A working apparatus corrects the center position of a component mounting mechanism using imaging displacement data to ensure precise placement.
A rotary mounting head uses dedicated pressure control valves to supply positive pressure for rapid component release at the mounting position.
An orthogonal groove prevents backup pin slippage during mounting device movement, resolving reliability issues without increasing structural complexity.
Automated feeder maintenance device cleans feeding mechanisms and measures backlash to ensure consistent operational quality.
Independent X, Y, Z movement of two chucks inserts wires into complexly arranged holes without increasing control complexity.
A component mounting machine compares abnormality data from two distinct nozzle configurations to isolate defective nozzles or holders.
An actuator system measures insertion force and position to ensure accurate component placement in fuse boxes.
A component supply device detects electrical component displacement in the up-down direction using a light-based sensor system.
A fastenerless enclosure assembly uses a conductive mesh and elastomeric framework to shield and ground electronic components.
A substrate working machine calculates attachment positions via image data to determine exchange section alignment.
Image transmitting apparatus displays recipient address before sending marked documents to ensure correct delivery.
A magnetic spring holds the movable portion away from pressure application positions during power-off.
Aligning the rotary head indexing angle with specific preparation images reduces rotation travel and waiting time, improving component mounting efficiency.
A component supply device calculates target feed-out lengths to position storage unit centers at extraction points.
A component mounter head lifts vertically to position suction nozzles near trays, reducing travel distance for faster pickup.
A component mounting tool adjusts pinching locations for claw sections during release operations.
A segmented positioning pin structure separates the root and tip to enable independent replacement of worn components.
A measurement position determination device selects board height check points based on scheduled component mounting locations.
A part feeding device uses a magnetic sensor to detect components on the transport tape.
A standalone reel holding device supplements carrier tape supply to feeder devices, resolving external dimension constraints without modifying the main body.
A component mounting device adjusts Q-axis rotation start timing based on movement phase durations to optimize placement cycles.
A component mounting machine monitors command torque to detect gripping state changes during electronic component transfer.
Spring-connected handling units expand device arrays to resolve wafer stress and placement precision trade-offs.
A feeder control device stops a first sprocket to prevent engagement protrusions from contacting carrier tape.
Integrated rod-like members prevent reel flange meshing between rollers and case walls, ensuring continuous component supply.
Information processing device stores segmented abutting, attachment, and connection part data for collection members.
A mounting system moves exchange feeders to spare loading sections before depletion occurs.
Side and vertical lighting detects component protrusions, resolving detection accuracy versus imaging complexity trade-offs.
A processor placement tool uses piston interlocks to secure gripping devices until a protective cover is present.
A mechanical closure integrates a tamper indicator band connecting arms and an arc to provide irreversible opening indication.
A substrate fixing apparatus uses a back-up member and pressing mechanism to stabilize film-like substrates during conveyance.
A splicing device clamps splice tape between stationary and movable pressing members to connect tape ends accurately.
Segmented collation units allow the mounting line to operate independently when access to the integrated management apparatus is lost, maintaining productivity.
Relocating the R-axis gear to the rotating head lower surface reduces vertical size and improves suction nozzle positioning accuracy.
A rotary head imaging system aligns suction nozzles at pre and post positions to reduce control steps.
Dynamic image rotation adapts recognition data to varying supply angles, resolving mounting errors from misaligned components.
A component holding tool elastically deforms leads to guide them into circuit board through-holes.
A power supply control device manages consumption currents across multiple tape feeders to prevent overcurrent conditions.
An automated supply unit replaces empty tape cassettes in mounters, eliminating manual worker intervention.
Identical frame interfaces enable individual module replacement, lowering downtime and costs when defects occur.
Asymmetric sprocket projections eliminate clearance with feed holes, resolving positional deviations during component ejection.
Preliminary assembly of components at the supply position prevents instability caused by board warping during final attachment.
Integrating cover plate with electrical component reduces installation steps, labor costs, and inventory complexity.
A suction nozzle mounting head uses a biasing means to control vertical position relative to the raising/lowering axis.
Segmenting the feed and supply units resolves versatility complexity trade-offs in component mounters.
A centralized unit storage container and moving exchanging robot consolidate feeder management, eliminating individual replenishment tasks at each machine.
A mounting head corrects lowering amounts using stored angle-specific calibration values to ensure precise component pickup.
A replacement table holder positions a nozzle replacement table within the mounting head range on a feeder carriage.
A waste tape conveyance device synchronizes conveyor operations via signal requests to prevent overflow.
A segmented power supply device maintains independent lines to keep high-safety work units operating during emergency stops.