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    • 1. 发明授权
    • Manufacturing method for glass molded products
    • 玻璃成型制品的制造方法
    • US6105395A
    • 2000-08-22
    • US998063
    • 1997-12-24
    • Masahiro YoshidaTeruo YamashitaLihong ZhangYoshiatsu Yokoo
    • Masahiro YoshidaTeruo YamashitaLihong ZhangYoshiatsu Yokoo
    • C03B11/08G02B6/36G02B6/38
    • G02B6/3696C03B11/08C03B11/082G02B6/3839C03B2215/413G02B6/3636G02B6/3652
    • In a method for molding glass products having a fine structure as of an optical fiber holder with a high size precision, a mold used for the molding has the fine structure in a size such that a size difference occurring when the glass product is cooled down to a room temperature where at the end of molding with a pressure a size of the fine structure of the mold for glass product and a size of a fine structure of the glass product formed by transfer of the fine structure of the mold are the same as one another is so adjusted that a size of the fine structure of the completed glass product falls within a permissive size precision range. The mold may has a size satisfying, as a size of a fine structure at a room temperature, a formula [1+(.alpha.g-.alpha.m).times..DELTA.T+.alpha.g'.times..DELTA.T'].times.Sg, wherein Sg denotes a size of a fine structure of thc glass product at the room temperature; .alpha.g denotes a mean thermal expansion coefficient of the glass to be molded in a temperature range from the room temperature to the glass transition temperature of the glass to be molded; .alpha.m denotes a mean thermal expansion coefficient of the mold in a temperature range from the room temperature to the glass transition temperature of thc glass to be molded; .DELTA.T denotes a difference between the room temperature and the glass transition temperature of the glass to be molded; .DELTA.T' denotes a difference between a temperature at which the mold's pressure exerted to the glass product is released and the glass transition temperature, in a case where the mold's pressure exerted to the glass product is released at a temperature higher than the glass transition temperature after pressing the mold with a high pressure; and .alpha.g' is a thermal expansion coefficient of the glass to be molded at a mean temperature of summation of the glass sag temperature and the glass transition temperature.
    • 在具有高精度的具有精细结构的玻璃制品的方法中,用于成型的模具具有精细的结构,其尺寸使得当玻璃制品冷却至 在模制结束时的室温,其中用于玻璃制品的模具的精细结构的尺寸的压力和通过模具的精细结构的转移而形成的玻璃制品的精细结构的尺寸与一个 另一个被调整为使得完成的玻璃制品的精细结构的尺寸落在允许的尺寸精度范围内。 模具的尺寸可以满足在室温下的精细结构的尺寸,公式[1+(αg-αm)×DELTA T +αg'x DELTA T'] xSg,其中Sg表示尺寸 在室温下的玻璃制品的精细结构; αg表示在待模制玻璃的室温至玻璃化转变温度的温度范围内待模制的玻璃的平均热膨胀系数; αm表示在待模制玻璃的室温至玻璃化转变温度的温度范围内的模具的平均热膨胀系数; DELTA T表示待模制玻璃的室温和玻璃化转变温度之间的差异; DELTA T'表示在模具施加到玻璃制品上的压力释放温度高于玻璃化转变温度的情况下,模具施加到玻璃制品的压力的温度与玻璃化转变温度之间的差异 用高压压模具; 并且αg'是在玻璃下垂温度和玻璃化转变温度的平均温度下待模制的玻璃的热膨胀系数。
    • 2. 发明授权
    • Preform and process for the production thereof
    • 预制品及其生产方法
    • US06231243B1
    • 2001-05-15
    • US09138697
    • 1998-08-24
    • Lihong ZhangMasahiro YoshidaYou OhgamiTeruo YamashitaYoshiatsu Yokoo
    • Lihong ZhangMasahiro YoshidaYou OhgamiTeruo YamashitaYoshiatsu Yokoo
    • G02B636
    • G02B6/3865C03B11/082C03B2215/413G02B6/3839
    • A preform used for producing an optical fiber fixing member having an optical fiber fixing part and a lower-staged part by a mold shaping method, is formed so as to be composed of a large-thickness portion having an upper surface or a peak portion to which that transfer-shaping surface of transfer-shaping surfaces of a shaping mold which is to shape the said optical fiber fitting portion(s) comes into contact at an initial stage of mold shaping, and a small-thickness portion having an upper surface or a peak portion to which that transfer-shaping surface of transfer-shaping surfaces of the shaping mold which is to shape the upper surface of the lower-staged part comes into contact at an initial stage of the mold shaping, the preform being formed in a configuration in which the said small-thickness portion is adjacent to the large-thickness portion, the form of the preform viewed as a plan view parallels with the form of the said optical fiber fixing member viewed as a plan view and the form of the preform viewed as a side view parallels with the form of the said optical fiber fixing member viewed as a side view, whereby the above optical fiber fixing member can be easily produced by a mold shaping method.
    • 用于制造具有光纤固定部分的光纤固定部件和通过模具成型方法的下阶部件的预成型件形成为由具有上表面或峰部分的大厚度部分组成, 成形模具的成形模具的转印成形表面的成形表面在成形模具的初始阶段接触,并且具有上表面的小厚度部分 成形模具的转印成形表面的转印成形表面的成形表面在成型模具的初始阶段接触的成形表面的峰部分,预型件形成在 其中所述小厚度部分与大厚度部分相邻的形状,预成型件的形状被视为与所述光纤固定部件的形式平行的俯视图,其视为平面图,并且 作为侧视图,以与侧视图相同的侧视图的形式,预成型件的形状可以通过模具成形方法容易地制造。
    • 3. 发明授权
    • Method for manufacturing glass product
    • 制造玻璃制品的方法
    • US6050110A
    • 2000-04-18
    • US998068
    • 1997-12-24
    • Masahiro YoshidaLihong ZhangTeruo YamashitaYoshiatsu YokooKen Uno
    • Masahiro YoshidaLihong ZhangTeruo YamashitaYoshiatsu YokooKen Uno
    • C03B11/08G02B6/36G02B6/38C03B37/15G02B6/255
    • G02B6/3839C03B11/082G02B6/3652G02B6/3696C03B2215/413G02B6/3636G02B6/3854
    • A manufacturing method for a glass product not having a rotatively symmetric body like an optical fiber fixing member but having a fine structure as of optical fiber engagement portions, to transfer the fine structure with a high precision without creating molding burrs, includes the steps of placing a glass material in a cavity defined by a lower mold, an upper mold, and a side mold, molding the glass material in the cavity with pressure into the glass product in so controlling that the glass material has a viscosity range of 10.sup.6.5 to 10.sup.9.5 poises at the beginning of molding operation with pressure, that the lower mold is at a temperature in a range such that the glass material indicates the above viscosity range, and that the upper and side molds are at a temperature in a range such that a converted viscosity of the glass material at the temperature of the upper and side molds is 5 to 100 times higher than the viscosity of the glass material at the temperature of the lower mold, and decreasing the temperature of the lower mold at the same time that or after the glass product begins to be molded with pressure. To produce an optical fiber fixing member, the lower mold has a mold face for molding optical fiber engagement portions of the optical fiber fixing member; the upper mold has a mold face for molding a bottom of the optical fiber fixing member; and the side mold has a mold face for molding a side face of the optical fiber fixing member.
    • 一种玻璃制品的制造方法,其不具有像光纤固定部件那样具有精细结构的光纤固定部件的旋转对称体,以高精度转印精细结构,而不产生成型毛刺,包括以下步骤: 在由下模具,上模具和侧模具限定的空腔中的玻璃材料,通过压力将玻璃材料在空腔中模制成玻璃制品,从而控制玻璃材料的粘度范围为106.5至109.5泊 在压力成型开始时,下模的温度处于使得玻璃材料表现出上述粘度范围的范围内的温度,并且上模和下模处于使得转化粘度 在上下模具的温度下玻璃材料的温度比下模温度高出玻璃材料的粘度的5〜100倍, 在玻璃制品开始压制成型的同时,降低下模的温度。 为了制造光纤固定构件,下模具有用于模制光纤固定构件的光纤接合部分的模具面; 上模具有用于模制光纤固定构件的底部的模具面; 并且所述侧模具有用于模制所述光纤固定部件的侧面的模具面。
    • 6. 发明授权
    • Superconductor wire and process for production thereof
    • 超导线及其制造方法
    • US5204315A
    • 1993-04-20
    • US837918
    • 1992-02-20
    • Yoshitaka ItoMasami IshiiTetsuo OkaTakeo NakagawaLihong Zhang
    • Yoshitaka ItoMasami IshiiTetsuo OkaTakeo NakagawaLihong Zhang
    • B21C23/26H01B12/04H01B12/10H01B13/00H01L39/24
    • H01L39/248Y10S505/704Y10S505/74
    • A process for production of superconductor wire having multiple rings, comprising the steps of: preparing a silver mixture comprising a silver or silver-gold alloy mixed with a bonding agent, and a superconductor mixture comprising a superconductor powder with bonding agent; arranging both the silver mixture and the superconductor mixture in a extrusion die; extruding a wire having at least one ring of the superconductor mixture and one ring of the silver mixture in the radial direction; and heating the wire at the sinter temperature of the oxide superconductor so that the bonding agent is removed and the oxide superconductor powder and the silver powder are sintered. A superconductor wire comprising an inner core and an outer ring covering the core, wherein one of the ring on the core comprises a sintered silver powder and the other of the ring on the core comprises a sintered oxide superconductor powder.
    • 一种制造具有多个环的超导线的方法,包括以下步骤:制备包含与粘合剂混合的银或银 - 金合金的银混合物,以及包含超导体粉末与粘合剂的超导体混合物; 将银混合物和超导体混合物布置在挤出模具中; 在径向上挤出具有超导体混合物的至少一个环和银混合物的一个环的导线; 并在氧化物超导体的烧结温度下加热导线,从而去除粘合剂,并烧结氧化物超导体粉末和银粉。 一种超导线,其包括内芯和覆盖芯的外环,其中芯上的环中的一个包括烧结银粉,芯上的另一个环包括烧结氧化物超导体粉末。
    • 7. 发明授权
    • Piezoelectric charging system and electronic device using same
    • 压电充电系统和电子设备使用相同
    • US09362780B2
    • 2016-06-07
    • US14162942
    • 2014-01-24
    • Lihong ZhangXiaofang Shu
    • Lihong ZhangXiaofang Shu
    • H02J7/00H02J7/32
    • H02J7/32Y02B40/90
    • The present disclosure relates to a piezoelectric charging system, which has two operational modes: a vibration mode and a charging mode. The system includes a piezoelectric vibrator, a driving module, a switch selecting module, a rectifying and processing module and a charging control module. The present disclosure can make full use of the mechanical energy from human beings and the ambient environment to provide the electronic device with an important energy source. Furthermore, energy can be charged to the electronic devices in real time. Furthermore, the present disclosure provides a terminal device using the piezoelectric charging system.
    • 本公开涉及一种压电充电系统,其具有两种操作模式:振动模式和充电模式。 该系统包括压电振动器,驱动模块,开关选择模块,整流和处理模块以及充电控制模块。 本公开可以充分利用来自人类和周围环境的机械能,以向电子设备提供重要的能量源。 此外,能够实时地向电子设备充电。 此外,本公开提供了一种使用压电充电系统的终端装置。
    • 8. 发明授权
    • Method for increasing storage capacity and a transducer configuration incorporating the same
    • 用于增加存储容量的方法和包括其的换能器配置
    • US08009388B2
    • 2011-08-30
    • US11548077
    • 2006-10-10
    • Chee Fong OhSwee Chuan GanLihong Zhang
    • Chee Fong OhSwee Chuan GanLihong Zhang
    • G11B5/39G11B5/60
    • G11B5/56
    • The present invention provides a method for increasing storage capacity of a disc drive by physically skewing a transducer in relation to a slider supporting the transducer. The physical skew angle of the transducer is configured to provide a predetermined zero skew position on the medium, which is capable of providing an increased storage capacity to the medium. To ascertain this zero skew position, a storage density or storage capacity of the medium may be ascertained for each of various zero skew positions on the medium. A desired storage density or capacity level is selected according to storage capacity requirements and the corresponding zero skew position is ascertained. The corresponding zero skew position may be implemented by physically skewing a transducer relative to a slider.
    • 本发明提供了一种用于通过相对于支撑换能器的滑块物理地偏转换能器来增加盘驱动器的存储容量的方法。 换能器的物理偏斜角被配置为在介质上提供预定的零倾斜位置,其能够向介质提供增加的存储容量。 为了确定该零倾斜位置,可以针对介质上的各个零倾斜位置中的每一个来确定介质的存储密度或存储容量。 根据存储容量要求选择期望的存储密度或容量级别,并且确定相应的零倾斜位置。 相应的零倾斜位置可以通过相对于滑块物理地偏转换能器来实现。
    • 9. 发明授权
    • Screen sounder
    • 屏幕发声器
    • US09107006B2
    • 2015-08-11
    • US14243100
    • 2014-04-02
    • Hongxing WangLihong Zhang
    • Hongxing WangLihong Zhang
    • H04R25/00H04R17/00H04R1/02B06B1/06
    • H04R17/00B06B1/06H04R1/028H04R2217/01H04R2499/11H04R2499/15
    • A screen sounder includes a housing having a front case, a screen supported by the front case, a piezoelectric module mounted with the screen for driving the screen to generate sound or converting vibration of the screen into electric energy, an audio signal source electrically connecting to the piezoelectric module for driving the piezoelectric module to vibrate, a rechargeable module electrically connecting to the piezoelectric module for receiving the electric energy, and a switching control unit electrically connecting with the piezoelectric module for switching the electrical connections between the audio signal source, the rechargeable module and the piezoelectric module.
    • 屏幕发声器包括具有前壳体,由前壳体支撑的屏幕的壳体,安装有屏幕的压电模块,用于驱动屏幕以产生声音或将屏幕的振动转换为电能;音频信号源电连接到 用于驱动压电模块振动的压电模块,电连接到用于接收电能的压电模块的可充电模块;以及与压电模块电连接的开关控制单元,用于切换音频信号源,可充电电池 模块和压电模块。