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    • 3. 发明申请
    • COMPONENT HAVING A MICROMECHANICAL MICROPHONE STRUCTURE
    • 具有微机械麦克风结构的组分
    • US20140126762A1
    • 2014-05-08
    • US14071227
    • 2013-11-04
    • Jochen ZOELLINChristoph SCHELLING
    • Jochen ZOELLINChristoph SCHELLING
    • H04R1/04
    • H04R1/04H04R1/28H04R7/04H04R7/20H04R7/24H04R19/005H04R19/04
    • Measures for dynamically regulating the microphone sensitivity of a MEMS microphone component at low frequencies by way of variable roll-off behavior are proposed. The micromechanical microphone structure of the component, which is implemented in a layer structure on a semiconductor substrate, encompasses an acoustically active diaphragm having leakage openings which spans a sound opening in the substrate back side, and a stationary acoustically permeable counterelement having through openings which is disposed in the layer structure above/below the diaphragm. The component furthermore encompasses a capacitor assemblage for signal sensing, having at least one deflectable electrode on the diaphragm and at least one stationary electrode on the counterelement, and an arrangement for implementing a relative motion between the diaphragm and counterelement parallel to the layer planes.
    • 提出了通过可变滚降行为动态调节MEMS麦克风组件在低频下的麦克风灵敏度的措施。 在半导体衬底上以层结构实现的部件的微机械式麦克风结构包括具有跨越衬底背侧中的声音开口的泄漏开口的声学活动隔膜,以及具有通孔的固定声透射反调器, 设置在隔膜的上方/下方的层结构中。 该组件还包括用于信号感测的电容器组件,其具有在隔膜上的至少一个可偏转电极和在该反射体上的至少一个固定电极,以及用于实现平行于层平面的隔膜和反射体之间的相对运动的装置。
    • 5. 发明授权
    • Manufacturing method for a micromechanical component, corresponding composite component, and corresponding micromechanical component
    • 微机械部件的制造方法,相应的复合部件和相应的微机械部件
    • US08232126B2
    • 2012-07-31
    • US12737036
    • 2009-04-21
    • Hubert BenzelFrank HenningArmin ScharpingChristoph Schelling
    • Hubert BenzelFrank HenningArmin ScharpingChristoph Schelling
    • H01L21/00
    • B81C3/001B81B2201/0264B81C2201/019G01L9/0055
    • A manufacturing method for a micromechanical component, a corresponding composite component, and a corresponding micromechanical component are described. The method has the following steps: providing a first composite of a plurality of semiconductor chips, the first composite having first front and back surfaces; providing a second composite of a corresponding plurality of carrier substrates, the second composite having second front and back surfaces; imprinting a structured adhesion promoter layer on the first front and/or second front surfaces, the layer having degassing channels; aligning the first front and second front surfaces corresponding to a plurality of micromechanical components, each having a semiconductor chip and a corresponding carrier substrate; connecting the first front and second front surfaces via the structured adhesion promoter layer by applying pressure so that a gas from the ambient atmosphere is able to escape to the outside through the degassing channels; and separating the micromechanical components.
    • 对微机械部件的制造方法,对应的复合部件以及相应的微机械部件进行说明。 该方法具有以下步骤:提供多个半导体芯片的第一复合材料,所述第一复合材料具有第一前表面和后表面; 提供相应的多个载体基板的第二复合材料,所述第二复合材料具有第二前表面和后表面; 在第一前表面和/或第二前表面上印刷结构化粘合促进剂层,该层具有脱气通道; 对准与多个微机械部件相对应的第一前和第二前表面,每个具有半导体芯片和相应的载体基板; 通过施加压力,通过结构化粘合促进剂层连接第一前表面和第二前表面,使得来自环境大气的气体能够通过脱气通道逸出到外部; 并分离微机械部件。
    • 8. 发明授权
    • Method for manufacturing a micromechanical sensor element
    • 微机械传感器元件的制造方法
    • US07572661B2
    • 2009-08-11
    • US11223637
    • 2005-09-08
    • Hubert BenzelStefan FinkbeinerMatthias IllingFrank SchaeferSimon ArmbrusterGerhard LammelChristoph SchellingJoerg Brasas
    • Hubert BenzelStefan FinkbeinerMatthias IllingFrank SchaeferSimon ArmbrusterGerhard LammelChristoph SchellingJoerg Brasas
    • H01L21/00
    • B81C1/00047B81B2203/0109B81C2201/0115B81C2201/0116G01L9/0045
    • Described is a method for manufacturing a micromechanical sensor element and a micromechanical sensor element manufactured in particular using such a method which has a hollow space or a cavity and a membrane for detecting a physical variable. Different method steps are performed for manufacturing the sensor element, among other things, a structured etch mask having a plurality of holes or apertures being applied on a semiconductor substrate. Moreover, an etch process is used to create depressions in the semiconductor substrate beneath the holes in the structured etch mask. Anodization of the semiconductor material is subsequently carried out, the anodization taking place preferably starting from the created depressions in the semiconductor substrate. Due to this process, porous areas are created beneath the depressions, a lattice-like structure made of untreated, i.e., non-anodized, substrate material remaining between the porous areas and the depressions. This lattice-like structure extends preferably from the surface of the semiconductor into the depth. The etch mask for creating the depressions may be removed, optionally prior to or subsequent to the anodization. A temperature treatment is carried out for creating the hollow space and the membrane in the semiconductor substrate which forms the sensor element. During this process, the hollow space is created from the at least one area that has been rendered porous beneath a depression and the membrane above the hollow space is created from the lattice-like structure by rearranging the semiconductor material.
    • 描述了一种用于制造微机械传感器元件和微机械传感器元件的方法,特别是使用具有中空空间或空腔和用于检测物理变量的膜的方法制造的微机械传感器元件。 执行用于制造传感器元件的不同的方法步骤,其中包括施加在半导体衬底上的多个孔或孔的结构化蚀刻掩模。 此外,蚀刻工艺用于在结构化蚀刻掩模中的孔下面的半导体衬底中产生凹陷。 随后进行半导体材料的阳极氧化,阳极氧化发生优选从半导体衬底中产生的凹陷开始。 由于该过程,在凹陷下方产生多孔区域,由未处理的,即非阳极氧化的衬底材料制成的格状结构保留在多孔区域和凹陷之间。 这种格子状结构优选地从半导体的表面延伸到深度。 用于产生凹陷的蚀刻掩模可以任选地在阳极氧化之前或之后被去除。 进行温度处理,以形成形成传感器元件的半导体衬底中的中空空间和膜。 在该过程中,中空空间是从至少一个已经在凹陷下方多孔的区域产生的,并且通过重新排列半导体材料,从网格状结构产生中空空间之上的膜。
    • 10. 发明申请
    • Micromechanical sensor element
    • 微机械传感器元件
    • US20060063293A1
    • 2006-03-23
    • US11223637
    • 2005-09-08
    • Hubert BenzelStefan FinkbeinerMatthias IllingFrank SchaeferSimon ArmbrusterGerhard LammelChristoph SchellingJoerg Brasas
    • Hubert BenzelStefan FinkbeinerMatthias IllingFrank SchaeferSimon ArmbrusterGerhard LammelChristoph SchellingJoerg Brasas
    • H01L21/00
    • B81C1/00047B81B2203/0109B81C2201/0115B81C2201/0116G01L9/0045
    • Described is a method for manufacturing a micromechanical sensor element and a micromechanical sensor element manufactured in particular using such a method which has a hollow space or a cavity and a membrane for detecting a physical variable. Different method steps are performed for manufacturing the sensor element, among other things, a structured etch mask having a plurality of holes or apertures being applied on a semiconductor substrate. Moreover, an etch process is used to create depressions in the semiconductor substrate beneath the holes in the structured etch mask. Anodization of the semiconductor material is subsequently carried out, the anodization taking place preferably starting from the created depressions in the semiconductor substrate. Due to this process, porous areas are created beneath the depressions, a lattice-like structure made of untreated, i.e., non-anodized, substrate material remaining between the porous areas and the depressions. This lattice-like structure extends preferably from the surface of the semiconductor into the depth. The etch mask for creating the depressions may be removed, optionally prior to or subsequent to the anodization. A temperature treatment is carried out for creating the hollow space and the membrane in the semiconductor substrate which forms the sensor element. During this process, the hollow space is created from the at least one area that has been rendered porous beneath a depression and the membrane above the hollow space is created from the lattice-like structure by rearranging the semiconductor material.
    • 描述了一种用于制造微机械传感器元件和微机械传感器元件的方法,特别是使用具有中空空间或空腔和用于检测物理变量的膜的方法制造的微机械传感器元件。 执行用于制造传感器元件的不同的方法步骤,其中包括施加在半导体衬底上的多个孔或孔的结构化蚀刻掩模。 此外,蚀刻工艺用于在结构化蚀刻掩模中的孔下面的半导体衬底中产生凹陷。 随后进行半导体材料的阳极氧化,阳极氧化发生优选从半导体衬底中产生的凹陷开始。 由于该过程,在凹陷下方产生多孔区域,由未处理的,即非阳极氧化的衬底材料制成的格状结构保留在多孔区域和凹陷之间。 这种格子状结构优选地从半导体的表面延伸到深度。 用于产生凹陷的蚀刻掩模可以任选地在阳极氧化之前或之后被去除。 进行温度处理,以形成形成传感器元件的半导体衬底中的中空空间和膜。 在该过程中,中空空间是从至少一个已经在凹陷下方多孔的区域产生的,并且通过重新排列半导体材料,从网格状结构产生中空空间之上的膜。