Abstract:
A machine control system includes an input module, a worktable, a first sliding module, a second sliding module, a lathe feeding module, a lathe tool connected to the lathe feeding module, a milling feeding module, a milling cutter connected to the milling feeding module, and a control module. The control module is electrically connected to the input module, the worktable, the first sliding module, the second sliding module, the lathe feeding module, and the milling feeding module, wherein the input module inputs control parameters into the control module to control the first sliding module and the second sliding module. The lathe feeding module controls the lathe tool to slide along a third direction perpendicular to the first direction and the second direction reciprocally, and the milling feeding module controls the milling cutter to slide along the third direction and rotate along a first axis.
Abstract:
A packing assembly for transporting workpieces which have a plurality of pins, includes at least one packing member. Each packing member includes a top wall which includes at least one packing portion. Each packing portion defines a plurality of receiving grooves for receiving the workpieces. In each receiving groove, a bottom surface and two side surfaces are defined. The two side surfaces extend from opposite sides of the bottom surface. Each packing portion further includes a plurality of connecting surfaces. Each connecting surface connects two adjacent side surfaces of two adjacent receiving grooves, and defines a retrieving groove for facilitating the picking up and extraction of each workpiece. The bottom surface defines a plurality of passing-through holes for receiving and protecting the plurality of pins of the workpieces during transport.
Abstract:
A turning mechanism for turning over workpieces includes a supporting bracket, a turning assembly, and a suction assembly. The turning assembly includes a first driving member mounted on the supporting bracket and a turning member connected to the first driving member. The suction assembly includes a plurality of suction members and a second driving member connected to the plurality of suction members. The plurality of suction members is separately mounted on the turning member. The second driving member is mounted on the supporting bracket and is capable of generating negative air pressure in the plurality of suction members to enable the plurality of suction members to suction adhere to the workpiece, thereby holding the workpiece on the turning member. The first driving member is capable of rotating the turning member to turn over the workpiece.
Abstract:
A screw-removing device used for removing a number of screws screwed into a workpiece includes a support frame, a removing mechanism, a positioning mechanism, and a transporting mechanism. The removing mechanism includes a first driving member mounted on the support frame and a number of universal shafts. The universal shaft comprises a main body, a transmitting portion connected to the first driving member, and a connection portion. A removing member is connected to the connection portion. The positioning mechanism is mounted in the support frame to position the workpiece below the removing member. The transporting mechanism is mounted on the support frame to transport the workpiece to the positioning mechanism.
Abstract:
A transferring mechanism includes a first transferring assembly, a second transferring assembly, and a catcher. The first transferring assembly and the second transferring assembly are arranged side by side. A transferring direction of the first transferring assembly is opposite to a transferring direction of the second transferring assembly. The catcher includes a pair of mounting blocks, a guiding member, a sliding member, a telescoping member, and a clamping member. The mounting blocks are positioned on the first transferring assembly and the second transferring assembly. Opposite ends of the guiding member are mounted on the pair of mounting blocks, the guiding member across the first transferring assembly and the second transferring assembly. The sliding member is slidably sleeved on the guiding member. The telescoping member is mounted on the sliding member. The catcher is mounted on the telescoping member for clamping a workpiece on the first transferring assembly.
Abstract:
A method comprises analyzing front side conductive patterns and back side conductive patterns on a semiconductor interposer using a machine implemented RC extraction tool, and outputting data representing a plurality of respective RC nodes from the RC extraction tool to a tangible persistent machine readable storage medium. A substrate mesh model of the semiconductor interposer is generated, having a plurality of substrate mesh nodes. Each substrate mesh node is connected to adjacent ones of the plurality of substrate mesh nodes by respective substrate impedance elements. A set of inputs to a timing analysis tool is formed. The plurality of RC nodes are connected to ones of the plurality of substrate mesh nodes of the substrate mesh model. The set of inputs is stored in a tangible machine readable storage medium.
Abstract:
A transporting device can transport at least one product, the transporting device includes a mounting frame, a driving mechanism, a transmitting mechanism including a plurality of bent portions, a plurality of guiding mechanisms, and a supporting mechanism. Each guiding mechanism includes a rotating wheel and a guiding plate. Each bent portion is connected to the rotating wheel. The guiding plate is connected to the rotating wheel. The supporting mechanism can support the product. The driving mechanism is further connected to the rotating wheel and can drive the transmitting mechanism to rotate to drive the supporting mechanism to move. The driving mechanism is further connected to the guiding plate, the guiding plate and the rotating wheel can synchronously rotate to drive the supporting mechanism to pass through the bent portions. The present disclosure further provides a heating device.
Abstract:
An electrical connector assembly includes: a first frame defining plural accommodating cavities; plural transmission units partially received in the accommodating cavities, respectively, each of the transmission units comprising a card edge connector received in a corresponding accommodating cavity, a motherboard connector, and a circuit board connected with the card edge connector and the motherboard connector; and a second frame attached to the first frame; wherein the second frame presses against and hold the circuit boards in position.
Abstract:
An electrical connector includes: a housing; and plurality terminal groups held on the housing, each terminal group including a pair of signal terminals, a first shielding sheet for shielding the pair of signal terminals on at least one side, and a second shielding sheet for shielding the signal terminals on at least another side; wherein the first shielding sheet and the second shielding sheet of each terminal group are electrically connected, and the first shielding sheet of one of the terminal groups is electrically connected to the second shielding sheet of an adjacent terminal group.
Abstract:
An electrical connector includes: an insulating housing; and plural terminals held in the insulating housing and arranged in terminal pairs, each of the terminals including: a holding portion held in the insulating housing; a cantilever extending forward from the holding portion, a slot being provided on the cantilever; a contact portion at a front of the cantilever; and a mounting portion for mounting on a circuit board; wherein the slot extends to the contact portion; and in each terminal pair, a first distance from a center of the contact portion of one terminal thereof to a center of the contact portion of the other terminal thereof is less than a second distance from a center of the mounting portion of one terminal thereof to a center of the mounting portion of the other terminal thereof.