Abstract:
A lighting device comprises: a first substrate comprising a first connector and a first connection terminal, the first connector being connected to an external power supply or driving device, the first connection terminal being electrically connected to the first connector; and a second substrate connected electrically to the first connection terminal and comprising a light emitting device.
Abstract:
An electrical connection structure allowing reduction in height and easy disassembly, wherein a first connecting member comprises a flexible substrate comprising a flexible insulating film, at least one conductive pad formed on at least one side thereof, a conductive circuit pattern extending from the rim of the pad, a through-hole formed through the thickness thereof at a planar position within the pad, and a small aperture formed at a planar position within the pad and communicating with the through-hole, and a second connecting member comprises a conductive projection formed at least one side thereof and electrically connected with a conductive circuit pattern formed inside or on the second connecting member, where the electrical connection is formed in the manner such that the conductive projection of the second connecting member is inserted in the through-hole of the first connecting member, through the small aperture in the pad, bending the pad and the portion of the insulating film under the pad, along the direction of insertion of the conductive projection, so that the pad is pressed onto the conductive projection due to elastic force of the pad and the insulating film bent.
Abstract:
A vehicular light source unit includes: an LED element integrated with a pair of plate-like feeding terminals; and an LED socket including a pair of plate spring-like conductive terminals in which movable portions and supporting portions that are integrally formed by a conductive member hold the pair of feeding terminals from both sides, and a resin housing integrated with the pair of conductive terminals. The LED element is detachably supported by the plate spring-like conductive terminals through the feeding terminals and receives a power supply from both sides of the feeding terminals.
Abstract:
The crystal oscillator has a configuration where circuit elements including a crystal unit are arranged on a mounting board comprising external terminals, opening end faces of a concave metal cover are made to touch the surface of the mounting board, clearances from the opening end faces are comprised in the central regions at both ends in the width direction of the metal cover, protruding parts, which extend from the opening end faces and have a protrusion on an inner face, are comprised at both ends in the longitudinal direction of the metal cover, and each of the protruding parts is elastically inserted in a groove provided on both side faces in the longitudinal direction of the mounting board 1 and bonded by solder, wherein the tip side of each protrusion is thrust and bites into a metal film provided in the groove.
Abstract:
The present invention provides a modular panel lighting apparatus comprising a multi layer power board and one or more lighting modules. The power board is a compound structure of one or more electrically conductive layers which are separated by one or more electrically insulating layers. The power board is configured to receive one or more lighting modules and can provide electrical, mechanical and thermal function adequate to meet a desired functionality of the lighting apparatus. A lighting module comprises one or more light-emitting elements operatively attached to a connector element that has one or more electrical contact portions. By inserting the connector element into the power board, the lighting module can be mounted anywhere on the face of the power board. When appropriately inserted into the power board, the one or more electrical contact portions of the connector element can establish selective electrical contact with the conductive layers of the power board and can secure the lighting module in place.
Abstract:
A shield plate arranged between a connector and a circuit board for covering and shielding parts of metal pins sticking out from the circuit board when a connector provided with a board mounting surface having a plurality of metal pins and a connector connection surface is mounted at an end of the circuit board, provided with an connector-engagement part, a shield part of the metal pins, a mounting part having press-fit pins for insertion, and support parts of the press-fit pins and flexible parts at a part between the shield part and the mounting part, the press-fit pins becoming vertical to the circuit board in the state with the engagement part engaged with the connector and the free end parts of the press-fit pins provisionally inserted into the engagement holes, thereby enabling the press-fit pins to be press-fit into the engagement holes all at once by a pushing action of the support parts.
Abstract:
A pin having a contact part may be inserted into a receiving opening in a printed circuit board and anchored in the receiving opening with a press fit. Also, a method provides for inserting a pin into a receiving opening in a printed circuit board, in which the pin is inserted into the receiving opening from one side of the printed circuit board, and a contact part of the pin is anchored in the receiving opening with a press fit. The contact part is inserted into the receiving opening in a contactless manner or with a sliding fit and is subsequently deformed within the receiving opening by expansion transversally to the insertion direction in order to anchor the contact part in the receiving opening with a press fit.
Abstract:
A test system and method of analyzing a pin to circuit connection on a substrate is provided. The method includes applying thermal energy to the pin or the substrate at a location outside of the pin to circuit interface, and measuring infrared radiation near the pin to circuit interface. The method also includes the step of analyzing the measured infrared radiation to determine thermal energy distribution near the pin to circuit interface resulting from thermal conductivity at the interface. The method further includes the step of determining sufficiency of the pin to circuit electrical and mechanical connection based on the determined thermal energy distribution.
Abstract:
An apparatus includes a printed circuit board having a set of layers and a set of barrels embedded within the set of layers. The apparatus further includes an electrical component having a component body and a set of pins which extends from the component body. The apparatus further includes a set of sleeves. Each sleeve defines a substantially conical shape. The set of sleeves provides electrical and thermal conductivity between the set of pins of the electrical component and the set of barrels of the printed circuit board.
Abstract:
An icemaker including an icemaker control module comprises components including an insert molded circuit board assembly, a motor assembly, an ice level sensing system using a bail arm or a paddle, and a water fill system. Lance features in the circuit board connect switch and motor leads. The thermostat, ground member, and heater of the icemaker electrically couple to the insert molded circuit board when the icemaker control module is joined to the ice maker. Energy may be conserved by pausing rotation and turning off the heater.