Abstract: According to an aspect of the invention, there is provided a chip die 2 manipulator apparatus arranged for picking and placing of a chip die 2 in a chip manufacturing process, wherein an imaging system 11 comprising an arc form convex spherical mirror 13 arranged at a second off-axis position B and centered relative to the center position 5; a folding mirror 4 arranged in a light path between the convex spherical mirror 13 and the center position 5 for folding the light path to a third off-axis position C; and an arc form concave spherical mirror 15 arranged at the third off-axis position C having a curvature to image from at least one of the center position 5 and the component 2 on the image detection system 9. The imaging system 11 corrects for the angled image detection of the center position 5.

Abstract: A component mounting apparatus includes two board transfer devices each for transferring boards, at least one component supply device for supplying plural kinds of components to be mounted on the boards, and a component placing device including at least one component placing head for picking up the supplied components to mount the picked-up components on the boards and at least one head moving mechanism for moving the at least one component placing head in at least two directions parallel to a surface of the board. The apparatus also includes a controller that operates one component placing head to mount components alternately on two boards transferred by the two board transfer devices to respective component mounting positions and operates two component placing heads to mount components in parallel on two boards transferred by the two boards transfer devices to the respective component mounting positions.

Abstract: In accordance with certain embodiments, phosphor arrangements are formed via adhering phosphors to activated regions on a substrate and transferring them to a different substrate.

Abstract: A device for aligning and prefixing a flat substrate on a carrier substrate for the further processing of the substrate. The device includes aligning means for aligning a substrate's outside contour relative to a carrier substrate's outside contour by engaging the substrate's outside contour. The alignment of the substrate is carried out along a substrate plane E that is parallel to a contact surface of the substrate. Attaching means is provided for at least partial prefixing of the aligned substrate on the carrier substrate.

Abstract: Several embodiments of stacked-die microelectronic packages with small footprints and associated methods of manufacturing are disclosed herein. In one embodiment, the package includes a substrate, a first die carried by the substrate, and a second die between the first die and the substrate. The first die has a first footprint, and the second die has a second footprint that is smaller than the first footprint of the first die. The package further includes an adhesive having a first portion adjacent to a second portion. The first portion is between the first die and the second die, and the second portion being between the first die and the substrate.

Abstract: A system for assembling a camera for a vision system of a vehicle includes a circuit board having an imaging array sensor disposed thereat, with the circuit board having connector circuitry at a side thereof. A lens barrel is provided and the circuit board is attached at the lens barrel. Solder pads are provided at the connector circuitry. A coaxial connector is provided and the coaxial connector is aligned with the connector circuitry at the circuit board. The system includes determining when the coaxial connector is aligned with the connector circuitry at the circuit board. When the coaxial connector is determined to be aligned with the connector circuitry, the coaxial connector is attached at the connector circuitry, with attaching the coaxial connector at the connector circuitry including soldering the coaxial connector at the connector circuitry via the solder pads.

Abstract: An apparatus for the placement of a semiconductor chip on a substrate is provided.

Abstract: A method for manufacturing submounts for laser diodes includes the steps of providing a base configured with a ceramic carrier and a metal layer deposited upon the substrate. The method further includes using a pulsed laser operative to generate a plurality of pulses which are selectively trained at predetermined pattern on the metal layer's surface so as to ablate the desired regions of the metal layer to the desired depth. Thereafter the base is divided into a plurality of submounts each supporting a laser diode. The metal layer includes a silver sub-layer deposited upon the ceramic and having a thickness sufficient to effectively facilitate heat dissipation.

Abstract: Disclosed herein is a method for applying a fluid to a component during a placement cycle. The method includes providing a component placement machine including a housing having a frame attached thereto, the frame having a pick and place head. The method includes providing a fluid application station contiguous with the housing and adapted to apply fluid to the component, moving the housing to a pick location, picking the component from a supply of components using the pick and place head, moving the housing to a location, applying fluid to the picked component, and placing the picked component with the fluid applied onto the printed circuit board at the location. The fluid application step is accomplished during the moving step or placing step. The method may further include repeating the steps for another component where the fluid application step is accomplished during the repeated picking step of the additional component.

Abstract: Manufacturing a product, wherein the product includes a first part and a second part, wherein the first part includes solder pins and the second part includes solder pads, wherein each of the solder pins has the matching solder pad, wherein each of the solder pads is covered by a matching solder paste bead. Aligning the solder pins against the solder pads in a way that each pair of the solder pin and the matching solder pad is thermally and electrically connected by the matching solder paste bead. Connecting a mating connector to the first part, wherein the mating connector is operable for providing a part of an electrical conducting path.

Abstract: A printed board working apparatus includes a transport device which transports a printed board in a horizontal direction, and a moving member which moves in a horizontal direction above the transport device. The printed board working apparatus includes a plurality of component attaching portions which are aligned in the installation direction and move together with the moving member. The printed board working apparatus also includes at least one working head which performs work on the printed board held by the transport device. The working head is attached to at least one component attaching portion out of the plurality of component attaching portions, and can change a position relative to the moving member in the installation direction. A region where the working head cannot perform work as the number of working heads increases is reduced.

Abstract: A packaging structure for assembling to a printed circuit board (PCB) comprises a captive screw having a screw head, a threaded shank and a sleeve; and a fixture pressing against the screw head for a part of the threaded shank to expose from a distal end of the sleeve, and clamping the fixture on the sleeve.

Abstract: An electronic module includes a substrate, which includes a dielectric material having multiple sides, including first and second sides, and first and second cavities indented respectively within the first and second sides. First and second conductive contacts within the first and second cavities are configured for contact with at least first and second electronic components that are mounted respectively in the first and second cavities. Conductive traces within the substrate are in electrical communication with the first and second conductive contacts.

Abstract: There is provided a component mounting apparatus, which includes: a nozzle which sucks a component; a nozzle supporting member, on which the nozzle is installed, which moves in a vertical direction with respect to an upper surface of a substrate on which the component sucked at the nozzle is mounted; an optical system which captures an image of a leading edge portion of the nozzle where the component is sucked in a component mounting operation, from a side direction, such that an optical axis of the optical system is inclined at a predetermined angle with respect to a sucking surface of the nozzle; and an analyzer which analyzes the image of the leading edge portion to determine whether a sucking state of the component sucked by the nozzle is normal or abnormal.

Abstract: An apparatus for retaining a package of laminations of an electromagnetic core in a device (3) for the production thereof that is mounted into a panel (1) arranged at a distance from a yoke (2) of said device (3) for the production of individual laminations (4) and mutual joining of same into a package (5), wherein it comprises peripheral units like an aggregate for pressurized hydraulic oil, sensors, control unit and ejector.

Abstract: A method for producing a radio frequency identification transponder includes forming a first groove in a conductive sheet such that a portion of said conductive sheet surrounds the first groove, attaching an RFID chip to the conductive sheet after the first groove has been formed such that the first groove is located between a first connecting element of the chip and a second connecting element of the chip, and forming a second groove in the conductive sheet after the chip has been attached so as to form an antenna element of said transponder.

Abstract: A device includes a vacuum nozzle, a driver, a light source, a measuring unit, and a controller. The vacuum in the nozzle picks up and holds a light receiver. The driver drives the nozzle to press the light receiver onto a substrate such that the light receiver is electrically connected to the substrate. A light source in the nozzle illuminates the light receiver causing the generation of a first electrical signal. The measuring unit measures a second electrical signal that is a part of the first electrical signal, and the driver is controlled drive the nozzle to press harder until the second electrical signal stops increasing, the degree of conductivity between the light receiver and the substrate being then at the maximum.

Abstract: A device for assembling an element on a surface of a substrate by providing a solder-forming mass. The device has a means for moving the element and a measurement means. The means for moving the element includes a support and an element gripper member. The gripper member has a vertical axis that is perpendicular to the surface of the substrate and is mounted to move freely in translation on the support in a direction parallel to its vertical axis. The measurement means measures a variation of the position of the element in vertical translation.

Abstract: An apparatus for incorporating a metallic foil into a semiconductor package includes a carrier embossed with a multiplicity of cavities. Each of the cavities define a pedestal recessed with the cavities which penetrate only partially through the thickness of the carrier. A metallic foil overlying a pattern with the pedestals in direct contact and help support the metallic foil with the metallic foil pressed into at least some of the cavities. In other embodiments, a gap is between the metallic foil and bottoms of the cavities in a substrate. Integrated circuit dice are attached to the foil. Each die is attached to the foil in a region of the foil overlying a portion of the at least one device area pattern. Bonding wires electrically connect the integrated circuit dice to the foil.

Abstract: There is provided a component mounting method for fitting a component including downwardly-extending insertion pins on a substrate by sucking the component by a suction nozzle and moving the suction nozzle such that the insertion pins of the sucked component are inserted into pin insertion holes formed in a substrate. The component mounting method includes: positioning the insertion pins and the pin insertion holes, and then pushing the component against the substrate by the suction nozzle, thereby fitting the component on the substrate such that the insertion pins are inserted into the pin insertion holes; and pushing again the component against the substrate after the component is fitted on the substrate, so as to push the insertion pins into the pin insertion holes.

Abstract: Printed circuit board (PCB) assembly tooling and methods are provided. Particular tooling includes a first tooling fixture having a first core component receiver to receive a first portion of a magnetic core to be coupled to a first side of a PCB. The tooling also has a second tooling fixture including a second core component receiver to receive a second portion of the magnetic core to be coupled on a second side of the PCB to the first portion of the magnetic core. The tooling also has an alignment component disposed on at least one of the first tooling fixture and the second tooling fixture. The alignment component enables alignment of the first tooling fixture and the second tooling fixture. When the first tooling fixture and the second tooling fixture are aligned, the first portion of the magnetic core and the second portion of the magnetic core are aligned.

Abstract: A xerographic micro-assembler system, method and apparatus that includes a sorting unit that is adapted to receive a plurality of micro-objects. The micro-objects can also be sorted and oriented on the sorting unit and then transferred to a substrate. The system, method and apparatus can also include a device for detecting errors in at least one of the micro-objects on the sorting unit and a protection means for preventing an improper micro-object from being transferred to the substrate. The system, method and apparatus can also include an organized micro-object feeder assembly that can transfer at least one of a plurality of micro-objects to the sorting unit or directly to the substrate.

Abstract: An apparatus that facilitates the accurate and uncomplicated placement of an adhesive circuit structure onto an integrated circuit card is described. The apparatus is configured to hold the adhesive circuit structure and an integrated circuit card such that the two components can be aligned for proper placement.

Abstract: A method, system and apparatus, the method including positioning a microelectronic device on a carrier substrate; coupling the microelectronic device to a roller assembly; and rotating the roller assembly to transport the microelectronic device from the carrier substrate to a receiving substrate. The system including a carrier substrate configured to support a microelectronic device; a roller assembly configured to receive and transport the microelectronic device; and a receiving substrate dimensioned to receive the microelectronic device from the roller assembly. An apparatus for parallel assembly of microelectronic devices on a module including a laterally translatable carrier substrate configured to move a plurality of microelectronic devices in a first direction; a rotatable cylindrical body having a plurality of device openings dimensioned to receive the microelectronic devices; and a laterally translatable receiving substrate configured to move in a second direction.

Abstract: An apparatus, method, and system, the apparatus including a receiving member dimensioned to receive an array of microelectronic devices; and a linkage member coupled to the receiving member, the linkage member configured to move the receiving member in at least two dimensions so as to modify a spacing between the electronic devices within the array of microelectronic devices received by the receiving member. The method including coupling an array of microelectronic devices to an expansion assembly; and expanding the expansion assembly so as to expand the array of microelectronic devices in at least two directions within a single plane. The system including a support member; an expansion assembly coupled to the support member, the expansion assembly having a plurality of receiving members configured to move in at least two dimensions within a single plane; and a plurality of microelectronic devices coupled to each of the plurality of receiving members.

Abstract: An object of the invention is to provide an electronic component mounting system which can execute component mounting work on a plurality of boards simultaneously, concurrently and efficiently so that high productivity and responsiveness to production of many items can be achieved consistently.

Abstract: A method for the insertion of ferrite members onto pins acting as the contacts of an electrical filter connector. The ferrite members are oriented to a desired orientation by a known method. The ferrite members are preferably oriented in the vertical position for storage and are conveyed to a dynamic storage lock chamber equipped with a ferrite member stopping mechanism. A ferrite member distribution system incorporating a horizontally moving distribution plate individually releases the ferrite members from the lock chamber into the distribution system and inserts ferrite members onto the contacts according to a rate controlled by the operator.

Abstract: The present invention provides a laminate printed board having a novel structure that is able to ensure alignment accuracy of the interboard terminals soldered to one printed board and that is also able to achieve a simplification of the process of soldering the interboard terminals. Through-hole lines in which a plurality of through-holes extend in lines are formed on a first printed board. Additionally, a press-fitting fastener hole is formed within the through-hole lines and a first end of an interboard terminal is press-fitted and fastened to the press-fitting fastener hole. Additionally, first ends of others of the interboard terminals are inserted through and flow soldered to through-holes on the first printed board.

Abstract: A ball grid array presentment apparatus and associated method are provided. The apparatus has a stationary guard defining a first passage. A core is mounted adjacent to the stationary guard, the core being operably moveable between an unload position and a second position. The core defines a second passage and supports a workpiece fixture operably retaining the ball grid array. The unload position of the core operably aligns the second passage to the first passage, the aligned passages being sized to permit access to unload the ball grid array from the workpiece fixture. The second position of the core operably misaligns the second passage from the first passage whereat the core and the stationary guard cooperatively form an enclosure around the workpiece fixture containing a supply of balls that are not retained in the ball grid array.

Abstract: After a reel of an MSD which is a moisture management target component is dispatched from a component keeping area and setup to a tape feeder is performed in an external setup area, exposure time for which the MSD is in an atmospheric exposure state is timed in a reel unit, and the exposure time is compared with exposure limit time set for the MSD and stored in a storage part, and an electronic component mounting apparatus equipped with the reel of the MSD whose exposure time exceeds the exposure limit time is specified and work by the apparatus is stopped.

Abstract: A method of chip mounting uses a manipulator to mount an electronic component in a vertically upward direction onto a downwardly-facing mounting surface of a printed circuit board held by a holding bed. The holding bed is located above the manipulator or sidewise relative to the manipulator for mounting by the manipulator onto the downwardly-facing mounting surface of the printed circuit board.

Abstract: A substrate fixing apparatus includes a back-up member which is located between a pair of conveying members arranged at a distance from each other in a plan view and is below a film-like substrate conveyed along the conveyance path and supported from below by the pair of conveying members. An elevation driver moves at least one of a back-up member and a substrate pressing member upward and downward. The elevation driver elevates the back-up member and/or lowers the substrate pressing member together with the pair of conveying members, thereby separating the substrate upward from the pair of conveying members while supporting the substrate from below by the back-up member and pressing the surface of the outer peripheral part of the substrate downward by the substrate pressing member to correct warpage of the outer peripheral part of the substrate.

Abstract: A mounting head 16 includes shaft members 23 respectively provided with suction nozzles 22, rotation driving motors 24 for individually conducting rotary movements of the shaft members 23, and vertical movement driving motors 25 which are arranged in a staggered arrangement in an opposite direction to a staggered arrangement of the shaft members 23, and adapted to individually conduct vertical movements of the shaft members 23. The rotation driving motors 24 directly drive the shaft members 23, and the vertical movement driving motors 25 move the shaft members 23 up and down, together with the rotation driving motors 24.

Abstract: A head nozzle unit includes a pair of motion guides located parallel to each other, a pair of movable blocks disposed on the pair of motion guides and movable independently of each other, a guide member transversely connected to the pair of motion guides via the pair of movable blocks, a pair of head nozzle parts disposed on opposite lateral surfaces of the guide member, the pair of head nozzle parts movable independently of each other and operable to pick up and mount electronic parts, and a driver that moves the pair of movable blocks in cooperation with one another and that moves the pair of head nozzle parts in predetermined directions. Further, an apparatus and method for mounting electronic parts includes the head nozzle unit. The pair of head nozzle parts alternately and sequentially performs a series of mounting processes of picking up the electronic parts and mounting the picked up electronic parts.

Abstract: Disclosed is an electronic component mounting line on which a substrate undergoes solder paste printing, electronic component placements, and then reflow, while being moved from upstream to downstream. The line includes: a substrate feeding machine for feeding the substrate; a screen printing machine for applying solder paste to the substrate; a first electronic component placement machine for placing a first electronic component on the substrate; a resin dispensing machine for dispensing a thermosetting resin onto at least one reinforcement position arranged on the substrate; a second electronic component placement machine for placing a second electronic component on the substrate, such that its peripheral edge portion comes in contact with the thermosetting resin; and a reflow machine for bonding the first and second electronic components to the substrate, by heating and cooling the resultant.

Abstract: An apparatus for manufacturing electronic parts is provided. The apparatus includes a head unit installed on a main body and configured to move up and down, a nozzle unit installed on the head unit and configured to move up and down, and a positioning unit sequentially displacing the head unit and the nozzle unit to a position where the electronic parts are on standby to suction the electronic parts using the nozzle unit. Thus, when the head unit is used to suction the electronic parts on standby at a standby position of the electronic parts, the head unit and the nozzle unit installed on the head unit are sequentially lowered, so that it is possible to relieve an impact occurring when the electronic parts are suctioned to the ends of nozzles.

Abstract: A workpiece transfer apparatus includes a nozzle unit and an imaging unit. The nozzle unit includes a tubular body, a suction hole opening at one end of the tubular body and an end face member of a transparent body sealing the other end of the tubular body. The imaging unit captures images of first patterns for positioning that are located on an upper surface of a workpiece. The size and shape of the suction hole fits within an outline of the upper surface of the workpiece. The end face member of the transparent body maintains a negative pressure inside the cylindrical body and permits optical penetration for the imaging unit. The imaging unit captures the image of the first pattern for positioning of the workpiece while the imaging unit views a suctioned surface of the workpiece through the transparent body and the suction hole.

Abstract: An object of the invention is to provide a component mounting apparatus which includes a plurality of substrate conveying lanes and which efficiently controls the order of carrying in of substrates, thereby capable of improving productivity, and also is to provide a substrate conveyance method in the component mounting apparatus. In a configuration which includes: component supplying units (20A, 20B) positioned lateral to conveyor lines including conveyors (10A, 10B, 10C, 10D) arranged in parallel; and a substrate distributing unit (M3B) configured to distribute substrates (13) delivered from an upstream apparatus, in the case where a substrate request signal (R) is output for a plurality of conveyors, a new substrate (13) is carried in from the substrate distributing unit (M3B) into conveyors (10A, 10D) which are closest to the component supplying units (20A, 20B) among the conveyors (10A, 10B, 10C, 10D).

Abstract: A mounting system for applying an RFID chip module having at least one electrical connection to a substrate having at least one conductor, in particular a label. The system includes a stamping device for stamping out the RFID chip module from a carrier strip having a plurality of chip modules. The stamping device comprises a stamping die having a stamping opening, by which an RFID chip module to be stamped out is received with accurate positioning, and a stamping punch is disposed above the stamping opening A support for receiving a substrate with accurate positioning is disposed below the stamping opening and the stamping punch can be moved up against the substrate. A suction device is provided for holding the RFID chip module on the stamping punch. A heating device for melting solder is present on the RFID chip module in order to establish a conductive connection between an electrical connection of the RFID chip module and a conductor of the substrate.

Abstract: An approach to refurbishing or remanufacturing an electronic device may involve exposing electrical components that are situated within an interior of the electronic device. The approach may also involve replacing one or more defective electronic components of the electronic device with one or more replacement components and applying a protective coating to at least a portion of the interior of the electronic device. The protective coating may cover the circuit board and the electronic components it carries. The protective coating may also cover at least some of the electrical connections of the electronic device. The protective coating may also be applied to the replacement component prior to reassembly. The resulting refurbished or remanufactured electronic device may thus be provided with moisture resistance to help protect the electronic device from damage caused by exposure to moisture.

Abstract: A hearing aid (8) comprises an inlet port (6), a sound tube (12) for conveying sound to the ear piece (13). The invention further provides a component for a hearing aid comprising a slab (26) having an exterior surface, which is super-hydrophobic. The component may be any one of a housing, a casing, a shell, a faceplate, a grid, a hook, a lid, a battery drawer, a button, or a manipulator. The invention also provides a method of manufacturing a component for a hearing aid.

Abstract: A substrate accommodating tray pallet has a substrate in a horizontal state, includes openings for inserting substrate removal tools for raising the substrate, and is used for transferring substrate accommodating trays which can be vertically stacked, wherein: the substrate accommodating trays are to be mounted on an upper surface; and substrate removal tool insertion openings for inserting the substrate removal tools are positioned so as to oppose openings of the mounted substrate accommodating trays.

Abstract: A method for operating an assembly tool includes deposing a first component on an assembly surface with a first tool tip of a manipulator having a range of motion defined by a plane and an axis that is substantially normal to the plane, deposing a second component on the assembly surface, changing an orientation of the assembly surface relative to the axis from a first orientation to a second orientation, lifting the first component from the assembly surface with a second tool tip of the manipulator, and deposing the first component on the second component.

Abstract: A substrate standby unit that is capable of keeping only one substrate 4 on standby in a substrate sorting mechanism 40 that moves the substrate 4 from the print inspection device M2 to the component installation device M4, a memory device 60 that stores a substrate ID on the substrate 4 that is on standby in the substrate standby unit, and a substrate ID management unit 46 that updates the substrate ID that is stored in the memory device 60 accompanying the transfer of the substrate 4 from the print inspection device M2 to the substrate standby unit are included. The substrate ID stored in the memory device 60 and the inspection result data associated with this substrate ID and stored in an inspection result data memory unit 45 are transmitted to the component installation device M4.

Abstract: A size S1 of each of projections 32b provided on an outer perimeter of a sprocket 32 in a proceeding direction of a tape member 20 at a height where each of the projections 32b is engaged with each of feed holes 22 of the tape member 20 is larger than a diameter D of each of the feed holes 22 of the tape member 20, and a size S2 of each of the projections 32b in a direction perpendicular to the proceeding direction of the tape member 20 at a height where each of the projections 32b is engaged with each of the feed holes 22 of the tape member 20 is smaller than the diameter D of each of the feed holes 22 of the tape member 20.

Abstract: A method for producing an electric contact sensor plate and for populating an electric or electronic module with the contact sensor plate in an automated manner is provided. An end piece of a metal foil strip is fed in a feeding step, in which the contact sensor plate is positioned on the electric or electronic module in a positioning step, and in which the contact sensor plate is fastened on the electric or electronic module in a fastening step. The method is characterized in that the contact sensor plate is produced by being severed from the foil strip in a severing step that follows the feeding step and precedes the positioning step.

Abstract: An electronic component mounting method includes a removing step, a first mounting step, a first attaching step and a second mounting step. In the removing step, a first feeder holding first electronic components is removed from an attaching portion of a component feeding device when there is a reason for removing the first feeder from the attaching portion. In the first mounting step, electronic components other than the first electronic component, out of electronic components to be mounted on a board, are mounted on the board when the first feeder is removed from the attaching portion. In the first attaching step, the first feeder is attached to another attaching portion, to which no feeder is attached, after the removing step. In the second mounting step, the first electronic component is mounted on the board from the first feeder attached to the other attaching portion after the first attaching step.

Abstract: It is an object to provide an electronic component mounting method that makes it possible to assure stable pickup operation even when a dimensional error attributable to a difference in production lot exists in electronic components or carrier tapes. During electronic component mounting adopting a tape splicing technique for splicing a carrier tape 15 already loaded on a tape feeder to a newly loaded carrier tape 15A, when an optical sensor 30 has detected a joint J between the already-loaded carrier tape 15 and the newly-loaded carrier tape 15A, a height measurement device 12 performs measurement of a component pickup height targeted for components P housed in the carrier tape 15A in connection with the tape feeder for which the joint J has been detected. Component pickup height data showing a target lowering height to which pickup nozzles 10a are to be lowered are updated on the basis of the measurement result.

Abstract: A cast grid array (CGA) package comprises shaped solder posts which may be reflowed and connected directly to a circuit board, such as mother board, or remain in a solid state with the shape allowing them to be secured within a CGA socket which, in turn, may be connected to the a board. Embodiments of the CGA allows for a lower cost socket and package combination by using solder post to interface the socket and not requiring a loading mechanism on every socket.

Abstract: A method of producing an electronic module with at least one electronic component and one carrier. A structure is provided on the carrier so that the electronic component can take a desired target position relative to the structure. The structure is coated with a liquid meniscus suitable for receiving the electronic component. Multiple electronic components are provided at a delivery point for the electronic components. The carrier, with the structure, is moved nearby and opposite to the delivery point, where the delivery point delivers one of the electronic components without contact, while the structure on the carrier is moving near the delivery point, so that after a phase of free movement the electronic component at least partly touches the material, and the carrier, with the structure, is moved to a downstream processing point, while the electronic component aligns itself to the structure on the liquid meniscus.