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    • 81. 发明申请
    • SUCCESSIVE COMPARISON A/D CONVERSION CIRCUIT
    • 成功的比较A / D转换电路
    • US20170041016A1
    • 2017-02-09
    • US15299660
    • 2016-10-21
    • OLYMPUS CORPORATION
    • Yasunari Harada
    • H03M1/38H03M1/12G11C27/02
    • H03M1/38G11C27/02G11C27/024H03M1/0682H03M1/1245H03M1/46
    • A successive comparison A/D conversion circuit includes: an comparison circuit including a differential amplification circuit which includes a pair of differential input terminals, amplifies a pair of first differential signals input into the pair of differential input terminals, and outputs a pair of second differential signals, and a latch circuit which compares voltages of the second differential signals output from the differential amplification circuit, retains an comparison result, and outputs the retained comparison result; a digital circuit which generates a digital signal corresponding to the first differential signal, based on the comparison result; an arithmetic circuit which generates a reference signal based on the digital signal, generates the first differential signal by subtracting the reference signal from a third differential signal or adding the reference signal to the third differential signal, and outputs the generated first differential signal to the pair of differential input terminals; and a control circuit.
    • 连续比较A / D转换电路包括:包括差分放大电路的比较电路,差分放大电路包括一对差分输入端,放大输入到该对差分输入端的一对第一差分信号,并输出一对第二差分 信号,以及比较从差分放大电路输出的第二差分信号的电压的锁存电路,保持比较结果,并输出保留的比较结果; 基于比较结果生成对应于第一差分信号的数字信号的数字电路; 产生基于数字信号的参考信号的算术电路,通过从第三差分信号中减去参考信号或将参考信号与第三差分信号相加来产生第一差分信号,并将产生的第一差分信号输出到对 的差分输入端子; 和控制电路。
    • 82. 发明申请
    • AMPLIFYING CIRCUIT, AD CONVERTER, INTEGRATED CIRCUIT, AND WIRELESS COMMUNICATION APPARATUS
    • 放大电路,AD转换器,集成电路和无线通信设备
    • US20160336930A1
    • 2016-11-17
    • US15092977
    • 2016-04-07
    • KABUSHIKI KAISHA TOSHIBA
    • Junya MATSUNOMasanori FURUTATetsuro ITAKURA
    • H03K5/02H03M1/12H04B1/40G11C27/02
    • H03K5/02G11C27/026H03F3/45183H03F3/45475H03F2203/45138H03F2203/45551H03F2203/45634
    • An amplifying circuit according to an embodiment includes an input terminal, an output terminal, first and second operational amplifiers, first and second input impedance elements, first to third feedback impedance elements, and an adder. The first (second) operational amplifier includes an inversion input terminal connected to a first (third) node and an output terminal connected to a second (fourth) node. The first (second) input impedance element has one end connected to the input terminal and the other end connected to the first (third) node. The first (second) feedback impedance element has one end connected to the first (third) node and the other end connected to the second (fourth) node. The third feedback impedance element has one end connected to the first node and the other end connected to the fourth node. The adder adds output voltages of the first and second operational amplifiers.
    • 根据实施例的放大电路包括输入端子,输出端子,第一和第二运算放大器,第一和第二输入阻抗元件,第一至第三反馈阻抗元件以及加法器。 第一(第二)运算放大器包括连接到第一(第三)节点的反相输入端子和连接到第二(第四)节点的输出端子。 第一(第二)输入阻抗元件的一端连接到输入端,另一端连接到第一(第三)节点。 第一(第二)反馈阻抗元件的一端连接到第一(第三)节点,另一端连接到第二(第四)节点。 第三反馈阻抗元件的一端连接到第一节点,另一端连接到第四节点。 该加法器加上第一和第二运算放大器的输出电压。
    • 86. 发明授权
    • Temperature compensation method for high-density floating-gate memory
    • 高密度浮栅存储器温度补偿方法
    • US09437602B2
    • 2016-09-06
    • US14362256
    • 2012-11-27
    • Board of Trustees of Michigan State University
    • Shantanu ChakrabarttyMing GuChenling Huang
    • H01L29/788H01L27/115G11C7/04G11C16/04G11C27/00G11C27/02H01L27/06H01L49/02
    • H01L27/11526G11C7/04G11C16/0408G11C16/0441G11C27/005G11C27/028H01L27/0629H01L28/40
    • A temperature compensation technique is provided for a non-volatile memory arrangement. The memory arrangement includes: a memory circuit (12) having a floating gate transistor (P3) operating in weak-inversion mode and a varactor (Cv) with a terminal electrically coupled to a gate node of the floating gate transistor; a first current reference circuit (14) having a floating gate transistor (PI); a second current reference circuit (16) having a floating gate transistor (P2); and a control module (18) configured to selectively receive a reference current (I1, I2) from a drain of the floating gate transistor in each of the first and second current reference circuits. The control module operates to determine a ratio between the reference currents received from the first and second current reference circuits, generate a tuning voltage (Vx) in accordance with the ratio between the reference currents and apply the tuning voltage to the varactor in the memory circuit.
    • 为非易失性存储器装置提供温度补偿技术。 存储器装置包括:具有以弱反相模式工作的浮栅晶体管(P3)的存储器电路(12)和与浮栅晶体管的栅极节点电耦合的端子的变容二极管(Cv); 具有浮置栅极晶体管(PI)的第一电流参考电路(14); 具有浮置栅极晶体管(P2)的第二电流参考电路(16); 以及控制模块(18),被配置为从所述第一和第二电流参考电路中的每一个中的所述浮动栅极晶体管的漏极选择性地接收参考电流(I1,I2)。 控制模块操作以确定从第一和第二电流参考电路接收的参考电流之间的比率,根据参考电流之间的比率产生调谐电压(Vx),并将调谐电压施加到存储器电路中的变容二极管 。
    • 87. 发明申请
    • SWITCH CIRCUIT, ANALOG-TO-DIGITAL CONVERTER, AND INTEGRATED CIRCUIT
    • 开关电路,模数转换器和集成电路
    • US20160226506A1
    • 2016-08-04
    • US14757547
    • 2015-12-24
    • SOCIONEXT INC.
    • Seiji OKAMOTO
    • H03M1/12G11C27/02H03K17/06
    • G11C27/02G11C27/024H03K17/063H03K17/08122H03K2217/0054H03M1/1245
    • A switch circuit includes: a sampling transistor including a source connected to an input node and a drain connected to an output node; a control circuit which is connected to a gate of the sampling transistor and configured to control turning on or off of the sampling transistor; a voltage holding circuit which is provided between the gate and the source of the sampling transistor and configured to maintain a voltage between the gate and the source of the sampling transistor constant when the sampling transistor is turned on; and a protection circuit which is provided in parallel to the control circuit and configured to lower a voltage that is applied to the gate of the sampling transistor when the sampling transistor makes a transition from on to off.
    • 开关电路包括:采样晶体管,包括连接到输入节点的源极和连接到输出节点的漏极; 控制电路,其连接到采样晶体管的栅极并被配置为控制采样晶体管的导通或截止; 电压保持电路,其设置在所述采样晶体管的栅极和源极之间,并且被配置为当所述采样晶体管导通时保持所述采样晶体管的栅极和源极之间的电压恒定; 以及保护电路,其与所述控制电路并联设置并且被配置为当所述采样晶体管从接通切换到断开时降低施加到所述采样晶体管的栅极的电压。
    • 90. 发明申请
    • COMPACT SAMPLE-AND-HOLD DEVICE
    • 紧凑型样品保持装置
    • US20160148706A1
    • 2016-05-26
    • US14889813
    • 2014-05-14
    • THALES
    • Patrick GREMILLET
    • G11C27/02
    • G11C27/024
    • The sample-and-hold device comprises a holding capacitor and operates according to a track phase during which the voltage on the terminals of the capacitor tracks the input signal and according to a hold phase during which the capacitor is isolated from the input signal, it comprises: a differential pair comprising a first transistor Q1 and a second transistor Q2 connected as common emitters, the collector of the transistor Q2 being connected to the holding capacitor, the input signal being applied to the base of the transistor Q1; a third transistor Q3, of which the base is connected to the collector of the transistor Q2 and the emitter is connected to the base of the transistor Q2, the signal present on the emitter of the transistor Q3 forming the output signal of the sample-and-hold device; a current source I connected to the collector of the transistor Q2; during the track phase, the differential pair Q1, Q2 being supplied by a current 2I, the transistor Q2 being charged by the current source and by the holding capacitor, during the hold phase, the current 2I supplying the differential pair Q1, Q2 being disconnected and the holding capacitor being charged by two opposite currents having the same value, equal to the current I of the source.
    • 采样和保持装置包括保持电容器,并根据磁道相位进行操作,在该阶段期间,电容器端子上的电压跟踪输入信号,并且根据电容器与输入信号隔离的保持相位, 包括:包括作为公共发射极连接的第一晶体管Q1和第二晶体管Q2的差分对,晶体管Q2的集电极连接到保持电容器,输入信号施加到晶体管Q1的基极; 第三晶体管Q3,其基极连接到晶体管Q2的集电极,发射极连接到晶体管Q2的基极,存在于晶体管Q3的发射极上的信号形成样品的输出信号,以及 固定装置 连接到晶体管Q2的集电极的电流源I; 在跟踪期间,差动对Q1,Q2由电流2I提供,晶体管Q2由电流源和保持电容充电,在保持阶段期间,提供差动对Q1,Q2的电流2I断开 并且保持电容器由具有相同值的两个相反电流充电,等于源极的电流I.