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    • 1. 发明授权
    • Power management of wireless protocol circuitry based on current state
    • 基于当前状态的无线协议电路的电源管理
    • US08565135B2
    • 2013-10-22
    • US12970739
    • 2010-12-16
    • Paul J. HustedBrian J. KaczynskiSoner Ozgur
    • Paul J. HustedBrian J. KaczynskiSoner Ozgur
    • G08C17/00H04W4/00
    • H04W52/0229Y02D70/142Y02D70/144Y02D70/162Y02D70/166
    • Controlling power consumption in a wireless device. The wireless device may include first wireless protocol circuitry. The first wireless protocol circuitry may be configured to receive and process first signals according to a first wireless protocol. The wireless device may include a power controller coupled to the first wireless protocol circuitry. The power controller may be configured to control power consumption of elements of the first wireless protocol circuitry based on a current state. More specifically, in response to the first wireless protocol circuitry being in a listening state, the power controller may be configured to lower power consumption of one or more first elements of the first wireless protocol circuitry. Additionally, in response to the first wireless protocol circuitry being in a receiving state, the power controller may be configured to return power consumption of the one or more first elements to a higher power level.
    • 控制无线设备的功耗。 无线设备可以包括第一无线协议电路。 第一无线协议电路可以被配置为根据第一无线协议接收和处理第一信号。 无线设备可以包括耦合到第一无线协议电路的功率控制器。 功率控制器可以被配置为基于当前状态来控制第一无线协议电路的元件的功率消耗。 更具体地,响应于第一无线协议电路处于监听状态,功率控制器可以被配置为降低第一无线协议电路的一个或多个第一元件的功耗。 另外,响应于第一无线协议电路处于接收状态,功率控制器可以被配置为将一个或多个第一元件的功率消耗返回到更高的功率水平。
    • 2. 发明申请
    • POWER MANAGEMENT OF WIRELESS PROTOCOL CIRCUITRY BASED ON CURRENT STATE
    • 基于当前状态的无线协议电路的电源管理
    • US20120155347A1
    • 2012-06-21
    • US12970739
    • 2010-12-16
    • Paul J. HustedBrian J. KaczynskiSoner Ozgur
    • Paul J. HustedBrian J. KaczynskiSoner Ozgur
    • H04W52/02
    • H04W52/0229Y02D70/142Y02D70/144Y02D70/162Y02D70/166
    • Controlling power consumption in a wireless device. The wireless device may include first wireless protocol circuitry. The first wireless protocol circuitry may be configured to receive and process first signals according to a first wireless protocol. The wireless device may include a power controller coupled to the first wireless protocol circuitry. The power controller may be configured to control power consumption of elements of the first wireless protocol circuitry based on a current state. More specifically, in response to the first wireless protocol circuitry being in a listening state, the power controller may be configured to lower power consumption of one or more first elements of the first wireless protocol circuitry. Additionally, in response to the first wireless protocol circuitry being in a receiving state, the power controller may be configured to return power consumption of the one or more first elements to a higher power level.
    • 控制无线设备的功耗。 无线设备可以包括第一无线协议电路。 第一无线协议电路可以被配置为根据第一无线协议接收和处理第一信号。 无线设备可以包括耦合到第一无线协议电路的功率控制器。 功率控制器可以被配置为基于当前状态来控制第一无线协议电路的元件的功率消耗。 更具体地,响应于第一无线协议电路处于监听状态,功率控制器可以被配置为降低第一无线协议电路的一个或多个第一元件的功耗。 另外,响应于第一无线协议电路处于接收状态,功率控制器可以被配置为将一个或多个第一元件的功率消耗返回到更高的功率水平。
    • 3. 发明授权
    • Stacking baseband circuits using deep n-well and increased supply voltage
    • 使用深n阱堆叠基带电路并增加电源电压
    • US07813711B1
    • 2010-10-12
    • US11688810
    • 2007-03-20
    • Brian J. Kaczynski
    • Brian J. Kaczynski
    • H04B1/28
    • H04B1/30H03D7/1441H03D7/1458H03D7/1491H03D2200/0084
    • A method of designing stacked circuits for an integrated circuit is described. In this method, a plurality of devices that are stackable may be determined. Some of those devices, i.e. a subset of stackable devices, may be formed in a deep n-well, thereby allowing that subset of stackable devices to receive an increased supply voltage. The remainder of the stackable devices may be formed in a standard n-well, thereby allowing such devices to receive a standard supply voltage. In one embodiment, the standard supply voltage may be VDD and the increased supply voltage may be 2×VDD. This method may be advantageously used in both the design of stacked circuits for and the implementation of stacked circuits in an integrated circuit.
    • 描述了一种设计用于集成电路的堆叠电路的方法。 在该方法中,可以确定可堆叠的多个装置。 这些设备中的一些,即可堆叠设备的子集,可以形成在深n阱中,从而允许可堆叠设备的子集接收增加的电源电压。 可堆叠装置的其余部分可以形成在标准n阱中,从而允许这种装置接收标准电源电压。 在一个实施例中,标准电源电压可以是VDD,并且增加的电源电压可以是2×VDD。 该方法可有利地用于集成电路中堆叠电路的设计和层叠电路的实现。
    • 4. 发明申请
    • Frequency-tracked synthesizer employing selective harmonic amplification
    • 采用选择性谐波放大的频率跟踪合成器
    • US20080234848A1
    • 2008-09-25
    • US11728121
    • 2007-03-23
    • Brian J. Kaczynski
    • Brian J. Kaczynski
    • G06F17/00
    • G10H1/08G10H7/105G10H2250/235G10H2250/471H04S1/007
    • This invention relates to effects processing of a monophonic analog signal, meaning a signal whose frequency components are all integer multiples of a first fundamental frequency. For example, the signal could come from almost any musical instrument, voice included. However, for generality, the invention is not restricted to cases where the signal source is musical. The digital signal processing is simplified as a result of the DSP being clocked at a constant multiple of ffund. This means that the sine and cosine functions, as well as the low-pass filters which make up each harmonic selector, are trivial to implement because the frequencies of each sine/cosine, as well as the cutoff frequency of the low-pass filters, are constant fractions of the DSP clock frequency.
    • 本发明涉及单声道模拟信号的效果处理,意思是其频率分量均为第一基频的整数倍的信号。 例如,信号可能来自几乎任何乐器,包括声音。 然而,为了一般性,本发明不限于信号源是音乐的情况。 数字信号处理被简化为DSP以恒定倍数的频率计时的结果。 这意味着构成每个谐波选择器的正弦和余弦函数以及低通滤波器由于每个正弦/余弦的频率以及低通滤波器的截止频率都是微不足道的, 是DSP时钟频率的不变部分。
    • 6. 发明授权
    • Controlling timing in asynchronous digital circuits
    • 异步数字电路控制时序
    • US07982518B1
    • 2011-07-19
    • US12026535
    • 2008-02-05
    • Brian J. Kaczynski
    • Brian J. Kaczynski
    • G06F1/04
    • G06F1/04H03K5/1515H03M1/462
    • A timing circuit for generating asynchronous signals is provided that uses minimal area while maximizing speed. This timing circuit can include a timing control block and disable/enable circuitry. The timing control block can include an SR latch and first and second delay blocks. The SR latch can generate first and second signals, wherein the first and second signals are asynchronous. The first delay block can generate a delayed first signal and provide that signal to a first input terminal of the SR latch. Similarly, the second delay block can generate a delayed second signal and provide that signal to a second input terminal of the SR latch. Notably, the first and second delay blocks delay positive going edges of the first and second signals differently than negative going edges of the first and second signals.
    • 提供用于产生异步信号的定时电路,其使最小面积同时最大化速度。 该定时电路可以包括定时控制块和禁用/使能电路。 定时控制块可以包括SR锁存器和第一和第二延迟块。 SR锁存器可以产生第一和第二信号,其中第一和第二信号是异步的。 第一延迟块可以产生延迟的第一信号并将该信号提供给SR锁存器的第一输入端。 类似地,第二延迟块可以产生延迟的第二信号并将该信号提供给SR锁存器的第二输入端。 值得注意的是,第一和第二延迟块延迟第一和第二信号的正向边沿不同于第一和第二信号的负沿边缘。
    • 7. 发明授权
    • Inter-stage coupling with a transformer and parallel AC-coupling capacitor
    • 与变压器和并联交流耦合电容器的级间耦合
    • US07768363B1
    • 2010-08-03
    • US11847268
    • 2007-08-29
    • Brian J. Kaczynski
    • Brian J. Kaczynski
    • H01P5/04H03H7/01
    • H03H7/38H03F3/189H03F2200/411H03F2200/451H03F2200/534H03F2200/537H03F2200/541
    • An RF coupling circuit including a transformer and a parallel AC-coupling capacitor can advantageously ameliorate substantial attenuation of a signal, prevent destabilization of any feedback loop, and simplify the circuit design process. The AC-coupling capacitor can act as an “averager”, i.e. both the input and output sides of coupling circuit represent capacitances equal to the average of the input and the output capacitances. Thus, the inductors for tuning them out can become equal, thereby allowing a symmetric (or near symmetric) transformer to be used in the RF coupling circuit. When tuned properly, the transformer plus AC-coupling capacitor can also advantageously provide better in-band gain as well as frequency selectivity than other conventional coupling circuits.
    • 包括变压器和并联AC耦合电容器的RF耦合电路可以有利地改善信号的实质衰减,防止任何反馈回路的不稳定,并简化电路设计过程。 AC耦合电容器可以作为“平均器”,即耦合电路的输入和输出侧都表示与输入和输出电容的平均值相等的电容。 因此,用于调谐它们的电感器可以变得相等,从而允许在RF耦合电路中使用对称(或近似对称的)变压器。 当正确调谐时,变压器加交流耦合电容器还可以有利地提供比其他常规耦合电路更好的带内增益以及频率选择性。