Abstract: A two dimensional touch sensor panel can be thermoformed or curved by another process to a three-dimensional touch sensor panel, and the three-dimensional touch sensor panel can be laminated to a three-dimension surface having a highly curved or spherical shape. In some examples, thermoforming a two-dimensional touch sensor panel into a three-dimensional touch sensor panel can result in strain of the touch electrodes, and can result in non-uniform three-dimensional touch electrodes (distortion of the two-dimensional touch electrode pattern). The strain can be a function of the curved touch-sensitive surface and/or process related mechanical strain from thermoforming. In some examples, a three-dimensional touch sensor panel can be formed with uniform area touch electrodes using a two-dimensional touch sensor panel pattern with non-uniform area touch electrodes in accordance with the strain pattern expected for a given curved surface and thermoforming technique.

Abstract: An electronic device has sensors. More particularly, the electronic device is a small form factor electronic device such as earbuds, styluses, or electronic pencils, earphones, and so on. In some implementations, one or more touch sensors and one or more force sensors are coupled to a flexible circuit. In various implementations, the touch sensor and the force sensor are part of a single module controlled by a single controller. In a number of implementations, the flexible circuit is laminated to one or more portions of an interior surface of the electronic device.

Abstract: A flexible flat cable connector is described.

Abstract: A flexible flat cable connector is described.

Abstract: A flexible flat cable is described. The flexible flat cable is formed by sequentially stacking a first insulation layer, a first shielding layer and a second insulation layer. The first insulation layer covers a plurality of first conductors and the second insulation layer covers a plurality of second conductors. The first contact surface region of the first conductors is upwardly exposed from the first contact section and the second contact surface region of the second conductors is downwardly exposed from the second contact section so that the flexible flat cable, the first contact section and the second contact section thereof are arranged in a dual-row manner.

Abstract: A connector and a connector assembly are provided. The connector assembly includes a board-side connector suitable to be fixed onto a circuit board and a cable connector suitable to assist the circuit board and other devices for electronic signals transmission. The board-side connector has an obliquely guiding path for the cable connector to be obliquely inserted and assembled into the board-side connector. The board-side connector has a first metallic shell, the cable connector has a second metallic shell, and the first metallic shell and the second metallic shell are contacted each other to form an electromagnetic shielding structure, and the board-side connector and the cable connector are held by each other.

Abstract: An electrical connector is provided for use in a board-to-board electrical connector assembly and includes a dielectric housing for mounting on a first printed circuit board and having a receptacle for receiving a plug portion of a mating connector mounted on a second printed circuit board. A plurality of conductive terminals are mounted on the housing, and each terminal includes a contact arm extending into the receptacle. The contact arm has first and second contact portions projecting into the receptacle at different angles for engaging a terminal of the mating connector.

Abstract: A memory card connector includes an insulative housing having a terminal-mounting section which mounts a plurality of conductive terminals having contact portions for engaging appropriate contacts on a memory card. The housing at least in part defines a card-receiving cavity for receiving the memory card. A card eject mechanism includes a slider movably mounted on the housing. The slider is engageable with the memory card for movement therewith into and out of the cavity. The card eject mechanism includes an ejection spring to bias the slider and memory card in an ejection direction. The slider has an elongated guide slot between a pair of opposite parallel side walls extending longitudinally in the direction of movement of the slider. A shielding metal shell is mounted on the housing and includes an elongated guide tab projecting into the guide slot. The guide tab has opposite longitudinal planar surfaces opposing the side walls of the slot.

Abstract: A memory card connector includes an insulative housing having a terminal-mounting section which mounts a plurality of conductive terminals having contact portions for engaging appropriate contacts on a memory card. The housing at least in part defines a card-receiving cavity for receiving the memory card. A card eject mechanism includes a slider movably mounted on the housing. The slider is engageable with the memory card for movement therewith into and out of the cavity. The card eject mechanism includes an ejection spring to bias the slider and memory card in an ejection direction. The slider has an elongated guide slot between a pair of opposite parallel side walls extending longitudinally in the direction of movement of the slider. A shielding metal shell is mounted on the housing and includes an elongated guide tab projecting into the guide slot. The guide tab has opposite longitudinal planar surfaces opposing the side walls of the slot.

Abstract: An electrical connector is provided for use in a board-to-board electrical connector assembly and includes a dielectric housing for mounting on a first printed circuit board and having a receptacle for receiving a plug portion of a mating connector mounted on a second printed circuit board. A plurality of conductive terminals are mounted on the housing, and each terminal includes a contact arm extending into the receptacle. The contact arm has first and second contact portions projecting into the receptacle at different angles for engaging a terminal of the mating connector.

Abstract: A memory card connector includes an insulative housing which, at least in part, defines a card-receiving space. A plurality of conductive terminals are mounted on the housing and include circuit holding portions, along with contact portions for electrical connection to appropriate contacts on a memory card when the card is inserted into the space. A flexible circuit has conductors for engaging the terminals, with the flexible circuit being held by the holding portions of the terminals.

Abstract: A receptacle connector assembly for an electronic memory card provides and maintains a well-grounded connection between cover plates of the memory card via resilient contacts of a ground contact of the receptacle connector assembly. A memory card includes two conductive cover plates sandwiching the receptacle connector assembly. The receptacle connector assembly comprises an insulative housing formed with two rows of terminal receiving cavities for receiving signal and ground terminals. A distal terminal receiving cavity includes first and second partitions defining first and second ground terminal receiving cavities for receiving first and second ground terminals, and an insertion slot for receiving a ground element. The first and second partitions are formed with a cutout. A ground element positioned in the insertion slot includes a body, two wings extending from opposite ends of the body, and resilient contacts extending from the body inwardly of the wings.

Abstract: A receptacle connector assembly for an electronic memory card provides and maintains a well-grounded connection between cover plates of the memory card via resilient contacts of a ground contact of the receptacle connector assembly. A memory card includes two conductive cover plates sandwiching the receptacle connector assembly. The receptacle connector assembly comprises an insulative housing formed with two rows of terminal receiving cavities for receiving signal and ground terminals. A distal terminal receiving cavity includes first and second partitions defining first and second ground terminal receiving cavities for receiving first and second ground terminals, and an insertion slot for receiving a ground element. The first and second partitions are formed with a cutout. A ground element positioned in the insertion slot includes a body, two wings extending from opposite ends of the body, and resilient contacts extending from the body inwardly of the wings.

Abstract: A card edge connector assembly is provided for electrically connecting at least a pair of stacked memory cards to a circuit board. The assembly includes a lower connector having a dielectric housing mounting a plurality of conductive terminals along a slot for receiving an edge of a lower memory card. An upper connector has a dielectric housing mounting a plurality of conductive terminals along a slot for receiving an edge of an upper memory card at an angle to the lower memory card, the angle diverging in a direction away from said slots.

Abstract: An electrical connector includes a dielectric housing having differently configured receptacles and differently configured terminal supports projecting forwardly in the receptacles. A conductive shell surrounds a substantial portion of the housing and includes openings in registry with the receptacles. The shell has different arrays of grounding spring fingers projecting into the receptacles from edges of the openings. A plurality of terminals are mounted on the housing, with contact portions in different arrays on selective sides of the terminal supports.

Abstract: An IC card kit adapted for receiving a circuit board assembly, which assembly includes a generally planar circuit substrate with an electrical circuit and electrical components mounted on a surface thereof. The electrical circuit includes a ground circuit. The kit includes a frame adapted for receiving the circuit board assembly, a receptacle connector for mounting at the edge of the assembly, a pair of cover panels for sandwiching the frame and circuit board assembly, and a conductive grounding clip on the frame for engaging the ground circuit of the circuit board assembly. The clip includes a spring arm for preassembling the circuit board assembly to the frame.

Abstract: A locking system is provided for an electrical connector assembly which includes first and second electrical connectors. The first connector includes a housing having a mating face and a latching surface facing in a direction generally opposite the mating face. The second connector includes a housing having a complementary mating face for interfacing with the mating face of the first connector and a metal spring latch arm cantilevered from the second connector, with a hook portion for latchingly engaging the latching surface of the first connector. The latch arm is located for manual deflection to move the hook portion out of engagement with the latching surface to allow unmating of the connectors with minimal force. The hook portion is radiused therefore deflecting the latch arm in response to an unmating force applied directly to the connectors, i.e. without manual deflection of the latch arm, that is greater than the minimal force.