子分类：
| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 41 | 改良带宽与静电放电免疫能力的T线圈网络设计 | CN201080050713.9 | 2010-07-15 | CN102725760B | 2015-01-07 | 梵希利·奇里弗; 詹姆士·卡普; 托安·D·崔恩 |
| 一种用以产生其中含有T线圈网络的电路设计的方法的实施例，该方法可包含决定电感器的电感及该T-线圈网络的寄生桥接电容（305-340）。该寄生桥接电容可相较于一负载电容测度，此测度是根据耦接于该T-线圈网络输出的负载的寄生电容而定（345、355）。按照该比较结果，可选择性地调整该电路设计中耦接于该T-线圈网络输出的静电放电(ESD)保护的量值及/或该T-线圈网络的电感器的参数（350、360）。可输出该电路设计，其中标明所述电感器的电感、ESD保护的量值及/或所述电感器的绕线的宽度（365）。 | ||||||
| 42 | 贴片部件及其制造方法 | CN201380004401.8 | 2013-01-08 | CN104025212A | 2014-09-03 | 近藤靖浩; 玉川博词; 山本浩贵 |
| 本发明提供一种小型且具有正确的电阻值的可靠性高的贴片部件、例如贴片电阻器。贴片电阻器(10)包括：基板(11)；分别具有在所述基板(11)上形成的电阻体膜(20)以及按照与所述电阻体膜(20)相接的方式层叠的铝系布线膜(21)的多个电阻体；在所述基板(11)上设置的电极(11、12)；以及具有与所述多个电阻体的所述铝系布线膜(21)呈一体化的铝系布线膜并将所述多个电阻体分别连接于所述电极(11、12)的能切断的多个熔丝(F)。通过切断多个熔丝之中的任意熔丝，能够使得贴片电阻器的电阻值与期望的电阻值一致。此外，熔丝由铝系布线膜构成，还可微细地制作其布局，以提高切断工序中的加工精度。 | ||||||
| 43 | 磁通导引结构 | CN201080055429.0 | 2010-12-07 | CN102714092A | 2012-10-03 | 克里斯托弗·约翰·史蒂文斯; 马尔科姆·邓肯·麦克卡罗奇 |
| 本发明的实施例提供一种结构，包括磁导，其包括多个谐振电路元件(110,120,310F)，各元件包括导电环部分(112,122)，该环部分(112,122)的相对端通过电容元件(114,124)彼此耦合，磁导(115,315)的相邻谐振元件被布置成彼此磁感应耦合，从而允许磁导(115,315)支持磁感应（MI）波，其中谐振元件（1205）中的至少一个在第一状态与第二状态之间是可切换的，在第一状态中所述元件被布置成支持MI波沿波导传播，在第二状态中所述元件被布置成阻止MI波沿波导传播。 | ||||||
| 44 | Detachable transformer | US15234296 | 2016-08-11 | US10032554B2 | 2018-07-24 | Yu-Hsiang Lee; Chen-Feng Chang |
| A detachable transformer includes a first bobbin, a primary winding, a second bobbin, a secondary winding and a magnetic core set. The magnetic core set peripherally surrounds the first bobbin and the second bobbin and is inserted into them. A top and a bottom of the first bobbin respectively have a first winding recess and an installation recess. The primary winding is arranged in the first winding recess. A side of the installation recess has a first opening connecting with an external space. A top of the second bobbin has a second winding recess. The secondary winding is arranged in the second winding recess. The second bobbin is arranged in the installation recess through the first opening, whereby the first bobbin and the second bobbin form a detachable connection. | ||||||
| 45 | Low profile magnetic component apparatus and methods | US13008708 | 2011-01-18 | US09980396B1 | 2018-05-22 | Donald Folker; Ted Kluska; Mike LeBlanc |
| A magnetic component for an electronic circuit includes a core having a core body and a core leg extending from the core body. The core body defines a core body height, and the core leg defines a core leg height less than the core body height. A conductive winding is positioned about the core leg. The winding defines a winding height. A winding height offset ratio is defined as the winding height divided by the core body height. In some embodiments the winding height offset ratio is less than about 1.1. The winding can be positioned on a bobbin structure disposed about the core leg. The magnetic component can be positioned in an enclosure to form an electronic device such as a power control or a power supply, and a thermally conductive gap-filler can be positioned between the magnetic component and the enclosure wall to dissipate heat from the magnetic component. The reduced height of the core leg provides a reduced gap distance between the core body and the enclosure wall for improving heat transfer, reducing thermal gap-filler material volume and reducing enclosure size. A method of forming an electronic device is also provided. | ||||||
| 46 | Rolled iron core traction transformer | US15125531 | 2015-04-20 | US09812252B2 | 2017-11-07 | Shibin Gao; Baoguo Wang; Zhiqiang Wu; Mindong Gao |
| A rolled iron core traction transformer, comprising an iron core (1); the iron core (1) is formed by splicing two symmetrical annealed iron-core closed single frames (1-1); each iron-core closed single frame (1-1) is formed by sequentially coiling continuous silicon steel sheets; the iron-core closed single frame (1-1) has two iron core column single bodies (1-1-1) having approximately semicircular cross sections; the iron core (1) has two iron core columns (1-2) thereon spliced by the iron core column single bodies (1-1-1) and having approximately circular cross sections; each iron core column (1-2) is sequentially provided with a low-voltage T winding (6), a low-voltage F winding (5) and a high-voltage winding (4) thereon from inside to outside; two sides of each high-voltage winding (4) are respectively provided with a first tapping area and a second tapping area; the first tapping area is provided with low-voltage side high-voltage tapping outgoing lines (16); the second lapping area is provided with high-voltage side high-voltage tapping outgoing lines (18); two low-voltage side high-voltage tapping outgoing lines (16) are connected together via a no-load voltage regulation switch (9); and two high-voltage side high-voltage tapping outgoing lines (18) are connected together via another no-load voltage regulation switch (9). The transformer reduces no-load loss, has a small no-load current, low noise and strong anti-short circuit capability, reduces the electrodynamic force generated by a sudden short circuit, and improves the short circuit tolerance capability of the transformer. | ||||||
| 47 | CHIP COMPONENT | US15490333 | 2017-04-18 | US20170221611A1 | 2017-08-03 | Hiroshi TAMAGAWA; Hiroki YAMAMOTO; Katsuya MATSUURA; Yasuhiro KONDO |
| A chip component includes a chip component main body, an electrode pad formed on a top surface of the main body, a protective film covering the top surface of the main body and having a contact hole exposing the pad, and an external connection electrode electrically connected to the pad via the hole and having a protruding portion, which, in a plan view looking from a direction perpendicular to a top surface of the pad, extends to a top surface of the film and protrudes further outward than a region of contact with the pad over the full periphery of an edge portion of the hole. A method for manufacturing the component includes forming the pad on the main body's top surface, forming the protective film, forming the hole in the film so as to expose the pad, and forming the electrode electrically connected to the pad via the hole. | ||||||
| 48 | Magnetothermal current limiting device | US14438043 | 2013-11-25 | US09685779B2 | 2017-06-20 | Philippe Schuster; Nathalie Caillault |
| A current limiting device including a transformer including an element made from a magnetothermal material, a primary conductor, and a secondary winding. Heat is generated by the current flowing through the primary conductor and when the current exceeds a certain threshold it modifies the coupling coefficient of the transformer, which makes it possible to limit the current in the primary conductor. | ||||||
| 49 | Microfluidics controlled tunable coil | US14335425 | 2014-07-18 | US09583257B2 | 2017-02-28 | Kim Blomqvist; Pekka Korpinen; Helena Pohjonen; Markku Rouvala; Chris Bower |
| In some example embodiments, there may be provided an apparatus. The apparatus may include a chamber including a first cavity and a second cavity, wherein the chamber further includes a first fluid suspended in a second fluid; a first electrode adjacent to the first cavity; a second electrode adjacent to the second cavity; a third electrode configured to provide a common electrode to the first electrode and the second electrode; and at least one coil adjacent to at least one of the first cavity or the second cavity, wherein an inductance value of the coil is varied by at least applying a driving signal between the common electrode and the first electrode and/or the second electrode. Related methods, systems, and articles of manufacture are also disclosed. | ||||||
| 50 | Chip component and method of producing the same | US14376417 | 2013-01-08 | US09484135B2 | 2016-11-01 | Yasuhiro Kondo; Hiroshi Tamagawa; Hiroki Yamamoto |
| [Subject] To provide a highly-reliable and small-size chip component, e.g., a chip resistor having an accurate resistance value.[Solution] The chip resistor (10) includes: a substrate (11); a plurality of resistor elements each having a resistive film portion (20) provided on the substrate (11) and an aluminum-containing interconnection film portion (21) provided in contact with the resistive film portion (20); electrodes (12, 13) provided on the substrate (11); and a plurality of fuses (F) each having an aluminum-containing interconnection film portion integral with the aluminum-containing interconnection film portion of the resistor element and disconnectably connecting the resistor element to the electrodes (12, 13).[Effect] The resistance of the chip resistor can be adjusted at a desired resistance value by selectively disconnecting desired ones of the fuses. Since the fuses are formed in a minute layout pattern from an aluminum-containing interconnection film, the processing accuracy is improved in the disconnecting step. | ||||||
| 51 | Phase balancing of power transmission system | US14332572 | 2014-07-16 | US09172246B2 | 2015-10-27 | Stewart Ramsay; Julie A. Couillard; Andrija Sadikovic |
| Phase balancing techniques for power transmission systems are disclosed. In one embodiment, a phase balancing protocol (240) includes executing a first phase balancing protocol (350) in relation to a first power transmission section (400a). A second phase balancing protocol (370) may be executed if the first phase balancing protocol (350) is unable to provide a phase balanced condition. The first phase balancing protocol (350) may utilize a first ordering sequence (364) to rank the current flow on the power lines (16) of the first power transmission section (400a), while the second phase balancing protocol (370) may utilize a second ordering sequence (384) to rank the current flow on the power lines (16) of the first power transmission section (400a). The order sequences (364, 384) are opposite of each other—one ranks the current flows from high-to-low, and the other ranks the current flow from low-to-high. | ||||||
| 52 | OXIDE CERAMIC AND CERAMIC ELECTRONIC COMPONENT | US14682267 | 2015-04-09 | US20150210597A1 | 2015-07-30 | Sakyo Hirose; Tsuyoshi Kimura |
| An oxide ceramic having a principal component formed of a ferrite compound containing at least Sr, Co, and Fe, and zirconium in an amount of 0.05 to 1.0 wt. % on an oxide equivalent basis, and a ceramic electronic component using the oxide ceramic. | ||||||
| 53 | COMPOSITE ELECTRONIC COMPONENT AND BOARD HAVING THE SAME | US14456674 | 2014-08-11 | US20150043185A1 | 2015-02-12 | Young Ghyu AHN; Byoung Hwa LEE; Sang Soo PARK; Min Cheol PARK |
| A composite electronic component may include: a composite body including a capacitor and an inductor coupled to each other, the capacitor having a ceramic body in which dielectric layers and internal electrodes facing each other with the dielectric layers interposed therebetween are stacked, and the inductor having a magnetic body in which magnetic layers having conductive patterns are stacked; an input terminal disposed on a first end surface of the composite body; an output terminal including a first output terminal disposed on a second end surface of the composite body and a second output terminal disposed on any one or more of upper and lower surfaces and a second side surface of the capacitor; and a ground terminal disposed on any one or more of the upper and lower surfaces and a first side surface of the capacitor and connected to the internal electrodes. | ||||||
| 54 | Phase balancing of power transmission system | US14227995 | 2014-03-27 | US08816527B1 | 2014-08-26 | Stewart Ramsay; Julie A. Couillard; Andrija Sadikovic |
| Phase balancing techniques for power transmission systems are disclosed. In one embodiment, a phase balancing protocol (240) includes executing a first phase balancing protocol (350) in relation to a first power transmission section (400a). A second phase balancing protocol (370) may be executed if the first phase balancing protocol (350) is unable to provide a phase balanced condition. The first phase balancing protocol (350) may utilize a first ordering sequence (364) to rank the current flow on the power lines (16) of the first power transmission section (400a), while the second phase balancing protocol (370) may utilize a second ordering sequence (384) to rank the current flow on the power lines (16) of the first power transmission section (400a). The order sequences (364, 384) are opposite of each other—one ranks the current flows from high-to-low, and the other ranks the current flow from low-to-high. | ||||||
| 55 | Variable Inductor for LC Oscillator | US13720705 | 2012-12-19 | US20140167867A1 | 2014-06-19 | Rizwan Ahmed; Curtiss Roberts; Chi Taou Tsai |
| A variable inductor is disclosed. In accordance with some embodiments of the present disclosure, a variable inductor may comprise a single-turn conductor comprising a first inductor terminal, a second inductor terminal, a first base portion extending from the first inductor terminal to a first intersection location, a second base portion extending from the second inductor terminal to a second intersection location, and a switched portion extending from the first intersection location to the second intersection location, and a switch comprising a first conductive terminal coupled to the first intersection location and a second conductive terminal coupled to the second intersection location. | ||||||
| 56 | Core-saturated superconductive fault current limiter and control method of the fault current limiter | US12596645 | 2008-04-17 | US08582255B2 | 2013-11-12 | Ying Xin; Weizhi Gong; Xiaoye Niu; Zhengjian Cao |
| A core-saturated superconductive fault current limiter and a control method of the fault current limiter. The fault current limiter includes a superconductive magnet (2), a core (4), an AC winding (5), a cryostat system, a monitor system (7) and a DC control system (6). The output of the DC control system (6) is connected to the two terminals of the superconductive magnet (2). The DC control system (6) is also connected to the monitor system (7). The core (4) has an unequal section core structure. The control method includes: controlling the current which is flowing through the superconductive magnet (2) for limiting the fault current in the power net (1) in the case of a short circuit fault event. | ||||||
| 57 | FLUX GUIDING STRUCTURE | US13514535 | 2010-12-07 | US20120306588A1 | 2012-12-06 | Malcolm Duncan Mcculloch; Christopher John Stevens |
| Embodiments of the present invention provide a structure comprising: a flux guide comprising a plurality of resonant circuit elements (110, 120, 310F) each element comprising an electrically conductive loop portion (112, 122), opposed ends of the loop portion (112, 122) being coupled to one another through a capacitive element (114, 124), adjacent resonant elements of the flux guide (115, 315) being arranged to be magneto-inductively coupled to one another thereby to allow a magneto-inductive (MI) wave to be supported by the guide (115, 315), wherein at least one of the resonant elements (1205) is switchable between a first condition in which the element is arranged to support propagation of an MI wave along the waveguide and a second condition in which the element is arranged to prevent propagation of an MI wave along the waveguide. | ||||||
| 58 | Binary voltage regulator | US12212827 | 2008-09-18 | US08035358B2 | 2011-10-11 | Julian Alexander Watt; Thomas Charles Gmuer |
| A voltage regulator is provided that includes a plurality of buck-boost transformers each having primary and secondary windings. The secondary windings of the transformers are electrically disposed in series between a source and a load. Each transformer is controlled by a plurality of control switches configured to control the voltage across the primary winding of a corresponding transformer. A controller monitors the output voltage and generates control signals for the switches. The transformers generate different voltage level changes in between the source and load and the voltages across the primary windings are capable of assuming opposite polarities to enable scaling of resolution and range. The voltage regulator efficiently regulates power with relatively few or no moving parts and also partially protects the power switching components by removing them from the path of the load current thereby producing a device that is smaller in size, costs less and is more reliable. | ||||||
| 59 | T-COIL NETWORK DESIGN FOR IMPROVED BANDWIDTH AND ELECTROSTATIC DISCHARGE IMMUNITY | US12615173 | 2009-11-09 | US20110113401A1 | 2011-05-12 | Vassili Kireev; James Karp; Toan D. Tran |
| A method of generating a circuit design comprising a T-coil network includes determining inductance for inductors and a parasitic bridge capacitance of the T-coil network. The parasitic bridge capacitance is compared with a load capacitance metric that depends upon parasitic capacitance of a load coupled to an output of the T-coil network. An amount of electrostatic discharge (ESD) protection of the circuit design that is coupled to the output of the T-coil network and/or a parameter of the inductors of the T-coil network is selectively adjusted according to the comparison. The circuit design, which can specify inductance of the inductors, the amount of ESD protection, and/or the width of windings of the inductors, is outputted. | ||||||
| 60 | INDUCTION REGULATOR FOR POWER FLOW CONTROL IN AN AC TRANSMISSION NETWORK AND A METHOD OF CONTROLLING SUCH NETWORK | US11992897 | 2006-09-27 | US20100231182A1 | 2010-09-16 | Mikael Dahlgren; Stefan Johansson |
| A device for controlling the voltage and the phase angle of a polyphase electric transmission network including an induction regulator that is connected between the primary side and the secondary side of the transmission network. A gap is provided with a magnetic layer having a relative permeability that is controllable, wherein the magnitude (amplitude) of the secondary voltage vector is also adapted to be controlled by controlling the permeability of the magnetic layer. The magnetic layer may include a magnetic fluid or a solid material. | ||||||
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