Abstract:
The present invention discloses an LED light bar structure, which includes at least one LED and a circuit board. Each LED has two or an even number of pins. The circuit board has at least one receiving space and at least two recesses, in which the LED is disposed in the receiving space, and each of the pins is engaged in the recess. The present invention solves drawbacks of the LED shifting when being conventionally welded and the LED is difficult to replace.
Abstract:
An electronic component mounting structure which can reduce the ESL while saving the space when mounting electronic components is provided. A first electronic component 7 is electrically connected to surface-mounted electrode parts 11A, 12A at metal terminals 26, 27 such that a first capacitor 24 having a greater capacitance and a mounting surface 4a of a multilayer substrate 4 are separated from each other. A second electronic component 8 is arranged between the first capacitor 24 and the mounting surface 4a and electrically connected to surface-mounted electrode parts 12B, 11B at second terminal electrodes 32, 33. The second electronic component 8 overlaps the first capacitor 24 when seen in the laminating direction. The first electronic component 7 is mounted to the multilayer substrate 4 such that first terminal electrodes 22, 23 oppose each other in a predetermined direction D1. The second electronic component 8 is mounted to the multilayer substrate 4 such that the second terminal electrodes 32, 33 oppose each other in the predetermined direction D1.
Abstract:
An electronic component, includes a main body part inserted in an opening part formed in a board; and a pair of leads each of the leads having an end connected to the main body part and another end connected to a pad formed on the board; wherein the main body part is provided with the leads so that a functional surface of the main body part is positioned at a side connected to the pads of the board.
Abstract:
A light emitting apparatus includes a light emitting diode including a body with a light emitting diode chip packaged therein and a plurality of lead electrodes contacted with one side of the body and a board including a plurality of electrode pads connected to lower surfaces of the lead electrodes of the light emitting diode. The lower surfaces of the lead electrodes of the light emitting diode correspond to top surfaces of electrode pads of the board with same shapes. The lower surfaces of the lead electrodes of the light emitting diode are disposed within a region of top surfaces of the electrode pads of the board, respectively.
Abstract:
A structure of a light emitting diode is provided. In one aspect, a light emitting diode structure comprises a light emitting diode, a conductive frame, and a substrate. The conductive frame is electrically connected to the light emitting diode and has a fixing hole connecting a first side of the conductive frame and a second side of the conductive frame opposite the first side. The fixing hole has a ladder-shaped inner sidewall with a first radius of the inner sidewall adjacent the first side smaller than a second radius of the inner sidewall adjacent the second side. The substrate has a conductive pillar that is received in the fixing hole by entering the fixing hole from the first side of the conductive frame and deformed such that the conductive pillar adheres to the ladder-shaped inner sidewall of the fixing hole.
Abstract:
A process relating to a one step low pressure injection molding method of encapsulating high voltage circuitry while incorporating a unique recessed high voltage connector contact means within the injection molding material, greatly reducing the component size, while increasing the capabilities of this type of circuitry. The process reduces the manufacturing time and maintains a clean sealed contact point for repeated usage by the means of a conductive rubber slug. An additional advantage is by creating cavities through the circuit board; axially leaded high voltage components may be conveniently mounted without additional assembly components while being fully encapsulated.
Abstract:
A process relating to a one step low pressure injection molding method of encapsulating high voltage circuitry while incorporating a unique recessed high voltage connector contact means within the injection molding material, greatly reducing the component size, while increasing the capabilities of this type of circuitry. The process reduces the manufacturing time and maintains a clean sealed contact point for repeated usage by the means of a conductive rubber slug. An additional advantage is by creating cavities through the circuit board; axially leaded high voltage components may be conveniently mounted without additional assembly components while being fully encapsulated.
Abstract:
Disclosed are a light emitting module and a light unit having the same. The light emitting module includes a plurality of light emitting devices, each light emitting device including a package body, a light emitting diode provided in the package body, and a plurality of lead electrodes electrically connected to the light emitting diode while protruding outwardly from the package body; and a board including at least one receiving groove, wherein the at least one of the light emitting devices is removably inserted into the at least one receiving groove.
Abstract:
A method of mounting on a circuit board a component having at least one pin extending therefrom for insertion into a respective hole provided in said circuit board, wherein said component has a coating extending over the proximal end of said at least one pin, said extension of the coating having a circular cross-section is provided. The method may include forming said respective hole as a non noncircular hole.
Abstract:
A packaged circuit element such as an LED and a method for making the same are disclosed. The packaged circuit element includes a lead frame, a molded body, and a die containing the circuit element. The lead frame has first and second leads, each lead having first and second portions. The molded body surrounds the first portion of each lead, and the die is connected electrically to the first and second leads on the first portions of the first and second leads. The second portion of each of the first and second leads is substantially parallel to opposing side surfaces of the body and include a feature that inhibits molten solder from wetting a portion of the second section of each lead between the feature and the first portion of that lead while allowing the molten solder to wet the remaining surfaces of the second portions.