A high speed connector assembly is disclosed in this invention, which includes a receptacle connector and a plug connector. Each differential signal terminal of the receptacle connector has an L-type body, a front mating portion and a bottom mounting portion. The front mating portion includes two L-type arms having unequal length. A front end of each L-type arm disposes a resilient contact finger being perpendicular to a vertical plane. The resilient contact fingers of the two L-type arms can respectively and electrically contact with two opposite sides of one plug terminal of the plug connector, thereby forming double-sided contact. The present invention can suppress the short pile effect and reduce signal crosstalk and signal loss during transmitting the high speed signal by this double contact.

It is aimed to provide a terminal fitting (1) in which thick plating films can be formed on necessary parts without requiring particularly complicated plating. The terminal fitting (10) includes a tubular connecting portion (11) into which a mating male terminal (60) is insertable. The connecting portion (11) includes a plurality of resilient pieces (14) circumferentially divided via expanding slots (13) extending from a tip. Thick film portions (22) with a thicker plating film than in other parts are provided on inner surfaces of the plurality of resilient pieces (14) and contact areas (17) capable of contacting the male terminal (60) are provided on these thick film portions (22). The thick film portions (22) and the contact areas (17) are arranged continuously in a circumferential direction except at the positions of the expanding slots (13) on an inner surface of the connecting portion (11) near a tip.

An adapter for use with a battery compartment of an electronic device is provided. The adapter includes a first section adapted to receive a first portion of at least one first battery. The adapter also includes a second section disposed adjacent to the first section. The second section is adapted to receive a second portion of the at least one first battery. The adapter further includes an articulating joint disposed between the first section and the second section. The articulating joint is adapted to selectively articulate the first section relative to the second section to move the adapter between a first position and a second position. In the first position, the adapter is adapted to be aligned in the battery compartment. In the second position, the adapter is adapted to be removably secured in the battery compartment.

An adapter for use with a battery compartment of an electronic device is provided. The adapter includes a first section adapted to receive a first portion of at least one first battery. The adapter also includes a second section disposed adjacent to the first section. The second section is adapted to receive a second portion of the at least one first battery. The adapter further includes an articulating joint disposed between the first section and the second section. The articulating joint is adapted to selectively articulate the first section relative to the second section to move the adapter between a first position and a second position. In the first position, the adapter is adapted to be aligned in the battery compartment. In the second position, the adapter is adapted to be removably secured in the battery compartment.

A system and apparatus for providing a temporary electrical bonding/grounding connection between a first conductive member and a second conductive member. The apparatus includes an electrically conductive cable having first and second ends. At least one magnet assembly is provided for mounting to the first conductive member. The at least one magnet assembly has multiple arcuate surfaces of different radiuses of curvature, with respective surfaces of the multiple arcuate surfaces being configured to properly mount to a respective arcuate surface of the first conductive member. A conductive coupling is provided on the at least one magnet assembly. The conductive coupling is configured to be electrically coupled to the first end of the cable. The second end of the cable is configured to be detachably and electrically coupled to the second conductive member.

A system and apparatus for providing a temporary electrical bonding/grounding connection between a first conductive member and a second conductive member. The apparatus includes an electrically conductive cable having first and second ends. At least one magnet assembly is provided for mounting to the first conductive member. The at least one magnet assembly has multiple arcuate surfaces of different radiuses of curvature, with respective surfaces of the multiple arcuate surfaces being configured to properly mount to a respective arcuate surface of the first conductive member. A conductive coupling is provided on the at least one magnet assembly. The conductive coupling is configured to be electrically coupled to the first end of the cable. The second end of the cable is configured to be detachably and electrically coupled to the second conductive member.

In electrocardiography (ECG) system, a patient cable connecting one or more electrodes to a processing device for processing ECG signals may include one or more electrode connectors mechanically keyed to respective electrodes and/or a device connector mechanically and/or electronically keyed to a cable connector of the processing device. In some embodiments, keying between the cable and electrode is achieved, for example, with an electrode including a hollow-post portion that defines a bore in conjunction with a post protruding from an arm of the electrode connector that is sized to fit within the bore.

A connector has an insertion opening for a cable at a front end of thereof in a front-rear direction. The connector has a bottom portion, a first section and a second section. The bottom portion has opposite ends in a lateral direction perpendicular to the front-rear direction. The first section and the second section extend from the opposite ends, respectively, of the bottom portion. The first section and the second section overlap with each other so that the first section, the second section and the bottom portion form the insertion opening. The first section is formed with a first engagement portion. The second section is formed with a second engagement portion. The first engagement portion and the second engagement portion face each other in a perpendicular direction perpendicular to the front-rear direction. Even if at least one of the first section and the second section receives a force forcing the first section and the second section to be away from each other in the lateral direction, the first engagement portion and the second engagement portion are brought into abutment with each other in the perpendicular direction.

A wiring terminal includes a housing, a clamping and connecting piece, and a pressing piece. The housing is provided with a mounting channel and an insertion hole communicating with the mounting channel. The clamping and connecting piece is provided with a curved spring plate for clamping a conducting wire and a conductive sheet. The spring plate has a natural state in which the conducting wire placed in the mounting channel is clamped between the spring plate and the conductive sheet through elastic abutment, and a pressed state in which the spring plate is controlled by external force to deform in a direction distal from a clamped conducting wire. The pressing piece is capable of triggering the spring plate to switch between the natural state and the pressed state to unclamp the conducting wire.

A wiring terminal includes a housing, a clamping and connecting piece, and a pressing piece. The housing is provided with a mounting channel and an insertion hole communicating with the mounting channel. The clamping and connecting piece is provided with a curved spring plate for clamping a conducting wire and a conductive sheet. The spring plate has a natural state in which the conducting wire placed in the mounting channel is clamped between the spring plate and the conductive sheet through elastic abutment, and a pressed state in which the spring plate is controlled by external force to deform in a direction distal from a clamped conducting wire. The pressing piece is capable of triggering the spring plate to switch between the natural state and the pressed state to unclamp the conducting wire.