Abstract:
A semiconductor storage device including a board, an electronic component, and a holder. The board has a region with an opening. The electronic component includes a component body disposed in the opening and a lead protruding from the component body and connected to the board. The holder is disposed in the opening and supports the component body. The region includes first and second edges on either side of the opening, the first and second edges extending along a first direction and separated from each other in a second direction crossing the first direction. The holder includes a holder body at least partially formed in an annular shape and into which the component body is inserted, a first groove extending along the first direction and engaged with the first edge, and a second groove extending along the first direction and engaged with the second edge.
Abstract:
Provided are a nano-scale LED assembly and a method for manufacturing the same. First, a nano-scale LED device that is independently manufactured may be aligned and connected to two electrodes different from each other to solve a limitation in which a nano-scale LED device having a nano unit is coupled to two electrodes different from each other in a stand-up state. Also, since the LED device and the electrodes are disposed on the same plane, light extraction efficiency of the LED device may be improved. Furthermore, the number of nano-scale LED devices may be adjusted. Second, since the nano-scale LED device does not stand up to be three-dimensionally coupled to upper and lower electrodes, but lies to be coupled to two electrodes different from each other on the same plane, the light extraction efficiency may be very improved. Also, since a separate layer is formed on a surface of the LED device to prevent the LED device and the electrode from being electrically short-circuited, defects of the LED electrode assembly may be minimized. Also, in preparation for the occurrence of the very rare defects of the LED device, the plurality of LED devices may be connected to the electrode to maintain the original function of the nano-scale LED electrode assembly.
Abstract:
Provided is an LED lamp using a nano-scale LED electrode assembly. The LED lamp using the nano-scale LED electrode assembly may solve limitations in which, when a nano-scale LED device according to the related art stands up and is three-dimensionally coupled to an electrode, it is difficult to allow the nano-scale LED device to stand up, and when the nano-scale LED devices are coupled to one-to-one correspond to electrodes different from each other, product quality is deteriorated. Thus, the nano-scale LED device having a nano unit may be connected to the two electrodes different from each other without causing defects, and light extraction efficiency may be improved due to the directivity of the nano-scale LED devices connected to the electrodes. Furthermore, deterioration in function of the LED lamp due to the defects of a portion of the nano-scale LEDs provided in the LED lamp may be minimized, and the LED lamp may have a flexible structure and shape by using the nano-scale LED electrode assembly of which a portion is deformable according to the used purpose or position of the LED lamp.
Abstract:
The invention concerns a button cell, particularly for a tire pressure sensor, with a first electric pole formed by a first front side and a second electric pole (4) formed by a second front side opposite to the first front side; with a first contact tab mounted on the first front side, which includes a substantially flat extension inside the plane of the first front side, or with a first contact tab formed by the first front side; with a second contact tab mounted on the second front side, which extends from the plane of the second front side at an angle substantially up to the plane of the first front side; with an insulation layer mounted on the button cell, at least in the region of the first and second contact tabs or over the external periphery of the button cell. The invention is characterised in that the insulation layer includes a plurality of openings, which traverse the insulation layer completely and which are distributed over the surface of the insulation layer.
Abstract:
A mounting structure for an electronic component and a method for mounting the electronic component are provided with a sufficient reinforcing effect for the relatively tall electronic component raised from a substrate. The mounting structure and the mounting method can easily respond to a change of the shape of the electronic component. In a mounting structure 1, a substrate 2 and an electronic component 4 raised on the substrate 2 are joined with bonding metal 3 and a reinforcing resin body 5 is bonded to the substrate 2 and the electronic component 4. The reinforcing resin body 5 includes a plurality of reinforcing resin layers 5a. The reinforcing resin layers 5a constituting the reinforcing resin body 5 are stacked in the height direction of the raised electronic component 4 along a side 4a of the electronic component 4 so as to be raised from the substrate 2.
Abstract:
A capacitor holder comprising a body part formed in a shape into which a tip end of a capacitor can be fitted; and a lead part which is fixed to the body part and can be soldered to a predetermined fitting location. The body part has an opening through which the tip end of the capacitor is exposed, and an end surface abutment portion which abuts a tip end surface of the capacitor in a vicinity of a pressure valve, when the tip end of the capacitor is fitted into the body part. The lead part is fixed to the body part at a position opposite to the capacitor with respect to a reference plane, which is a plane includes the tip end surface of the capacitor abutting the end surface abutment portion.
Abstract:
Methods to form a device whereon flexible component elements are attached upon three-dimensional surfaces are described. In some aspects, the present invention includes incorporating flexible semiconductor devices onto three-dimensional surfaces with electrical contacts. In some aspects, the formed device may be incorporated in an ophthalmic device.
Abstract:
An electronic assembly that includes a circuit board having a substrate in which an open space is defined, and a component having a housing and a plurality of leads, the open space being large enough to receive the housing of the component at least partially.
Abstract:
An apparatus includes, in combination, an electrical component and a bracket. The electrical component has a first end configured to electrically connect to a circuit board. The electrical component defines an axis and has a width measured in a direction transverse to the axis. The bracket has a body defining a bore shaped to receive the electrical component. The body further includes a break in communication with the bore to allow expansion of the bore. In an at-rest state of the bracket, the bore has a bore width smaller than the width of the electrical component, and when the electrical component is received in the bore, the bracket is elastically deformed such that the electrical component is clamped in the transverse direction solely by the residual stress within the bracket without any additional clamp or fastener.
Abstract:
A surge protector includes a body having an outer surface, and a clamp snapped on the body. The clamp includes spring clips. The spring clips have at least two support areas that are in a substantially same plane. The surge protector may also include a center electrode and terminal electrodes on ends of the body.