A device for inserting a flexible printed circuit board into a connector of a display panel includes: a suction unit configured to adhere to the flexible printed circuit board; a position restriction unit configured to restrict a position of the flexible printed circuit board; and a flexible printed circuit board transfer unit coupled to the suction unit and the position restriction unit, and configured to insert the flexible printed circuit board into the connector. A method of inserting a flexible printed circuit board into a connector of a display panel is also disclosed.

A flip-chip process is to provide a pressing jig with a channel, so that the pressing jig grips a chip module by vacuum suction through the channel, and the chip module can be bonded onto a circuit board via a plurality of solder bumps through the pressing jig, and then a heating device is provided to heat the plurality of solder bumps and reflow the plurality of solder bumps. Therefore, the chip module can be vacuum-gripped by the pressing jig to suppress deformation of the chip module, so that the solder bumps can effectively connect to corresponding contacts of the circuit board.

Embodiments of the present disclosure provide a robot arm apparatus including a fastener for fastening a first electronic component to a second electronic component, and a movable part configured to move the fastener. The fastener includes an arm connected to the movable part, a head connected to the arm and configured to contact the first electronic component, and a lock configured to be in contact with the arm when the first electronic component is moved to a reference space, and to be spaced apart from the arm when the first electronic component is fastened to the second electronic component after the first electronic component is moved to the reference space.

A reel-to-reel method to laser-ablate a circuitry pattern on the fly in a reel-to-reel machine as part of a process to fabricate a printed flexible circuit. The laser ablation method includes using an appropriate laser to irradiate a metal sheet thus ablating the edges of an intended circuitry pattern. Slugs can be removed by using an optional sacrificial liner, and the slugs can be optionally ablated into smaller parts first. The laser ablation can also include an optional method of creating tie bars to provide structural support to the web of circuitry patterns.

A flip-chip process is to provide a pressing jig with a channel, so that the pressing jig grips a chip module by vacuum suction through the channel, and the chip module can be bonded onto a circuit board via a plurality of solder bumps through the pressing jig, and then a heating device is provided to heat the plurality of solder bumps and reflow the plurality of solder bumps. Therefore, the chip module can be vacuum-gripped by the pressing jig to suppress deformation of the chip module, so that the solder bumps can effectively connect to corresponding contacts of the circuit board.

A ball-grid-array component of a ball-grid array assembly is analyzed prior to reflow. A predicted warping pattern of the ball-grid-array component that is likely to occur during reflow is predicted based on the analyzing. A solder ball ball-grid-array defect that could be caused by the predicted warping pattern is predicted. An initial via suction pattern to mitigate the ball-grid-array defect is assigned. A vacuum head is applied to a via in the ball-grid-array assembly. The solder ball is located at the opposite end of the via from the vacuum head. Suction is applied to the via based on the via suction pattern. The suction draws a portion of the solder ball into the via during reflow.

A component mounting machine includes a head including multiple nozzles; a negative pressure supply device supplying negative pressure from a negative pressure source individually to suction openings of the multiple nozzles; a raising and lowering device to individually raise and lower the multiple nozzles; and a control device performing a first pickup operation of controlling the raising and lowering device to lower one of the nozzles and controlling the negative pressure supply device to supply negative pressure to pick up the component using the suction opening of that nozzle, and a second pickup operation of controlling the raising and lowering device to lower multiple of the nozzles simultaneously and controlling the negative pressure supply device to supply negative pressure to the suction openings of those multiple nozzles to pick up the components simultaneously using the suction openings of those multiple nozzles.

A testing apparatus includes a chip carrying device and a pressing device. The chip carrying device includes a circuit board and a plurality of electrically connecting units that are disposed on the circuit board and each can receive a chip. The pressing device includes a cover and an abutting member disposed between the cover and the electrically connecting units. The cover is disposed on the circuit board to jointly define an accommodating space that accommodates the abutting member and the electrically connecting units. The cover can be connected to an air suction apparatus for expelling air in the accommodating space. When the air suction apparatus performs a suction operation to expel the air in the accommodating space, the abutting member is abutted against the electrically connecting units and the chips so as to connect each of the electrically connecting units and the corresponding chip.

A mounting device for mounting a multi-segmented flexible printed circuit board includes: a circular stage on which a display substrate provided with a plurality of sub-pads and a multi-segmented flexible printed circuit board attached to a side of the display substrate are configured to be placed; and a pressing unit arranged adjacent to the circular stage and configured to press and attach the multi-segmented flexible printed circuit board to the plurality of sub-pads of the display substrate.

Provided is a method of manufacturing a circuit board involves: preparing a composite laminate including a support, a release layer, and a multilayered circuit board; disposing the composite laminate on a stage such that one face of the composite laminate is put into tight contact with the stage; and releasing the support or the multilayered circuit board from the release layer such that the support or the multilayered circuit board forms a convex face with a curvature radius of 200 to 5000 mm while the face of the composite laminate is kept in tight contact with the stage. The method according to the present invention can prevent the occurrences of defects, for example, breaking in the support and cracking and wire disconnections in the multilayered circuit board in manufacturing of circuit boards, such as coreless circuit boards, and ensure stable release of the support or the multilayered circuit board.