Abstract: A high speed connector assembly and an electrical connector thereof are provided. The electrical connector includes an insulating housing and a plurality of signal terminals fixed in the insulating housing. The insulating housing is in an elongated shape defining a longitudinal direction, and defines an insertion direction perpendicular to the longitudinal direction. The signal terminals are arranged in two rows each parallel to the longitudinal direction, and the signal terminals in one of the two rows respectively face that in the other row. Each of the signal terminals includes a signal fixing segment engaged with the insulating housing, a signal contacting segment, and a signal soldering segment. The signal contacting segment has a main transmission point and a secondary transmission point, which are spaced apart from each other along the insertion direction. The main transmission point is closer to the signal fixing segment than the secondary transmission point.

Abstract: A floating connector and a conductive terminal thereof are provided. The conductive terminal is integrally formed as a one piece structure, and includes a contacting segment, a fixing segment, and a buffering segment having two ends respectively connected to the contacting segment and the fixing segment. A longitudinal direction of the buffering segment and a longitudinal direction of the fixing segment have a first angle there-between less than ninety degrees. The buffering segment includes a first portion connected to the contacting segment, a second portion connected to the fixing segment, and two impedance matching portions defining a buffering hole. Two opposite ends of each of the two impedance matching portions are respectively connected to the first portion and the second portion. The buffering segment is configured to provide for an electrical current to travel there-through so as to generate a capacitance effect at the two impedance matching portions.

Abstract: A transmission module of a high speed connector includes an insulating core and two rows of conductive terminals fixed to the insulating core and parallel to a width direction. Each of the conductive terminals includes an embedded segment fixed and embedded in the insulating core, a contacting segment, and a fixing segment, the latter two of which respectively extend from two opposite ends of the embedded segment. Each of the embedded segments has a minimum width within a range of 0.26-0.3 mm. Each of the touching segments includes a front extending portion having a maximum width within a range of 0.34-0.38 mm and a touching portion having a maximum width within a range of 0.23-0.27 mm. The embedded segments and the touching segments of one of the two rows of the conductive terminals are mirror-symmetrical to and face those of the other row of the conductive terminals.

Abstract: A floating connector includes an insulating housing and conductive terminals. Each conductive terminal has a first portion and a second portion extending from the first portion. Each first portion is inserted into the insulating housing and includes a contacting segment that is at least partially exposed from the insulating housing. Each second portion does not contact with the insulating housing and includes a soldering segment. In each of the conductive terminals, a signal transmission path is defined between the contacting segment and the soldering segment, a frequency adjusting path is defined between the soldering segment and a position of the second portion that is connected to the first portion, and a length of the frequency adjusting path is 40%-60% of a length of the signal transmission path, so that each of the conductive terminals can transmit a high-frequency signal satisfying the SAS 3.0 standard.

Abstract: A floating connector includes an insulating housing, a plurality of conductive terminals installed on the insulating housing, and two soldering members. The insulating housing includes an inserting portion, two extending portions respectively connected to two opposite ends of the inserting portion, and two covering portions respectively located at the two extending portions. The inner walls of each covering portion and the corresponding extending portion co-define a limiting slot having a limiting wall and two limiting holes arranged facing the limiting wall. The two soldering members are respectively and movably arranged in the two limiting slots. Each soldering member includes a beam facing the corresponding limiting wall, two elastic arms connected to the beam and respectively arranged in the two corresponding limiting holes, and two soldering tails respectively connected to two opposite ends of the beam and passing through the corresponding limiting slot.

Abstract: A conductive module of a high speed vertical connector includes an insulating core and a plurality of conductive terminals fixed on the insulating core. Each conductive terminal includes an embedded segment embedded in the insulating core, a fixing segment and a curved segment respectively extending from two opposite ends of the embedded segment, and a contacting segment extending from the curved segment. The embedded segment has a width within a range of 0.28˜0.42 mm. The fixing segment has a width within a range of 0.25˜0.28 mm. The curved segment has a width within a range of 0.35˜0.42 mm. The contacting segment has a width within a range of 0.25˜0.28 mm. The conductive terminals include a plurality pairs of differential signal terminals and a plurality of grounding terminals each arranged between two adjacent pairs of the differential signal terminals. Any two grounding terminals are not connected to any conductive bar.

Abstract: A floating connector includes an inserting chamber and a plurality of conductive terminals. The inserting chamber includes two opposite side walls each having a plurality of fixing portions. The conductive terminals are respectively fastened to the fixing portions of the inserting chamber. Each conductive terminal includes a contact segment, a curved segment, an elastic segment, and a fixing segment. The contact segment is arranged in the inserting chamber. A first end of the curved segment is connected to the contact segment, and an opposite second end of the curved segment is fixed to the corresponding fixing portion. Two opposite ends of the elastic segment are respectively connected to the second end of the curved segment and the fixing segment. The inserting chamber is movable relative to the fixing segments, and the elastic segments can provide an elastic force to the inserting chamber by being pressed.

Abstract: A high speed connector includes a housing, an insulating core inserted into the housing, a plurality of first conductive terminals and a plurality of second conductive terminals fixed on the insulating core, and a shielding member. The first conductive terminals arranged in one row parallel to a width direction includes two differential signal terminals and two grounding terminals respectively arranged at two opposite outer sides of the differential signal terminals. The shielding member includes a base portion detachably assembled to the housing and a metallic coating layer coated on the base portion. The metallic coating layer contacts the two grounding terminals to establish an electrical connection between the two grounding terminals. The metallic coating layer is arranged at the two opposite outer sides of the differential signal terminals, and the metallic coating layer is configured to shield the differential signal terminals in the width direction.

Abstract: A high-speed electrical connector includes an insulating case, several signal terminals, several grounding terminals, an electrical bridge, and several resilient conductive buffers mounted in the insulating case. Each of the signal and grounding terminals has a fixing segment and a swing segment swingable with respect to the fixing segment. The electrical bridge corresponds to two of the grounding terminals. The conductive buffers are disposed on the electrical bridge and are respectively arranged in the swing paths of the swing segments. Each conductive buffer is configured to transform from an initial state to a deformation state by pressing. Each swing segment can swing to press the corresponding conductive buffer, causing the corresponding conductive buffer to be in the deformation state, thereby establishing an electrical connection path between the electrical bridge and the corresponding grounding terminals. In one example, the buffer can be formed of elastomer mixed with conductive particles.