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    • 1. 发明申请
    • Power-gating cell for virtual power rail control
    • 用于虚拟电源轨控制的电源门控单元
    • US20060055391A1
    • 2006-03-16
    • US10926597
    • 2004-08-26
    • Jente KuangJethro LawHung NgoKevin Nowka
    • Jente KuangJethro LawHung NgoKevin Nowka
    • F02P3/02
    • H03K19/0016
    • Virtual power-gated cells (VPC) are configured with control circuitry for buffering control signals and a power-gated block (PGB) comprising two or more NFETs for virtual ground rail nodes and PFETs for virtual positive rail nodes. Each VPC has a control voltage input, a control voltage output, a node coupled to a power supply voltage potential, and a virtual power-gated node that is coupled and decoupled from the power supply potential in response to logic states on the control input. The control signals are buffered by non-power-gated inverters before being applied to the input of a PGB. VPCs may propagate a control signal that is in phase with or inverted from a corresponding control signal at the control input. VPCs may be cascaded to create virtual power rails in chains and power grids. The control signals are latched at the cell boundaries or latched in response to a clock signal.
    • 虚拟功率门控单元(VPC)配置有用于缓冲控制信号的控制电路和包括用于虚拟接地轨道节点的两个或更多个NFET的功率门控块(PGB),以及用于虚拟正轨节点的PFET。 每个VPC具有控制电压输入,控制电压输出,耦合到电源电压电位的节点以及响应于控制输入上的逻辑状态与电源电位耦合和去耦合的虚拟电源门控节点。 在施加到PGB的输入之前,控制信号由非电源门控的逆变器进行缓冲。 VPC可以传播与控制输入处的相应控制信号同相或反相的控制信号。 VPC可以级联以在链和电网中创建虚拟电源轨。 控制信号在单元边界被锁存或响应于时钟信号锁存。
    • 2. 发明申请
    • Cascaded test circuit with inter-bitline drive devices for evaluating memory cell performance
    • 级联测试电路采用位线驱动器件,用于评估存储单元性能
    • US20070237012A1
    • 2007-10-11
    • US11250061
    • 2005-10-13
    • Jente KuangJerry KaoHung NgoKevin Nowka
    • Jente KuangJerry KaoHung NgoKevin Nowka
    • G11C7/00
    • G11C29/50G11C11/41G11C29/50012G11C2029/1204
    • A cascaded test circuit with inter-bitline drive devices for evaluating memory cell performance provides for circuit delay and performance measurements in an actual memory circuit environment. A row in a memory array is enabled along with a set of drive devices that couple each bitline pair to the next in complement fashion to form a cascade of memory cells. The drive devices can be inverters and the inverters can be sized to simulate the bitline read pre-charge device and the write state-forcing device so that the cascade operates under the same loading/drive conditions as the operational with memory cell read/write circuits. The last and first bitline in the row can be cascaded, providing a ring oscillator or the delay of the cascade can be measured in response to a transition introduced at the head of the cascade. Weak read and/or weak write conditions can be measured by selective loading.
    • 具有用于评估存储器单元性能的位线驱动装置的级联测试电路在实际存储器电路环境中提供电路延迟和性能测量。 存储器阵列中的行与一组驱动装置一起被启用,这些驱动装置将每个位线对以互补方式耦合到下一个位置以形成级联的存储器单元。 驱动装置可以是逆变器,并且逆变器的大小可以模拟位线读取预充电装置和写入状态强制装置,使得级联在与存储单元读/写电路的操作相同的加载/驱动条件下操作 。 该行中的最后一个和第一个位线可以级联,提供环形振荡器,或者响应于在级联头部引入的转换,可以测量级联的延迟。 弱写入条件和/或弱写入条件可以通过选择性加载来测量。
    • 3. 发明申请
    • Fast turn-off circuit for controlling leakage
    • 用于控制泄漏的快速关断电路
    • US20060061388A1
    • 2006-03-23
    • US10948444
    • 2004-09-23
    • Jente KuangHung NgoKevin Nowka
    • Jente KuangHung NgoKevin Nowka
    • H03K19/094
    • H03K19/0013H03K19/01721
    • A buffer, logic circuit, and data processing system employing fast turn-off drive circuitry for reducing leakage. Leakage current in logic circuitry is managed by coupling and decoupling the voltage potentials applied to large, high-leakage devices. Circuitry includes a low leakage logic path for holding logic states of an output after turning off high-leakage devices. A fast turn-off logic path in parallel with the low leakage logic path is used to assert each logic state in the forward direction from input to output. The large output device in each fast turn-off path is relieved of leakage stress by asserting logic states at driver inputs that cause the driver to turn OFF after the output logic state has been asserted.
    • 缓冲器,逻辑电路和数据处理系统采用快速关断驱动电路来减少泄漏。 逻辑电路中的泄漏电流通过耦合和去耦合施加到大型高漏电器件的电压来进行管理。 电路包括一个低泄漏逻辑路径,用于在关闭高漏电器件之后保持输出的逻辑状态。 使用与低泄漏逻辑路径并行的快速关断逻辑路径来断言从输入到输出的正向的每个逻辑状态。 在每个快速关闭路径中的大输出设备通过在驱动器输入端断言逻辑状态来消除泄漏应力,导致在输出逻辑状态被置位之后驱动器关闭。
    • 4. 发明申请
    • Dynamic leakage control circuit
    • 动态泄漏控制电路
    • US20060059376A1
    • 2006-03-16
    • US10942419
    • 2004-09-16
    • Hung NgoJente KuangKevin NowkaRajiv Joshi
    • Hung NgoJente KuangKevin NowkaRajiv Joshi
    • G06F1/26
    • G06F1/3228
    • A low power consumption pipeline circuit architecture has power partitioned pipeline stages. The first pipeline stage is non-power-gated for fast response in processing input data after receipt of a valid data signal. A power-gated second pipeline stage has two power-gated modes. Normally the power rail in the power-gated second pipeline stage is charged to a first voltage potential of a pipeline power supply. In the first power gated mode, the power rail is charged to a threshold voltage below the first voltage potential to reduce leakage. In the second power gated mode. the power rail is decoupled from the first voltage potential. A power-gated third pipeline stage has its power rail either coupled to the first voltage potential or power-gated where its power rail is decoupled from the first voltage potential. The power rail of the second power-gated pipeline stage charges to the first voltage potential before the third power-gated pipeline stage.
    • 低功耗流水线电路架构具有电源分配管线级。 第一个流水线阶段是非功率门控,用于在接收到有效的数据信号后处理输入数据的快速响应。 电源门控第二管道级具有两个电源门控模式。 通常,电源门控第二管线级中的电源轨被充电到管线电源的第一电压电位。 在第一电源门控模式中,电力轨被充电到低于第一电压电位的阈值电压以减少泄漏。 在第二电源门控模式下。 电源轨与第一电压电位分离。 电源门控第三管线级具有其电源轨或者耦合到第一电压电势或电源门控,其电源轨与第一电压电势分离。 第二电力门控管道阶段的电力轨道在第三电力门控管道阶段之前充电到第一电压电位。
    • 5. 发明申请
    • SELF LIMITING GATE LEAKAGE DRIVER
    • 自我限制闸门泄漏驱动器
    • US20050242840A1
    • 2005-11-03
    • US10835501
    • 2004-04-29
    • Hung NgoJente KuangKevin Nowka
    • Hung NgoJente KuangKevin Nowka
    • H03K19/003H03K19/017H03K19/094
    • H03K19/01721H03K19/00361
    • A buffer/driver having large output devices for driving multiple loads is configured with three parallel paths. The first logic path is made of small devices and is configured to provide the logic function of the buffer without the ability to drive large loads. Second and third logic paths have the logic function of the first logic path up to the last inverting stage. The last inverting stage in each path is a single device for driving the logic states of the buffer output. The second and third logic paths have power-gating that allows the input to the pull-up and pull-down devices to float removing gate-leakage voltage stress. When the second and third logic paths are power-gated, the first logic path provides a keeper function to hold the logic state of the buffer output. The buffer may be an inverter, non-inverter, or provide a multiple input logic function.
    • 具有用于驱动多个负载的大输出装置的缓冲器/驱动器被配置有三个并行路径。 第一个逻辑路径由小型设备组成,并配置为提供缓冲区的逻辑功能,无需驱动大负载。 第二和第三逻辑路径具有直到最后一个反相级的第一逻辑路径的逻辑功能。 每个路径中的最后一个反相级是用于驱动缓冲区输出逻辑状态的单个器件。 第二和第三逻辑路径具有电源门控,允许上拉和下拉器件的输入漂移去除栅极泄漏电压应力。 当第二和第三逻辑路径是电源门控时,第一逻辑路径提供保持器功能以保持缓冲器输出的逻辑状态。 缓冲器可以是逆变器,非逆变器,或提供多输入逻辑功能。
    • 6. 发明申请
    • BUFFER/DRIVER CIRCUITS
    • 缓冲/驱动电路
    • US20050225352A1
    • 2005-10-13
    • US10821048
    • 2004-04-08
    • Jente KuangHung NgoKevin Nowka
    • Jente KuangHung NgoKevin Nowka
    • H03K17/16H03K19/00H03K19/003H03K19/017
    • H03K19/00361H03K19/0016H03K19/01721
    • A buffer/driver having large output devices for driving multiple loads is configured with three parallel paths. The first logic path is made of small devices and is configured to provide the logic function of the buffer/driver without the ability to drive large loads. Second and third logic paths have the logic function of the first logic path up to the last inverting stage. The last inverting stage in each path is a single device for driving the logic states of the buffer output. The second and third logic paths have power-gating that allows the input to the pull-up and pull-down devices to float removing gate-leakage voltage stress. When the second and third logic paths are power-gated, the first logic path provides a keeper function to hold the logic state of the buffer output. The buffer/driver may be an inverter, non-inverter, or provide a multiple input logic function.
    • 具有用于驱动多个负载的大输出装置的缓冲器/驱动器被配置有三个并行路径。 第一个逻辑路径由小型设备组成,并配置为提供缓冲器/驱动器的逻辑功能,而无需驱动大负载。 第二和第三逻辑路径具有直到最后一个反相级的第一逻辑路径的逻辑功能。 每个路径中的最后一个反相级是用于驱动缓冲区输出逻辑状态的单个器件。 第二和第三逻辑路径具有电源门控,允许上拉和下拉器件的输入漂移去除栅极泄漏电压应力。 当第二和第三逻辑路径是电源门控时,第一逻辑路径提供保持器功能以保持缓冲器输出的逻辑状态。 缓冲器/驱动器可以是逆变器,非逆变器,或提供多输入逻辑功能。
    • 10. 发明申请
    • Voltage controlled oscillator using dual gated asymmetrical FET devices
    • 使用双门控不对称FET器件的压控振荡器
    • US20070040621A1
    • 2007-02-22
    • US11204412
    • 2005-08-16
    • Hung NgoChing-Te ChuangKeunwoo KimJente KuangKevin Nowka
    • Hung NgoChing-Te ChuangKeunwoo KimJente KuangKevin Nowka
    • H03K3/03
    • H03K3/0315
    • A ring oscillator is formed using inverting stages configured from asymmetrical dual gated FET (ADG-FET) devices. The simplest form uses an odd number of CMOS inverter stages configured with an ADG-PFET and an ADG-NFET. The front gates are used as the logic inputs and are coupled to preceeding outputs from the main ring. The back gates of the ADG-PFET devices are coupled to a first control voltage and the back gates of the ADG-NFET devices are coupled to a second control voltage that is the complement of the first control voltage referenced to an off-set voltage. Other configurations of logic inverting stages using ADG-FET devices may also be used. The control voltage is varied to modulate the current level set by the logic state at the inputs coupled to the front gates.
    • 使用由不对称双门控FET(ADG-FET)器件配置的反相级形成环形振荡器。 最简单的形式使用由ADG-PFET和ADG-NFET配置的奇数CMOS反相器级。 前门用作逻辑输入,并连接到主环的前一个输出。 ADG-PFET器件的背栅极耦合到第一控制电压,并且ADG-NFET器件的背栅极耦合到作为基于偏移电压的第一控制电压的补码的第二控制电压。 也可以使用使用ADG-FET器件的逻辑反相级的其它配置。 改变控制电压以调制由耦合到前门的输入端处的逻辑状态设置的电流电平。