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    • 2. 发明公开
    • 디바이스의 입출력 장치
    • 设备的输入和输出设备
    • KR1020050030779A
    • 2005-03-31
    • KR1020030066937
    • 2003-09-26
    • 삼성전자주식회사
    • 최정환
    • H03K19/0175
    • H03K19/018521H03K19/017H04L25/0264
    • An apparatus for inputting and outputting at the device is provided to reduce the number of channel required to the signal transmission and reception by using the full differential method when the device is operated at the normal mode and by using the pseudo differential method when the device is operated at the test mode. An apparatus for inputting and outputting at the device includes an input unit(301) and an output unit. The input unit(301) generates the non-inverted input data and the inverted input data by receiving the non-inverted data and the inverted data from each channel pair during the normal mode, wherein the first channel receives the non-inverted data and the second channel receives the inverted data. The input unit(301) generates the non-inverted input data and the inverted input data by receiving the non-inverted data and the reference voltage from each channel pair during the test mode. The output unit transmits the non-inverted output data to the first channel and transmits the inverted output data to the second channel during the normal mode. During the test mode, the output unit transmits the non-inverted data to the first channel and does not transmit the non-inverted data to the second channel.
    • 提供一种用于在设备处输入和输出的装置,用于当设备在正常模式下操作时通过使用全差分方法来减少信号发送和接收所需的信道数量,并且当设备为 在测试模式下运行。 一种用于在设备处输入和输出的装置包括输入单元(301)和输出单元。 输入单元(301)在正常模式期间通过从每个通道对接收非反相数据和反相数据来产生非反相输入数据和反相输入数据,其中第一通道接收非反转数据, 第二通道接收反相数据。 输入单元(301)通过在测试模式期间从每个通道对接收非反相数据和参考电压来产生非反相输入数据和反相输入数据。 输出单元将非反相输出数据发送到第一通道,并且在正常模式期间将反相输出数据发送到第二通道。 在测试模式期间,输出单元将非反相数据发送到第一通道,并且不将非反相数据发送到第二通道。
    • 3. 发明公开
    • 로직 회로, 반도체 장치, 전자 부품, 및 전자 기기
    • 逻辑电路半导体器件电子元件和电子器件
    • KR1020170003420A
    • 2017-01-09
    • KR1020160080003
    • 2016-06-27
    • 가부시키가이샤 한도오따이 에네루기 켄큐쇼
    • 다무라히카루
    • H03K19/0948H03K19/096H03K17/06
    • H03K19/0013H01L27/1225H01L29/7869H03K19/017
    • 본발명의과제는로직회로의구동능력을향상시키는것이다. 로직회로는, 제 1 출력노드, 다이내믹로직회로, 다이오드접속된제 1 트랜지스터, 및용량소자를갖는다. 다이내믹로직회로는제 2 출력노드, 및복수의제 2 트랜지스터를갖는다. 제 1 트랜지스터및 복수의제 2 트랜지스터의도전형은 n형및 p형중 어느한쪽이다. 용량소자의한쪽의단자는제 1 출력노드와, 다른쪽의단자는제 2 출력노드와전기적으로접속된다. 제 1 트랜지스터의제 1 단자는제 1 출력노드와전기적으로접속되고, 제 1 트랜지스터의제 2 단자에는제 1 전압이입력된다. 제 1 트랜지스터의백게이트의전압에따라, 제 1 출력노드의전압이변화된다.
    • 提高了逻辑电路的驱动能力。 逻辑电路包括第一输出节点,动态逻辑电路,二极管连接的第一晶体管和电容器。 动态逻辑电路包括第二输出节点和多个第二晶体管形成和评估电路。 第一晶体管和多个第二晶体管都具有n型导电性和p型导电性之一。 电容器的一个端子电连接到第一输出节点。 电容器的另一个端子电连接到第二输出节点。 第一晶体管的第一端子电连接到第一输出节点。 第一电压被输入到第一晶体管的第二端子。 第一输出节点的电压通过施加到第一晶体管的背栅极的电压而改变。
    • 5. 发明公开
    • 부트스트랩 회로
    • BOOTSTRAP电路
    • KR1020090086357A
    • 2009-08-12
    • KR1020090010076
    • 2009-02-09
    • 소니 주식회사
    • 진타세이이치로
    • G11C19/00G11C8/04
    • H03K19/017
    • A bootstrap circuit is provided to prevent a malfunction by decreasing sudden change by the parasitic capacitance. In a bootstrap circuit, one of source and drain region of the first transistor(Tr1) and one of the source and drain of the second transistor(Tr2) are connected each other through output unit. The other one of source and drain region of the first transistor is connected to a clock line. One of the source and drain of the gate electrode of the first transistor and one of the source and drain of third transistor(Tr3) are connected with each other through a node portion. The other one is connected to the first voltage supply line(PS1) of source and drain region of the second transistor.
    • 提供自举电路以通过减小寄生电容的突然变化来防止故障。 在自举电路中,第一晶体管(Tr1)的源极和漏极区域中的一个以及第二晶体管(Tr2)的源极和漏极中的一个通过输出单元彼此连接。 第一晶体管的源极和漏极区域中的另一个连接到时钟线。 第一晶体管的栅电极和第三晶体管(Tr3)的源极和漏极之一的源极和漏极之一通过节点部分彼此连接。 另一个连接到第二晶体管的源极和漏极区的第一电压源线(PS1)。
    • 8. 发明公开
    • 레벨 시프트 회로
    • 水平移位电路
    • KR1020120042505A
    • 2012-05-03
    • KR1020100104220
    • 2010-10-25
    • 주식회사 에이디텍
    • 김성렬류동열이병찬
    • H03K19/0185
    • H03K19/018521H03K19/0013H03K19/017
    • PURPOSE: A level shift circuit is provided to improve the driving strength of an output switching apparatus by using a low voltage device for a latch and a gate driver in a shifter circuit. CONSTITUTION: An input circuit(210) outputs an in-phase input signal having an in-phase and an inversion input signal having an inverted phase by receiving an input signal having a voltage level between a first driving voltage and a ground voltage. A shifter circuit(220) changes the in-phase input signal and an inversion input signal outputted from the input circuit to an output signal having a voltage level between the ground voltage and a second driving voltage which higher than the first driving voltage. A gate driver(230) outputs a driving signal by receiving the output signal. An output switching apparatus(240) outputs a switching voltage by receiving the driving signal outputted from the gate driver.
    • 目的:提供一种电平移位电路,通过使用用于锁存器的低电压装置和移位电路中的栅极驱动器来提高输出开关装置的驱动强度。 构成:输入电路(210)通过接收具有第一驱动电压和接地电压之间的电压电平的输入信号,输出具有反相的同相输入信号和反相输入信号。 移位器电路(220)将同相输入信号和从输入电路输出的反相输入信号改变为具有接地电压和高于第一驱动电压的第二驱动电压之间的电压电平的输出信号。 栅极驱动器(230)通过接收输出信号来输出驱动信号。 输出开关装置(240)通过接收从栅极驱动器输出的驱动信号来输出开关电压。
    • 9. 发明公开
    • 동적 전류-모드 로직 회로
    • 动态电流模式逻辑电路
    • KR1020090115472A
    • 2009-11-05
    • KR1020080041355
    • 2008-05-02
    • 삼성전자주식회사
    • 송진석
    • H03K19/094
    • H03K19/09432H03K19/0013H03K19/017
    • PURPOSE: A dynamic current-mode logic circuit is provided to reduce current of a short circuit in static mode at high speed by using a logic gate with a new structure. CONSTITUTION: In a dynamic current-mode logic circuit, an MOS current-mode logic block(DLT) includes differential input terminals and differential output terminals. The MOS current-mode logic block performs an evaluation operation of the differential input signals in an evaluation step. Precharge circuit(Q2,Q3,Q4) precharge voltage levels of differential output terminals to the voltage level of the electric power supply in a precharge step. The precharge circuit connects a virtual ground node and a ground node within an activation range during of an pulse signal. A first switch circuit separates a current output terminal and a virtual ground node of the MOS current-mode logic block in the precharge step.
    • 目的:提供一种动态电流模式逻辑电路,通过使用具有新结构的逻辑门,以高速度降低静态模式下的短路电流。 构成:在动态电流模式逻辑电路中,MOS电流模式逻辑块(DLT)包括差分输入端子和差分输出端子。 MOS电流模式逻辑块在评估步骤中执行差分输入信号的评估操作。 预充电电路(Q2,Q3,Q4)在预充电步骤中将差分输出端子的预充电电压电平调节到电源的电压电平。 在脉冲信号期间,预充电电路将虚拟接地节点和接地节点连接在激活范围内。 第一开关电路在预充电步骤中分离MOS电流模式逻辑块的电流输出端子和虚拟接地节点。
    • 10. 发明公开
    • 레벨 시프트 회로
    • 水平移位电路
    • KR1020090007210A
    • 2009-01-16
    • KR1020080057442
    • 2008-06-18
    • 야마하 가부시키가이샤
    • 츠지노부아키카와이히로타카
    • H03K19/0175
    • H03K19/018521H03K3/356113H03K19/017
    • A level shift circuit is provided to protect the low voltage transistor by regularly maintaining the source voltage of the high voltage transistor. A level shift circuit(100) converts a high voltage power source(VH) into the output signal(OUT1 and OUT2) of the high voltage. A latch circuit(20) controls the operation of supplying the high voltage power source. An input-output circuit(70) comprises the high voltage transistor, the low voltage transistor and the second diode. A stable-currents circuit(30) controls the voltage of A-point. A first diode(40) and a second diode(50) are installed in the stable-currents circuit. One end of the first diode is earthed. The other end of the first diode is connected to the point B. One end of the second diode is connected to the source of the high voltage transistor. The other end of the first diode is earthed. The stable-currents circuit is comprised of the high voltage transistor(HP1) and the constant voltage circuit. The source of the high voltage transistor is connected to the high voltage power source(VH). A current mirror circuit(60) comprises the high voltage transistor.
    • 提供电平移位电路以通过定期维持高电压晶体管的源极电压来保护低压晶体管。 电平移位电路(100)将高压电源(VH)转换成高电压的输出信号(OUT1和OUT2)。 锁存电路(20)控制供给高电压电源的动作。 输入输出电路(70)包括高压晶体管,低压晶体管和第二二极管。 稳定电流电路(30)控制A点的电压。 第一二极管(40)和第二二极管(50)安装在稳流电路中。 第一个二极管的一端接地。 第一二极管的另一端连接到点B.第二二极管的一端连接到高电压晶体管的源极。 第一个二极管的另一端接地。 稳定电流电路由高压晶体管(HP1)和恒压电路构成。 高压晶体管的源极连接到高压电源(VH)。 电流镜电路(60)包括高压晶体管。