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    • 1. 发明授权
    • CMOS-compatible InP/InGaAs digital photoreceiver
    • CMOS兼容InP / InGaAs数字光电接收器
    • US5684308A
    • 1997-11-04
    • US601904
    • 1996-02-15
    • Michael L. LovejoyBenny H. RoseDavid C. CraftPaul M. EnquistDavid B. Slater, Jr.
    • Michael L. LovejoyBenny H. RoseDavid C. CraftPaul M. EnquistDavid B. Slater, Jr.
    • H01L27/144H01L31/0232
    • H01L27/1443
    • A digital photoreceiver is formed monolithically on an InP semiconductor substrate and comprises a p-i-n photodetector formed from a plurality of InP/InGaAs layers deposited by an epitaxial growth process and an adjacent heterojunction bipolar transistor (HBT) amplifier formed from the same InP/InGaAs layers. The photoreceiver amplifier operates in a large-signal mode to convert a detected photocurrent signal into an amplified output capable of directly driving integrated circuits such as CMOS. In combination with an optical transmitter, the photoreceiver may be used to establish a short-range channel of digital optical communications between integrated circuits with applications to multi-chip modules (MCMs). The photoreceiver may also be used with fiber optic coupling for establishing longer-range digital communications (i.e. optical interconnects) between distributed computers or the like. Arrays of digital photoreceivers may be formed on a common substrate for establishing a plurality of channels of digital optical communication, with each photoreceiver being spaced by less than about 1 mm and consuming less than about 20 mW of power, and preferably less than about 10 mW. Such photoreceiver arrays are useful for transferring huge amounts of digital data between integrated circuits at bit rates of up to about 1000 Mb/s or more.
    • 数字光接收器在InP半导体衬底上单片形成,并且包括由通过外延生长工艺沉积的多个InP / InGaAs层和由相同InP / InGaAs层形成的相邻异质结双极晶体管(HBT)放大器形成的p-i-n光电检测器。 光接收放大器工作在大信号模式,以将检测到的光电流信号转换成能够直接驱动诸如CMOS的集成电路的放大输出。 结合光发射机,光接收器可用于建立集成电路与多芯片模块(MCM)应用之间的数字光通信的短距离通道。 光接收器还可以与光纤耦合一起使用,用于在分布式计算机之间建立较长范围的数字通信(即光学互连)等。 数字光接收器的阵列可以形成在公共衬底上,用于建立多个数字光通信通道,每个光接收器间隔小于约1mm,消耗小于约20mW的功率,优选小于约10mW 。 这样的光接收器阵列可用于以高达约1000Mb / s或更高的比特率在集成电路之间传送大量的数字数据。
    • 2. 发明授权
    • Symmetric self-aligned processing
    • 对称自对准处理
    • US5318916A
    • 1994-06-07
    • US923254
    • 1992-07-31
    • Paul M. EnquistDavid B. Slater, Jr.
    • Paul M. EnquistDavid B. Slater, Jr.
    • H01L21/306H01L21/331H01L21/334H01L21/265
    • H01L29/66931H01L21/30621H01L29/66318Y10S148/012Y10S148/135Y10S438/928Y10S438/97
    • A method of manufacturing a semiconductor device using simplified processing and eliminating and/or minimizing the extrinsic parasitic elements of the device. The method is particularly suited for manufacturing heterojunction bipolar transistors where the extrinsic parasitic base resistance and the extrinsic parasitic base-collector and base-emitter capacitances can be virtually eliminated and the base contact resistance can be greatly reduced. The method includes formming symmetric emitter and collector portions using front and backside processing of the wafer, respectively. The symmetric emitter and collector virtually eliminates the extrinsic collector and emitter regions of the device thereby virtually eliminating the extrinsic base-collector and base-emitter capacitance. The extrinsic base contact region may also be increased to minimize the base contact resistance without increasing parasitic capacitive elements of the device. Self-aligned processing features are also included to form self-aligned contacts to the base layer thereby virtually eliminating the extrinsic base resistance. The method may include building up the collector and emitter contacts to separate the emitter and collector interconnections from the base layer to avoid increasing the emitter-base and collector-base extrinsic parasitic capacitances and to minimize associated resistances and inductances. The method may further include forming etch stop layers to facilitate removing of the substrate to perform the backside processing and to accurately etch through the collector layer without etching the base layer.
    • 使用简化处理制造半导体器件的方法,并且消除和/或最小化器件的外在寄生元件。 该方法特别适用于制造异质结双极晶体管,其中可以实际上消除外部寄生基极电阻和外部寄生基极集电极和基极 - 发射极电容,并且可大大降低基极接触电阻。 该方法包括分别使用晶片的正面和背面处理来形成对称的发射极和集电极部分。 对称发射极和集电极实际上消除了器件的非本征集电极和发射极区域,从而实际上消除了外部基极集电极和基极 - 发射极电容。 也可以增加非本征基极接触区域以使基极接触电阻最小化,而不增加器件的寄生电容元件。 还包括自对准处理特征以形成与基层的自对准接触,从而实际上消除了外部基极电阻。 该方法可以包括建立集电极和发射极触点以将发射极和集电极互连与基极层分离,以避免增加发射极 - 基极和集电极 - 基极外部寄生电容并且使相关联的电阻和电感最小化。 该方法还可以包括形成蚀刻停止层以便于去除衬底以执行背面处理,并且在不蚀刻基底层的情况下精确地蚀刻通过集电极层。
    • 10. 发明授权
    • Wafer bonding hermetic encapsulation
    • 晶圆粘合气密封装
    • US07622324B2
    • 2009-11-24
    • US10913357
    • 2004-08-09
    • Paul M. EnquistQin-Yi TongGaius Gillman Fountain, Jr.Robert Markunas
    • Paul M. EnquistQin-Yi TongGaius Gillman Fountain, Jr.Robert Markunas
    • H01L21/00
    • B81C1/00269B81C2203/0118H01L21/50H01L23/10H01L2924/0002H01L2924/01079H01L2924/00
    • A method for providing encapsulation of an electronic device which obtains an encapsulating member configured to enclose the electronic device, prepares a surface of the encapsulating member for non-adhesive direct bonding, prepares a surface of a device carrier including the electronic device for non-adhesive direct bonding, and bonds the prepared surface of the encapsulating member to the prepared surface of the device carrier to form an encapsulation of the electronic device. As such, an encapsulated electronic device results which includes the device carrier having a first bonding region encompassing the electronic device, includes the encapsulating member having at least one relief preventing contact between the electronic device and the encapsulating member and having a second bonding region bonded to the first bonding region of the device carrier, and includes a non-adhesive direct bond formed between the first and second bonding regions thereby to form an encapsulation of the electronic device. The encapsulated electronic device can be an electronic or optoelectronic device.
    • 一种用于提供电子设备的封装的方法,该电子设备获得构造成封闭电子设备的封装构件,准备用于非粘合剂直接接合的封装构件的表面,准备包括用于非粘合剂的电子设备的设备载体的表面 直接结合,并将封装构件的制备表面粘合到装置载体的制备表面上以形成电子器件的封装。 因此,包括具有包围电子设备的第一接合区域的器件载体的封装的电子器件包括具有至少一个防止接触电子器件与封装元件之间的防止接触的封装元件,并且具有第二接合区域 装置载体的第一结合区域,并且包括在第一和第二接合区域之间形成的非粘合性直接结合,从而形成电子器件的封装。 封装的电子器件可以是电子或光电器件。