Abstract: A connector (103) is provided having a plurality of leads generally arranged in columns extending substantially parallel each other in a column direction (C) and being adjacent each other in a row direction (R). At least one first column comprises at least one first pair of single leads (S) substantially parallel each other in a first pair direction (P) to form a first differential pair. In at least a portion of the connector the first pair direction extends at an acute angle (a) to the column direction. Further, an assembly, and a circuit board are provided.

Abstract: A pin receiving terminal contact and a connector comprising one or more of such terminal contacts. The terminal contacts (1) comprise a base (13) comprising a folded strip and at least a first contact beam (3, 5) having a root end extending from said base (13) and a contact face (11, 12) bent sideward under an angle with said root end.

Abstract: A connector is provided having a plurality of leads generally arranged in columns extending substantially parallel each other in a column direction and being adjacent each other in a row direction. At least one first column includes at least one first pair of signal leads substantially parallel each other in a first pair direction to form a first differential pair. In at least a portion of the connector the first pair direction extends at an acute angle to the column direction. Further, an assembly, and a circuit board are provided.

Abstract: An electrical connector comprises a housing, a plurality of contacts arranged in the housing, an actuator mounted on the housing, capable of rotating with reference to the housing and a pair of fixing tabs positioned in the vicinity of two ends of the actuator. Each fixing tab has a lock portion for engaging with a flexible printed circuited connected to the electrical connector and a spring portion connected to the lock portion. The fixing tab is engaged with the actuator so that rotation of the actuator from an original position to a release position causes the lock portion of the fixing tab to disengage with the flexible printed circuit connected to the electrical connector and the actuator resumes from the release position to the original position under a resilient force exerted thereon by the spring portion of the fixing tab.

Abstract: A pin receiving terminal contact and a connector comprising one or more of such terminal contacts. The terminal contacts (1) comprise a base (13) comprising a folded strip and at least a first contact beam (3, 5) having a root end extending from said base (13) and a contact face (11, 12) bent sideward under an angle with said root end.

Abstract: A connector, such as a cable connector, with terminal contacts including two parallel resilient contact beams and a third resilient beam. Tips of the two parallel resilient beams are forced apart by the third resilient beam. The third beam can also be a resilient contact beam, e.g., extending into a direction opposite to the direction of the other two contact beams.

Abstract: A circuit board connector comprises a housing, at least one signal contact disposed in the housing, and a pair of locking arms attached to the housing. The housing has a slot formed therein, for receiving a circuit board. Each locking arm has a latch movably disposed in the slot. The pair of locking arms are resiliently deformable relative to the housing between a lock position at which the latch is positioned to block the slot, to lock a circuit board to the connector, and an unlock position at which the latch is positioned to form a clearance in the slot, to allow disconnection of the circuit board from the connector.

Abstract: A connector including a latch hingeable about a hinging section. The latch has a latch end at one side of the hinging section and a rear end at the opposite side of the hinging section. The connector includes one or more resilient spring elements engaging the rear end to bias the latch end to a latching position.

Abstract: This application relates to electrical connectors. An electrical connector, according to some embodiments, comprises a housing, a slot formed in the housing, the slot comprising an entrance, and first and second rows of conductive elements arranged in the housing. Each conductive element comprises a mounting end, a mating end opposite the mounting end, and an intermediate portion that extends between the mounting end and the mating end. The mating end comprises first and second contact portions projecting into the slot, and the first contact portion is closer to the entrance than the second contact portion. The first and second contact portions are capable of flexing along a width direction of the slot between a first position and a second position, the second contact portions form a receiving space between the first and second rows of conductive element, and the receiving space is smaller at the first position than the second position.

Abstract: An electrical connector assembly includes a first electrical connector and a second electrical connector. At least one of the electrical connectors may comprise an insulating housing comprise a plurality of housing portions. The housing portions may support pairs of electric signal contacts, which may be arranged to carry differential signals. The electrical signals contacts may be edge coupled or broadside coupled. The insulating housing may further comprise a plurality of conductive ground shields which may be arranged to electrically shield adjacent pairs of electrical signals contacts. In one implementation, a shield may have walls shaped and positioned to surround a pair of electric signal contacts on three sides. The walls of a shield may extend along the direction of mating.

Abstract: An electrical connector includes a housing, first and second sets of terminals and a spacer. The housing has a first sidewall, a second sidewall spaced apart from the first sidewall and a cavity between the first and second sidewalls. The first set of terminals is disposed in the cavity adjacent to the first sidewall. The second set of terminals is disposed in the cavity adjacent to the second sidewall. The spacer is disposed in the cavity between the first and second sets of terminals.

Abstract: An optoelectrical connector system can include an optical coupler that is configured to be positioned over a photonic device on the PCB. The optoelectrical connector system can further include a connector housing that is configured to be attached to the optical coupler after the optical coupler is positioned over the photonic device, so that the coupler can be aligned and fixed without the housing attached thereto.

Abstract: An electrical terminal includes an electrically conductive monolithic body including a mating end having a base, a contact beam spaced from the base in an upward direction, a side wall that extends from the base to the contact beam, and a spring assist member. The contact beam can be elastically flexible from an initial position whereby the spring assist member is spaced from the contact beam in the upward direction, to a deflected position whereby the contact beam abuts the spring assist member. The electrical is suited for assembly into a connector assembly which includes and inner core and an outer housing.

Abstract: Embodiments of the present invention provide high performance and reliable electrical cable connectors and connector assembly. An electrical cable connector according to one embodiment of the present invention includes a housing (110) and terminals (140) disposed in compartments (111) of the housing (110). The housing (110) has a mating face (101) for connecting to a counterpart connector, and each compartment (111) has a mating end (111a) adjacent to the mating face (101) and an entrance (111b) opposite to the mating end (111a). Each terminal (140) is disposed in one of the compartments (111) by being inserted into the compartment (111) from the entrance (111b). A cover (120) is assembled to the housing (110) to block the entrance (111b) of each compartment (111), such that removal of the terminals (140) from the housing (110) through the entrance (111b) is prevented. The cover (120) has openings (126, 128) formed thereon to allow electrical cables (130) to pass through to connect to the terminals (140).

Abstract: An electrical component assembly includes a substrate and first and second electrical components attached to the substrate and operably connected with each other via the substrate. In use the first electrical component generates a first amount of heat and the second component generates a second amount of heat. The first component is thermally connected with a heat sink along a first heat path and the second component is connected with the heat sink along a second, different, heat path, such that the thermal conductivity between the first and second components is lower than the thermal conductivity of the first heat path and of the second heat path.

Abstract: A modular jack connector includes a housing defining a first direction and a second direction perpendicular to the first direction. A plurality of terminals are disposed in the housing. Each terminal having a body portion and a contact end portion connected to the body portion. Each contact end has a contact surface facing the first direction for connecting to a counterpart connector. The contact surface is a rolled surface of a metal sheet from which the contact terminals are formed. Plating process becomes more efficient and plating quality is improved, resulting in terminals with high contact surface quality being made for better electrical connectivity when connected to counterpart connectors.

Abstract: In accordance with one embodiment, a connector assembly, for instance a connector assembly for an optical waveguide, includes a dielectric connector housing including a housing body that defines a mating end configured to mate with a complementary connector along a mating direction. The connector assembly further includes at least one latch arm supported by the housing body. The at least one latch arm can define outer surface and an opposed inner surface that faces an outer surface of the housing body. The connector assembly further includes an unlocking element supported by the housing body. The unlocking element can define an inner surface that faces the outer surface of the at least one latch arm. Movement of the unlocking element from a first position to a second position can cause the at least latch arm to deflect from a locked position to an unlocked position.

Abstract: A mounting frame system is disclosed that facilitates the mounting of optical connector modules to printed circuit boards. The mounting frame system can include a mounting frame that is configured to attach to a printed circuit board, and is adapted to attach to a connector module. Thus, the mounting frame system can further allow releasable mounting of optical connector modules to the printed circuit board, such that the mounting is achieved in a safe and reliable manner.

Abstract: This application relates to electrical connectors. An electrical connector, according to some embodiments, comprises a housing, a slot formed in the housing, the slot comprising an entrance, and first and second rows of conductive elements arranged in the housing. Each conductive element comprises a mounting end, a mating end opposite the mounting end, and an intermediate portion that extends between the mounting end and the mating end. The mating end comprises first and second contact portions projecting into the slot, and the first contact portion is closer to the entrance than the second contact portion. The first and second contact portions are capable of flexing along a width direction of the slot between a first position and a second position, the second contact portions form a receiving space between the first and second rows of conductive element, and the receiving space is smaller at the first position than the second position.

Abstract: Opto-electric on-board including opto-electronic elements on a substrate and an optical coupling, device for transferring optical signals between the opto-electronic elements and a complementary optical cable connector. The optical coupling device includes a prism with a contact face and a lower face and two or more supports spacing each the lower face from the oppositely arranged opto-electronic elements. Each support includes one or more feet attached to the substrate.