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    • 1. 发明授权
    • Multi-threshold CMOS latch circuit
    • 多阈值CMOS锁存电路
    • US07391249B2
    • 2008-06-24
    • US11607743
    • 2006-12-01
    • Dae Woo LeeYil Suk YangGyu Hyun KimSoon Il YeoJong Dae Kim
    • Dae Woo LeeYil Suk YangGyu Hyun KimSoon Il YeoJong Dae Kim
    • H03K3/289
    • H03K3/356156H03K3/012
    • Provided is a multi-threshold complementary metal oxide semiconductor (MTCMOS) latch circuit including: a data inverting circuit for inverting and outputting input data under the control of a sleep control signal; a transmission gate for transferring the data signal output from the data inverting circuit under the control of a clock control signal; a signal control circuit for outputting the data signal output from the transmission gate under the control of a reset control signal and the sleep control signal; and a feedback circuit for feeding back the signal output from the signal control circuit and preserving the data in a sleep mode. The MTCMOS latch circuit can minimize power consumption caused by a leakage current due to elements scaled down to nano scale and also contribute to high-speed operation of a logic circuit by using an element having a low threshold voltage.
    • 提供了一种多阈值互补金属氧化物半导体(MTCMOS)锁存电路,包括:数据反相电路,用于在睡眠控制信号的控制下反相输出输入数据; 传输门,用于在时钟控制信号的控制下传送从数据反相电路输出的数据信号; 信号控制电路,用于在复位控制信号和睡眠控制信号的控制下输出从传输门输出的数据信号; 以及用于反馈从信号控制电路输出的信号并且以睡眠模式保存数据的反馈电路。 MTCMOS锁存电路可以将由于按比例缩小到纳米级的元件引起的漏电流引起的功耗最小化,并且还通过使用具有低阈值电压的元件有助于逻辑电路的高速操作。
    • 2. 发明申请
    • Multi-threshold CMOS latch circuit
    • 多阈值CMOS锁存电路
    • US20070126486A1
    • 2007-06-07
    • US11607743
    • 2006-12-01
    • Dae Woo LeeYil Suk YangGyu Hyun KimSoon Il YeoJong Dae Kim
    • Dae Woo LeeYil Suk YangGyu Hyun KimSoon Il YeoJong Dae Kim
    • H03K3/00
    • H03K3/356156H03K3/012
    • Provided is a multi-threshold complementary metal oxide semiconductor (MTCMOS) latch circuit including: a data inverting circuit for inverting and outputting input data under the control of a sleep control signal; a transmission gate for transferring the data signal output from the data inverting circuit under the control of a clock control signal; a signal control circuit for outputting the data signal output from the transmission gate under the control of a reset control signal and the sleep control signal; and a feedback circuit for feeding back the signal output from the signal control circuit and preserving the data in a sleep mode. The MTCMOS latch circuit can minimize power consumption caused by a leakage current due to elements scaled down to nano scale and also contribute to high-speed operation of a logic circuit by using an element having a low threshold voltage.
    • 提供了一种多阈值互补金属氧化物半导体(MTCMOS)锁存电路,包括:数据反相电路,用于在睡眠控制信号的控制下反相输出输入数据; 传输门,用于在时钟控制信号的控制下传送从数据反相电路输出的数据信号; 信号控制电路,用于在复位控制信号和睡眠控制信号的控制下输出从传输门输出的数据信号; 以及用于反馈从信号控制电路输出的信号并且以睡眠模式保存数据的反馈电路。 MTCMOS锁存电路可以将由于按比例缩小到纳米级的元件引起的漏电流引起的功耗最小化,并且还通过使用具有低阈值电压的元件有助于逻辑电路的高速操作。
    • 3. 发明申请
    • Pixel driving circuit with threshold voltage compensation circuit
    • 带阈值电压补偿电路的像素驱动电路
    • US20070126663A1
    • 2007-06-07
    • US11521338
    • 2006-09-14
    • Gyu Hyun KimYil Suk YangDae Woo LeeJong Dae Kim
    • Gyu Hyun KimYil Suk YangDae Woo LeeJong Dae Kim
    • G09G3/30
    • G09G3/3241G09G3/3283G09G2300/0819G09G2300/0842
    • Provided is a pixel driving circuit including a threshold voltage compensation circuit. The pixel driving circuit includes a diode-connected type first transistor through which input current data flows; a second transistor copying the current data flowing through the first transistor; a third transistor connected in series to the second transistor; a fourth transistor diode-connected between a power supply voltage terminal and the third transistor; and a driving transistor connected to the power supply voltage terminal, copying the current data flowing through the third transistor, and providing the data to a light emitting diode. Since the pixel driving circuit compensates for variation in the threshold voltage of the driving transistor driving each pixel, brightness uniformity of pixels according to applied current data can be maintained.
    • 提供了包括阈值电压补偿电路的像素驱动电路。 像素驱动电路包括输入电流数据流过的二极管连接型第一晶体管; 第二晶体管复制流过第一晶体管的电流数据; 与第二晶体管串联连接的第三晶体管; 连接在电源电压端子和第三晶体管之间的第四晶体管二极管; 以及连接到电源电压端子的驱动晶体管,复制流过第三晶体管的电流数据,并将数据提供给发光二极管。 由于像素驱动电路补偿驱动每个像素的驱动晶体管的阈值电压的变化,所以可以保持根据所施加的当前数据的像素的亮度均匀性。
    • 5. 发明申请
    • Highly energy-efficient processor employing dynamic voltage scaling
    • 采用动态电压调节的高能效处理器
    • US20070150763A1
    • 2007-06-28
    • US11520177
    • 2006-09-13
    • Yil Suk YangJong Dae KimSoon Il YeoChun Gi Lyuh
    • Yil Suk YangJong Dae KimSoon Il YeoChun Gi Lyuh
    • G06F1/00
    • G06F1/3203G06F1/3287G06F1/3293G06F1/3296Y02D10/122Y02D10/171Y02D10/172Y02D50/20
    • Provided is a highly energy-efficient processor architecture. The architecture employs 2-stage dynamic voltage scaling (DVS) and a sleep mode for high energy efficiency, dynamically controls the power supply voltage and activation of an embedded processor with instructions, and thus can prevent performance deterioration while reducing power consumption.A highly energy-efficient processor employing the processor architecture includes: a function unit block for performing an operation according to instructions input from the outside; at least one peripheral unit block for performing data communication with an external device; an instruction decoder for interpreting the input instructions and determining operation modes of the function unit block and peripheral unit block required for executing the interpreted instructions; a function unit block driver for applying a different power supply voltage according to the operation mode of the function unit block to the function unit block; and a peripheral unit block driver for applying a different power supply voltage according to the operation mode of the peripheral unit block to the peripheral unit block.
    • 提供了一种高能效的处理器架构。 该架构采用2级动态电压调节(DVS)和睡眠模式以实现高能效,通过指令动态控制电源电压和嵌入式处理器的激活,从而可以在降低功耗的同时防止性能下降。 采用该处理器架构的高能效处理器包括:功能单元块,用于根据从外部输入的指令进行操作; 用于与外部设备进行数据通信的至少一个外围单元块; 用于解释输入指令并确定执行解释指令所需的功能单元块和外围单元块的操作模式的指令解码器; 功能单元块驱动器,用于根据功能单元块的操作模式将不同的电源电压施加到功能单元块; 以及外围单元块驱动器,用于根据外围单元块的操作模式向外围单元块施加不同的电源电压。
    • 6. 发明授权
    • Highly energy-efficient processor employing dynamic voltage scaling
    • 采用动态电压调节的高能效处理器
    • US07805620B2
    • 2010-09-28
    • US11520177
    • 2006-09-13
    • Yil Suk YangJong Dae KimSoon Il YeoChun Gi Lyuh
    • Yil Suk YangJong Dae KimSoon Il YeoChun Gi Lyuh
    • G06F1/00
    • G06F1/3203G06F1/3287G06F1/3293G06F1/3296Y02D10/122Y02D10/171Y02D10/172Y02D50/20
    • Provided is a highly energy-efficient processor architecture. The architecture employs 2-stage dynamic voltage scaling (DVS) and a sleep mode for high energy efficiency, dynamically controls the power supply voltage and activation of an embedded processor with instructions, and thus can prevent performance deterioration while reducing power consumption.A highly energy-efficient processor employing the processor architecture includes: a function unit block for performing an operation according to instructions input from the outside; at least one peripheral unit block for performing data communication with an external device; an instruction decoder for interpreting the input instructions and determining operation modes of the function unit block and peripheral unit block required for executing the interpreted instructions; a function unit block driver for applying a different power supply voltage according to the operation mode of the function unit block to the function unit block; and a peripheral unit block driver for applying a different power supply voltage according to the operation mode of the peripheral unit block to the peripheral unit block.
    • 提供了一种高能效的处理器架构。 该架构采用2级动态电压调节(DVS)和睡眠模式以实现高能效,通过指令动态控制电源电压和嵌入式处理器的激活,从而可以在降低功耗的同时防止性能下降。 采用该处理器架构的高能效处理器包括:功能单元块,用于根据从外部输入的指令进行操作; 用于与外部设备进行数据通信的至少一个外围单元块; 用于解释输入指令并确定执行解释指令所需的功能单元块和外围单元块的操作模式的指令解码器; 功能单元块驱动器,用于根据功能单元块的操作模式将不同的电源电压施加到功能单元块; 以及外围单元块驱动器,用于根据外围单元块的操作模式向外围单元块施加不同的电源电压。
    • 8. 发明授权
    • Method for fabricating a high-voltage high-power integrated circuit device
    • 高压大功率集成电路器件的制造方法
    • US06855581B2
    • 2005-02-15
    • US10153975
    • 2002-05-23
    • Tae Moon RohDae Woo LeeYil Suk YangIl Yong ParkSang Gi KimJin Gun KooJong Dae Kim
    • Tae Moon RohDae Woo LeeYil Suk YangIl Yong ParkSang Gi KimJin Gun KooJong Dae Kim
    • H01L21/76H01L21/84H01L27/12
    • H01L27/1203H01L21/84
    • The present invention relates to a method of fabricating a high-voltage high-power integrated circuit device using a substrate of a SOI structure in which an insulating film and a silicon layer are sequentially stacked on a silicon substrate. The method comprising the steps of sequentially forming an oxide film and a photoresist film on the silicon layer and then performing a photolithography process using a trench mask to pattern the photoresist film; patterning the oxide film using the patterned photoresist film as a mask and then removing the photoresist film remained after the patterning; etching the silicon layer using the patterned oxide film as a mask until the insulating film is exposed to form a trench; forming a nitride film on the entire surface including the trench, performing an annealing process and depositing polysilicon on the entire surface so that the trench is buried; and sequentially removing the polysilicon and the nitride film until the silicon layer is exposed to flatten the surface, thus forming a device isolating film for electrical isolation between devices within the trench. Therefore, the present invention can effectively reduce the isolation area of the trench between the high-voltage high-power device and the logic CMOS device and can easily control the concentration of a deep well.
    • 本发明涉及使用其中绝缘膜和硅层依次层叠在硅衬底上的SOI结构的衬底的高压大功率集成电路器件的制造方法。 该方法包括以下步骤:在硅层上依次形成氧化物膜和光致抗蚀剂膜,然后使用沟槽掩模进行光刻工艺以对光刻胶膜进行图案化; 使用图案化的光致抗蚀剂膜作为掩模来图案化氧化膜,然后在图案化之后除去光致抗蚀剂膜; 使用所述图案化氧化膜作为掩模蚀刻所述硅层,直到所述绝缘膜暴露以形成沟槽; 在包括沟槽的整个表面上形成氮化物膜,执行退火处理并在整个表面上沉积多晶硅,使得沟槽被埋置; 并且顺序地去除多晶硅和氮化物膜,直到硅层暴露以使表面变平,从而形成用于在沟槽内的器件之间进行电隔离的器件隔离膜。 因此,本发明能够有效地降低高压大功率器件与逻辑CMOS器件之间的沟槽的隔离面积,能够容易地控制深井的浓度。