会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 2. 发明授权
    • Sequential/combinational logic transistor segregation for standby power and performance optimization
    • 用于待机功率和性能优化的顺序/组合逻辑晶体管隔离
    • US07313713B2
    • 2007-12-25
    • US10923403
    • 2004-08-20
    • Eugene F. WeberMatthew R. Henry
    • Eugene F. WeberMatthew R. Henry
    • G06F1/32
    • G06F1/3203
    • A method and apparatus for powering digital logic circuits that provides low power consumption while maintaining high performance. The circuit is divided into logic elements necessary for maintaining the state of the circuit and those that are not. The state-maintaining logic uses low-leakage, low performance transistors, and is continually powered. The remainder of the circuit uses standard transistors, i.e., high performance, high-leakage transistors, and is only powered when the circuit is active, i.e., not in a standby mode. Two power rails are used, one for the state maintaining components and one for the non-state-maintaining components. The state-maintaining logic is functionally separated from the remainder of the circuit when the remainder of the circuit is being powered up or down to avoid short-circuiting any elements. Typical state-maintaining components are sequential logic gates. Typical non-state maintaining components are combinational logic gates. A typical functional isolation gates is a NOR gate.
    • 为维持高性能而提供低功耗的数字逻辑电路供电的方法和装置。 电路被分为维持电路状态和不使用电路所需的逻辑元件。 状态维护逻辑使用低泄漏,低性能晶体管,并且不断供电。 电路的其余部分使用标准晶体管,即高性能,高泄漏晶体管,并且仅在电路处于活动状态时被供电,即不处于待机模式。 使用两个电源轨,一个用于状态维护组件,一个用于非状态维护组件。 当电路的其余部分上电或下电时,状态保持逻辑在功能上与电路的其余部分分离,以避免短路任何元件。 典型的状态维护组件是顺序逻辑门。 典型的非状态维护组件是组合逻辑门。 典型的功能隔离门是NOR门。
    • 3. 发明授权
    • Decoupled scan path interface
    • 解耦扫描路径接口
    • US5381420A
    • 1995-01-10
    • US173393
    • 1993-12-22
    • Matthew R. Henry
    • Matthew R. Henry
    • G01R31/3185G06F11/28
    • G01R31/318552
    • An interface to internal scan paths within an IC for synchronizing a test clock and a system clock without adversely affecting their operation. The test clock provides input test data (TDI) to the interface and receives output test data (TDO) from the interface at the test clock rate. The system clock drives the test data through the scan path at the system clock rate. The two clocks are "decoupled" in that they run independently, being synchronized by the interface for clocking the test data into, through and out of the scan path. In effect, the interface decouples the internal scan paths driven by the system clock from the test logic driven by the test clock. This feature enables the IC to be tested "at speed" and provides for synchronization between the test clock and system clock over a wide range of test clock frequencies.
    • IC内部扫描路径的接口,用于同步测试时钟和系统时钟,而不会对其操作产生不利影响。 测试时钟为接口提供输入测试数据(TDI),并以测试时钟速率从接口接收输出测试数据(TDO)。 系统时钟以系统时钟速率通过扫描路径驱动测试数据。 这两个时钟是“去耦合”的,因为它们独立运行,被接口同步,用于将测试数据记录到扫描路径中,进出扫描路径。 实际上,接口将由系统时钟驱动的内部扫描路径与由测试时钟驱动的测试逻辑分离。 该功能使IC能够以“速度”进行测试,并在宽范围的测试时钟频率上提供测试时钟和系统时钟之间的同步。
    • 4. 发明授权
    • Dynamically reconfigurable array logic
    • 动态可重构阵列逻辑
    • US4791603A
    • 1988-12-13
    • US886700
    • 1986-07-18
    • Matthew R. Henry
    • Matthew R. Henry
    • G06F9/22H03K19/177G06F7/38H03K19/20
    • H03K19/17752H03K19/17704H03K19/1776
    • A dynamically reconfigurable array logic (DRAL) is capable of in-system logical reconfiguration in real time and comprises a RAM programmable logic array of bits, each bit comprising a fuse connection between logic elements. I/O means are coupled to the RAM programmable logic array for logical selection of registered output. A first register is coupled for receiving data and high-level commands. A sequencer includes a pair of up/down counters and functions to generate addresses. A timing device controls DMA transfers and issues READ and WRITE strobes. A second register monitors outputs and functions as a comparator, in a first mode, and functions to load outputs during specified time intervals in a second mode.
    • 动态可重配置阵列逻辑(DRAL)能够实时地进行系统内逻辑重配置,并且包括RAM的可编程逻辑阵列阵列,每个位包括逻辑元件之间的熔丝连接。 I / O装置耦合到RAM可编程逻辑阵列,用于逻辑选择注册输出。 第一个寄存器用于接收数据和高级命令。 定序器包括一对增/减计数器和产生地址的功能。 定时设备控制DMA传输并发出READ和WRITE选通信号。 第二个寄存器在第一模式下监视输出和功能作为比较器,并且用于在第二模式下在指定的时间间隔期间加载输出。
    • 7. 发明授权
    • Tri-state bus controller
    • 三态总线控制器
    • US6121814A
    • 2000-09-19
    • US169794
    • 1998-10-09
    • Matthew R. Henry
    • Matthew R. Henry
    • H03K3/84
    • G06F13/00G06F13/4072
    • A bus master controller comprising a plurality of logic modules, each module coupled to a separate bus driver circuit. The logic module operates using a "break-before-make" protocol derived from a finite state machine, delay element and exclusive-OR gate. The finite state machine generates a predetermined sequence that requires an "assert" signal to always be delayed with respect to a "de-assert" signal, thus eliminating the possibility that more than one set of bus drivers will be coupled to the bus at any one time.
    • 总线主控制器包括多个逻辑模块,每个模块耦合到单独的总线驱动器电路。 逻辑模块使用从有限状态机,延迟元件和异或门导出的“断开 - 制造”协议进行操作。 有限状态机产生一个预定的序列,该序列需要相对于“去断言”信号总是被延迟的“断言”信号,从而消除了多于一组总线驱动器将以任何方式耦合到总线的可能性 一次。