Abstract: A multi-type industrial robot control system may include: an automation controller; and a programmable logic controller (PLC)-robot bridge. The controller stores a general-purpose robot control function block generated using a unified design standard, calls a corresponding robot control function block for a robot and using robot state data and puts out corresponding first command data to the PLC-robot bridge. The PLC-robot bridge virtualizes robot interfaces of corresponding offline programming functions of different types of robot as a unified virtual interface, calls a corresponding offline programming function via the unified virtual interface according to the first command data, and generates second command data for output to a corresponding robot controller. The corresponding robot controller controls a corresponding robot. At the same time, robot state data from a corresponding type of robot is received via the unified virtual interface and the robot state data is fed back to the automation controller.

Abstract: A electrical connector (100) includes an insulative housing (2), a shielding shell (7) enclosing the insulative housing, a ground plate (547, 5232) supported by the insulative housing and, a gap defined between an edge of the ground plate and the shielding shell and a conductive member (90, 91) positioned between the ground plate and shielding shell for filling the gap. The conductive member is provided to shield the electromagnetic interference (EMI) leaking from the gap.

Abstract: An electrical connector includes an insulative housing (2) defining a port (102, 103) and a contact module (5) inserted into the port. The contact module includes a set of contacts (540, 542) received in the port, a ground component (5323) for grounding and a horizontal PCB (541, 543). The horizontal PCB having a first conductive trace (5410, 5430) disposed at the upper side of the horizontal PCB, a second conductive trace (5411, 5431) disposed at the lower side of the horizontal PCB and a shielding layer positioned between the first and second conductive traces. The first and second conductive traces electrically connect with the set of contacts, respectively. The horizontal PCB has a ground section (5414, 5434) electrically connecting with shielding layer to the ground component for grounding. The shield layer is provided to shield the crosstalk between the contacts that are provided as differential signal pairs.

Abstract: An electrical connector (100) includes an insulative housing (3), a contact module (4) assembled to the insulative housing and a shielding shell (5) attached to an outer side of the insulative housing. The contact module includes a terminal group and a pair of paddle boards (42) disposed at opposite sides of the terminal group and electrically connected with the terminal group. Each paddle board has a grounding pad (4211). The shell includes a wall (510) parallel with a front face. The wall has a pair of forwardly extending grounding beams (52) respectively contacting the pair of grounding pads of the pair of paddle boards for grounding.

Abstract: An electrical connector includes an insulative housing (2) defining a port (102, 103) and a contact module (5) inserted into the port. The contact module includes a set of contacts (540, 542) received in the port, a ground component (5323) for grounding and a horizontal PCB (541, 543). The horizontal PCB having a first conductive trace (5410, 5430) disposed at the upper side of the horizontal PCB, a second conductive trace (5411, 5431) disposed at the lower side of the horizontal PCB and a shielding layer positioned between the first and second conductive traces. The first and second conductive traces electrically connect with the set of contacts, respectively. The horizontal PCB has a ground section (5414, 5434) electrically connecting with shielding layer to the ground component for grounding. The shield layer is provided to shield the crosstalk between the contacts that are provided as differential signal pairs.

Abstract: A electrical connector (100) includes an insulative housing (2), a shielding shell (7) enclosing the insulative housing, a ground plate (547, 5232) supported by the insulative housing and, a gap defined between an edge of the ground plate and the shielding shell and a conductive member (90, 91) positioned between the ground plate and shielding shell for filling the gap. The conductive member is provided to shield the electromagnetic interference (EMI) leaking from the gap.

Abstract: An electrical connector (100) includes an insulative housing (3), a contact module (4) assembled to the insulative housing and a shielding shell (5) attached to an outer side of the insulative housing. The contact module includes a terminal group and a pair of paddle boards (42) disposed at opposite sides of the terminal group and electrically connected with the terminal group. Each paddle board has a grounding pad (4211). The shell includes a wall (510) parallel with a front face. The wall has a pair of forwardly extending grounding beams (52) respectively contacting the pair of grounding pads of the pair of paddle boards for grounding.

Abstract: An electrical connector (100) includes an insulative housing (10) defining a number of insertion slots (112), a number of LED (Light Emitting Diode) pairs (20) received in the insertion slots, and a number of fixing portions (31) respectively inserted in the insertion slots. Each LED pair has a first and a second LEDs (21, 22) disposed side-by-side in one insertion slot to save space. Each fixing portion has a vertically extending spacer (311) disposed between the first and second LEDs of each LED pair to prevent undesirable electrical connection between the first and second LEDs.

Abstract: An electrical connector (100) includes an insulative housing (10) defining a number of insertion slots (112), a number of LED (Light Emitting Diode) pairs (20) received in the insertion slots, and a number of fixing portions (31) respectively inserted in the insertion slots. Each LED pair has a first and a second LEDs (21, 22) disposed side-by-side in one insertion slot to save space. Each fixing portion has a vertically extending spacer (311) disposed between the first and second LEDs of each LED pair to prevent undesirable electrical connection between the first and second LEDs.

Abstract: An electrical connector (1) has a base portion (22), a number of terminals (3) mounted to the base portion, a first circuit board (42) assembled to the base portion, a substrate paralleled with the base portion and a number of pins (212) mounted on the substrate and a second circuit board (41) electrically engaging with the number of pins. The first and the second circuit boards together defines a receiving space (6). The electrical connector further has a number of electrical elements (5) received in the receiving space and together electrically connecting with the first circuit board and the second circuit board.

Abstract: An electrical connector having a terminal module (1) engaging with a mating plug. The terminal module has a number of terminals (3) for electrically connecting with the mating plug and a base portion (2) having a first planar portion (23). The first planar portion includes two arrays of protrusions (21) parallel with each other, a receiving space (20) defined between the two arrays of protrusions and a number of recesses (200) each formed between two adjacent protrusions and communicating with the receiving space. The protrusion has a pair of side faces (221) each having a rib (211) formed thereon for engaging with the terminals.

Abstract: An electrical connector (1) has a base portion (22), a number of terminals (3) mounted to the base portion, a first circuit board (42) assembled to the base portion, a substrate paralleled with the base portion and a number of pins (212) mounted on the substrate and a second circuit board (41) electrically engaging with the number of pins. The first and the second circuit boards together defines a receiving space (6). The electrical connector further has a number of electrical elements (5) received in the receiving space and together electrically connecting with the first circuit board and the second circuit board.