An assembly device for assembling a screw into a locking hole of a circuit board includes an assembled board and a guiding sleeve. The assembled board is configured to press against a circuit board. The guiding sleeve is movably arranged in the assembled board. A vertical channel is formed in an interior of the guiding sleeve. When the assembled board presses against the circuit board, one end of the guiding sleeve abuts against the circuit board, and the vertical channel is opposite to the screw hole on the circuit board. The screw is accurately assembled into the screw hole of the circuit board, thereby improving assembly efficiency.

The disclosure is and includes at least an apparatus, system and method for a rotary table suitable to receive surface mount technology (SMT) components onto a circuit board associated therewith. The apparatus, system and method may include a frame suitable for insertion into a pick and place machine, and having a receiving inset therein; a fixture suitable for removable insertion to the receiving inset; a plurality of roller bearings interactively associated with the fixture, and which impart a low friction roll to at least a perimeter portion of the fixture; and at least one guide on the frame suitable to at least partially positional maintain the circuit board associated with the fixture.

The pick-up tool is a tool used in a mounting device configured to mount a component on a board supported by backup pins disposed on a backup plate. The pick-up tool includes an attaching portion configured to be attached to a moving head moving the backup pin; a slit formed in an insertion direction in which an engaging portion formed on the distal end of the backup pin is inserted; and a groove, being formed orthogonally to the slit, into which the engaging portion enters.

An assembly machine comprising a continuous circuitous track; a dispensing head system configured to at least partially assemble products, wherein the dispensing head system includes one or more dispensing heads movable around the continuous circuitous track; a product conveyance system extending between a first location of the continuous circuitous track and a second location of the continuous circuitous track and a placement module, the placement module including a first positioning system configured to move along a first axis that intersects with the product conveyance system, wherein the first positioning system is configured to receive a first of the products from the product conveyance system and move the first of the products from the product conveyance system to a first placement location; and a second positioning system configured to move along a second axis that intersects with the product conveyance system, wherein the second positioning system is configured to receive a second of the products from the product conveyance system and move the second of the products from the product conveyance system to a second placement location.

According to an aspect of the present disclosure, a device for manufacturing a side line includes a stage on which a substrate is loaded, a side guide configured to be disposed adjacent to a side portion of the substrate loaded on the stage, and a printing unit configured to print a conductive paste on the substrate.

A mounting device for executing a mounting process of mounting a component on a board includes: a mounting head that includes at least one pickup section for picking up the component and moves the picked up component; a storage section configured to store at least a first correction value determined at a first position on XYZ axes on which the mounting head works and a second correction value determined at a second position different from the first position; and a control section configured to execute the mounting process by using the first correction value and/or the second correction value stored in the storage section.

The measurement position determination device of the present disclosure is a measurement position determination device for determining a measurement position on a board, the measurement position being for measuring height of the board on which on which a component is mounted, and includes a measurement position determination section for acquiring one or more scheduled mounting positions of the component on the board at the time of measuring the board height and determining at least one of the acquired scheduled mounting positions as the measurement position of the board height.

A high-speed data contact set having a housing with a hollow body having a top, a bottom, a front, a rear, and first side and a second side; a plurality of protective arms extending from the front of said hollow body for protecting contact beams of a termination subassembly inserted into said insert housing. The termination subassembly in said insert shroud, has a plurality of pairs of contact beams, a termination subassembly body molded on and around a central portion of the plurality of pairs of contacts, a printed circuit board connected to the pairs of contacts, and a plurality of wires each having a stripped end soldered to said printed circuit board. One end of each of said plurality of pairs of contacts is soldered to said printed circuit board, and a shield strap covers said stripped end of wire of said plurality of wires.

A printed circuit board homogenization treatment device includes a load mechanism, a position mechanism and a drive mechanism. The load mechanism is disk-shaped and configured to fix the printed circuit board; the position mechanism at least includes a first position wheel and a second position wheel that can jointly support the load mechanism; the position mechanism is switchable between a first state and a second state; when the position mechanism is in the first state, the load mechanism and the drive mechanism are spaced apart; when the position mechanism is in the second state, the drive mechanism is configured to drive the load mechanism to rotate around its central axis; both the first position wheel and the second position wheel are configured to rotate with rotation of the load mechanism.

A method of transferring micro-devices includes selectively treating a first adhesive layer to form a treated portion and an untreated portion while micro-devices are attached the first adhesive layer. A second adhesive layer on a second surface is placed to abut the micro-devices. The first adhesive layer is exposed to illumination in a region that overlaps at least some of the treated portion and at least some of the untreated portion. Exposing the first adhesive layer to illumination neutralizes the at least some of the untreated portion to create a neutralized portion that is less adhesive than an exposed area of the treated portion. The first surface is separated from the second surface such that micro-devices in the treated portion remain attached to the first surface and micro-devices in the neutralized portion are attached to the second surface and separate from the first surface.