Abstract:
A high power light emitting diode, The high power light emitting diode comprises a light emitting diode chip, a main module, two first electrode pins, two second electrode pins, and at least one heat dissipation board. The main module has a concave and the light emitting diode chip is positioned in the concave. The first electrode pins are connected to a first side of the main module and also electrically connected to the light emitting diode chip. The second electrode pins are arranged on a second side of the main module that is relative to the first electrode pins wherein the second electrode pins and the first electrode pins are electrically opposite. The second electrode pins are electrically connected to the light emitting diode chip. The heat dissipation board is connected to a part of the main module between the first electrode pin and the second electrode pin.
Abstract:
An electronic component device includes a wiring substrate having a wiring pattern, an electronic component mounted on the wiring pattern of the wiring substrate and provided with an electrode arranged on a side surface thereof, and a gold bump provided on the wiring pattern in side neighborhood of the electrode of the electronic component and bonded to the electrode of the electronic component and the wiring pattern, and the electrode of the electronic component is electrically connected to the wiring pattern through the gold bump, and the gold bump is formed by a wire bump method.
Abstract:
A circuit board may include hybrid via structures configured to connect to components, such as connectors and electronic components, mounted on the circuit board. A hybrid via structure may include one or more micro-vias configured to provide an electrical connection to a signal trace in the circuit board and one or more through-vias configured to provide a ground connection to at least one reference plane in the circuit board. In one embodiment, a plurality of circuit boards including the hybrid via structures and signal traces may be connected to establish a channel supporting differential signaling and data transfer rates of at least about 5 Gb/s. Of course, many alternatives, variations, and modifications are possible without departing from this embodiment.
Abstract:
An electronic package. The electronic package includes an electronic component having a heat producing device, an attachment piece, and at least two attachment units. Each unit includes an attachment pillar having a mating surface, a solder layer formed on the mating surface, and an attachment pad located on the attachment piece. The pillar of each unit is attached to its unit attachment pad via its unit solder layer and is otherwise attached to the electronic component. One pillar at least partially covers the heat producing device. Prior to attachment of pillars to their associated unit pads, the unit solder layer of the pillar at least partially covering the heat producing device is patterned to cover less than its mating surface, and the pillar at least partially covering the heat producing device is thermally connected to the heat producing device and to its unit attachment pad via its unit solder layer.
Abstract:
A display device includes a display panel, a printed circuit board and a semiconductor device of a film carrier type which is disposed to lie between the liquid crystal display panel and the printed circuit board and is mounted on a film carrier. First terminals of the film carrier are connected by a first anisotropic conductive film to terminals of the printed circuit board and second terminals of the film carrier are connected to terminals of the display panel by a second anistropic conductive film.
Abstract:
The related arts have difficulty in efficiently dissipating the heat generated by a resin-molded semiconductor element, and thus have the problem of thermal stress causing damage to the semiconductor element. To solve the problem, a semiconductor device of the preferred embodiments includes common leads coupled to an island, and a part of the common leads projects out from a resin seal body. The projecting common leads have a coupling portion. When mounting the semiconductor device, the common leads are bridged with brazing material. Thus, the heat generated by an integrated circuit chip mounted on the island is dissipated through the common leads to the outside of the resin seal body. In the preferred embodiments of the invention, a further improvement in heat dissipation characteristics can be accomplished by increasing the surface areas of the common leads.
Abstract:
A display device which provides reliable connection between a semiconductor device and a printed circuit board includes a display panel, a printed circuit board disposed close to the display panel, and a semiconductor device of a film carrier type which is disposed to lie between the display panel and the printed circuit board, and terminals of the semiconductor device are respectively connected by an anisotropic conductive film to terminals of the printed circuit board that are disposed in opposition to the respective terminals of the semiconductor device.
Abstract:
To accommodate thermal stresses arising from different coefficients of thermal expansion (CTE) of a packaged or unpackaged die and a substrate, the package incorporates two or more different interconnect zones. A first interconnect zone, located in a central region of the die, employs a relatively stiff interconnect structure. A second interconnect zone, located near the periphery of the die, employs a relatively compliant interconnect structure. Additional interconnect zones, situated between the first and second interconnect zones and having interconnect structure with compliance qualities intermediate those of the first and second zones, can optionally be employed. In one embodiment, solder connections providing low electrical resistance are used in the first interconnect zone, and compliant connections, such as nanosprings, are used in the second interconnect zone. Methods of fabrication, as well as application of the package to an electronic assembly, an electronic system, and a data processing system are also described.
Abstract:
A light emitting diode (LED)has an integrated heat sink structure for removing heat from an LED junction and for dissipating heat from the junction to the ambient air. The anode and the cathode both either act as or are coupled to a thermally conductive material which acts as the heat sink. In one embodiment, the heat sink forms a mounting configuration that allows air to circulate around multiple surfaces to maximize heat dissipation. As a result, the LED junction temperature remains low, allowing the LED to by driven with higher currents and generate a higher light output without adverse temperature-related effects.
Abstract:
A high-frequency signal from a tape-shaped line section having a surface layer signal lead and surface layer GND lead disposed on both sides thereof is directly inputted to a semiconductor chip via a signal surface layer wiring of a package substrate and through solder bump electrodes. Alternatively, a high-frequency signal from the semiconductor chip is outputted to the outside via the tape-shaped line section in reverse. Owing to the transmission of the high-frequency signal by only a microstrip line at the whole surface layer of the package substrate, the high-frequency signal can be transmitted by only the microstrip line at the surface layer without through vias or the like. Accordingly, the high-frequency signal can be transmitted without a loss in frequency characteristic, and a high-quality high-frequency signal can be transmitted with a reduction in loss at high-frequency transmission.