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    • 11. 发明授权
    • MOS Random access memory cell with nonvolatile storage
    • MOS随机存取存储单元,具有非易失性存储
    • US4510584A
    • 1985-04-09
    • US454418
    • 1982-12-29
    • Donald R. DiasDaniel C. GutermanRobert J. ProebstingHorst Leuschner
    • Donald R. DiasDaniel C. GutermanRobert J. ProebstingHorst Leuschner
    • G11C14/00G11C11/40
    • G11C14/00
    • A nonvolatile random access memory cell (10) includes a static random access memory circuit and a corresponding nonvolatile memory circuit. The volatile memory circuit operates in a conventional manner and has first and second data states. Upon receipt of a store command signal a charge storage node is driven to either a first or a second charge state, depending upon the data state in the volatile memory circuit. For one charge state the charge storage signal is gated through a transistor (64) and a capacitor (68) to a floating gate node (44). Charge is transferred to and from the floating gate node (44) through current tunneling elements (48,50) which comprise a dielectric fabricated on a monocrystalline substrate. For the recall operation a recall command signal is applied to a transistor (52) which couples a transistor (42) to the DATA node (22) of the volatile memory circuit. If a positive charge state has been stored at the charge storage node (44) the transistor (42) is rendered conductive to pull the DATA node (22) to ground to restore the data state to the volatile memory circuit. If a negative charge state has been stored at the charge storage node (44) there is no load applied to either the DATA node (20) or the DATA node (22). The cross-couple transistors, (12,14) are fabricated to have different lengths such that the node (22) is driven to a high voltage state whenever a default condition is encountered, thereby restoring the original data state to the volatile memory circuit.
    • 非易失性随机存取存储器单元(10)包括静态随机存取存储器电路和相应的非易失性存储器电路。 易失性存储器电路以常规方式工作并具有第一和第二数据状态。 在接收到存储命令信号时,根据易失性存储器电路中的数据状态,电荷存储节点被驱动到第一或第二充电状态。 对于一个充电状态,电荷存储信号通过晶体管(64)和电容器(68)被选通到浮动栅极节点(44)。 电荷通过包括在单晶衬底上制造的电介质的电流隧穿元件(48,50)传送到浮栅节点(44)。 对于调用操作,将调用命令信号施加到将晶体管(42)耦合到易失性存储器电路的& D&D节点(22)的晶体管(52)。 如果正电荷状态已经存储在电荷存储节点(44)处,晶体管(42)被导通以将&上升&D节点(22)拉到地,以将数据状态恢复到易失性存储器电路。 如果在电荷存储节点(44)处存储了负电荷状态,则没有负载施加到DATA节点(20)或者& Upbar&D节点(22)上。 交叉耦合晶体管(12,14)被制造成具有不同的长度,使得每当遇到默认条件时,节点(22)被驱动到高电压状态,从而将原始数据状态恢复到易失性存储器电路。
    • 12. 发明授权
    • Temperature detector systems and methods
    • 温度检测器系统和方法
    • US5638418A
    • 1997-06-10
    • US253445
    • 1994-06-07
    • James M. DouglassGary V. ZandersDonald R. DiasRobert D. Lee
    • James M. DouglassGary V. ZandersDonald R. DiasRobert D. Lee
    • G01K1/02G01K7/24G06F1/20G01K7/32
    • G01K1/028G01K7/245G06F1/206
    • A temperature detector comprises temperature sensing circuitry calibration circuitry, and power regular circuitry. The temperature sensing circuitry has an output that varies with a temperature to create a temperature variation. The calibration circuitry is coupled to receive the output that varies with temperature to create a temperature variation. The calibration circuitry interprets the temperature variation and outputs a value that represents the temperature. The power supply regulator circuitry coordinates power to the temperature sensing circuitry. Alternate embodiments of the temperature detector comprise temperature sensing circuitry, calibration circuitry, and resolution enhancement circuitry. The temperature sensing circuitry has an output that varies with a temperature to create a temperature variation. The calibration circuitry is coupled to receive the output that varies with temperature to create a temperature variation. The calibration circuitry also interprets the temperature variation and outputs a value that represents the temperature. The value has a resolution. The resolution enhancement circuitry is coupled to the calibration circuitry that enhances the resolution of the value.
    • 温度检测器包括温度感测电路校准电路和功率常规电路。 温度感测电路具有随着温度变化以产生温度变化的输出。 校准电路被耦合以接收随温度变化的输出以产生温度变化。 校准电路解释温度变化并输出表示温度的值。 电源调节器电路协调温度检测电路的电源。 温度检测器的替代实施例包括温度感测电路,校准电路和分辨率增强电路。 温度感测电路具有随着温度变化以产生温度变化的输出。 校准电路被耦合以接收随温度变化的输出以产生温度变化。 校准电路还解释温度变化并输出表示温度的值。 该值具有分辨率。 分辨率增强电路耦合到校准电路,其增强了该值的分辨率。
    • 14. 发明授权
    • Temperature-stabilized oscillator
    • 温度稳定的振荡器
    • US4868525A
    • 1989-09-19
    • US248857
    • 1988-09-23
    • Donald R. Dias
    • Donald R. Dias
    • H03K3/011H03K3/03
    • H03K3/011H03K3/03
    • An oscillator with reduced temperature-dependence. A time-delay circuit uses both a pull-up resistor and a pull-down resistor, of two different types, to charge a capacitor. The material with the smallest available thermal coefficient of resistance (TCR) is used for the pull-up resistor. Another material, with a larger positive TCR, is used for the pull-down resistor. The oscillator preferably includes two separate time-delay circuits, so that the frequency of the oscillator is dependent on the charging delay of each of the time-delay circuits, but is independent of discharging delay.
    • 具有降低温度依赖性的振荡器。 延时电路使用两种不同类型的上拉电阻和下拉电阻来对电容充电。 具有最小可用热阻系数(TCR)的材料用于上拉电阻。 另一种具有较大正TCR的材料用于下拉电阻。 振荡器优选地包括两个单独的时间延迟电路,使得振荡器的频率取决于每个时间延迟电路的充电延迟,但是与放电延迟无关。
    • 17. 发明授权
    • MOS dynamic load circuit for switching high voltages and adapted for use
with high threshold transistors
    • MOS动态负载电路,用于切换高电压并适用于高阈值晶体管
    • US4580067A
    • 1986-04-01
    • US454055
    • 1982-12-28
    • Robert J. ProebstingDonald R. Dias
    • Robert J. ProebstingDonald R. Dias
    • G11C17/00G11C16/06H03K19/017H03K17/10H03K17/693
    • H03K19/01728H03K19/01742
    • A dynamic load circuit (34) selectively applies a high voltage state to a circuit node (42). A clock signal is coupled to a first node (54) and the inverse of the clock signal is coupled to a second node (60). Isolation transistors (50, 70) are controlled by the voltage level at the circuit node (42) to isolate the clock signals from the first and second nodes (54, 60) when the circuit node (42) is at a low voltage state. A high voltage signal V.sub.pp is coupled through a transistor (58) to the first node (54). The voltage at the first node (54) is coupled through a transistor (56) to the circuit node (42). The circuit node (42) is further coupled through transistors (62, 64) to the second node (60). The application of the alternating positive transistions of the clock and inverse clock signal cause the circuit (34) to apply a progressively increasing voltage to the circuit node (42). The dynamic load circuit (34) functions even if the threshold voltages of the high voltage transistors therein are almost as high as the supply voltage.
    • 动态负载电路(34)选择性地向电路节点(42)施加高电压状态。 时钟信号耦合到第一节点(54),并且时钟信号的反相耦合到第二节点(60)。 当电路节点(42)处于低电压状态时,隔离晶体管(50,70)由电路节点(42)处的电压电平控制,以隔离来自第一和第二节点(54,60)的时钟信号。 高电压信号Vpp通过晶体管(58)耦合到第一节点(54)。 第一节点(54)处的电压通过晶体管(56)耦合到电路节点(42)。 电路节点(42)还通过晶体管(62,64)耦合到第二节点(60)。 施加时钟和逆时钟信号的交替正转移使得电路(34)向逐渐增加的电压施加电路节点(42)。 即使其中的高压晶体管的阈值电压几乎与电源电压一样高,动态负载电路(34)也起作用。
    • 18. 发明授权
    • Battery charger
    • 充电器
    • US5592069A
    • 1997-01-07
    • US957571
    • 1992-10-07
    • Donald R. DiasRobert D. Lee
    • Donald R. DiasRobert D. Lee
    • G01K1/00G01K5/24G01R31/36G06F15/00G06F19/00H01M10/42H01M10/44H01M10/46H01M10/48H02J7/00
    • G01K7/13H01M10/425H01M10/4257H01M10/48H02J7/0004
    • A battery charger with charging parameter values derived from communication with a battery pack to be charged. Communication is over a one-wire bus with battery pack transmissions in response to charger inquiries. The battery charger may be in the form an integrated circuit driving a power transistor or other controllable DC supply. A battery pack may contain a program with multiple charging currents and charging interval termination methods such as time, temperature rise, and incremental voltage polarity. A lack of communication may be invoke a default charging program or denial of access to the charger. The charger also communicates over a high-speed three-wire bus with an external computer for analysis of identification information acquired from the battery and for control of the charger.
    • 带充电参数值的电池充电器来自与要充电的电池组的通信。 响应充电器查询,通信是通过电池组传输的单线总线。 电池充电器可以是驱动功率晶体管或其他可控直流电源的集成电路。 电池组可以包含具有多个充电电流和充电间隔终止方法的程序,例如时间,温度升高和增加的电压极性。 缺乏通信可能会引起默认的计费程序或拒绝访问充电器。 充电器还通过高速三线总线与外部计算机进行通信,用于分析从电池获取的识别信息和控制充电器。