Takeup members with apertures capture cut tape sections to prevent damage to the indexing device.
A label positioning system determines adjusted coordinates for geographic markers based on virtual camera viewpoints to maintain display clarity.
A component supply device detects accommodation body states to notify workers of required tape installations.
An alignment film uses cross-linked pre-tilt functional groups to orient liquid crystal molecules at specific angles.
A component mounting system uses machine learning to process post-component board images for accurate inspection.
Rotating components at an angle exposes all lateral surfaces simultaneously, eliminating re-alignment steps and boosting inspection throughput.
Extending the placement head's travel via nested guides increases simultaneous component pick-up points without expanding the device footprint.
Opposing drive units expand feeding areas while reducing device complexity.
A swingable reel holder adjusts axial spacing between adjacent component mounter feeders, eliminating manual pushing that damages rigid structures.
Recognition marks guide tape feed positional correction, preventing adjacent components from falling out of the opening.
A replenishment cassette determiner reads RFID tags to verify component information against stored setup data.
A management device allocates buffer installation sections for feeder exchange based on component shortage frequency.
A component mounting machine limits operating feeder devices to specified quantities using interlock signals.
A blower directs air across the tape peeling section to prevent dust accumulation on imaging lenses, thereby maintaining recognition precision.
A component mounting machine uses a control device to perform pre-mounting inspections on held components before placement.
A tape feeder uses a rotation gear with a one-way clutch to drive feed gears for reliable component supply.
A component supply device guides carrier tape insertion and checks recognition signals to verify correct mounting positions.
A control device automatically arranges backup pins at designated positions using an XY-robot in component mounting machines.
Manual sprocket reduces structure complexity and prevents dust adhesion on electronic components during conveyance.
Jam suppression control rewinds and cues feeder tape automatically upon remounting, preventing empty tape catching between the unit and table.
A component mounting machine uses a load detector to measure hardness characteristics during tool contact.
A magnetic gripping head adheres to components via a lowered pad, enabling secure handling of parts with positional dispersion.
A moving head uses internal temperature sensors to regulate operation and protect sensitive components from heat damage.
A component supply management system detects remaining carrier tape volume to trigger replenishment warnings for specific feeder types.
An adjustment jig aligns nozzle holders using positioning pins and an adjustable board to match suction nozzles.
Movable members on receiving sections display identifiers when holders are set, preventing human errors and maintaining production continuity.
A feeder setup device automates tape feeder assembly by transferring reels from a horizontal storage state to a vertical operational orientation.
A cutting device uses a limiter to align radial electronic components before severing leads.
A curved guide member redirects curled empty carrier tape into the discharge chute, preventing jams in the collection box.
A feeder design with adjacent sprockets creates a slackened carrier tape segment between engagement zones to ensure accurate component supply.
A print controller generates test prints for cut paper printers and real prints for continuous paper printers.
An articulated robot assembly machine uses multi-joint arms to handle complex substrates with high flexibility.
Nested displacement portions detect component contact vertically, eliminating sensor interference with mounted components.
A component supply unit selection method determines arrangement positions based on usage timing to optimize exchange workflows.
A mounting system selects and conveys correct component feeding unit combinations automatically.
A management apparatus reserves identification data to distinguish the final accommodation member from others in a mounting system.
Control device allocates electronic components to nozzle holders based on actual shape data.
A bearing between the suction nozzle and holding tool reduces movement resistance to enable precise acting force detection during component mounting.
A component mounting machine divides a backup plate into multiple arrangement areas to support different circuit board types without full reconfiguration.
A storage device with a dehumidifier maintains low humidity to protect electronic components.
An automatic splicing device uses a barcode reader to verify reel identification information before connecting carrier tapes.
A component mounting machine uses a segmented rotary head design to image large components without enlarging the camera viewing field.
A component mounting device images the vicinity of a mounting position during head movement to acquire height information for target lowering correction.
A backup pin holder accepts interchangeable hard and soft pin portions to support circuit boards during component mounting operations.
Wavelength-selective optical filters block external light interference, ensuring precise nozzle imaging in component mounting systems.
A component mounting device inspects check unnecessary parts before placing check necessary components.
Segmented elastic clamping joints secure thin substrates, resolving the trade-off between handling reliability and manufacturing complexity.
A component mounter uses offset protruding portions on handling tools to perform simultaneous push operations at adjustable distances.
Automatic tape processing apparatus positions and cuts carrier and top tapes using feed, detection, separation, and cutting devices.
Removable stages with contrasting colors resolve low visibility issues to ensure accurate position detection.