Abstract:
본 발명은 유연 기판; 및 상기 유연 기판의 표면에 형성된 것으로 전기전도성 물질로 이루어진 전도체들이 유연 기판의 변형에 따라 접촉/비접촉 거동하도록 배열하여 이루어진 전도성 패턴을 포함하는 전기전도성 물질 패터닝을 이용한 변형 감지 유연성 기판을 제공한다.
Abstract:
An electrical connector (100) that includes a circuit board (124) having a board substrate (125) that has opposite board surfaces (202, 204) and a thickness (T 1 )measured along an orientation axis (192) that extends between the opposite board surfaces. The circuit board has associated pairs of input and output terminals (220, 222) and signal traces (231-238) that electrically connect the associated pairs of input and output terminals. The input and output terminals being configured to communicatively coupled to mating and cable conductors (116, 130), respectively. Each associated pair of input and output terminals is electrically connected through a corresponding signal trace that has a conductive path extending along the board substrate between the corresponding input and output terminals. At least two signal traces (235, 236) form a broadside-coupling region (250) in which the conductive paths of the at least two signal traces are stacked along the orientation axis and spaced apart through the thickness and extend parallel to each other for a crosstalk-reducing distance (D CRT1 ).
Abstract:
A power supply apparatus is provided. The power supply apparatus includes a flexible board including a first surface and a second surface disposed opposite to the first surface, a connecting terminal disposed on the first surface of the flexible board, and a fixing plate disposed on the second surface of the flexible board and disposed opposite to the connecting terminal.
Abstract:
An electronic device, including multiple electronic elements, a first substrate, a second substrate, and a third substrate, is provided. The first substrate includes a first device element and a first connection pad. The second substrate includes a second device element and a second connection pad. The third substrate includes a first connection line, wherein the first connection pad and the second connection pad are coupled to the first connection line, and the first substrate, the second substrate, and the electronic elements are disposed on the third substrate.
Abstract:
An apparatus includes a particle trap coupled to a first surface of an enclosure, wherein the first surface of the enclosure is opposite a top surface of a circuit board. A particle guard coupled to the top surface on a first side of the circuit board located in the enclosure, wherein the enclosure includes one or more apertures on a second surface of the enclosure where the first side of the circuit board is introduced to an external airflow.
Abstract:
A method of making a security mesh comprises forming on a conductive substrate an alumina film having through-holes in which metal, e.g., copper, through-wires are formed. First surface wires are formed on one surface of the alumina film and second surface wires are formed on the second, opposite surface of the alumina film in order to connect selected through-wires into a continuous undulating electrical circuit embedded within the alumina film. The security mesh product comprises an alumina film having a continuous undulating electrical circuit comprising copper or other conductive metal extending therethrough. A stacked security mesh comprises two or more of the mesh products being stacked one above the other.
Abstract:
The present disclosure provides a system and method for providing electrostatic discharge protection. A probe card assembly is provided which is electrically connected to a plurality of input/output channels. The probe card assembly can be contacted with a secondary assembly having an interposer electrically connected to one or more wafers each wafer having a device under test. Voltage can be forced on ones of the plural input/output channels of the probe card assembly to slowly dissipate charges resident on the wafer to thereby provide electrostatic discharge protection. A socket assembly adaptable to accept a 3DIC package is also provided, the assembly having a loadboard assembly electrically connected to a plurality of input/output channels. Once the 3DIC package is placed within the socket assembly, voltage is forced on ones of the input/output channels to slowly dissipate charges resident on the 3DIC package to thereby provide electrostatic discharge protection.
Abstract:
In a high frequency signal line, a first signal line extends along a first dielectric element assembly, a first reference ground conductor extends along the first signal line, a second signal line is provided in or on the second dielectric element assembly and extends along the second dielectric element assembly, a second reference ground conductor is provided in or on the second dielectric element assembly and extends along the second signal line. A portion of a bottom surface at an end of the first dielectric element assembly and a portion of the top surface at an end of the second dielectric element assembly are joined together such that a joint portion of the first and second dielectric element assemblies includes a corner. The second signal line and the first signal line are electrically coupled together. The first and second reference ground conductors are electrically coupled together.