| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 101 | CARBON COATED ALUMINUM FOIL AS CATHODE OF SOLID ALUMINUM ELECTROLYTIC CAPACITOR AND MANUFACTURING METHOD THEREOF | US13046915 | 2011-03-14 | US20120237782A1 | 2012-09-20 | HUNG-WEN TSAI |
| A carbon coated aluminum foil as a cathode of solid aluminum electrolytic capacitors and a manufacturing method thereof are revealed. A surface of an aluminum foil is hit by ions turned into a rough surface. Then carbon atoms are mounted into the surface of the aluminum foil and accumulated sequentially to form a carbon film on the surface of the aluminum foil. Thus the carbon atoms are attached to the surface of the aluminum foil firmly due to the roughness of the surface. Moreover, the carbon film has good adhesion and electrical conductivity. Therefore, not only mechanical strength of the aluminum foil is increased dramatically, the electrical conductivity, capacitance ratio, power density and use life of capacitors are also improved significantly. | ||||||
| 102 | BIAXIALLY ORIENTED FILM FOR ELECTRICAL INSULATION AND FILM CAPACITOR MADE USING BIAXIALLY ORIENTED FILM FOR ELECTRICAL INSULATION | US13504778 | 2010-10-26 | US20120217040A1 | 2012-08-30 | Tetsuo Yoshida |
| Disclosed is a biaxially oriented film for electrical insulation having even better withstand voltage characteristics than before together with excellent film-forming properties. The biaxially oriented film for electrical insulation of the invention is a film that includes a substrate layer containing a crystalline thermoplastic resin as a main component. The substrate layer contains a phenolic stabilizer in an amount of 0.001 wt % or more and 3 wt % or less based on the weight of the substrate layer. The phenolic stabilizer is an alkylenebisamide-type hindered phenol. | ||||||
| 103 | NONWOVEN-BASED CHEMI-CAPACITIVE OR CHEMI-RESISTIVE GAS SENSOR | US12886238 | 2010-09-20 | US20120071362A1 | 2012-03-22 | Davis-Dang Nhan; Sudhanshu Gakhar; Sridhar Ranganathan |
| A chemical gas sensor formed from a nonwoven material is described. The gas sensor includes a flexible, gas-permeable, nonwoven web-based material substrate having a matrix that is composed of a plurality of inert thermoplastic, pulp, cellulose or staple fibers as either a major or minor portion, with a plurality of gas-sensitive fibers formed from a polymer that can absorb volatile organic compounds (VOC), and a plurality of electrically conductive fibers. The gas-sensitive fibers are intermixed with and associated spatially among a network of adjacent electrically conductive fibers, such that a change in physical morphology of said gas-sensitive fibers as a result of interacting with volatile organic compounds, causes a change in dielectric properties that disrupts said network of adjacent electrically conductive fibers. The sensor can be configured as either a resistive or a capacitive chemisensor. | ||||||
| 104 | Transparent Conductive Laminate, Method For Manufacturing The Same And Capacitance Type Touch Panel | US13040196 | 2011-03-03 | US20110151215A1 | 2011-06-23 | Hiroshi Kobayashi |
| One embodiment of the present invention is a transparent conductive laminate including a transparent substrate layer, a first transparent conductive layer and a second transparent conductive layer formed on both surfaces of the transparent substrate layer, a first conductive pattern area and a first nonconductive pattern area formed on the first transparent conductive layer, and a second conductive pattern area and a second nonconductive pattern area formed on the second transparent conductive layer, wherein at least one layer formed between the first transparent conductive layer and the second transparent conductive layer is a layer including an ultraviolet absorbing agent or a resin in which a non-reactive ultraviolet absorbing agent to which at least one functional group selected from a vinyl group, an acryloyl group, a methacryloyl group, an alcoholic hydroxyl group, an amino group, a carboxyl group, an epoxide group and an isocyanate group is added is copolymerized. | ||||||
| 105 | Treatment and Adhesive for Microporous Membranes | US12784284 | 2010-05-20 | US20100297489A1 | 2010-11-25 | Kirby W. Beard |
| An electrochemical cell may have a PVDF microporous membrane that may be adhesively bonded to electrodes. The adhesive may be a mixture of a solvent and non-solvent that may cause the PVDF membrane to become tacky and adhere to an electrode without collapsing. An adhesively bonded cell may be constructed using multiple layers of adhesively bonded membranes and electrodes. In some embodiments, the adhesive solution may be used as a sizing to prepare electrodes for bonding. | ||||||
| 106 | Multi-layer capacitor | US12029702 | 2008-02-12 | US07813105B2 | 2010-10-12 | William S. Cheung |
| An electronic component and method for manufacture thereof is disclosed. A plurality of electrodes are positioned in stacked relation to form an electrode stack. The stack may include as few as two electrodes, but more may be used depending on the number of subcomponents desired. Spacing between adjacent electrodes is determined by removable spacers during fabrication. The resulting space between adjacent electrodes is substantially filled with gaseous matter, which may be an actual gaseous fill, air, or a reduced pressure gas formed through evacuation of the space. Further, adjacent electrodes are bonded together to maintain the spacing. A casing is formed to encapsulate the stack, with first and second conducting surfaces remaining exposed outside the casing. The first conducting surface is electrically coupled to a first of the electrodes, and the second conducting surface is electrically coupled to a second of the electrodes. | ||||||
| 107 | NONAQUEOUS SECONDARY BATTERY SEPARATOR AND PROCESS FOR ITS FABRICATION | US11996675 | 2005-07-25 | US20100143783A1 | 2010-06-10 | Satoshi Nishikawa; Hiroyuki Honmoto; Takahiro Daido |
| This invention provides a separator for a nonaqueous rechargeable battery comprising a composite porous membrane that has both a shutdown function and heat resistance good enough to be effective for the suppression of meltdown, desired in a high-performance nonaqueous rechargeable battery having increased energy density, increased output, and increased size, and can realize a separator for a nonaqueous rechargeable battery having excellent handling properties and ion permeability. The composite porous membrane comprises a polyolefin microporous membrane having an air permeability per thickness of not less than 15 sec/100 cc·μm and not more than 50 sec/100 cc·μm (JIS P 8117) and a membrane thickness of not less than 5 μm and not more than 25 μm and a porous layer formed of poly-m-phenylene isophthalamide covering and integrated with both sides of the polyolefin microporous membrane. The composite porous membrane is characterized in that the composite porous membrane has a thickness of not less than 6 μm and not more than 35 μm and an air permeability (JIS P 8117) of not less than 1.01 times and not more than 2.00 times that of the polyolefine microporous membrane, and the coverage of poly-m-phenylene isophthalamide is not less than 1.0 g/m2 and not more than 4.0 g/m2. | ||||||
| 108 | SEPARATOR FOR ENERGY DEVICE AND ENERGY DEVICE HAVING THE SAME | US12377115 | 2007-08-10 | US20100003588A1 | 2010-01-07 | Yasuhiro Sudou; Masataka Iwata |
| Disclosed is a separator for energy devices, which hardly allows an internal short circuit, while excellent in electrolyte solution retention. Also disclosed is an energy device comprising such a separator. Specifically disclosed is a separator for energy devices, which comprises a nonwoven fabric laminate composed of two or more melt-blown nonwoven fabric layers arranged on top of one another. Each of the melt-blown nonwoven fabric layers has an average fiber diameter of 0.5-3 μm, and the weight per square meter of the nonwoven fabric laminate is not more than 50 g/m2. This separator for energy devices has a surface centerline roughness (Rt value) of not more than 35 μm. | ||||||
| 109 | Dielectric ceramic composition, an electric component and a manufacturing method thereof | US12382652 | 2009-03-20 | US20090246541A1 | 2009-10-01 | Tomoaki Nonaka; Tetsuo Takaishi; Kenta Iwasawa; Hiroshi Sasaki |
| The present invention relates to a dielectric ceramic composition comprises a main component including a dielectric oxide having a composition shown by [(Ca1-xSrx)O]m[(Zr1-y-z-αTiyHf2Mnα)O2], note that, 0.991≦m≦1.010, 0≦x≦1, 0≦y≦0.1, 0 | ||||||
| 110 | Biaxially Oriented Film | US10587392 | 2005-01-28 | US20070281186A1 | 2007-12-06 | Tetsuo Yoshida; Katsuyuki Hashimoto; Ieyasu Kobayashi; Shinji Muro; Takeshi Ishida |
| An object of the present invention is to provide a thin biaxially oriented film excellent in dimensional stability against humidity change, as well as a magnetic recording medium and a film capacitor using the same. The present invention provides a single layered or laminated biaxially oriented film comprising an aromatic polyester (a) and a polyolefin (b) having a melting point of from 230 to 280° C., wherein the ratio of the polyolefin (b) is from 2 to 60% based on the entire weight of the film, and the film thickness is from 1 to 10 μm. | ||||||
| 111 | Conductive Thermoplastic-Resin Film And Conductive Thermoplastic-Resin Laminate Film | US10599175 | 2005-03-24 | US20070218368A1 | 2007-09-20 | Michinari Miyagawa; Takashi Imai; Saori Sugie |
| The present invention provides a thermoplastic-resin film and a thermoplastic-resin laminate film which have excellent conductivity and are further excellent in water vapor barrier properties and/or tackiness. As an example, a conductive thermoplastic-resin film is provided which comprises a mixture of a thermoplastic resin and a conductive material and having a volume resistivity, as measured by the four-probe method in accordance with JIS K-7194, of 10 Ω·cm or lower and a moisture permeability, as measured at a film thickness of 100 μm by JIS K-7129 method B in an atmosphere of 40° C. and a relative humidity (RH) of 90%, of 10 g/(m2·24 hr) or lower. | ||||||
| 112 | Apparatus for producing laminated electronic part and method of producing the part | US10403870 | 2003-03-28 | US20030183330A1 | 2003-10-02 | Yutaka Iseki; Akifumi Fujita; Atsushi Yoshimura; Takehiko Miura |
| To produce a capacitor with a target static capacitance, an apparatus for producing a laminated ceramic capacitor is adapted to measure the thickness of a green sheet and the area of an internal electrode by an in-line system and with high accuracy, and to laminate a calculated number of the green sheets based on the measured values. The apparatus includes a sheet-supplying unit, a sheet-thickness measuring unit, a laminating unit, and a discharging unit. | ||||||
| 113 | Metalized polyolefin film | US08733391 | 1996-10-18 | US06551653B1 | 2003-04-22 | Wilfried Hatke; Karl-Heinz Kochem; Theo Grosse Kreul |
| This invention relates to a process for metalizing polyolefin film in which at least one outermost layer of the unmetalized polyolefin film has at least about 90% cycloolefin polymer that has not been subjected to a process for increasing surface tension before metalization. The metalized films are useful as dielectrics in capacitors. | ||||||
| 114 | Aromatic liquid-crystalline polyester metal laminate | US10128239 | 2002-04-24 | US20030029634A1 | 2003-02-13 | Satoshi Okamoto; Manabu Hirakawa |
| A laminate obtained by dissolving an aromatic liquid-crystalline polyester in an organic solvent to obtain a solution, casting the solution and removing the solvent to give a film, and laminating the film with a metal layer. | ||||||
| 115 | Monolithic ceramic capacitor and method of producing the same | US09212671 | 1998-12-16 | US06416603B1 | 2002-07-09 | Toshiki Nishiyama; Yukio Hamaji |
| Disclosed is a monolithic ceramic capacitor composed of plural dielectric ceramic layers made of a ceramic material comprising strontium titanate and bismuth oxide or the like, plural inner electrodes made of a base metal material comprising nickel or a nickel alloy, which are laminated via the dielectric ceramic layer to produce the electrostatic capacity of the capacitor, and outer electrodes as electrically connected with the inner electrodes. Each dielectric ceramic layer in the capacitor contains a reduction inhibitor, for example aMO+bMnO2+cB2O3+(100−a−b−c)SiO2 (where M is at least one of Mg, Sr, Ca and Ba; and a, b and c each are, in % by mol, 10≦a≦60, 5≦b≦20 and 20≦c≦35). In producing the capacitor, the laminate of dielectric ceramic layers may be fired in a neutral or reducing atmosphere without being reduced. | ||||||
| 116 | High dielectric constant flexible polyimide film and process of preparation | US222103 | 1998-12-29 | US6159611A | 2000-12-12 | Yueh-Ling Lee; Gary Min |
| A flexible, high dielectric constant polyimide film composed of either a single layer of an adhesive thermoplastic polyimide film or a multilayer polyimide film having adhesive thermoplastic polyimide film layers bonded to one or both sides of the film and having dispersed in at least one of the polyimide layers from 4 to 85 weight % of a ferroelectric ceramic filler, such as barium titanate or polyimide coated barium titanate, and having a dielectric constant of from 4 to 60. The high dielectric constant polyimide film can be used in electronic circuitry and electronic components such as multilayer printed circuits, flexible circuits, semiconductor packaging and buried film capacitors. | ||||||
| 117 | 层叠陶瓷电子部件 | CN201420568812.1 | 2014-09-29 | CN204464058U | 2015-07-08 | 堤启恭 |
| 本实用新型为一种层叠陶瓷电子部件，其具备：通过层叠多个陶瓷层而形成，且具有第1、第2主面及第1、第2端面的陶瓷体；设置于所述陶瓷体的外表面，且分别设置于所述陶瓷体的第1、第2端面的第1、第2外部电极；和按照在所述陶瓷体的第1或第2端面引出的方式设置，且具有在所述陶瓷体的层叠方向上隔着陶瓷层而对置的部分的多个第1、第2内部电极。可以提供不易发生内部电极和陶瓷层的分层、且安装稳定性优异的本实用新型的层叠陶瓷电子部件。 | ||||||
| 118 | CONDUCTIVE MATERIAL AND MULTILAYERED STRUCTURE | US15521003 | 2015-10-19 | US20180340061A1 | 2018-11-29 | Naoya OGATA; Tsutomu SADA |
| Problems to be solved by this invention This invention proposes a conductive material and multilayered structure having an excellent conductivity, an excellent durable conductivity and also strength.Further, this invention proposes a multilayered structure having an excellent conductivity, an excellent durable conductivity and also strength comprising laminating the conductive material to one side surface or both surfaces of the non-conductive material layer.The above purpose is accomplished by providing a conductive material comprising a polymer electrolyte composition (X1) obtained by graft polymerizing 2 to 90 mol. % of a molten salt monomer having a polymerizable functional group and having an onium cation and anion containing a fluorine with a fluorine containing polymer and a fluoropolymer (X2) wherein X1 contains 0.1 to 95A wt. % to X2. | ||||||
| 119 | Electronic component fabrication method using removable spacers | US15361692 | 2016-11-28 | US10141124B2 | 2018-11-27 | William S. H. Cheung |
| An electronic component and method for manufacture thereof is disclosed. A plurality of electrodes are positioned in stacked relation to form an electrode stack. The stack may include as few as two electrodes, but more may be used depending on the number of subcomponents desired. Spacing between adjacent electrodes is determined by removable spacers during fabrication. The resulting space between adjacent electrodes is substantially filled with gaseous matter, which may be an actual gaseous fill, air, or a reduced pressure gas formed through evacuation of the space. Further, adjacent electrodes are bonded together to maintain the spacing. A casing is formed to encapsulate the stack, with first and second conducting surfaces remaining exposed outside the casing. The first conducting surface is electrically coupled to a first of the electrodes, and the second conducting surface is electrically coupled to a second of the electrodes. | ||||||
| 120 | Battery packaging material | US15512402 | 2015-09-25 | US10121995B2 | 2018-11-06 | Yaichiro Hori; Shunsuke Ueda; Makoto Amano |
| Provided is a battery packaging material that comprises a laminated body formed by sequentially stacking at least a base layer, a metal layer, and a sealant layer, and that has a thin overall thickness, and has excellent formability and piercing strength. This battery packaging material comprises a laminated body formed by sequentially stacking at least a base layer, a metal layer, and a sealant layer, with the overall thickness of the laminated body being 50-80 μm, and the ratio of the sum of the thicknesses of the base layer and the metal layer with respect to the overall thickness of the laminated body being in a range of 0.380-0.630. | ||||||
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