Composite including an inorganic image and method of transferring such
an image
    82.
    发明授权
    Composite including an inorganic image and method of transferring such an image 失效
    复合材料包括无机图像和转印这种图像的方法

    公开(公告)号:US5328534A

    公开(公告)日:1994-07-12

    申请号:US21155

    申请日:1993-02-22

    Abstract: A method of forming a transferable pattern or image of an inorganic film by coating an embossed substrate with an inorganic layer, that may comprise one or more films, over both recessed and raised surface portions, adhesively laminating a transfer substrate to the inorganic layer coating the raised surface portions of the embossed substrate and separating the embossed substrate and the transfer substrate. The adhesive is selected such that the bond between the transfer substrate and the inorganic film on the raised surface portions is greater than the bond between the inorganic layer on the raised surface portions and the embossed substrate.The embossed substrate resulting after removal of the inorganic layer coating the raised surface portions may be modified to include additional inorganic layers over the recessed surface portions by tinning or electroplating methods such that this thickened inorganic layer may also be transferred from the embossed substrate to a transfer substrate as set forth above.

    Abstract translation: 通过在两个凹凸表面部分上涂覆可以包含一个或多个膜的无机层的压花基材来形成无机膜的可转移图案或图像的方法,将转印基材粘附到无机层上涂布 压花基板的凸起表面部分并分离压花基板和转印基板。 选择粘合剂使得转印衬底和凸起表面部分上的无机膜之间的结合大于凸起表面部分上的无机层与压花衬底之间的结合。 在除去涂覆凸起表面部分的无机层之后产生的压花基材可以通过镀锡或电镀方法改性成在凹面部分上包括额外的无机层,使得该增厚的无机层也可以从压花基底转移到转印 底物如上所述。

    Multi-layer ceramic substrate assembly and a process for manufacturing
same
    86.
    发明授权
    Multi-layer ceramic substrate assembly and a process for manufacturing same 失效
    多层陶瓷基板组件及其制造方法

    公开(公告)号:US5061552A

    公开(公告)日:1991-10-29

    申请号:US469788

    申请日:1990-01-24

    Applicant: Kazuaki Satou

    Inventor: Kazuaki Satou

    Abstract: A multi-layer ceramic substrate assembly comprising a multi-layer ceramic substrate including a via-conductor and an interconnecting line and having a surface, a first soldering pad on the surface of the substrate and electrically connected to the via-conductor, a second soldering pad on the surface of the substrate adjacent to the first soldering pad, a connecting pattern on the surface of the substrate for electrically connecting the first and second soldering pads, the connecting pattern being made of an electric conductor wettable with a solder, and a solder dam formed on the connecting pattern between the first and second soldering pads, the solder dam being made of a metal or a metal alloy or compound not wettable with a solder. The electric conductivity of the connecting pattern is carried by a metal having a good electric conductivity and the solder dam is made of a metal or a metal alloy or compound not wettable with a solder, whereby the solder dam stops a flow of a solder through the dam or under the dam. A simple and reliable process for forming such a solder dam is also provided.

    Metallized and plated laminates
    90.
    发明授权
    Metallized and plated laminates 失效
    金属化和电镀层压板

    公开(公告)号:US4568413A

    公开(公告)日:1986-02-04

    申请号:US582274

    申请日:1984-02-22

    Abstract: A carrier (10) is vapor-vacuum deposited with a vapor-vacuum deposited first metallic layer (14) of 10-90 nm in thickness. The carrier and vapor-vacuum deposited metal layers are selected of materials which, after vapor-vacuum depositing, adhere with less than about 3 pounds per linear inch of width, e.g., aluminum and copper or copper and copper. A second metallic layer (16) is electrolytically deposited to the vapor-vacuum deposited layer to increase the thickness of the first and second metal layers, taken together, to about 1-12 microns. The carrier and first and second metal layers are bonded under heat and pressure to a dielectric substrate (18). Thereafter, the carrier is peeled away leaving the vapor-vacuum deposited and electrolytically plated layers adhered to the dielectric substrate. Although the vapor-vacuum deposited layer and the electrolytically deposited layers may both be the same metal, such as copper which is preferred for circuit boards, the vapor-vacuum deposited layer may also be a relatively inactive metal, such as aluminum, chrome, zinc, or nickel, to protect the underlying electrolytically deposited metal layer from corrosion and staining.

    Abstract translation: 用厚度为10-90nm的蒸气 - 真空沉积的第一金属层(14)对载体(10)进行气相真空沉积。 载体和蒸气 - 真空沉积的金属层选自在蒸气真空沉积之后以小于约3磅每线性英寸宽度粘附的材料,例如铝和铜或铜和铜。 将第二金属层(16)电解沉积到蒸气 - 真空沉积层,以将第一和第二金属层的厚度一起提高到约1-12微米。 载体和第一和第二金属层在热和压力下结合到电介质基板(18)。 此后,将载体剥离,留下蒸镀真空沉积并电解电镀的层粘附到电介质基片上。 虽然蒸气 - 真空沉积层和电解沉积层可以都是相同的金属,例如优选用于电路板的铜,但蒸气真空沉积层也可以是相对不活泼的金属,例如铝,铬,锌 或镍,以保护底层的电解沉积金属层免受腐蚀和污染。

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