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    • 102. 发明授权
    • Compact P-channel/N-channel transistor structure
    • 紧凑的P沟道/ N沟道晶体管结构
    • US5693975A
    • 1997-12-02
    • US539805
    • 1995-10-05
    • Chuen-Der Lien
    • Chuen-Der Lien
    • H01L21/8238H01L27/092H01L29/06H01L27/11H01L29/04H01L29/76
    • H01L27/0928H01L21/823814H01L21/823878Y10S257/903
    • A structure for a complementary field effect transistor includes a semiconductor body having a first body region of a first conductivity type and an adjoining second body region of an opposite second conductivity type. A buried dielectric region is located in the semiconductor body beneath the upper semiconductor surface and extends into the first and second body regions. A first drain region of the second conductivity type is located in the semiconductor body and adjoins the first body region, the dielectric region and the upper semiconductor surface. A second drain region of the first conductivity type is located in the semiconductor body and adjoins the second body region, the dielectric region and the upper semiconductor surface. The two drain regions are adjacent to one another. The buried dielectric region underlies the two drain regions and contacts portions of both drain regions so as to (a) isolate the first drain region from the second body region and (b) isolate the second drain region from the first body region. The transistor structure can be fabricated according to processes in which formation of the body regions is initiated before or after the dielectric region is formed.
    • 互补场效应晶体管的结构包括具有第一导电类型的第一体区和相对的第二导电类型的邻接的第二体区的半导体本体。 掩埋介电区位于半导体本体的下半导体表面下方并延伸到第一和第二体区内。 第二导电类型的第一漏极区位于半导体本体中并与第一体区,电介质区和上半导体表面相邻。 第一导电类型的第二漏区位于半导体本体中,并与第二体区,电介质区和上半导体表面相邻。 两个漏极区彼此相邻。 掩埋介质区域位于两个漏极区域的下方并且接触两个漏极区域的部分,从而(a)使第一漏极区域与第二体区域隔离,并且(b)将第二漏极区域与第一体区域隔离。 可以根据在形成电介质区域之前或之后开始体区的形成的工艺来制造晶体管结构。
    • 103. 发明授权
    • Method for making high speed poly-emitter bipolar transistor
    • 制造高速多晶硅双极晶体管的方法
    • US5643809A
    • 1997-07-01
    • US572449
    • 1995-12-14
    • Chuen-Der Lien
    • Chuen-Der Lien
    • H01L21/331H01L29/10H01L29/417H01L29/732H01L21/265
    • H01L29/66272H01L29/1004H01L29/41708H01L29/732Y10S148/009Y10S148/01
    • Spacers are formed on the inside walls of a narrow silicon loss trench of a poly-emitter type bipolar transistor structure so that at most a narrow strip on the bottom of the trench receives high concentration doping when an extrinsic base region of the bipolar transistor is being doped. The narrowness of the exposed silicon surface which is etched to form the silicon loss trench slows vertical etching and thereby facilitates the formation of a shallow trench. The narrowness of the strip on the bottom of the trench which receives high concentration doping causes slow vertical diffusion of dopants. As a result, the highly doped link region which extends downward from the bottom of the trench does not extend downward much farther than the base region. A high cutoff frequency is therefore achievable by reducing the distance between the bottom of the base region and the top of the buried layer without decreasing the base-to-collector breakdown voltage.
    • 间隔物形成在多发射体型双极晶体管结构的窄硅损失沟槽的内壁上,使得当双极晶体管的非本征基极区为正时,沟槽底部的至少一个窄条接收高浓度掺杂 掺杂。 被蚀刻以形成硅损耗沟槽的暴露的硅表面的狭窄减慢了垂直蚀刻,从而有利于形成浅沟槽。 接收高浓度掺杂的沟槽底部的条纹狭窄导致掺杂剂的慢垂直扩散。 结果,从沟槽底部向下延伸的高度掺杂的链路区域不会比基极区域向下延伸得更远。 因此,通过减小基极区域的底部和埋层的顶部之间的距离而不降低基极到集电极击穿电压,可以实现高截止频率。
    • 107. 发明授权
    • Circuit for outputting a data signal following an output enable command
signal
    • 用于在输出使能命令信号之后输出数据信号的电路
    • US5173627A
    • 1992-12-22
    • US731502
    • 1991-07-17
    • Chuen-Der Lien
    • Chuen-Der Lien
    • G11C7/10H03K17/16H03K19/0944H03K19/0948
    • G11C7/1051H03K17/163H03K19/09441H03K19/0948
    • The invention provides an output enable control circuit with a three gate delay. The circuit includes a CMOS passgate or other transmission control and filtering means, one or more shunting transistors, and an output driver. The CMOS passgate, in conjunction with a first shunting transistor, allows an output enable command to control transmission of the data signal to the output driver. By properly tuning the CMOS passgate, bounce on the power supply and ground lines can be minimized. A second shunting transistor can be included to allow other data control signals, such as a write enable or chip select signal, to cease data output by the circuit. Additionally, a third shunting transistor, controlled by the data signal, can be included to allow fast turn off of the output driver.
    • 本发明提供具有三门延迟的输出使能控制电路。 该电路包括CMOS通道或其他传输控制和滤波装置,一个或多个分流晶体管和输出驱动器。 CMOS通道与第一分流晶体管一起允许输出使能命令来控制数据信号传输到输出驱动器。 通过适当调谐CMOS通道,可以使电源和接地线上的反弹最小化。 可以包括第二分流晶体管以允许诸如写使能或片选信号的其它数据控制信号停止电路输出的数据。 此外,可以包括由数据信号控制的第三分流晶体管,以允许输出驱动器的快速关断。
    • 108. 发明授权
    • Look-ahead built-in self tests
    • 先进的内置自检
    • US07877657B1
    • 2011-01-25
    • US11960618
    • 2007-12-19
    • 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, 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. 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,在功能元件处于空闲周期内执行功能元件的应力测试,并且指示功能元件(如果其失效) ,是一个未来潜在的潜在因素。 应力测试可以包括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。
    • 109. 发明授权
    • System and method for integrated circuit charge recycling
    • 集成电路充电回收系统及方法
    • US07414460B1
    • 2008-08-19
    • US11395061
    • 2006-03-31
    • Chuen-Der LienChau-Chin WuTzong-Kwang Yeh
    • Chuen-Der LienChau-Chin WuTzong-Kwang Yeh
    • G05F3/02
    • H02M3/07
    • A charge recycling integrated circuit and a method for integrated circuit charge recycling. In one aspect, a charge storage collector is interposed between a high voltage supply or a low voltage supply and a function block of the integrated circuit. The charge collector is operable to selectively store a charge dissipated in the function block when the logic circuitry of the function block switches between a high voltage value and a low voltage value. The dissipated charge resulting from the switching in the logic circuitry of the function block is selectively stored to the charge collector and the charge collector selectively returns the charge stored on the charge collector to the high voltage supply, the low voltage supply or to another node in the integrated circuit as appropriate.
    • 电荷回收集成电路和集成电路充电回收方法。 在一个方面,电荷存储收集器介于高压电源或低压电源和集成电路的功能块之间。 当功能块的逻辑电路在高电压值和低电压值之间切换时,电荷收集器可操作以选择性地存储消耗在功能块中的电荷。 由功能块的逻辑电路中的开关导致的耗散电荷被选择性地存储到电荷收集器中,并且电荷收集器选择性地将存储在电荷收集器上的电荷返回到高电压源,低电压电源或另一个节点 集成电路适当。