Abstract:
A collective substrate for resistor devices includes a base, a first conductive pattern in a to-be-product region and a to-be-cut-away region of the base, and a resistive element in the to-be-product region of the base. The to-be-cut-away region includes a first region adjacent to the to-be-product region in a first direction, and a second region adjacent to the to-be-product region in a second direction. The first conductive pattern includes a first terminal portion connected to the resistive element and disposed in the to-be-product region, a first electrode portion disposed in the first region and larger in area than the first terminal portion, and a first interconnect portion extended from the first terminal portion toward the second region to be connected to the first electrode portion.
Abstract:
An improved discrete electronic device and method of making the improved discrete electronic device is described. The discrete electronic device has an electronic passive component with a termination and a lead frame. A compensating compliant component is between the termination and the lead frame. The compensating compliant component has a composite core and a first conductor on the composite core. The first conductor is in electrical contact with the termination. A second conductor is also on the composite core wherein the second conductor is in electrical contact with the lead frame.
Abstract:
A method of forcing a stacked electronic component, and an electronic component formed by the method, therein the method includes:providing a multiplicity of electronic components wherein each electronic component comprises a first external termination and a second external termination;providing a first lead frame plate and a second lead frame plate wherein the first lead frame plate and the second lead frame plate comprises barbs and leads;providing a molded case comprising a cavity and a bottom; and terming a sandwich of electronic components in an array between the first lead frame plate and the second lead frame plate which the barbs protruding towards the electronic components and the leads extending through the bottom.
Abstract:
A resistor and a manufacturing method thereof are disclosed. Since a ceramic tube formed of a ceramic material is used and the ceramic tube is joined to sealing electrodes by use of brazing rings, joining strength and durability of the resistor are considerably improved. The resistor may be stably used at a high voltage due to excellent heat dissipation characteristics thereof.
Abstract:
An electrostatic discharge (ESD) protector includes a first high heat-conductive substrate, a second high heat-conductive substrate, a varistor layer, and a plurality of via-hole electrodes. The first high heat-conductive substrate is provided with a plurality of first through-holes. The second high heat-conductive substrate is provided with a plurality of second through-holes. The varistor layer that is mainly composed of zinc oxide is disposed between the first high heat-conductive substrate and the second high heat-conductive substrate. The varistor layer includes internal electrodes. Each of via-hole electrodes penetrates the varistor layer and fills both one of the first through-holes and one of the second through-holes to couple both the ones to each other.
Abstract:
An electronic-component mounting structure includes an electronic component which includes a metal substrate, a semiconductor ceramic layer located on the metal substrate, a pair of split electrodes located on the semiconductor ceramic layer, and plating films located on the split electrodes and the metal substrate, and a mounting body on which lands to be connected to the respective split electrodes of the electronic component are provided. The position of a peripheral end portion of each land to be connected to the corresponding split electrode is located farther inside than the position of a peripheral end portion of the split electrode. In addition, a plane area of the land is smaller than that of the split electrode.
Abstract:
This present invention provides a high power water-cooling resistor used for high voltage direct current converter valve, which adopts water-cooling directly. It is characterized by that there are four resistance films, the resistance layer with required resistance, wherein the power of each resistance film can be up to 1500 w at least to form high power resistor. The water flows through one side of resistance film-substrate to take away the heat produced by resistor. The resistor adopts insulated cooling. The thermal resistance between resistor and water is extremely low, and the heat transfer area is also large, the temperature of the resistor declines greatly at the same power. It makes the high power water-cooling resistor have high power to volume ratio; its power can be up to 6 kW under adequate water flow condition. It is suitable for high power condition. The inside space of resistor body is large, so there are some advantages when water cut off is test. The case of the resistor is made of white high strength pps engineering plastic, and it can bear 2 Mpa water pressure, which is better than PVDF material. The inlet and outlet are all the bottom of the resistor, and the wire terminals are the top.
Abstract:
A surface-mounted resistor includes a flat-type base member having a first surface, a second surface, and a lateral surface. Each of the first and second surfaces has a rectangular shape. The surface-mounted resistor also includes a resistance element faulted on the first surface; a pair of internal electrodes formed on both ends of the resistance element by being partially superposed with the resistance element; and a pair of external electrodes. Each of the external electrodes has a first bended portion having an L-shape formed by an internal electrode connection portion and a lateral portion, and a second bended portion having an L-shape formed by the lateral portion and a substrate connection portion. The internal electrode and the internal electrode connection portion are fixed to each other through a conductive fixation material, and a position of the base member is biased in a thickness direction toward the first bended portion.
Abstract:
A resistor arrangement with resistor elements is specified that are arranged essentially regularly and that are spaced apart from each other and that are interconnected by a flexible substrate. According to a first preferred embodiment, intermediate spaces that are provided to carry a flow of flowing medium are arranged between the resistor elements. According to a second preferred embodiment, the resistor elements are arranged between two flexible substrates and are rigidly connected to these substrates. According to a third preferred embodiment, an electrically insulating adhesive layer that has openings through which the resistor elements are conductively connected to the substrate is arranged between the resistor elements and the substrate. According to a fourth preferred embodiment, the substrate is composed of, as a ground material, an elastic plastic that is filled with electrically conductive particles. In addition, a method for producing the resistor arrangement is specified.
Abstract:
A power resistor includes first and second opposite terminations, a resistive element formed from a plurality of resistive element segments between the first and second opposite terminations, at least one segmenting conductive strip separating two of the resistive element segments, and at least one open area between the first and second opposite terminations and separating at least two resistive element segments. Separation of the plurality of resistive element segments assists in spreading heat throughout the power resistor. The power resistor or other electronic component may be packaged by bonding to a heat sink tab with a thermally conductive and electrically insulative material.