Abstract:
Proposed is a probe head having a probe card for performing a circuit inspection of a wafer. More particularly, proposed are a probe head and a probe card having the probe head, the probe head having a guide plate. The guide plate has a guide hole and a shield portion composed of a metal material positioned at the periphery of the guide hole, thereby blocking signal interference that may be occurred between adjacent probes.
Abstract:
The present invention relates to a micro LED grip body and a system having the same for inspecting a micro LED, the micro LED grip body having a vacuum-suction structure capable of being used for transferring a micro LED, thereby solving problems of micro LED transfer heads that have been proposed in the related art.
Abstract:
The present invention relates to a micro LED structure and a method of manufacturing the same that facilitate realizing of pixels of the micro LED structure.
Abstract:
Disclosed is a microsensor package. Particularly, disclosed is a microsensor package configured such that a substrate with a sensor electrode is formed with a plurality of pores penetrating vertically therethrough, the lower surface of the substrate is formed with a bonding portion, and the pores under the sensor electrode pad are provided therein with respective connecting portions electrically connecting the sensor electrode pad and the bonding portion, whereby it is possible to provide a light, slim, and compact microsensor package, and it is possible to mount the microsensor package to a printed circuit board (PCB) without wire bonding.
Abstract:
A light engine for a light emitting element includes an element substrate on which a plurality of light emitting elements is mounted, a plurality of circuit substrates connected to one another in an insulated state in order to apply a drive voltage to the light emitting elements and connected to the element substrate in an insulated state, and a plurality of protection substrates configured to surround the element substrate and the circuit substrates and to make contact with the element substrate and the circuit substrates in an insulated state.
Abstract:
A chip substrate includes: a plurality of conductive layers horizontally stacked and constituting the chip substrate; a plurality of insulation layers alternately with the conductive layers and electrically separating the conductive layers; a lens insert comprising a groove having a predetermined number of edges on the upper surface of the chip substrate and having a cross-section wherein an arc is formed at the region where the extended edges meet; a cavity comprising a groove reaching down to a predetermined depth towards the area accommodating the insulation layer within the internal region of the lens insert; and a plurality of joining grooves formed on the surface of the lens insert. Thus, the lens to be inserted also can be formed to be a shape comprising straight lines so that the manufacturing process of the lens to be inserted into the chip substrate can be further simplified.
Abstract:
The present invention relates to a capacitor. The capacitor includes a substrate; a dielectric layer formed on the substrate; and an electrode layer comprising a first electrode layer and a second electrode layer formed on the dielectric layer, wherein the first electrode layer and the second electrode layer are separated from each other, and at least a portion of the first electrode layer and at least a portion of the second electrode layer are disposed on a same surface. With this configuration, applying the electricity becomes easy, and since the first and the second electrode layers function as the electrodes being charged with different polarity electrical charges respectively, manufacturing thereof becomes easy, and the structure thereof is simple.
Abstract:
A chip mounting substrate including a plurality of conductive portions to apply an electrode voltage to a mounted chip having electrode portions, at least one insulation portion configured to electrically isolate conductive portions, a cavity depressed inward of the conductive portions and providing a space in which the chip is mounted and bumps formed on surfaces of the conductive portions having the cavity and bonded to the electrode portions. In the case of a metal substrate, a tight bonding is enabled between the chip and the substrate by bonding a plating layer formed on the electrode portions of the chip using bumps formed on the metal substrate.
Abstract:
A chip substrate includes conductive portions, an insulation portion and a cavity. The conductive portions are laminated in one direction to constitute the chip substrate. The insulation portion is interposed between the conductive portions to electrically isolate the conductive portions. The cavity is formed on an upper surface of the chip substrate at a predetermined depth in a region including the insulation portion. The cavity is defined by a plurality of continuously-extending curved surfaces having predetermined radii of curvature.
Abstract:
Provided is a heat sink for a chip mounting substrate in which a heat dissipation material is embedded. The heat sink includes: an accommodation portion configured to accommodate a substrate whereon a chip is mounted or to be mounted, and support or fix the accommodated substrate; and a heat dissipation portion configured to insulate the accommodated substrate, and dissipate heat generated from the substrate or the chip mounted on the substrate to an outside through a heat dissipation material contained in the heat dissipation portion. Accordingly, since the heat sink for a chip mounting substrate in which a heat dissipation material is embedded is manufactured by injection molding, a manufacturing process can be simplified. Further, since the heat sink of a single structure is used, a TIM bonding layer for bonding the substrate and the heat sink is not required, and an electrical insulating layer formed by anodizing an upper surface of the heat sink for electrical insulation between the substrate and the heat sink is not required, and thus the structure can be simplified.