit devices
    • 包括用于制造用于集成电路器件的电容器结构的氧化物掩模的方法
    • US5960293A
    • 1999-09-28
    • US806080
    • 1997-02-25
    • Weon-cheol HongYun-seung Shin
    • Weon-cheol HongYun-seung Shin
    • H01L27/04H01L21/822H01L21/8242H01L27/108
    • H01L27/10852H01L27/10817
    • A method for forming a capacitor for an integrated circuit device includes the following steps. An interlayer dielectric layer is formed on a substrate, and a contact hole is formed in the interlayer dielectric layer. A first conductive layer is then formed on the interlayer dielectric layer, wherein the first conductive layer is electrically connected to the substrate through the contact hole. A hole having a depth less than the thickness of the first conductive layer is etched in the first conductive layer. An insulating layer is formed in the hole and the first conductive layer is then etched to a predetermined depth using the insulating layer as an etching mask to expose a side wall of an upper portion of the insulating layer. A spacer is formed on the side wall of the upper portion of the insulating layer. The first conductive layer is then etched using the insulating layer and the spacer as etching marks to form an electrode structure. The insulating layer and spacer are then removed. Lastly, the capacitor is completed by forming a dielectric layer on the electrode structure and then forming a second conductive layer on the dielectric layer.
    • 一种用于形成用于集成电路器件的电容器的方法包括以下步骤。 在基板上形成层间电介质层,在层间电介质层中形成接触孔。 然后在层间电介质层上形成第一导电层,其中第一导电层通过接触孔与基板电连接。 在第一导电层中蚀刻深度小于第一导电层的厚度的孔。 在孔中形成绝缘层,然后使用绝缘层作为蚀刻掩模将第一导电层蚀刻到预定深度,以暴露绝缘层的上部的侧壁。 在绝缘层的上部的侧壁上形成间隔物。 然后使用绝缘层和间隔物作为蚀刻标记来蚀刻第一导电层以形成电极结构。 然后去除绝缘层和间隔物。 最后,通过在电极结构上形成电介质层,然后在电介质层上形成第二导电层来完成电容器。
    • 9. 发明授权
    • Methods for forming vertical electrode structures and related structures
    • 形成垂直电极结构和相关结构的方法
    • US5930621A
    • 1999-07-27
    • US806065
    • 1997-02-25
    • Dug-Dong KangYun-seung Shin
    • Dug-Dong KangYun-seung Shin
    • H01L27/04H01L21/822H01L21/8242H01L27/108
    • H01L27/10852H01L27/10817
    • A method for forming an electrode for an integrated circuit device includes the steps of forming a first conductive layer on a surface of a microelectronic substrate, and forming a patterned photoresist layer on the first conductive layer. A spacer is formed along sidewalls of the patterned photoresist layer, and the first conductive layer is etched to a predetermined depth less than a thickness of the first conductive layer using the patterned photoresist layer and the spacer as an etch mask thereby defining a hole in the first conductive layer. A protective layer is formed in the hole which covers exposed portions of the first conductive layer, and the patterned photoresist layer is removed. The first conductive layer is then etched using the spacer and the protective layer as an etching mask to form a vertical electrode structure. Related structures are also discussed.
    • 一种形成集成电路器件电极的方法包括以下步骤:在微电子衬底的表面上形成第一导电层,并在第一导电层上形成图案化的光致抗蚀剂层。 沿图案化的光致抗蚀剂层的侧壁形成间隔物,并且使用图案化的光致抗蚀剂层和间隔物作为蚀刻掩模,将第一导电层蚀刻到小于第一导电层的厚度的预定深度,从而在 第一导电层。 在该孔中形成保护层,其覆盖第一导电层的暴露部分,并去除图案化的光致抗蚀剂层。 然后使用间隔物和保护层作为蚀刻掩模蚀刻第一导电层以形成垂直电极结构。 还讨论了相关结构。
    • 10. 发明授权
    • Small-sized static random access memory cell
    • 小型静态随机存取存储单元
    • US5852572A
    • 1998-12-22
    • US906270
    • 1997-08-05
    • Soon-moon JungYun-seung Shin
    • Soon-moon JungYun-seung Shin
    • G11C11/413G11C11/412H01L21/8244H01L27/11G11C11/34
    • G11C11/412
    • A SRAM cell includes a single line used as both a word line and a power supply voltage line, a first and a second load element, a first and a second NMOS driver transistor, and a first and a second PMOS access transistor. Each of the two load elements is connected between the line and one of two storage nodes. The first load element is connected between the single line and a first storage node. The second load element is connected between the single line and a second storage node. The first NMOS driver transistor is connected between the first storage node and ground. The second driver transistor is connected between the second storage node and ground. The first access transistor is connected between the first storage node and a bit line and the second access transistor is connected between the second storage node and a complementary bit line. The first and second access transistors have gates commonly connected to the single line. The layout of the SRAM cell is simplified and the cell layout area is reduced because a single line is used as both the power supply voltage line and the word line.
    • SRAM单元包括用作字线和电源电压线,第一和第二负载元件,第一和第二NMOS驱动晶体管以及第一和第二PMOS存取晶体管的单线。 两个负载元件中的每一个连接在线路和两个存储节点中的一个之间。 第一负载元件连接在单线和第一存储节点之间。 第二负载元件连接在单线和第二存储节点之间。 第一个NMOS驱动晶体管连接在第一个存储节点和地之间。 第二驱动晶体管连接在第二存储节点和地之间。 第一存取晶体管连接在第一存储节点和位线之间,第二存取晶体管连接在第二存储节点和互补位线之间。 第一和第二存取晶体管具有通常连接到单线的门。 由于单电源线作为电源电压线和字线,因此简化了SRAM单元的布局,并且单元布局面积减小。