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    • 1. 发明授权
    • Method for manufacturing a micromachined device and the micromachined device made thereof
    • 微加工装置的制造方法及其制造的微加工装置
    • US08383441B2
    • 2013-02-26
    • US13010923
    • 2011-01-21
    • Joumana El RifaiAnn WitvrouwAhmed Abdel AzizSherif Sedky
    • Joumana El RifaiAnn WitvrouwAhmed Abdel AzizSherif Sedky
    • H01L21/00
    • B81C1/00666B81C1/00698
    • Methods for manufacturing micromachined devices and the devices obtained are disclosed. In one embodiment, the method comprises providing a structural layer comprising an amorphous semiconductor material, forming a shielding layer on a first portion of the structural layer and leaving exposed a second portion of the structural layer, and annealing the second portion using a first fluence. The method further comprises removing the shielding layer, and annealing the first portion and the second portion using a second fluence that is less than half the first fluence. In an embodiment, the device comprises a substrate layer, an underlying layer formed on the substrate layer, and a sacrificial layer formed on only a portion of the underlying layer. The device further comprises a structural layer that is in contact with the underlying layer and comprises a first region annealed using a first fluence and a second region annealed using a second fluence.
    • 公开了制造微加工装置和所获得的装置的方法。 在一个实施例中,该方法包括提供包括非晶半导体材料的结构层,在结构层的第一部分上形成屏蔽层,并留下暴露的结构层的第二部分,并且使用第一注量使第二部分退火。 该方法还包括去除屏蔽层,并且使用小于第一注量的一半的第二注量来退火第一部分和第二部分。 在一个实施例中,该器件包括衬底层,形成在衬底层上的下层,以及仅在下层的一部分上形成的牺牲层。 该装置还包括与下面的层接触的结构层,并且包括使用第一注量退火的第一区域和使用第二能量密度退火的第二区域。
    • 2. 发明申请
    • Method for Manufacturing a Micromachined Device and the Micromachined Device Made Thereof
    • 微加工装置的制造方法及其制造的微加工装置
    • US20110180886A1
    • 2011-07-28
    • US13010923
    • 2011-01-21
    • Joumana El RifaiAnn WitvrouwAhmed Kamal Said Abdel AzizSherif Sedky
    • Joumana El RifaiAnn WitvrouwAhmed Kamal Said Abdel AzizSherif Sedky
    • H01L29/84H01L21/477
    • B81C1/00666B81C1/00698
    • Methods for manufacturing micromachined devices and the devices obtained are disclosed. In one embodiment, the method comprises providing a structural layer comprising an amorphous semiconductor material, forming a shielding layer on a first portion of the structural layer and leaving exposed a second portion of the structural layer, and annealing the second portion using a first fluence. The method further comprises removing the shielding layer, and annealing the first portion and the second portion using a second fluence that is less than half the first fluence. In an embodiment, the device comprises a substrate layer, an underlying layer formed on the substrate layer, and a sacrificial layer formed on only a portion of the underlying layer. The device further comprises a structural layer that is in contact with the underlying layer and comprises a first region annealed using a first fluence and a second region annealed using a second fluence.
    • 公开了制造微加工装置和所获得的装置的方法。 在一个实施例中,该方法包括提供包括非晶半导体材料的结构层,在结构层的第一部分上形成屏蔽层,并留下暴露的结构层的第二部分,并且使用第一注量使第二部分退火。 该方法还包括去除屏蔽层,并且使用小于第一注量的一半的第二注量来退火第一部分和第二部分。 在一个实施例中,该器件包括衬底层,形成在衬底层上的下层,以及仅在下层的一部分上形成的牺牲层。 该装置还包括与下面的层接触的结构层,并且包括使用第一注量退火的第一区域和使用第二能量密度退火的第二区域。
    • 4. 发明申请
    • Method for forming silicon germanium layers at low temperatures, layers formed therewith and structures comprising such layers
    • 在低温下形成硅锗层的方法,与其形成的层以及包括这些层的结构
    • US20100032812A1
    • 2010-02-11
    • US11643235
    • 2006-12-21
    • Sherif SedkyAnn Witvrouw
    • Sherif SedkyAnn Witvrouw
    • H01L29/161H01L21/20
    • B81C1/00666B81C2201/0169
    • A method is provided for controlling the average stress and the strain gradient in structural silicon germanium layers as used in micromachined devices. The method comprises depositing a single silicon germanium layer on a substrate and annealing a predetermined part of the deposited silicon germanium layer. The process parameters of the depositing and/or annealing steps are selected such that a predetermined average stress and a predetermined strain gradient are obtained in the predetermined part of the silicon germanium layer. Preferably a plasma assisted deposition technique is used for depositing the silicon germanium layer, and a pulsed excimer laser is used for local annealing, with a limited thermal penetration depth. Structural silicon germanium layers for surface micromachined structures can be formed at temperatures substantially below 400° C., which offers the possibility of post-processing micromachined structures on top of a substrate comprising electronic circuitry such as CMOS circuitry. Such structural silicon germanium layers may be also be formed at temperatures not exceeding 210° C., which allows the integration of silicon germanium based micromachined structures on substrates such as polymer films.
    • 提供了一种用于控制在微加工装置中使用的结构硅锗层中的平均应力和应变梯度的方法。 该方法包括在衬底上沉积单个硅锗层并退火沉积的硅锗层的预定部分。 选择沉积和/或退火步骤的工艺参数,使得在硅锗层的预定部分中获得预定的平均应力和预定的应变梯度。 优选地,等离子体辅助沉积技术用于沉积硅锗层,并且将脉冲准分子激光器用于具有有限的热穿透深度的局部退火。 用于表面微加工结构的结构硅锗层可以在基本上低于400℃的温度下形成,这提供了在包括诸如CMOS电路的电子电路的衬底之上的后处理微机械加工结构的可能性。 这种结构硅锗层也可以在不超过210℃的温度下形成,这允许将硅锗微加工结构集成在诸如聚合物膜的基底上。
    • 6. 发明申请
    • METHOD FOR MANUFACTURING A MICROMACHINED DEVICE
    • 制造微型设备的方法
    • US20100062224A1
    • 2010-03-11
    • US12447574
    • 2007-10-31
    • Ann WitvrouwLuc Haspeslagh
    • Ann WitvrouwLuc Haspeslagh
    • B32B3/00B32B38/10H01B13/00C25F3/02
    • H01L21/324B81C1/00246B81C2203/0735Y10T428/24612
    • The present invention provides a method for manufacturing micromachined devices on a substrate (10) comprising electrical circuitry, the micromachined devices comprising at least one micromachined structure, without affecting the underlying electrical circuitry. The method comprises providing a protection layer (15) on the substrate (10); providing on the protection layer (15) a plurality of patterned layers for forming the at least one micromachined structure, the plurality of patterned layers comprising at least one sacrificial layer (18); and thereafter removing at least a portion of the sacrificial layer (18) to release the at least one micromachined structure. The method furthermore comprises, before providing the protection layer (15), annealing the substrate (10) at a temperature higher than a highest temperature used during manufacturing of the micromachined device, annealing being for preventing gas formation underneath the protection layer (15) during subsequent manufacturing steps. The present invention also provides a micromachined device obtained by the method according to embodiments of the present invention.
    • 本发明提供了一种用于在包括电路的衬底(10)上制造微加工器件的方法,所述微加工器件包括至少一个微加工结构,而不影响下面的电路。 该方法包括在衬底(10)上提供保护层(15)。 在所述保护层(15)上设置多个用于形成所述至少一个微机械加工结构的图案化层,所述多个图案化层包括至少一个牺牲层(18); 然后去除所述牺牲层(18)的至少一部分以释放所述至少一个微加工结构。 该方法还包括在提供保护层(15)之前,在高于在微机械加工装置的制造期间使用的最高温度的温度下退火衬底(10),用于在保护层(15)的下方防止形成气体的退火 后续制造步骤。 本发明还提供了通过根据本发明的实施例的方法获得的微加工装置。