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    • 11. 发明授权
    • Voltage detection circuit and circuit for generating a trigger flag signal
    • 用于产生触发标志信号的电压检测电路和电路
    • US07466171B2
    • 2008-12-16
    • US11623119
    • 2007-01-15
    • Wagdi W. AbadeerJeffrey S. BrownAlbert M. ChuJohn A. Fifield
    • Wagdi W. AbadeerJeffrey S. BrownAlbert M. ChuJohn A. Fifield
    • H03L7/00
    • H03K5/153
    • An integrated circuit that includes at least one tunneling device voltage detection circuit for generating a trigger flag signal. The tunneling device voltage detection circuit includes first and second voltage dividers receiving a supply voltage and having corresponding respective first and second internal node output voltages. The first and second voltage dividers are configured so the first output voltage is linear relative to the supply voltage and so that the second output voltage is nonlinear relative to the supply voltage. As the supply voltage ramps up, the profiles of the first and second output voltage cross at a particular voltage. An operational amplifier circuit senses when the first and second output voltages become equal and, in response thereto, outputs a trigger signal that indicates that the supply voltage has reached a certain level.
    • 一种集成电路,其包括用于产生触发标志信号的至少一个隧道装置电压检测电路。 隧道装置电压检测电路包括接收电源电压并具有对应的相应的第一和第二内部节点输出电压的第一和第二分压器。 第一和第二分压器被配置为使得第一输出电压相对于电源电压是线性的,并且使得第二输出电压相对于电源电压是非线性的。 随着电源电压上升,第一和第二输出电压的曲线在特定电压下交叉。 运算放大器电路检测第一和第二输出电压何时相等,并且响应于此,输出指示电源电压达到一定水平的触发信号。
    • 12. 发明申请
    • Voltage Detection Circuit In An Integrated Circuit And Method Of Generating A Trigger Flag Signal
    • 集成电路中的电压检测电路和产生触发标志信号的方法
    • US20080169844A1
    • 2008-07-17
    • US11623119
    • 2007-01-15
    • Wagdi W. AbadeerJeffrey S. BrownAlbert M. ChuJohn A. Fifield
    • Wagdi W. AbadeerJeffrey S. BrownAlbert M. ChuJohn A. Fifield
    • H03K5/153
    • H03K5/153
    • An integrated circuit that includes at least one tunneling device voltage detection circuit for generating a trigger flag signal. The tunneling device voltage detection circuit includes first and second voltage dividers receiving a supply voltage and having corresponding respective first and second internal node output voltages. The first and second voltage dividers are configured so the first output voltage is linear relative to the supply voltage and so that the second output voltage is nonlinear relative to the supply voltage. As the supply voltage ramps up, the profiles of the first and second output voltage cross at a particular voltage. An operational amplifier circuit senses when the first and second output voltages become equal and, in response thereto, outputs a trigger signal that indicates that the supply voltage has reached a certain level.
    • 一种集成电路,其包括用于产生触发标志信号的至少一个隧道装置电压检测电路。 隧道装置电压检测电路包括接收电源电压并具有对应的相应的第一和第二内部节点输出电压的第一和第二分压器。 第一和第二分压器被配置为使得第一输出电压相对于电源电压是线性的,并且使得第二输出电压相对于电源电压是非线性的。 随着电源电压上升,第一和第二输出电压的曲线在特定电压下交叉。 运算放大器电路检测第一和第二输出电压何时相等,并且响应于此,输出指示电源电压达到一定水平的触发信号。
    • 13. 发明申请
    • PERFORMANCE INVERSION DETECTION CIRCUIT AND A DESIGN STRUCTURE FOR THE SAME
    • 性能反相检测电路及其设计结构
    • US20090179670A1
    • 2009-07-16
    • US12014430
    • 2008-01-15
    • Albert M. ChuJohn A. FifieldDaryl M. SeitzerHongfei Wu
    • Albert M. ChuJohn A. FifieldDaryl M. SeitzerHongfei Wu
    • H03F3/45
    • H03F3/45475H03F2200/447H03F2203/45586H03F2203/45618H03F2203/45622
    • A circuit containing a parallel connection of a first sub-circuit and a second sub-circuit is provided. The first sub-circuit comprises a serial connection of a first field effect transistor having a first threshold voltage and a first voltage dividing device. The second sub-circuit comprises a serial connection of a second field effect transistor having a second threshold voltage, which is different from the first threshold voltage, and a second voltage dividing device. The voltage between the first field effect transistor and the first voltage dividing device is compared with the voltage between the second field effect transistor and the second voltage dividing device so that a signal may be generated at a temperature at which the ratio of a performance parameter such as on-current between the first and second field effect transistors crosses over a predefined value. The signal may be advantageously employed to actively control circuit characteristics.
    • 提供了包含第一子电路和第二子电路的并联连接的电路。 第一子电路包括具有第一阈值电压的第一场效应晶体管和第一分压装置的串联连接。 第二子电路包括具有与第一阈值电压不同的第二阈值电压的第二场效应晶体管的串联连接和第二分压装置。 将第一场效应晶体管和第一分压装置之间的电压与第二场效应晶体管和第二分压装置之间的电压进行比较,使得可以在这样的温度下产生信号, 因为第一和第二场效应晶体管之间的导通电流跨越预定值。 可以有利地使用该信号来主动地控制电路特性。
    • 14. 发明授权
    • Circuit and method for controlling a standby voltage level of a memory
    • 用于控制存储器的待机电压电平的电路和方法
    • US07894291B2
    • 2011-02-22
    • US11162847
    • 2005-09-26
    • George M. BracerasJohn A. FifieldHarold Pilo
    • George M. BracerasJohn A. FifieldHarold Pilo
    • G11C5/14
    • G11C11/417G11C5/147
    • A memory is provided which can be operated at an active rate of power consumption in an active operational mode and at a predetermined reduced rate of power consumption in a standby operational mode. The memory includes a current generating circuit which is operable to supply a predetermined magnitude of current to a sample power supply input terminal of a sample memory cell representative of memory cells of the memory, the predetermined magnitude of current corresponding to the predetermined reduced rate of power consumption. A voltage follower circuit is operable to output a standby voltage level equal to a voltage level at the sample power supply input terminal when the predetermined magnitude of current is supplied thereto. A memory cell array of the memory is operable to store data. In the standby operational mode, a switching circuit is operable to supply power at the standby voltage level to a power supply input terminal of the memory cell array. This permits data to remain stored in the memory during the standby mode. During an active operational mode, the switching circuit is operable to connect the power supply input terminal at the power supply to supply power at the active voltage level to the memory cell array. During the active operational mode, data can be stored into the memory cell array and retrieved from the memory cell array.
    • 提供一种存储器,其可以在主动操作模式中以在备用操作模式中以预定的降低的功率消耗速率以有效的功率消耗速率操作。 存储器包括电流产生电路,其可操作以向代表存储器的存储器单元的采样存储单元的采样电源输入端提供预定大小的电流,与预定的降低的功率比相对应的预定电流值 消费。 电压跟随器电路可操作以当提供预定电流大小时输出等于采样电源输入端的电压电平的备用电压电平。 存储器的存储单元阵列可操作以存储数据。 在待机操作模式中,切换电路可操作以将备用电压电平的电力提供给存储单元阵列的电源输入端。 这在待机模式期间允许数据保存在存储器中。 在有效操作模式期间,开关电路可操作地连接电源处的电源输入端,以将有源电压电平的电力提供给存储单元阵列。 在主动操作模式期间,可将数据存储到存储单元阵列中并从存储单元阵列检索。
    • 20. 发明授权
    • Voltage divider for integrated circuits
    • 用于集成电路的分压器
    • US07061308B2
    • 2006-06-13
    • US10605466
    • 2003-10-01
    • Wagdi W. AbadeerJohn A. FifieldWilliam R. Tonti
    • Wagdi W. AbadeerJohn A. FifieldWilliam R. Tonti
    • G05F3/02
    • G11C5/147H01L27/0802H01L27/088H02M3/00
    • A voltage divider for integrated circuits that does not include the use of resistors. In one embodiment, voltage node VDD is connected with two n-type transistors, NFET1 and NFET2, which are connected in series. NFET 1 includes a source (12), a drain (14), a gate electrode (16) having a gate area A1 (not shown), and a p-substrate (18). NFET2 includes a source (20), a drain (22), a gate electrode (24) having a gate area A2 (not shown), and a p-substrate (26). Source (12) and drain (14) of NFET1 are coupled with gate electrode (24) of NFET2. The voltage difference between NFET1 and NFET2 has a linear function with VDD. As a result, voltage VDD may be divided between NFET1 and NFET2 by properly choosing the ratio between each of the respective transistor gate electrode areas, (A1) and (A2).
    • 用于集成电路的分压器,不包括使用电阻器。 在一个实施例中,电压节点VDD与串联连接的两个n型晶体管NFET 1和NFET 2连接。 NFET 1包括源极(12),漏极(14),具有栅极区域A 1(未示出)的栅电极(16)和p-衬底(18)。 NFET2包括源极(20),漏极(22),具有栅极区域A 2(未示出)的栅电极(24)和p基板(26)。 NFET 1的源极(12)和漏极(14)与NFET2的栅电极(24)耦合。 NFET 1和NFET 2之间的电压差与VDD具有线性关系。 结果,通过适当地选择各个晶体管栅电极区域(A 1)和(A 2)之间的比率,可以在NFET 1和NFET 2之间划分电压VDD。