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
    • 1. 发明申请
    • METHOD FOR MANUFACTURING A MICROMECHANICAL COMPONENT, AND MICROMECHANICAL COMPONENT
    • 制造微电子元件和微机电元件的方法
    • US20110279919A1
    • 2011-11-17
    • US13057411
    • 2009-07-06
    • Stefan FinkbeinerTjalf PirkChristoph Friese
    • Stefan FinkbeinerTjalf PirkChristoph Friese
    • G02B7/182B05D3/10
    • B81C1/00166B81B2201/033B81C2201/014
    • A method for manufacturing a micromechanical component is described, including the steps of: forming a first etch stop layer on a base substrate, the first etch stop layer being formed in such a way that it has a first pattern of through-cutouts; forming a first electrode-material layer on the first etch stop layer; forming a second etch stop layer on the first electrode-material layer, the second etch stop layer being formed in such a way that it has a second pattern of through-cutouts differing from the first pattern; forming a second electrode-material layer on the second etch stop layer; forming a patterned mask on the second electrode-material layer; and carrying out a first etching step in a first direction and a second etching step in a second direction counter to the first direction in order to etch at least one first electrode unit out of the first electrode-material layer and to etch at least one second electrode unit out of the second electrode-material layer. Also described are micromechanical components.
    • 描述了一种用于制造微机械部件的方法,包括以下步骤:在基底基板上形成第一蚀刻停止层,第一蚀刻停止层以这样的方式形成:其具有第一图形的通孔; 在所述第一蚀刻停止层上形成第一电极材料层; 在所述第一电极材料层上形成第二蚀刻停止层,所述第二蚀刻停止层以这样的方式形成:其具有不同于所述第一图案的通孔的第二图案; 在所述第二蚀刻停止层上形成第二电极材料层; 在所述第二电极材料层上形成图案化掩模; 并且在与第一方向相反的第二方向上沿第一方向和第二蚀刻步骤进行第一蚀刻步骤,以便从第一电极材料层中蚀刻至少一个第一电极单元并蚀刻至少一个第二 电极单元排出第二电极材料层。 还描述了微机械部件。
    • 5. 发明授权
    • Micropump having a pump diaphragm and a polysilicon layer
    • 微泵具有泵膜和多晶硅层
    • US07740459B2
    • 2010-06-22
    • US10564370
    • 2004-07-07
    • Matthias FuertschHubert BenzelStefan FinkbeinerStefan PinterFrank FischerHeiko StahlTjalf Pirk
    • Matthias FuertschHubert BenzelStefan FinkbeinerStefan PinterFrank FischerHeiko StahlTjalf Pirk
    • F04B17/03
    • F04B43/043
    • A method for producing a micromechanical component, preferably for fluidic applications having cavities. The component is constructed from two functional layers, the two functional layers being patterned differently using micromechanical methods. A first etch stop layer having a first pattern is applied to a base plate. A first functional layer is applied to the first etch stop layer and to the first contact surfaces of the base plate. A second etch stop layer, having a second pattern, is applied to first functional layer. A second functional layer is applied to the second etch stop layer and to the second contact surfaces of the first functional layer. An etching mask is applied to the second functional layer. The second and the first functional layer are patterned as sacrificial layers by the use of the first and the second etch stop layer by etching methods and/or by using the first and the second etch stop layer. By supplementing patterning of the base plate, additional movable fluidic elements may be implemented, using the method. The method is preferably used for producing a micropump having an epitactic polysilicon layer as the pump diaphragm.
    • 用于制造微机械部件的方法,优选用于具有空腔的流体应用。 该组件由两个功能层构成,两个功能层使用微机械方法被不同地图案化。 将具有第一图案的第一蚀刻停止层施加到基板。 第一功能层被施加到第一蚀刻停止层和基板的第一接触表面。 具有第二图案的第二蚀刻停止层被施加到第一功能层。 第二功能层被施加到第二蚀刻停止层和第一功能层的第二接触表面。 将蚀刻掩模施加到第二功能层。 通过使用第一和第二蚀刻停止层通过蚀刻方法和/或通过使用第一和第二蚀刻停止层将第二功能层和第一功能层图案化为牺牲层。 通过补充基板的图案化,可以使用该方法来实现附加的可移动流体元件。 该方法优选用于制造具有外延多晶硅层作为泵膜的微型泵。
    • 6. 发明授权
    • Sensor element with trenched cavity
    • 带沟槽的传感器元件
    • US07354786B2
    • 2008-04-08
    • US11223592
    • 2005-09-08
    • Hubert BenzelStefan FinkbeinerMatthias IllingFrank SchaeferSimon ArmbrusterGerhard LammelChristoph SchellingJoerg Brasas
    • Hubert BenzelStefan FinkbeinerMatthias IllingFrank SchaeferSimon ArmbrusterGerhard LammelChristoph SchellingJoerg Brasas
    • H01L21/00
    • G01L9/0045B81B2203/0315B81C1/00182G01P15/0802
    • A micromechanical sensor element and a method for the production of a micromechanical sensor element that is suitable, for example in a micromechanical component, for detecting a physical quantity. Provision is made for the sensor element to include a substrate, an access hole and a buried cavity, at least one of the access holes and the cavity being produced in the substrate by a trench etching and/or, in particular, an isotropic etching process. The trench etching process includes different trenching (trench etching) steps which may be divided into a first phase and a second phase. Thus, in the first phase, at least one first trenching step is carried out in which, in a predeterminable first time period, material is etched out of the substrate and a depression is produced. In that trenching step, a typical concavity is produced in the wall of the depression. A passivation process is then carried out in that first phase, in which the concavity produced in the walls of the depression by the first trenching step is covered with a passivation material. The first trenching step and the first passivation process may be carried out repeatedly in alternating succession within the first phase, with the result that a typical corrugation is obtained on the walls of the depression so produced. In the second phase of the trench etching process, the cavity is produced through the at least one access hole produced by the depression, by carrying out a second trenching step of a predetermined second time period that is distinctly longer in comparison with the first time period.
    • 微机械传感器元件和用于生产微机械传感器元件的方法,其适用于例如微机械部件中,用于检测物理量。 为传感器元件提供包括基板,进入孔和埋入空腔的设置,通过沟槽蚀刻和/或特别地,各向同性蚀刻工艺在基板中产生至少一个访问孔和空腔 。 沟槽蚀刻工艺包括可分为第一相和第二相的不同的开沟(沟槽蚀刻)步骤。 因此,在第一阶段中,执行至少一个第一开沟步骤,其中在可预定的第一时间段内将材料从衬底中蚀刻出来并产生凹陷。 在挖沟步骤中,在凹陷的壁上产生典型的凹陷。 然后在第一阶段进行钝化处理,其中通过第一开挖步骤在凹陷的壁中产生的凹陷被钝化材料覆盖。 第一开沟步骤和第一钝化工艺可以在第一阶段内连续交替重复进行,结果是在如此制造的凹陷的壁上获得典型的波纹。 在沟槽蚀刻工艺的第二阶段,通过执行与第一时间段相比明显更长的预定第二时间段的第二开沟步骤,通过由凹陷产生的至少一个访问孔产生空腔 。
    • 7. 发明申请
    • Method for the production of a micromechanical part preferably used for fluidic applications, and micropump comprising a pump membrane made of a polysilicon layer
    • 用于生产优选用于流体应用的微机械部件的方法以及包括由多晶硅层制成的泵膜的微型泵
    • US20060186085A1
    • 2006-08-24
    • US10564370
    • 2004-07-07
    • Matthias FuertschHubert BenzelStefan FinkbeinerStefan PinterFrank FischerHeiko StahlTjalf Pirk
    • Matthias FuertschHubert BenzelStefan FinkbeinerStefan PinterFrank FischerHeiko StahlTjalf Pirk
    • C23F1/00F04B17/00
    • F04B43/043
    • A method for producing a micromechanical component, preferably for fluidic applications having cavities. The component is constructed from two functional layers, the two functional layers being patterned differently using micromechanical methods. A first etch stop layer having a first pattern is applied to a base plate. A first functional layer is applied to the first etch stop layer and to the first contact surfaces of the base plate. A second etch stop layer, having a second pattern, is applied to first functional layer. A second functional layer is applied to the second etch stop layer and to the second contact surfaces of the first functional layer. An etching mask is applied to the second functional layer. The second and the first functional layer are patterned as sacrificial layers by the use of the first and the second etch stop layer by etching methods and/or by using the first and the second etch stop layer. By supplementing patterning of the base plate, additional movable fluidic elements may be implemented, using the method. The method is preferably used for producing a micropump having an epitactic polysilicon layer as the pump diaphragm.
    • 用于制造微机械部件的方法,优选用于具有空腔的流体应用。 该组件由两个功能层构成,两个功能层使用微机械方法被不同地图案化。 将具有第一图案的第一蚀刻停止层施加到基板。 第一功能层被施加到第一蚀刻停止层和基板的第一接触表面。 具有第二图案的第二蚀刻停止层被施加到第一功能层。 第二功能层被施加到第二蚀刻停止层和第一功能层的第二接触表面。 将蚀刻掩模施加到第二功能层。 通过使用第一和第二蚀刻停止层通过蚀刻方法和/或通过使用第一和第二蚀刻停止层将第二功能层和第一功能层图案化为牺牲层。 通过补充基板的图案化,可以使用该方法来实现附加的可移动流体元件。 该方法优选用于制造具有外延多晶硅层作为泵膜的微型泵。
    • 8. 发明申请
    • Sensor element with trenched cavity
    • 带沟槽的传感器元件
    • US20060057816A1
    • 2006-03-16
    • US11223592
    • 2005-09-08
    • Hubert BenzelStefan FinkbeinerMatthias IllingFrank SchaeferSimon ArmbrusterGerhard LammelChristoph SchellingJoerg Brasas
    • Hubert BenzelStefan FinkbeinerMatthias IllingFrank SchaeferSimon ArmbrusterGerhard LammelChristoph SchellingJoerg Brasas
    • H01L21/76
    • G01L9/0045B81B2203/0315B81C1/00182G01P15/0802
    • A micromechanical sensor element and a method for the production of a micromechanical sensor element that is suitable, for example in a micromechanical component, for detecting a physical quantity. Provision is made for the sensor element to include a substrate, an access hole and a buried cavity, at least one of the access holes and the cavity being produced in the substrate by a trench etching and/or, in particular, an isotropic etching process. The trench etching process includes different trenching (trench etching) steps which may be divided into a first phase and a second phase. Thus, in the first phase, at least one first trenching step is carried out in which, in a predeterminable first time period, material is etched out of the substrate and a depression is produced. In that trenching step, a typical concavity is produced in the wall of the depression. A passivation process is then carried out in that first phase, in which the concavity produced in the walls of the depression by the first trenching step is covered with a passivation material. The first trenching step and the first passivation process may be carried out repeatedly in alternating succession within the first phase, with the result that a typical corrugation is obtained on the walls of the depression so produced. In the second phase of the trench etching process, the cavity is produced through the at least one access hole produced by the depression, by carrying out a second trenching step of a predetermined second time period that is distinctly longer in comparison with the first time period.
    • 微机械传感器元件和用于生产微机械传感器元件的方法,其适用于例如微机械部件中,用于检测物理量。 为传感器元件提供包括基板,进入孔和埋入空腔的设置,通过沟槽蚀刻和/或特别地,各向同性蚀刻工艺在基板中产生至少一个访问孔和空腔 。 沟槽蚀刻工艺包括可分为第一相和第二相的不同的开沟(沟槽蚀刻)步骤。 因此,在第一阶段中,执行至少一个第一开沟步骤,其中在可预定的第一时间段内将材料从衬底中蚀刻出来并产生凹陷。 在挖沟步骤中,在凹陷的壁上产生典型的凹陷。 然后在第一阶段进行钝化处理,其中通过第一开挖步骤在凹陷的壁中产生的凹陷被钝化材料覆盖。 第一开沟步骤和第一钝化工艺可以在第一阶段内连续交替重复进行,结果是在如此制造的凹陷的壁上获得典型的波纹。 在沟槽蚀刻工艺的第二阶段,通过执行与第一时间段相比明显更长的预定第二时间段的第二开沟步骤,通过由凹陷产生的至少一个访问孔产生空腔 。