A work system includes multiple work devices aligned along a board conveyance line, a replenishing device having a sensor for detecting presence or absence of an interfering object and configured to move in parallel with the board conveyance line while detecting the presence or absence of the interfering object by the sensor to replenish necessary members to the multiple work devices, and a draw-out device configured to draw out at least one of the multiple work devices in a direction orthogonal to a direction along the board conveyance line. When a draw-out request for the work device is made, the replenishing device performs an automatic draw-out process of moving to a position in which a draw-out position of the work device to be pulled forward is included within a detection range of the sensor, so as to determine whether the interfering object is detected by the sensor.

The object is to provide a substrate processing machine facilitating checking the operation of a device in the interior of a housing from the exterior of the housing. The substrate processing machine includes a base and a module, disposed on the base, and has a device configured to perform a predetermined operation contributing to the production of a substrate. The module can be switched between a fabrication position where the substrate is produced and an offset position that deviates from the production position relative to the base. The device can operate in the production position and the offset position. The operation speed of the device in the offset position is slower than the operation speed of the device to in the production position.

A component mounting related system is provided with a first component mounting related apparatus, a second component mounting related apparatus, an electric power source provided in the first component mounting related apparatus, a first power transmission line provided in the first component mounting related apparatus, a power transmission connector, and a second power transmission line. The electric power source supplies an electric power for actuating the first component mounting related apparatus. The first power transmission line transmits the electric power in the first component mounting related apparatus. The power transmission connector transmits the electric power transmitted by the first power transmission line to the second component mounting related apparatus. The second power transmission line transmit, in the second component mounting related apparatus, the electric power supplied from the first component mounting related apparatus through the power transmission connector.

A component mounting machine automatically arranges backup pins at positions designated in a production job. A control device configured to control an operation of each of the component mounting machines determines whether a backup pins exists at a position where the backup pin cannot be automatically arranged in the arrangement of the backup pins designated in the production job, and when the backup pin exist at a position where the backup pin cannot be automatically arranged, excludes the backup pins at the position from the arrangement of the backup pins designated in the production job not to be automatically arranged, and automatically arranges only the other backup pins at the positions designated in the production job.

A board work management device includes a board work quantity reset switch; a board work quantity counting section that counts each board on which, from among the multiple board work machines, at least one board work machine has performed work, for each of the at least one board work machines; a board work quantity memory section that memorizes the board work quantity of the board work machine counted by the board work quantity counting section; and a board work quantity resetting section that, when the board work quantity reset switch is operated, resets the board work quantity of a specified board work machine among the at least one board work machines memorized by the board work quantity memory section while the multiple board work machines are operating.

An electronic component mounting system is disclosed. An elapsed time acquiring section acquires an elapsed time from printing onto circuit board by solder printer. A raising and lowering operation changing section changes raising and lowering operation of component holding tool based on the elapsed time from printing acquired by the elapsed time acquiring section. A mounter mounts an electronic component on the solder printed on circuit board by performing raising and lowering of the component holding tool at the raising and lowering operation changed by the raising and lowering operation changing section.

A component replenishment management system includes an emergency device extraction unit, an emergency time setting unit, a replenishable device identification unit, and a replenishment target extraction unit. The emergency device extraction unit extracts, as first and second emergency devices, top two component supply devices having highest degree of emergency for performing the component replenishment work. The emergency time setting unit sets an emergency time zone from a first emergency time for the component replenishment work for the first emergency device to a second emergency time for the component replenishment work for the second emergency device. The replenishable device identification unit identifies, as a replenishable device, a component supply device that can be replenished with a component storage member. The replenishment target extraction unit extracts a replenishment target device that is a target of the component replenishment work within a range of the emergency time zone among the replenishable devices.

Provided is a method for determining the maximum number of constant tables at table locations in one or more pick-and-place lines for the placement of components on modules using pick-and-place machines, the fittings on the constant tables being used in all the fitting families of a pick-and-place line, one fitting family including a set of modules which can be produced on a pick-and-place line with a common component fitting, wherein the maximum number of constant tables is determined by calculation using mixed-integer liner optimization on the basis of input data describing the pick-and-place infrastructure, wherein the pick-and place infrastructure can include in particular the pick-and-place lines having the pick-and-place machines, each with pick-and-place heads, at least one transport system for the modules, the said constant tables, and further tables which can be variably fitted.

A component supply device including a component storage device that stores a plurality of components, a component support member on which the components from the component storage device are dispersed, and a component return device that returns the components on the component support member to the component storage device, is provided. In a case where the necessary number of components exceeds the number of holdable components, return work of the components to the component container and dispersal work of the components to the component support section are carried out prior to holding the components from the component support section by the component holding tool.

Systems and methods for reducing displacement of selected components during Printed Circuit Board Assembly (PCBA) manufacturing are described. In some embodiments, a PCBA manufacturing tool may include: a bar having a first end and a second end; a movable pin coupled to the first end, the movable pin configured to be inserted into a first hole of a PCB; and a fixed pin coupled to the second end, the fixed pin configured to be inserted into a second hole of the PCB.