会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 63. 发明授权
    • ECL to CMOS voltage translator with bipolar transistor
    • ECL至CMOS电压转换器,带双极晶体管
    • US5182475A
    • 1993-01-26
    • US762960
    • 1991-09-20
    • Chuen-Der Lien
    • Chuen-Der Lien
    • H03K19/017H03K19/0175
    • H03K19/017518H03K19/01721
    • An improved circuit for translating ECL level voltages to CMOS level voltages. The circuit of the invention has a voltage gain stage with a bipolar transistor connected to a PMOS transistor, and a resistive loading stage including NMOS transistors. The bipolar transistor functions to increase the speed of the circuit (particularly at high temperatures) by increasing the driving capability of the voltage gain stage. The speed of the circuit will degrade very little at high temperature and high output load conditions, because the current driving capability of the bipolar transistor employed has low sensitivity to output loading and temperature.
    • 用于将ECL电平电压转换为CMOS电平电压的改进电路。 本发明的电路具有连接到PMOS晶体管的双极晶体管和包括NMOS晶体管的电阻加载级的电压增益级。 双极晶体管的作用是通过增加电压增益级的驱动能力来提高电路的速度(特别是在高温下)。 由于采用的双极晶体管的电流驱动能力对输出负载和温度的敏感性低,所以在高温和高输出负载条件下,电路的速度将会很低。
    • 64. 发明授权
    • Look-ahead built-in self tests with temperature elevation of functional elements
    • 先进的内置自检与功能元素的温度升高
    • US08028211B1
    • 2011-09-27
    • US12268854
    • 2008-11-11
    • Michael MillerChuen-Der Lien
    • Michael MillerChuen-Der Lien
    • G01R31/3187G01R31/40
    • G01R31/3016G01R31/318519
    • A method and apparatus are disclosed for predicting the failure of a functional element of an integrated circuit during operation. The method includes determining whether the functional element of the integrated circuit device is in an idle cycle, elevating the temperature of the functional element above a normal operating temperature, performing a stress test of the functional element while the functional element is in the idle cycle, and indicating that the functional element, if it fails the stress test, is a potential future failing element. The stress test can include simultaneously providing a margining test voltage and a stress clock signal to the functional element while the temperature is elevated or at a normal operating temperature. The stress test is performed in the background, during continuous operation of the integrated circuit device, such that normal operation of the integrated circuit device is not interrupted. Thereby, the method and apparatus of the present invention allows for failure prediction in a device before it happens, allowing for planned outages or workarounds and avoiding system downtime for unplanned repairs.
    • 公开了一种用于在操作期间预测集成电路的功能元件的故障的方法和装置。 该方法包括:确定集成电路器件的功能元件是否处于空闲周期,将功能元件的温度升高到正常工作温度以上,在功能元件处于空闲周期期间执行功能元件的压力测试, 并指出功能元件(如果压力测试失败)是潜在的未来故障元素。 应力测试可以包括在温度升高或在正常工作温度下同时向功能元件提供裕度测试电压和应力时钟信号。 在集成电路装置的连续运行期间,在背景中执行应力测试,使得集成电路装置的正常操作不被中断。 因此,本发明的方法和装置允许在装置发生之前对装置进行故障预测,从而允许计划中断或解决方案,并避免计划外维修的系统停机时间。
    • 66. 再颁专利
    • CAM arrays having CAM cells therein with match line and low match line connections and methods of operating same
    • CAM阵列,其中具有匹配线和低匹配线路连接的CAM单元及其操作方法
    • USRE41351E1
    • 2010-05-25
    • US10106420
    • 2002-03-26
    • Chuen-Der LienChau-Chin Wu
    • Chuen-Der LienChau-Chin Wu
    • G11C15/00
    • G11C15/046G11C15/04G11C15/043
    • A CAM array including volatile or non-volatile ternary CAM cells that discharge their associated match line through a special discharge line (e.g., a low match line), instead of through the bit line, is disclosed. Each ternary CAM cell includes a pair of storage elements that are used to store a data bit value, a comparison element that is used to compare the stored value with an applied data value, and a discharge element that is coupled between the discharge line and the match line. During operation, when the applied data value matches the stored value, the discharge element de-couples the discharge line from the match line (i.e., a high voltage on the match line remains high). Conversely, when the applied data value does not match the stored value, the discharge elements couple the discharge line to the match line, thereby discharging the match line to the discharge line. By discharging the match line to the discharge line instead of the bit lines of the CAM array, the size of the CAM array is not limited by the length bit lines. Because the voltage on the match line is sensed to determine the match/no-match condition of a CAM cell, the match line does not need to be completely discharged.
    • 公开了一种包括挥发性或非挥发性三元CAM单元的CAM阵列,其通过特殊的放电线(例如,低匹配线)而不是通过位线而排出其相关匹配线。 每个三元CAM单元包括用于存储数据位值的一对存储元件,用于将存储的值与应用的数据值进行比较的比较元件,以及耦合在放电线和 匹配线。 在操作期间,当所应用的数据值与存储的值匹配时,放电元件将放电线与匹配线解耦(即,匹配线上的高电压保持为高)。 相反,当所施加的数据值与存储值不匹配时,放电元件将放电线耦合到匹配线,从而将匹配线放电到放电线。 通过将匹配线排放到放电线而不是CAM阵列的位线,CAM阵列的大小不受长度位线的限制。 由于感测匹配线上的电压以确定CAM单元的匹配/不匹配条件,所以匹配线不需要被完全放电。
    • 67. 发明授权
    • Electrical overstress (EOS) and electrostatic discharge (ESD) protection circuit and method of use
    • 电气应力(EOS)和静电放电(ESD)保护电路及其使用方法
    • US07706113B1
    • 2010-04-27
    • US11668360
    • 2007-01-29
    • Chuen-Der LienTa-Ke Tien
    • Chuen-Der LienTa-Ke Tien
    • H02H9/00H02H3/22
    • H01L27/0285
    • A system and method are provided for electrostatic discharge (ESD) protection circuit having overshoot and undershoot voltage protection during a power supply ramp-up of the circuit. In a specific embodiment, the ESD protection circuit of the present invention includes an ESD discharge circuit coupled between a power supply node and a ground supply node, a trigger circuit coupled to the ESD discharge circuit, the trigger circuit to turn the ESD discharge circuit on in the presence of a voltage spike during the power supply ramp-up and to turn the ESD discharge circuit off in the absence of a voltage spike during the power supply ramp-up, and a delay circuit coupled between the discharge circuit and the trigger circuit, the delay circuit to slow down the turn-off of the discharge circuit to prevent an overshoot or undershoot voltage condition during the power supply ramp-up of the circuit.
    • 提供一种用于在电路的电源斜升期间具有过冲和下冲电压保护的静电放电(ESD)保护电路的系统和方法。 在具体实施例中,本发明的ESD保护电路包括耦合在电源节点和接地电源节点之间的ESD放电电路,耦合到ESD放电电路的触发电路,触发电路以使ESD放电电路转向 在电源斜坡上升期间存在电压尖峰,并且在电源上升期间没有电压尖峰时将ESD放电电路断开,以及耦合在放电电路和触发电路之间的延迟电路 延迟电路,以减缓放电电路的关断,以防止在电路的电源上升期间的过冲或下冲电压状况。
    • 68. 发明授权
    • Memory array bit line coupling capacitor cancellation
    • 存储阵列位线耦合电容器取消
    • US07443747B2
    • 2008-10-28
    • US10997708
    • 2004-11-23
    • Chuen-Der LienTzong-Kwang Henry Yeh
    • Chuen-Der LienTzong-Kwang Henry Yeh
    • G11C7/00
    • G11C8/16G11C5/063G11C7/02G11C7/12G11C11/419
    • Capacitive coupling correction circuits are coupled between adjacent parallel dynamic (pre-charged) or static conductors. The capacitive coupling correction circuits effectively isolate a low voltage applied to a first conductor from a high pre-charged voltage stored on an adjacent second conductor (or vice versa). The adjacent parallel conductors can be bit lines of a memory cell. Each capacitive coupling correction circuit can include an inverter having an input terminal coupled to the first conductor, and an output terminal coupled to a first plate of a capacitor. A second plate of the capacitor is coupled to the second conductor. The capacitance of the capacitor is selected to be identical to a parasitic capacitance between the first and second conductors. As a result, there is a zero net voltage effect between the first and second conductors. The capacitive coupling correction circuits may be distributed along the length of the first and second conductors.
    • 电容耦合校正电路耦合在相邻的并联动态(预充电)或静态导体之间。 电容耦合校正电路有效地将施加到第一导体的低电压与存储在相邻的第二导体上的高预充电电压隔离(反之亦然)。 相邻的平行导体可以是存储单元的位线。 每个电容耦合校正电路可以包括具有耦合到第一导体的输入端的反相器和耦合到电容器的第一板的输出端。 电容器的第二板耦合到第二导体。 电容器的电容被选择为与第一和第二导体之间的寄生电容相同。 结果,在第一和第二导体之间存在零净电压效应。 电容耦合校正电路可以沿着第一和第二导体的长度分布。
    • 69. 发明授权
    • Electrostatic discharge protection circuit
    • 静电放电保护电路
    • US07102862B1
    • 2006-09-05
    • US10283532
    • 2002-10-29
    • Chuen-Der LienTa-Ke Tien
    • Chuen-Der LienTa-Ke Tien
    • H02H9/00
    • H01L27/0285
    • Circuits are disclosed for protecting internal circuitry of a semiconductor chip from increased power supply voltages due to electrostatic discharge (EDS). One example circuit includes a trigger circuit including a transistor and a capacitor arranged in series between DC pads. The trigger circuit generates a trigger signal to a discharge circuit connected between the DC pads to shunt charge from one of the DC pads to the other. The RC delay associated with the transistor and capacitor of the trigger circuit may be designed such that the trigger circuit generates the trigger signal in response to an ESD event, but not in response to high positive spikes on one of the DC pads during normal operation.
    • 公开了用于保护半导体芯片的内部电路免受由静电放电(EDS)引起的电源电压的电路。 一个示例电路包括触发电路,其包括串联布置在DC焊盘之间的晶体管和电容器。 触发电路产生触发信号到连接在DC焊盘之间的放电电路,以将电荷从DC焊盘之一分流到另一个。 可以设计与触发电路的晶体管和电容器相关联的RC延迟,使得触发电路响应于ESD事件而产生触发信号,但不响应于在正常操作期间的一个DC焊盘上的高正尖峰。
    • 70. 发明授权
    • CAM circuit with radiation resistance
    • 具有辐射电阻的CAM电路
    • US06924995B2
    • 2005-08-02
    • US10845654
    • 2004-05-13
    • Chuen-Der Lien
    • Chuen-Der Lien
    • G11C5/00G11C15/04G11C15/00
    • G11C5/005G11C15/04G11C15/043
    • A CMOS CAM circuit an array of CAMs formed on a p-type substrate. Each CAM cell includes a logic portion and an SRAM cell, both having at least one n-channel transistor formed in a p-type well on the p-type substrate. An n-type doped layer is formed between the p-type well region and the p-substrate. The doped layer and well region are maintained at a voltage potential that is between a threshold voltage and a breakdown voltage defined the PN junction formed at their interface. The resulting structure attracts electron-hole pairs formed by alpha particles, thereby preventing soft errors. Alternatively, the logic portions and SRAM cells have p-channel transistors formed in n-type wells on an n-type substrate, and a p-type doped layer is formed between the n-type well region and the n-substrate.
    • CMOS CAM电路形成在p型衬底上的CAM阵列。 每个CAM单元包括逻辑部分和SRAM单元,它们都具有形成在p型衬底上的p型阱中的至少一个n沟道晶体管。 在p型阱区和p型衬底之间形成n型掺杂层。 掺杂层和阱区保持在阈值电压和击穿电压之间的电压电位,限定了在其界面处形成的PN结。 所得结构吸引由α粒子形成的电子 - 空穴对,从而防止软错误。 或者,逻辑部分和SRAM单元具有形成在n型衬底上的n型阱中的p沟道晶体管,并且在n型阱区和n衬底之间形成p型掺杂层。