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    • 1. 发明授权
    • Method and system for performing self-tests in an electronic system
    • 在电子系统中执行自检的方法和系统
    • US08659310B2
    • 2014-02-25
    • US13087550
    • 2011-04-15
    • Martin EckertRoland FrechJochen SupperOtto A. Torreiter
    • Martin EckertRoland FrechJochen SupperOtto A. Torreiter
    • G01R31/3187
    • G01R31/31721G01R31/3004
    • A method and system for performing a self-test of power supply quality for an integrated circuit chip within an electronic system. The electronic system is subjected to a well-defined repetitive activity, such as by using an amplitude modulated system clock tree. With the repetitive activity causing current consumption within the chip, time-domain local power supply voltage (U(t)) is measured for a location on the chip. A set of time-domain measured voltage data (U(t)) is accumulated and transformed into the frequency domain to yield a local voltage profile (U(f)). The local voltage profile (U(f)) is compared with a reference voltage profile (U0(f)) to verify whether power supply quality at the chip location under test is adequate. Alternatively, a local impedance profile Z(f) evaluated from the local voltage profile (U(f)) may be compared to a reference impedance profile Z0(f).
    • 一种用于对电子系统内的集成电路芯片进行电源质量自检的方法和系统。 电子系统受到明确的重复活动,例如通过使用调幅系统时钟树。 由于重复的活动导致芯片内的电流消耗,对于芯片上的位置测量时域本地电源电压(U(t))。 一组时域测量电压数据(U(t))被积累并变换到频域以产生局部电压分布(U(f))。 将本地电压曲线(U(f))与参考电压曲线(U0(f))进行比较,以验证被测芯片位置的电源质量是否足够。 或者,可以将从局部电压分布(U(f))估计的局部阻抗曲线Z(f)与参考阻抗曲线Z0(f)进行比较。
    • 3. 发明申请
    • Method And System For Performing Self-Tests In An Electronic System
    • 在电子系统中进行自检的方法和系统
    • US20120013356A1
    • 2012-01-19
    • US13087550
    • 2011-04-15
    • Martin EckertRoland FrechJochen SupperOtto A. Torreiter
    • Martin EckertRoland FrechJochen SupperOtto A. Torreiter
    • G01R31/3187
    • G01R31/31721G01R31/3004
    • A method and system for performing a self-test of power supply quality for an integrated circuit chip within an electronic system. The electronic system is subjected to a well-defined repetitive activity, such as by using an amplitude modulated system clock tree. With the repetitive activity causing current consumption within the chip, time-domain local power supply voltage (U(t)) is measured for a location on the chip. A set of time-domain measured voltage data (U(t)) is accumulated and transformed into the frequency domain to yield a local voltage profile (U(f)). The local voltage profile (U(f)) is compared with a reference voltage profile (U0(f)) to verify whether power supply quality at the chip location under test is adequate. Alternatively, a local impedance profile Z(f) evaluated from the local voltage profile (U(f)) may be compared to a reference impedance profile Z0(f).
    • 一种用于对电子系统内的集成电路芯片进行电源质量自检的方法和系统。 电子系统受到明确的重复活动,例如通过使用调幅系统时钟树。 由于重复的活动导致芯片内的电流消耗,对于芯片上的位置测量时域本地电源电压(U(t))。 一组时域测量电压数据(U(t))被积累并变换到频域以产生局部电压分布(U(f))。 将本地电压曲线(U(f))与参考电压曲线(U0(f))进行比较,以验证被测芯片位置的电源质量是否足够。 或者,可以将从局部电压分布(U(f))估计的局部阻抗曲线Z(f)与参考阻抗曲线Z0(f)进行比较。
    • 5. 发明授权
    • Tunable on-chip capacity
    • 可调芯片容量
    • US06535075B2
    • 2003-03-18
    • US09737929
    • 2000-12-15
    • Roland FrechErich KlinkJochen Supper
    • Roland FrechErich KlinkJochen Supper
    • H03H701
    • H01L27/0805
    • The invention relates to a tunable on-chip capacity circuit for a semiconductor chip (10) mounted on a substrate (30) and including a plurality of power supply decoupling capacitors (20-23) which can be selectively activated or deactivated by being switched on or off the power supply system. An on-chip detecting circuit (32) determines a circuit specific load/unload frequency of the on-chip power supply network, and on-chip control means (28, 33) responsive to signals of the detecting circuit increases or decreases the total of the on-chip capacity (CSD) by selectively activating or deactivating power supply decoupling capacitors (20-23). Off-chip path impedances (LMC, RMC), an off-chip capacity (CM) and the total on-chip capacity (CC), including the plurality of power supply decoupling capacitors (20-23) and parasitic on-chip capacities (CP), form a resonance loop (40) which is tunable by changing the total capacity (CSD) of the on-chip power supply decoupling capacitors. By tuning the total capacity (CSD) of the decoupling capacitors a resonance condition of the resonance loop (40) is met under which a minimum of switching power noise and a minimum switching power consumption is achieved.
    • 本发明涉及一种用于半导体芯片(10)的可调片上容量电路,该半导体芯片(10)安装在基板(30)上并且包括多个电源去耦电容器(20-23),该电源去耦电容器可通过接通而被选择性地激活或去激活 或关闭供电系统。 片上检测电路(32)确定片上电源网络的电路特定的负载/卸载频率,响应于检测电路的信号的片上控制装置(28,33)增加或减少 片上容量(CSD)通过选择性地激活或去激活电源去耦电容器(20-23)。 片外路径阻抗(LMC,RMC),片外容量(CM)和片上容量(CC),包括多个电源去耦电容器(20-23)和寄生片上容量( CP)形成谐振回路(40),其可通过改变片上电源去耦电容器的总容量(CSD)来调节。 通过调谐去耦电容器的总容量(CSD),满足谐振回路(40)的谐振条件,在该谐振回路(40)的谐振条件下达到最小开关功率噪声和最小开关功耗。
    • 6. 发明授权
    • Method and system for impedance measurement in an integrated Circuit
    • 集成电路中阻抗测量的方法和系统
    • US08519720B2
    • 2013-08-27
    • US13087602
    • 2011-04-15
    • Roland FrechJochen SupperThomas-Michael Winkel
    • Roland FrechJochen SupperThomas-Michael Winkel
    • G01R27/28
    • G01R27/16G01R31/3004
    • A method for determining a power supply impedance profile (|Z(f)|) at a predetermined load location within an electronic system. A repetitive activity (such as a modulated clock tree signal) is applied in the load location, and the local power supply voltage (U(t)) caused by this repetitive activity is measured. Rather than measuring the corresponding current consumption (I(t)) caused by the repetitive activity, the current consumption is calculated analytically. The local power supply impedance profile (|Z(f)|) is calculated as the ratio of the frequency-domain voltage and current consumption magnitudes (|U(f)|, |I(f)|) of the measured power supply voltage (U(t)) and the calculated current consumption (I(t)).
    • 一种用于确定电子系统内的预定负载位置处的电源阻抗分布(| Z(f)|)的方法。 在负载位置施加重复活动(如调制时钟树信号),并测量由该重复活动引起的局部电源电压(U(t))。 不是测量由重复活动引起的相应的电流消耗(I(t)),而是分析计算电流消耗。 本地电源阻抗曲线(| Z(f)|)被计算为测量的电源电压的频域电压和电流消耗量(| U(f)|,| I(f)|) (U(t))和计算出的电流消耗(I(t))。
    • 8. 发明授权
    • Testable on-chip capacity
    • 片上容量可测
    • US06424058B1
    • 2002-07-23
    • US09672809
    • 2000-09-28
    • Roland FrechErich KlinkJochen Supper
    • Roland FrechErich KlinkJochen Supper
    • H02M306
    • G01R27/2605G01R31/27Y10T307/74Y10T307/766Y10T307/826
    • The invention relates to a testable on-chip capacitor cell 10 including a decoupling capacitor (Ci) which can be disconnected from the power distribution network and discharged through a cell internal discharge circuit. An externally controllable switch (Si) connects in a first switching position the decoupling capacitor to the power supply system and disconnects in a second switching position the decoupling capacitor from the power supply system and connects it to a resistor (Ri) which is part of the discharge circuit. An off-chip control unit (16) is provided for toggling the switch with a frequency fT between its first and second position to perform a capacitor test operation. By a current measurement device the averaged power supply current demand of the decoupling capacitor is measured when switch (Si) is toggled. The actual capacity of the decoupling capacitor is determined as a function of the power supply voltage, of the switch toggling frequency (fT) and of the averaged power supply current measured. The invention also relates to a semiconductor chip containing a plurality of capacitors cells of the type described, and to a method for testing the power supply decoupling capacity of such chips.
    • 本发明涉及一种可测试的片上电容器单元10,其包括可以从配电网络断开并通过单元内部放电电路放电的去耦电容器(Ci)。 外部可控开关(Si)将去耦电容器的第一开关位置连接到电源系统,并在去耦电容器与电源系统的第二开关位置断开,并将其连接到电阻器(Ri),该电阻器 放电电路。 提供了片外控制单元(16),用于在第一和第二位置之间以频率fT切换开关,以执行电容器测试操作。 通过电流测量装置,当开关(Si)被切换时,测量去耦电容器的平均电源电流需求。 去耦电容的实际容量根据电源电压,开关切换频率(fT)和测量的平均电源电流确定。 本发明还涉及包含所述类型的多个电容器单元的半导体芯片以及用于测试这种芯片的电源去耦能力的方法。