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    • 51. 发明授权
    • Multiple-phase clock generator
    • 多相时钟发生器
    • US08884665B2
    • 2014-11-11
    • US13084817
    • 2011-04-12
    • Chih-Chang LinChan-Hong ChernMing-Chieh HuangTao Wen Chung
    • Chih-Chang LinChan-Hong ChernMing-Chieh HuangTao Wen Chung
    • H03B19/00H03K5/15
    • H03K5/15013
    • A multiple-phase clock generator includes at least one stage of dividers. A clock signal is supplied as a first stage clock input to dividers in a first stage of dividers. An N-th stage includes 2N dividers, where N is a positive integer number. Each divider in the first stage is configured to divide a first clock frequency of the first stage clock input by 2 to provide a first stage output. Each divider in the N-th stage is configured to divide an N-th clock frequency of an N-th stage clock input by 2 to provide an N-th stage output. The N-th stage outputs from the dividers in the N-th stage provide 2N-phase clock signals that are equally distributed with a same phase difference between adjacent phase clock signals.
    • 多相时钟发生器包括至少一个分频器级。 时钟信号作为第一级时钟输入提供给分频器的第一级中的分频器。 第N级包括2N个分频器,其中N是正整数。 第一级中的每个分频器被配置为将第一级时钟输入的第一时钟频率除以2以提供第一级输出。 第N级中的每个除法器被配置为将输入的第N级时钟的第N个时钟频率除以2以提供第N级输出。 在第N级的分频器的第N级输出提供2N相位时钟信号,它们在相邻的相位时钟信号之间以相同的相位差均匀分布。
    • 53. 发明授权
    • Decision feedback equalizer
    • 决策反馈均衡器
    • US08862951B2
    • 2014-10-14
    • US13528877
    • 2012-06-21
    • Ming-Chieh HuangChan-Hong ChernTao Wen ChungYuwen SweiChih-Chang LinTsung-Ching Huang
    • Ming-Chieh HuangChan-Hong ChernTao Wen ChungYuwen SweiChih-Chang LinTsung-Ching Huang
    • G06F11/00H04L27/01
    • H04L25/03057H04L25/06H04L25/08
    • A circuit includes a summation circuit for receiving an input data signal and a feedback signal including a previous data bit. The summation circuit is configured to output a conditioned input data signal to a clock and data recovery circuit. A first flip-flop is coupled to an output of the summation circuit and is configured to receive a first set of bits of the conditioned input data signal and a first clock signal having a frequency that is less than a frequency at which the input data signal is received by the first summation circuit. A second flip-flop is coupled to the output of the summation circuit and is configured to receive a second set of bits of the conditioned input data signal and a second clock signal having a frequency that is less than the frequency at which the input data signal is received by the first summation circuit.
    • 电路包括用于接收输入数据信号和包括先前数据位的反馈信号的求和电路。 求和电路被配置为将调节的输入数据信号输出到时钟和数据恢复电路。 第一触发器耦合到求和电路的输出,并且被配置为接收经调节的输入数据信号的第一比特组和具有小于输入数据信号的频率的频率的第一时钟信号 由第一求和电路接收。 第二触发器耦合到求和电路的输出,并且被配置为接收经调节的输入数据信号的第二组比特和具有小于输入数据信号的频率的频率的第二时钟信号 由第一求和电路接收。
    • 54. 发明授权
    • Method for one-step purification of recombinant Helicobacter pylori neutrophil-activating protein
    • 重组幽门螺杆菌嗜中性粒细胞活化蛋白一步纯化方法
    • US08673312B2
    • 2014-03-18
    • US13560593
    • 2012-07-27
    • Hua-Wen FuKuo-Shun ShihChih-Chang LinYu-Chi Yang
    • Hua-Wen FuKuo-Shun ShihChih-Chang LinYu-Chi Yang
    • A61K39/38A61K35/00A61K48/00C12P9/00C07C7/12
    • C07K14/205
    • Helicobacter pylori is closely associated with chronic gastritis, peptic ulcer disease, and gastric adenocarcinoma. Helicobacter pylori neutrophil-activating protein (HP-NAP), a virulence factor of Helicobacter pylori, plays an important role in pathogenesis of Helicobacter pylori infection. Since HP-NAP has been proposed as a candidate vaccine against Helicobacter pylori infection, an efficient way to obtain pure HP-NAP needs to be developed. In the present invention, recombinant HP-NAP expressed in Bacillus subtilis and Escherichia coli was purified through a single step of DEAE SEPHADEX ion-exchange chromatography with high purity. Also, purified recombinant HP-NAP was able to stimulate neutrophils to produce reactive oxygen species. Thus, recombinant HP-NAP obtained from our Bacillus subtilis expression system and Escherichia coli expression system is functionally active. Furthermore, this one-step negative purification method should provide an efficient way to purify recombinant HP-NAP expressed in Bacillus subtilis and Escherichia coli for basic studies, vaccine development, or drug design.
    • 幽门螺杆菌与慢性胃炎,消化性溃疡病和胃腺癌密切相关。 幽门螺杆菌嗜中性粒细胞激活蛋白(HP-NAP)是幽门螺杆菌的毒力因子,在幽门螺杆菌感染的发病机制中起重要作用。 由于HP-NAP已被提出作为针对幽门螺杆菌感染的候选疫苗,因此需要开发获得纯HP-NAP的有效途径。 在本发明中,通过具有高纯度的DEAE SEPHADEX离子交换色谱法的一步纯化在枯草芽孢杆菌和大肠杆菌中表达的重组HP-NAP。 此外,纯化的重组HP-NAP能够刺激嗜中性粒细胞产生活性氧。 因此,从我们的枯草芽孢杆菌表达系统和大肠杆菌表达系统获得的重组HP-NAP在功能上是活性的。 此外,该一步负纯化方法应提供一种有效的方法来纯化在枯草芽孢杆菌和大肠杆菌中表达的重组HP-NAP用于基础研究,疫苗开发或药物设计。
    • 57. 发明授权
    • Phase-lock assistant circuitry
    • 锁相辅助电路
    • US08354862B2
    • 2013-01-15
    • US13448878
    • 2012-04-17
    • Chih-Chang LinChan-Hong ChernSteven SweiMing-Chieh HuangTien-Chun Yang
    • Chih-Chang LinChan-Hong ChernSteven SweiMing-Chieh HuangTien-Chun Yang
    • H03D13/00
    • H03L7/08H03L7/081H03L7/087
    • A circuit including a first circuit configured to receive an input signal and first, third and fifth phase clocks of a clock, and generate a first early signal indicating the clock is earlier than the input signal and a first late signal indicating the clock is later than the input signal. The circuit further includes a second circuit configured to receive an input signal and second, a fourth and sixth phase clocks of the clock, and generate a second early signal indicating the clock is earlier than the input signal and a second late signal indicating the clock is later than the input signal. The circuit further includes a third circuit configured to generate a first increase signal. The circuit further includes a fourth circuit configured to generate a first decrease signal.
    • 包括被配置为接收输入信号和时钟的第一,第三和第五相位时钟并且产生指示时钟的第一早期信号的第一电路的电路早于输入信号,并且指示时钟的第一晚信号晚于 输入信号。 电路还包括配置成接收时钟的输入信号和第二,第四和第六相位时钟的第二电路,并且产生指示时钟早于输入信号的第二早期信号,并且指示时钟的第二延迟信号是 晚于输入信号。 电路还包括被配置为产生第一增加信号的第三电路。 电路还包括被配置为产生第一减小信号的第四电路。
    • 58. 发明授权
    • Phase-lock assistant circuitry
    • 锁相辅助电路
    • US08179162B2
    • 2012-05-15
    • US12835130
    • 2010-07-13
    • Chih-Chang LinChan-Hong ChernSteven SweiMing-Chieh HuangTien-Chun Yang
    • Chih-Chang LinChan-Hong ChernSteven SweiMing-Chieh HuangTien-Chun Yang
    • H03D13/00H03L7/06
    • H03L7/08H03L7/081H03L7/087
    • Some embodiments regard a circuit comprising: a first circuit configured to lock a frequency of an output clock to a frequency of a reference clock; a second circuit configured to align an input signal to a phase clock of the output clock; a third circuit configured to use a first set of phase clocks of the output clock and a second set of phase clocks of the output clock to improve alignment of the input signal to the phase clock of the output clock; and a lock detection circuit configured to turn on the first circuit when the frequency of the output clock is not locked to the frequency of the reference clock; and to turn off the first circuit and to turn on the second circuit and the third circuit when the frequency of the output clock is locked to the frequency of the reference clock.
    • 一些实施例涉及一种电路,包括:第一电路,其被配置为将输出时钟的频率锁定到参考时钟的频率; 第二电路,被配置为将输入信号与所述输出时钟的相位时钟对准; 第三电路,被配置为使用所述输出时钟的第一组相位时钟和所述输出时钟的第二组相位时钟,以改善所述输入信号与所述输出时钟的相位时钟的对准; 以及锁定检测电路,被配置为当所述输出时钟的频率未被锁定到所述参考时钟的频率时接通所述第一电路; 并且当输出时钟的频率被锁定到参考时钟的频率时,关闭第一电路并接通第二电路和第三电路。
    • 59. 发明授权
    • Counters and exemplary applications
    • 计数器和示范应用
    • US08068576B2
    • 2011-11-29
    • US12699458
    • 2010-02-03
    • Chih-Chang LinTien-Chun YangSteven Swei
    • Chih-Chang LinTien-Chun YangSteven Swei
    • H03K21/00
    • H03K21/38
    • Embodiments described herein are related to a counter. In some embodiments, the counter can be used as a divider, e.g., in a fractional PLL. In some embodiments, the counter (e.g., the main counter or counter C) includes a first counter (e.g., counter C1) and a second counter (e.g., counter C2), which, together with the first counter C1, perform the counting function for counter C. For example, if counter C is to count to the value N, then counter C1 counts, e.g., to N1, and counter C2 counts to N2 where N=N1+N2. For counter C1 to count to N1, N1 is loaded to counter C1. Similarly, for counter C2 to count to N2, N2 is loaded to counter C2. While counter C1 counts (e.g., to N1), N2 can be loaded to counter C2. After counter C1 finishes counting to N1, N2, if loaded, is available for counter C2 to start counting to this N2. Counters C1 and C2 can alternately count and thus provide continuous counting for counter C. Other embodiments and exemplary applications are also disclosed.
    • 本文描述的实施例涉及计数器。 在一些实施例中,计数器可以用作分频器,例如在分数PLL中。 在一些实施例中,计数器(例如,主计数器或计数器C)包括第一计数器(例如,计数器C1)和第二计数器(例如,计数器C2),其与第一计数器C1一起执行计数功能 对于计数器C.例如,如果计数器C计数到值N,则计数器C1计数,例如,到N1,并且计数器C2计数到N2,其中N = N1 + N2。 对于计数器C1计数到N1,N1被加载到计数器C1。 类似地,对于计数器C2计数到N2,N2被加载到计数器C2。 当计数器C1计数(例如,到N1)时,可以将N2加载到计数器C2。 在计数器C1结束计数到N1之后,N2(如果加载)可用于计数器C2开始计数到这个N2。 计数器C1和C2可以交替地计数并因此为计数器C提供连续计数。还公开了其他实施例和示例性应用。