47results about How to "Ensure conductivity" patented technology

An electrically conductive pipette tip having an elongated tubular body that has a bottom opening at the bottom end for the passage of liquid, and a top opening at the top end for the passage of air, and a passageway between the bottom opening and the top opening, wherein the body has at least one electrically-conductive region extending from the bottom opening to the top opening, and at least one transparent region consisting of plastic that extends from the passageway to the outside of the body.

An electronic device according to the invention includes: a substrate; an MEMS structure formed above the substrate; and a covering structure defining a cavity in which the MEMS structure is arranged, wherein the covering structure has a first covering layer covering from above the cavity and having a through-hole in communication with the cavity and a second covering layer formed above the first covering layer and closing the through-hole, the first covering layer has a first region located above at least the MEMS structure and a second region located around the first region, the first covering layer is thinner in the first region than in the second region, and a distance between the substrate and the first covering layer in the first region is longer than a distance between the substrate and the first covering layer in the second region.

The present invention pertains to an electric heating element with at least one flat heating resistor to be arranged near a surface to be heated, and at least one electrode that serves to feed a current into the heating resistor and features at least two contact conductor strands that are, at least locally, connected to one another and to the heating resistor, at least in an elongated contacting region. The invention proposes that at least at one location along the electrode and/or the contacting region at which at least one of the contact conductor strands, at least locally, extends parallel to the direction of the electrode, and/or the contacting region, at least one additional contact conductor strand, at least locally, extends at an angle thereto.

Provided is a photosensitive electrically conductive paste containing silver powder, organic binder, photopolymerizable monomer, photopolymerization initiator and organic solvent. The silver powder, having a primary particle diameter of not more than 1.0 [mu]m, a specific surface area from 1.5 m2/g to 2.0 m2/g and a tap density from 2.0 to 5.0 g/cm3, is included in an amount of less than 70 mass%of the electrically conductive paste excluding the organic solvent.

The present invention relates to a conductive adhesive for screen printing containing metal colloid particles (A) containing metal nanoparticles (A1) and a protective colloid (A2) containing an organic compound having a carboxyl group and a polymer dispersant having a carboxyl group, a viscosity modifier (B) having an amide bond and/or a urea bond, and a dispersion solvent (C).

The anisotropic conductive particles of the invention have conductive fine particles 2 dispersed in an organic insulating material 3.

A μ-flap type nano/micro mechanical device with a lower electrode 1,1a, 1b, an upper electrode layer 2, an dielectric layer 3 arranged between the lower electrode 1,1a,1b and the upper layer 2, such that the dielectric layer 3 and said upper electrode layer_—2 form a layered body 4, the layered body 4 comprising a horizontal recess 5 in a side portion of the dielectric layer 3, and an overhanging portion 6 of reduced thickness over the recess 5 that forms a gap 5a; such that the overhanging portion 6 forms a μ-flap 6a which extends over the gap 5a. The device is a capacitative-based device in which the mechanical motion can be measured at room temperature and without monolithic integration thereof with an integrated circuit but that can be easily integrated with complementary metal oxide semiconductor (CMOS) circuitry.

A gold finger, includes a substrate, an embossable adhesive layer and a plurality of wires. The gold finger is achieved through adhering an embossable adhesive layer to a side of the substrate, providing grid-shaped grooves on a side of the embossable adhesive layer away from the substrate, embedding conductive grids of the wires in the grooves to form the wires. The gold finger is disposed on a sensing component, the wires of the gold finger are electrically connected with a circuit board through an anisotropic conductive adhesive. The contact area of the wire and the embossable adhesive layer is increased through embedding the conductive grid of the wire, which is grid-shaped structure, in the grooves such that the wires are tightly combined to the embossable adhesive layer and not easy to fall off or be scratched. The present invention further provides a touch screen containing the gold finger.

An electrical connector including a housing including an opening, a carrier assembly for receiving one or more leads from a wire assembly and extending via the opening, an annular gap between an inside surface of the opening and the carrier assembly, a shell including a hole for receiving the wire assembly, the shell adapted for slideable engagement with the housing in the annular gap, and wherein the slideable engagement between the shell and the housing severs a distal portion of a shield layer of the wire assembly and secures a proximal portion of the shield layer in the annular gap.

A resonator includes a resonator element including a substrate gradually increasing in thickness from an outer edge toward a center, excitation electrodes respectively disposed on both principal surfaces of the substrate, and a pair of electrode pads electrically connected to the excitation electrodes, disposed on at least one of the both principal surfaces, and disposed on one end side of the substrate, and a second substrate as a base, the pair of electrode pads are bonded to the second substrate via respective first bonding members, two places of the other end of the substrate on the opposite side to the one end are bonded to the second substrate via respective second bonding members, and a distance S1 between the two first bonding members, and a distance S2 between the two second bonding members fulfill S1<S2.

The invention discloses a preparation process of a high-quality titanium-based boron-doped diamond film electrode. The preparation process of the high-quality titanium-based boron-doped diamond film electrode comprises the following concrete steps of (1) cleaning: cleaning a substrate; (2) shot blasting: using a shot blasting machine for shot blasting the cleaned substrate; (3) electrochemically oxidizing: infiltrating the shot-blasted substrate in an electrolytic tank, and oxidizing; (4) planting a diamond crystal seed: infiltrating the oxidized substrate into a boron-doped diamond crystal seed solution; and (5) carrying out chemical vapor deposition (CVD): placing the substrate planted with the diamond crystal seed in a hot wire CVD chamber. According to the preparation process of the high-quality titanium-based boron-doped diamond film electrode, the production cost of the diamond electrode is greatly reduced, a binding force between a diamond film and the titanium substrate is improved, the service life is prolonged, the preparation process is simple, and the mass production efficiency is improved at the same time.

The invention discloses conductive foam for fingerprint identification. The conductive foam comprises foam serving as a core, wherein conductive fibers are arranged outside the foam to serve as a coating layer; the foam density is 10-50kg/m<2>; the conductive fibers comprise a polyester fiber base material, conductive layers formed by nickel, copper and nickel are sequentially arranged on one sideof the polyester fiber base material, and the other side of the polyester fiber base material is connected with the foam; and conductive two-sided adhesive is arranged on one side or two opposite sides of the outer side of the conductive fibers when the conductive fibers coat the foam. According to the conductive foam, the foam having the density of 10-50kg/m<2> is selected as a core, the compressing force can be effectively reduced; and in the structure of the conductive fibers, the conductive layers formed by nickel, copper and nickel are arranged on the polyester fibers, so that the conductive fibers with the structure have an extremely low gram weight which is 30-50g/m<2> and extremely low resistance which is less than 0.05ohms/inch<2>, so that the conductive foam has extremely low compressing force, relatively small resistance and extremely high pressing sensitivity, and is suitable for fingerprint identification.

The invention discloses a liquid crystal panel used for liquid crystal display device and a method for manufacturing the same. The object of the invention is to provide a liquid crystal panel having the following structure in order to utilize effectively the peripheral portion of the liquid crystal panel: in a liquid crystal panel which is formed by sandwiching the liquid crystal between a TFT substrate configured with the pixels in a matrix shape and a CF substrate configured with the color filter and sealing the peripheral area with a seal material, the seal material is completely overlappingly disposed on the BM of the CF substrate, and in order to electrically connect said TFT substrate and said CF substrate, a conductive material is adjoined at the outer side of said seal material and is configured to overlap the BM completely, and a structure in which said BM only projects outwardly at the portion, where said conductive material is disposed, is formed. Wherein said conductive material comprises electric transfer isolation component with the electric transfer film disposed on the surface of the isolation component. Therefore, the reduction of the yield rate, which is caused by black matrix being cut off when the cut off line shifts slightly during cutting the substrate, can be decreased while the peripheral portion of the liquid crystal panel substrate is utilized effectively.

A photovoltaic interconnect wire includes a conductive base strip with grooves provided thereon, and the grooves are linear and/or curved strip-shaped grooves (3) arranged obliquely to a longitudinal direction of the conductive base strip. An inclination angle of 15° to 75° is present between each linear strip-shaped groove and the longitudinal direction of the conductive base strip, and between a tangent line of any point on the curve of a curved-shaped groove and the longitudinal direction of the conductive base strip. The photovoltaic soldering strip increases an output power of a solar cell assembly by increasing the total reflection proportion. It also ensures soldering fastness by adjusting flat regions of the base strip. Effective cross section loss of the conductive base strip is reduced by adjusting the angle of each groove, so as to minimize the confluence efficiency loss of the soldering strip.

The invention relates to a carbon thermal rail production line and a carbon thermal rail production method. The carbon thermal rail production line comprises a bookbinding system, a connector packaging system and a control system, wherein the bookbinding system is used for bookbinding power lines and carbon rods in a carbon thermal rail; the connector sealing system is connected with the bookbinding system, and is used for packaging the connection parts between the power lines and the carbon rods in the carbon thermal rail; and the control system is connected with the bookbinding system and the connector packaging system and controls the bookbinding system and the connector packaging system. The carbon thermal rail production line can complete the bookbinding and connector packaging of at least 500 carbon rods and power lines per hour, so that the production efficiency of the carbon thermal rail can be improved greatly, and the cost is reduced.