Abstract:
A system is provided for three dimensional coaxial transmission of signals in a micro-machined component, the system having, a micro-machined component matrix with a first metallic sheet having a plurality of first access holes disposed therein; a second metallic sheet having a plurality of second access holes disposed therein; a plurality of metal posts disposed between the first and second metallic sheets such that the metallic sheets are maintained at a desired distance; walls defining a coaxial transmission channel; and a coaxial transmission core disposed within the channel.
Abstract:
A method of making a supported foam circuit laminate comprises fitting a dielectric foam substrate having a shape defined by edges to a support frame having a thickness, an inner rim and an outer rim, wherein the edges of the dielectric foam substrate are flush with the inner rim of the support frame, and the dielectric foam substrate has a thickness that is greater than the thickness of the support frame; disposing an electrically conductive layer onto a side of the dielectric foam substrate and the support frame, wherein the edges of the electrically conductive layer overlap the inner rim of the support frame; and co-laminating the electrically conductive layer to the dielectric foam substrate and the overlapped support frame under heat and pressure to provide a supported foam circuit laminate.
Abstract:
The invention relates to a ceramic substrate material having a first layer having a cavity structure formed therein, and at least one sealing layer situated on at least a part of the cavity structure. The first layer comprises at least one first component made of a crystalline ceramic material and/or a glass material as a matrix, the first layer containing a second component made of a further crystalline ceramic material, with selected mantle areas of the crystals and/or crystal agglomerates of the second component being etched out in such a way that the cavity structure is provided (preferably in the form of a pore and/or tube structure). The sealing layer seals the surface of the first layer in the areas on which it is situated (e.g., above the cavity structure), allowing application of thin-film structures to the cavity structure.
Abstract:
Disclosed herein are a prepreg including an insulating resin composition impregnated into a porous support, and a printed circuit board including the same as an insulating layer. According to the present invention, the porous support used for impregnation of the insulating resin composition has excellent thermal stability and wide surface area, a coefficient of thermal expansion (CTE) of the porous support is not changed according to directivity, and the prepreg has a structure in which fillers included in the insulating resin composition are dispersed between the porous supports, such that the CTE may be efficiently improved. In addition, although damage is generated from the outside, the damage is not enlarged due to adjacent porous supports but is only locally generated and physical properties for pressure load is excellent due to the porous structure, such that damage of the printed circuit board may be reduced.
Abstract:
[Subject Matter] To provide a method for manufacturing a wiring substrate where rigidity is enhanced in an insulative portion made by oxidizing aluminum.[Solution(s)] Aluminum oxide insulative portion 24 is formed on aluminum plate 20 as shown in FIG. 1(A) through anodic oxidation (FIG. 1(C)). Then, holes (nano-holes) (24h) in aluminum oxide 24 are filled with resin 30 (FIG. 1(E)). Accordingly, the rigidity (strength) of insulative portion 24 will be enhanced and cracking will not occur during heat cycles. Also, the insulation reliability of aluminum oxide will increase, and short circuiting may be prevented at through holes 26 (aluminum portions) separated by aluminum oxide 24.
Abstract:
A method for delineating a metallization pattern in a layer of sputtered aluminum or sputtered copper using a broad spectrum high intensity light source. The metal is deposited on a polymeric substrate by sputtering, so that it has a porous nanostructure. An opaque mask that is a positive representation of the desired metallization pattern is then situated over the metallization layer, exposing those portions of the metallization layer intended to be removed. The masked metallization layer is then exposed to a rapid burst of high intensity visible light from an arc source sufficient to cause complete removal of the exposed portions of the metallization layer, exposing the underlying substrate and creating the delineated pattern.
Abstract:
A metal substrate with an insulation layer includes a metal substrate having at least an aluminum base and an insulation layer formed on said aluminum base of said metal substrate. The insulation layer is a porous type anodized film of aluminum. The anodized film includes a barrier layer portion and a porous layer portion, and at least the porous layer portion has compressive strain at room temperature. a magnitude of the strain ranges from 0.005% to 0.25%. The anodized film has a thickness of 3 micrometers to 20 micrometers.
Abstract:
[Object] To provide a multilayer assembly that excels in pore properties, is flexible, and is satisfactorily handled and processed; and a method of producing the multilayer assembly.[Solving Means] A multilayer assembly includes a base and, arranged on at least one side thereof, a porous layer and has a large number of continuous micropores with an average pore diameter of 0.01 to 10 μm. The multilayer assembly suffers from no interfacial delamination between the base and the porous layer when examined in a tape peeling test according to the following procedure: Tape Peeling Test A 24-mm wide masking tape [Film Masking Tape No. 603 (#25)] supplied by Teraoka Seisakusho Co., Ltd. is applied to a surface of the porous layer of the multilayer assembly and press-bonded thereto with a roller having a diameter of 30 mm and a load of 200 gf to give a sample; and the sample is subjected to a T-peel test with a tensile tester at a peel rate of 50 mm/min.
Abstract:
Support materials for printing electrically conductive structures by means of inkjet printing with inks which contain conductive particles lead to low resistances for the printed structures without thermal post-treatment when they contain a microporous layer with a mean pore size of less than 100 nm as an outer layer.
Abstract:
The present invention provides a thin wiring pattern such as wiring formed by discharging a droplet. In the present invention, a porous (including microporous) substance is formed as a base film in forming pattern by using a droplet discharge method (also referred to as an ink-jetting method). One feature of a wiring substrate according to the present invention provides a porous film and a conductive layer thereon. One feature of a semiconductor device of the present invention provides a thin film transistor in which a gate electrode is formed by the conductive layer having the above-described structure.