Abstract: A method of manufacturing an electromagnetic wave shielding material using a perforated metal thin plate, the method including: forming a gel coat to a mold; forming a first metal layer on a first composite layer by arranging a perforated metal thin plate, after forming the first composite layer on the gel coat layer formed in the first step; forming a second metal layer by arranging a perforated metal thin plate and the first metal layer formed in the second step in such a way that positions of perforations are arranged in a staggered manner without overlapping, after forming a second composite layer on the first metal layer formed in the second step; and molding the electromagnetic wave shielding material by curing and demolding after forming a third composite material on the second metal layer formed in the third step.

Abstract: A fabric coated with functional silicone rubber, the fabric being configured such that a coating layer may not be easily separated from the fabric and may be used to form a power line or a signal line. The fabric includes: a woven fabric made by weaving and including uniform pores therein; and a coating layer formed by coating a surface of the woven fabric with liquid silicone rubber in which electrically conductive particles larger than the pores of the woven fabric are dispersed and mixed, wherein the liquid silicone rubber permeates into the pores of the woven fabric by the weight thereof and is cured such that the silicone rubber is anchored to the woven fabric, and an electrically conductive layer having electrical conductivity is formed as the electrically conductive particles are caught on the surface of the woven fabric and increase in density at the surface of the woven fabric.

Abstract: A method for manufacturing a flexible metal-clad laminated plate includes the steps of: (a) obtaining a laminated body by laminating a polyimide resin film including a non-thermoplastic polyimide layer and an adhesive layer containing thermoplastic polyimide, the adhesive layer being provided on at least one side of the non-thermoplastic polyimide layer, and a metal foil; and (b) subjecting the laminated body obtained in the step (a) to heat treatment under an inert gas atmosphere and a pressure of 0.20 to 0.98 MPa at a temperature of a glass transition temperature Tg of the thermoplastic polyimide?20° C. to the glass transition temperature Tg+50° C.

Abstract: In a multi-layer insulated wire including: a conductor; an inner layer formed in periphery of the conductor; and an outer layer formed in periphery of the inner layer, the inner layer is made of a resin composition containing a base polymer containing polyolefin as a main component, and the outer layer is made of a resin composition containing a base polymer containing polyolefin as a main component so as to contain 80 or more and 250 or less parts by mass of metallic hydroxide per 100 parts by mass of the base polymer. The multi-layer insulated wire having an expansion start temperature of the outer layer that is equal to or lower than 344° C. is used.

Abstract: Semi-finished product made from composite material comprising a thermoplastic or thermosetting matrix and reinforcement fillers. The semi-finished product comprises an electromagnetic shielding film positioned in the thickness of the semi-finished product, the electromagnetic shielding film comprising holes.

Abstract: The invention relates to a circuit carrier (11), comprising a digital circuit, which contains at least two components (12, 14) that are electrically connected to each other (19, 21, 20). Additionally, an electric shield (24) is provided. According to the invention, the electric shield (24) and a conducting path (21) for electrically connecting the components (12, 14) are realized by means of a single layered composite (18). In particular, the electric shield (24) and the conducting path (21) are formed by the same electrically conductive layer, wherein a hole (25) ensures complete electrical insulation of the conducting path (21) from the shield (24). The invention further relates to a method for producing such a circuit carrier.

Abstract: Disclosed is a shielding structure for an integrated inductor/transformer, configured under the integrated inductor or the transformer and upon a substrate. The shielding structure includes conductive units, first connecting portions, via holes, a second connecting portion and a grounding portion. Each conductive unit includes a first conductive portion and second conductive portions extending from the first conductive portion. The number of the second conductive portions is odd. The length of each second conductive portion progressively diminishes from a center of the first conductive portion to both of two ends of the first conductive portion. The first connecting portion connects the first conductive portions of the conductive units through via holes. The grounding portion is connected to one of the first conductive portions. The second connecting portion connects all longest second conductive portions together.

Abstract: An electrical cable includes at least one conductor assembly. Each conductor assembly includes at least one inner conductor that extends along a length, an insulator, and a shield layer. The insulator engages and surrounds a surface of the at least one inner conductor. The insulator is composed of a dielectric material. The shield layer engages and surrounds an outer perimeter of the insulator. The shield layer is formed of a conductive plastic material to provide electrical shielding for the at least one inner conductor and flexibility.

Abstract: The semiconductor package includes a substrate, a die, a first metal layer, a second metal layer and an optional seed layer. The package body at least partially encapsulates the die on the substrate. The seed layer is disposed on the package body and the first metal layer is disposed on the seed layer. The second metal layer is disposed on the first metal layer and the lateral surface of the substrate. The first metal layer and the second metal layer form an outer metal cap that provides thermal dissipation and electromagnetic interference (EMI) shielding.

Abstract: Systems, devices, and methods reduce or attenuate electromagnetic radiation emitted by a wireless client device, e.g. a cellphone or tablet computing device, such that less electromagnetic radiation impinges on a user of the wireless client device. The electromagnetic radiation as measured at or near the front of the wireless client device may be reduced during use by about 90%.

Abstract: [Technical Problem] To provide a connection method between a braided shield layer of a shield wire and a drain wire, and a connection structure of the same enabling an easy and reliable connection, using no skilled operation such as soldering, and without an increase of non-shield area which is a problem when the braided shield layer is pulled out and a ground terminal is directly crimped onto the braided shield layer. [Solution to Problem] A connection method between a braided shield layer of a shield wire and a drain wire sequentially including the steps of a shield terminal insertion step; a shield layer folding and overlapping step; a drain wire overlapping step; a shield ring inserting step; and a crimping step.

Abstract: An electric cable includes a conductor core including conductors each covered with an insulation layer, and a braided layer formed on an outer periphery of the conductor core. The braided layer includes a braid of a first line group and a second line group. The first line group includes first metal lines and first fiber lines arranged along a longitudinal direction of the conductor core and is spirally wound around the outer periphery of the conductor core. The second line group includes second metal lines and second fiber lines arranged along the longitudinal direction of the conductor core and is spirally wound around the outer periphery of the conductor core in a direction opposite to the first line group.

Abstract: A textile fabric, sleeve formed therefrom, and methods of construction thereof are provided. The fabric forms an elongate wall constructed from lengthwise extending warp yarns woven with widthwise extending weft yarns. At least some of the warp yarns are electrically conductive and have a first diameter. The weft yarns have a second diameter that is at least 25 percent less than the first diameter of the warp yarns. As such, the conductive warp yarns are brought into closer proximity with one another than if the weft yarns were the same diameter as the warp yarns. Accordingly, the ability of the fabric and sleeve formed therewith to provide shielding protection against EMI is enhanced.

Abstract: A shielded cable includes: at least one conductor; an insulator with which a surface of the at least one conductor is coated, the insulator having a hardness of 10 or more and 90 or less; and a shield layer disposed on a periphery of the insulator, the shield layer being formed by braiding plated fibers.

Abstract: The present invention relates to a laminar mesh that attenuates electromagnetic radiation, designed to be preferably applied in buildings in order to protect certain architectural areas or parts against electromagnetic waves, characterised in that it is made by attaching to each other a textile mesh (1), natural or synthetic, and a strip of metallic or conducting material (2) to form a coating for the textile mesh (1).

Abstract: A method of fabricating a conductive composite wherein at least one predetermined electrical access area of a conductive material is coated with a maskant. The conductive material is included in a composite ply lay-up which is cured and then the maskant is removed from the conductive material.

Abstract: An insulating film includes a first polymer layer, a second polymer layer and an electromagnetic shielding layer sandwiched between the first polymer layer and the second polymer layer. The electromagnetic shielding layer includes a number of carbon nanotube films that are substantially parallel to the first and second polymer layer. Each of the carbon nanotube films includes a number of carbon nanotubes that are substantially parallel to each other. The insulating film can provide anti-EMI effect in printed circuit boards without employing additional electromagnetic shielding layers.

Abstract: A panel type display device to achieve easy assembly, high productivity and low manufacturing costs with a reduced number of elements.

Abstract: A conductive film has transparency and a high level of electrical conductivity, which is used for an electromagnetic interference film hardly causing a moiré phenomenon, and the like. To achieve the above-mentioned aim, the following disclosure is disclosed. A conductive film in which a conductive portion of a random network structure is present on at least one surface of a base film, a line width of the conductive portion composing the network structure is 30 ?m or less, an area of portions where the conductive portion is not present is 50% or more with respect to an area of the conductive film, and an average of ratios of a major axis length to a minor axis length of an area surrounded by the network of the conductive portion, in which the base film is exposed, is larger than 1 and is equal to or less than 3.5.

Abstract: A braided shield includes a housing formed from a plurality of wires braided together and having a dual-layer configuration. The housing has an outer layer integrally formed with an inner layer. A support is at least partially disposed in the housing, and the inner layer is disposed between the support and the outer layer. The inner layer and outer layer reduce electromagnetic radiation leakage into/out of the housing by reducing the number of holes in the housing. Forming the braided shield includes providing the housing, which defines a longitudinal axis and a passage extending along the longitudinal axis. The housing has an end portion, and the end portion is compressed transverse to the longitudinal axis. The end portion is then forced into the passage. Accordingly, the braid shield reduces or eliminates electromagnetic radiation while providing a strong and consistent crimp with the support.

Abstract: A bundle of electrical cables (20) are shielded from electromagnetic interference by an elongate tape (1) wrapped widthwise round the bundle with its longitudinal edges (8,11) overlapping one another. The tape (1) includes a woven mesh (2) of bare-metal strands (5) sandwiched between outer and inner layers (4,3) of sheet-plastics, the weave being a narrow-fabric weave having warp strands (5) running longitudinally of the tape (1) and a single unbroken weft-strand (6). The mesh (2) is bare on the outside along one longitudinal margin (11) and also on the inside along the other longitudinal margin (8) for direct electrical contact between them within the overlap in establishing closed electrical circuits encircling the cable-bundle throughout the length of the tape (1). The margin (11) of the mesh (2) innermost in the wrap may instead be insulated, merely adding insignificant capacitance into the otherwise purely-resistive encircling circuits.

Abstract: A method of forming a conductive gasket material by layering at least one conductive web layer having a blended mixture of conductive fibers and low melting point nonconductive fibers onto a foam core, and needlepunching the conductive web layer and the foam core forming a conductive composite gasket material having a plurality of conductive fibers interspersed through the foam core.

Abstract: An electro-magnetic wave shield cover having an array of first yarn members (10) formed by bundling (48) ends of polyester fibers around which a tin-plated copper metallic foil (12) is wound. The second yarn member (20) is formed by bundling 96 ends of polyester fibers. Doubled-yarn groups (10A, 10B, 10C, 10D) of the first yarn members running in the first direction (warp) from upper right to lower left and doubled-yarn groups (20A, 20B, 20C, 20D) of the second yarn members (20) running in the first direction (warp), and doubled-yarn groups (10a, 10b, 10c, 10d) of the first yarn members running in the second direction (weft) from upper left to lower right and doubled-yarn groups (20a, 20b, 20c, 20d) of the second yarn members running in the second (weft) direction are arranged so that the interlacing is made in such a manner that if the doubled-yarn group, running in the one direction is twice disposed beneath the doubled-yarn groups running in the other direction, then it is twice disposed above the latter.

Abstract: An electromagnetic shielding device has a bottom layer, a shielding layer and a top layer. The shielding layer is mounted between the bottom layer and the top layer and is made of metal filaments and textile fibers. The metal filaments and the textile fibers of the shielding layer are blended and formed into a mesh. The electromagnetic shielding device in the present invention may be made into patches or forms that can be adhered to electrical and electronic equipment, or adapted for use in clothing.