Abstract: Method and device for transferring a solder deposit configuration having multiple solder deposits onto a terminal surface configuration of a contact surface of a substrate (36) using a removal of multiple solder deposits from a solder deposit reservoir (25) accommodated in a solder deposit receptacle unit (11) via an isolation unit (12), which is implemented like a template and is situated above the solder deposit reservoir, to implement the solder deposit configuration implemented corresponding to the terminal surface configuration, and using a subsequent transfer of the solder deposit configuration onto the terminal surface configuration of the substrate, the solder deposit reservoir being impinged by partial vacuum through template openings (15) of the isolation unit to transfer the solder deposits from the solder deposit reservoir into the isolation unit, the solder deposit reservoir (25) being ventilated via a floor wall (20) situated diametrically opposite the isolation unit during the partial vacuum im

Abstract: A bonding apparatus (10) that bonds an electrode of a semiconductor die (12) and an electrode of a circuit board (19) using a metal nano paste includes a bump formation mechanism (20) that forms bump by injecting microdroplets of a metal nano paste on each electrode, a primary bonding mechanism (50) that carries out primary bonding to the electrodes in a non-conductive state by pressing the bump of the semiconductor die (12) against the bump of the circuit board (19), and a secondary bonding mechanism (80) that carries out secondary bonding so that the electrodes become conductive by pressurizing the primary bonded bump in bonding direction and by heating the bump to pressurize and sinter the metal nanoparticles in the bump. With this, it is possible to efficiently bond the electrodes with a simple and easy way while reducing a bonding load.

Abstract: The periphery of a mask (3) is formed higher than a region where a ball holding hole (3a) is formed, a work (1) is arranged at a lower section of the ball holding hole (3a) of the mask (3), and the ball holding hole (3a) and an electrode of the work (1) are aligned with each other. A ball (B) is applied on the mask (3), and in such state, vibration is applied to the mask (3) to move the solder ball (B) on the surface of the mask (3) and drop the solder ball (B) into the ball holding hole (3a). The periphery of the mask (3) is permitted to be lower than the ball holding hole (3a), and an excessive portion of the solder ball (B) is recovered from over the mask (3).

Abstract: The present invention relates to a ball capturing apparatus and method of capturing one ball from plural balls having the same size, and to a solder ball disposing apparatus and method of disposing a solder ball containing solder in a predetermined position on a circuit board, thereby reliably capturing one ball from the plural balls having the same size. The apparatus includes: a holding member 111 including a holding wall 111a air-tightly closing a space S that holds a plurality of balls B having the same size and in which a hole 1111 larger than a size of one ball and smaller than a size of two balls is formed in an upper part of the holding wall; blowup means 112 for blowing the balls B held in the holding member 111 upward; and capturing means 12 for capturing a ball B blown up by the blowup means 112 and reached the hole.

Abstract: A method for applying a solder to a substrate by positioning solder in a solid state, melting it and then impacting it against a substrate by the action of compressed gas. The method utilizes a holder having a capillary bore whose diameter, at the substrate end, has a contraction whose diameter (D2) is smaller than the diameter (D3) of the solder globule, an energy source connected to the capillary, and a compressed gas source connected to the capillary.

Abstract: A semi-automatic brazing apparatus having a brazing wire feeding apparatus containing a brazing wire feed mechanism a controller, and a user input device. The brazing wire from a brazing wire source is continuously drawn from the source through the apparatus via the feeding mechanism and is directed towards a brazing gun for a semi-automatic brazing operation.

Abstract: An annealed platinum free air ball is bonded to a first contact and to a second contact. The bonding work hardens the platinum so that a work hardened platinum ball is resistant to temperature induced creep.

Abstract: An apparatus for interconnecting two connection pads in a head-gimbal assembly. The apparatus includes a conveyer for conveying a metallic slug, and a nozzle for ejecting the metallic slug toward the two connection pads. The nozzle includes a receiving portion for receiving the metallic slug from the conveyer, and a straight guide disposed downstream of the receiving portion. The straight guide has a maximum inner diameter that is smaller than a minimum inner diameter of the receiving portion. The apparatus also includes a laser for applying a laser beam from an inlet side of the nozzle to the metallic slug as the metallic slug passes along a path that includes a first portion through said straight guide and a second portion between the straight guide and the two connection pads. The laser is configured to melt the metallic slug for attaching the metallic slug to the two connection pads.

Abstract: Solder bumps formed on an electrode portion of a semiconductor chip are recently miniaturized, and when printing by using solder balls, the solder balls are also miniaturized. Therefore, it is required to print solder balls for printing with accuracy. Instead of a conventional squeegee, a solder ball loading member including a plurality of semi-spiral wire rods is provided at a print head portion for printing solder balls, and by pressing the solder ball loading member to a mask surface with a predetermined pressing force, turning forces of the solder balls are added by spaces formed by the wire rods. Accordingly, the solder balls are moderately dispersed, and are squeezed into an opening portion of the mask.

Abstract: A method and device for depositing a solder mass within a plated opening that is formed in a side edge of an electronic device includes the steps of carrying the solder mass in a carrier device and orienting the carrier device with respect to the side edge such that the solder mass is aligned with the plated opening. The method further includes reflowing the solder mass to cause the solder mass to be deposited and securely held within the plated opening and then removing the carrier device leaving the solder mass behind within the plated opening and along the side edge of the electronic device.

Abstract: A device for mounting an array of solder balls to a plurality of substrates of integrated circuits, comprising: a first plate for receiving a first substrate in a loading position; said first plate adapted to translate laterally from a substrate loading position to a flux receiving position; said first plate further adapted to rotate 180° from the substrate loading position to a such that the first plate is in a solder ball receiving position, and; mounting solder balls to the first plate.

Abstract: A minute ball array apparatus includes: an array jig including insert parts, into which minute balls are to be inserted, and which are formed in a predetermined pattern; a ball moving unit, which comprises a thrust surface, and which moves the thrust surface along an upper surface of the array jig so as to move the minute balls supplied onto the upper surface of the array jig to drop the minute balls into the insert parts of the array jig; a collapsing member, which is provided in a vicinity of the thrust surface, and which collapses a buildup of the minute balls rising along the thrust surface when the thrust surface is moved by the ball moving unit; and a motion imparting unit that imparts the collapse member with motion for collapsing the rising buildup of the minute balls.

Abstract: A ball array mask includes: a metal mask, which includes through holes into which minute balls are inserted, and which is positioned at a location above an object to be mounted; a hollow frame; a stretchable sheet, edges of the metal mask being affixed to the hollow frame by the stretchable sheet; and projection members that are attached to respective corners of the metal mask so as to pull the metal mask outwardly.

Abstract: A fabrication method and structure for a PCBA, and tool for assembly of the structure. The structure includes a circuit board, at least one first solder joint, a plurality of second solder joints, and an electronic device. The circuit board has a solder mask, having a plurality of openings exposing at least one first pad and a plurality of second pads arranged beyond the first pad, on a surface. The first solder joint has a maximum width J1 and electrically connects to the first pad. The second solder joints respectively have a maximum width J2 exceeding J1 and respectively electrically connect to the second pads. The electronic device has a plurality of third pads, arranged substantially corresponding to the openings, respectively electrically connecting to the first pad and second pads.

Abstract: A method for electrically connecting disk drive suspension assembly elements including positioning a first component having a first terminal with an edge adjacent to a second component having a second terminal and applying solder to form a solder joint over the edge of the first terminal and onto the second terminal. Heat to melt the solder is provided from a source that is physically remote from the components.

Abstract: Some embodiments include an apparatus comprising a spray head to spray a substrate, the substrate having a region to be sprayed and a region to be masked, the two regions separated by a boundary, and a mask having channels, the mask located between the spray head and the substrate. In an embodiment, the mask further has a lip to prevent flux overspray from falling onto a substrate below. In an embodiment, flux overspray removal is assisted with a vacuum system. Other embodiments are described and claimed.

Abstract: A mask (stencil) having cells (openings) is disposed on a surface of a heater stage, and is then filled (printed) with solder paste. Then a substrate is assembled to the opposite side of the mask. Then the solder paste is reflowed. This may be done partially inverted. Then the mask is separated from the substrate, either before or after cooling. Solder balls are thus formed on the substrate, which may be a semiconductor wafer. A biased chuck urges the substrate into intimate contact with the mask. A method for printing the mask with solder paste is described. Methods of forming high aspect ratio solder bumps (including balls and reflowable interconnect structures) are described.

Abstract: A solder ball mounting method includes a step of providing a flux on electrodes of a substrate, a step of arranging a plurality of solder ball mounting masks in which ball feeding openings are formed in positions opposing to the electrodes and opening areas of the ball feeding openings are set to increase toward an upper layer on the substrate, a step of mounting solder balls on the electrodes by feeding the solder balls into the ball feeding openings while moving the solder ball mounting mask as an upper layer in a surface direction of the substrate, a step of removing the solder ball mounting masks from the substrate, and a step of joining the solder balls to the electrodes.

Abstract: A method of attaching solder balls to a BGA package using a ball pickup tool is disclosed. An array of solder balls is formed on a first substrate for interconnecting with conductive sites on another substrate. The ball pickup tool picks up solder balls with a vacuum suction from a fluidized ball reservoir and utilizes a puff of gas to release the solder ball(s) carried thereon to conductive sites of a substrate for bonding thereto. In another embodiment, the bond pads of a substrate are coated with a flux or adhesive and lowered into a fluidized ball reservoir for direct attachment of solder balls.

Abstract: Methods and apparatus to improve flux spray atomization and/or splash control are described. In one embodiment, a flux nozzle includes a plurality of injection holes to deposit flux fluid through an exit hole of an air cap onto a substrate (such as a printed circuit board). The flux fluid may atomize prior to deposition onto the substrate as relatively smaller broken down flux droplets that may aid reduced spray splash. Other embodiments are also described.

Abstract: System for placing conductive spheres on prefluxed bond pads of a substrate using a stencil plate with a pattern of through-holes positioned over the bond pads. Conductive spheres are placed in the through-holes by a moving feed mechanism and the spheres drop through the through-holes onto the bond pads. In one embodiment, the feed mechanism is a sphere hopper which crosses the entire through-hole pattern. In another embodiment, a shuttle plate fed spheres from a reservoir and reversibly moves about one-half of the pitch, moving from a non-discharge position to a discharge position.

Abstract: A solder ball loading method capable of securely loading solder balls on connection pads includes applying flux on each connection pad group of a printed wiring board flux is not applied to a contact portion between a spacer and the printed wiring board to keep the flux from attaching to the spacer. Because the flux is not attached to the spacer, when the mask is detached from the printed wiring board, the printed wiring board need not be inverted, and damage to the solder resist layer 70 is minimized. Further, the heights of the solder balls and the upper surface of the mask are made equal by using the spacer, making it possible to securely load the solder balls on the electrode pads, one solder ball for each connection pad, and to reduce a probability that solder balls are not loaded or that a plurality of the solder balls are loaded onto a single connection pad.

Abstract: A leveling-bonding method and an apparatus for performing the same are provided. The method includes providing a bond support for supporting a wafer; providing a bond head over the bond support; dispatching a foil over the wafer; placing the wafer on the bond support; and using the bond support and the bond head to apply a force on the foil and the wafer.

Abstract: A wiring board includes an insulating layer having a plurality of through holes formed therein, a base substrate layer positioned below the insulating layer, and a plurality of electrodes disposed on the base substrate layer, each electrode having an exposed surface exposed from a respective through hole, each exposed surfaces being coated with a flux. A plurality of solder balls are disposed on the fluxes in the through holes, respectively. An apparatus for mounting the solder balls on the plurality of electrodes includes: a solder ball removing unit configured to remove a first plurality of solder balls located other than in the through holes; and a solder ball pressing unit configured to press a second plurality of solder balls individually disposed in the through holes towards respective electrodes and into respective flux.

Abstract: An improved placing method and placing apparatus are provided for placing conductive balls in a predetermined pattern onto a base unit. In the placing method for placing balls having conductivity in a predetermined pattern onto one surface of the base unit, an arrangement member has one surface, another surface opposite to the one surface of the arrangement member and positioning openings, wherein the positioning openings are arranged corresponding to the pattern such that the openings are through from the one surface to the another surfaces of the arrangement member so that the balls are inserted therein. The another surface of the arrangement member is positioned opposite to the one surface of the base unit. The arrangement member has two or more line members of which the core axes are substantially aligned.

Abstract: A conductive ball arraying apparatus includes an arraying jig including conductive ball insertion parts in a predetermined array pattern, a ball cup that has an opening formed in a bottom surface thereof and is capable of housing a plurality of conductive balls along with the arraying jig, moving means that moves the arraying jig and the ball cup relatively, the moving means moving the ball cup relatively along a top surface of the arraying jig and dropping off the conductive balls into the ball insertion parts of the arraying jig, floating means that floats the ball cup from the arraying jig, and vibrating means that vibrates the ball cup. The moving means moves the ball cup relatively along the top surface of the arraying jig while floating the ball cup from the arraying jig and vibrating the ball cup.

Abstract: There is provided a conductive ball mounting apparatus for mounting one conductive ball on each of a plurality of connection pads formed on a substrate. The conductive ball mounting apparatus includes: an outer frame; an inner cylinder provided in the outer frame, wherein an upper surface and a lower surface of the inner cylinder are opened; a sieve provided in the inner cylinder, wherein the inner cylinder is partitioned into an upper space and a lower space by the sieve; an inlet port for supplying an air from an outside to the lower space of the inner cylinder; a mask provided to a lower end of the outer frame and having openings, the openings being provided to correspond to conductive ball mounting positions; and an exhaust port for exhausting an air from an upper surface of the mask to the outside and being provided to the lower end of the outer frame, wherein the inner cylinder is adapted to vibrate without being restricted by the outer frame.

Abstract: A system for restoring a metal component with a brazing alloy, the system comprising an induction coil configured to extend around a portion of the metal component and at least a portion of the brazing alloy, a motion assembly configured to cause relative movement between the metal component and the induction coil along a first axis, and a heat exchanger assembly supported by the motion assembly and configured to form a thermal gradient along the metal component in a direction along the first axis.

Abstract: A modular portable welding wire feeder housed in a easily removable and interchangeable housing. The wire feeder includes a wire feeding module conveniently mounted inside of the housing. The housing is configured so that it may easily be removed from the wire feeing module, thereby allowing the housing to be easily replaced or exchanged as needed by the user.

Abstract: A mask (stencil) having cells (openings) is disposed on a surface of a heater stage, and is then filled (printed) with solder paste. Then a substrate is assembled to the opposite side of the mask. Then the solder paste is reflowed. This may be done partially inverted. Then the mask is separated from the substrate, either before or after cooling. Solder balls are thus formed on the substrate, which may be a semiconductor wafer. A biased chuck urges the substrate into intimate contact with the mask. A method for printing the mask with solder paste is described. Methods of forming high aspect ratio solder bumps (including balls and reflowable interconnect structures) are described.

Abstract: A conductive ball mounting method of the present invention, includes a step of, arranging a mask in which an opening portion is provided, on a substrate including a connection pad, arranging a conductive ball on the connection pad through the opening portion of the mask by supplying the conductive ball onto the mask, separating the substrate and the mask, in the step, an extra conductive ball left on the mask drops through the opening portion of the mask, thereby a surplus ball is mounted on the substrate, and removing the surplus ball on the substrate by making the surplus ball adhere onto an adhering head.

Abstract: In a method of removing conductive balls that are left on a mask provided on a substrate having pads thereon, the method includes: (a) making a sheet member close to the mask using a contacting mechanism such that a gap between the sheet member and the mask is set small than a diameter of the conductive balls. The conductive balls are removed in such a manner that the conductive balls are adhered onto the sheet member.

Abstract: A ball attaching apparatus for respectively attaching solder balls onto a plurality of ball lands of a material which has mold caps formed between the ball lands. The apparatus includes an indexer on which the material is seated and fixed; a holder located above the indexer such that it can be raised and lowered; an attachment plate installed on a lower surface of the holder, having projections at positions corresponding to the mold caps of the material, and defined with grooves at positions corresponding to the ball lands of the material, in which the solder balls are placed; and eject pins arranged in the respective grooves of the attachment plate for conveying and dropping the solder balls through introduction and removal of vacuum.

Abstract: A solder ball mounting device that can mount minute solder balls with a diameter of 200 ?m or less onto a connection pad. The solder ball mounting device can mount solder balls to be solder bumps on a printed circuit board using a mask having a plurality of openings corresponding to electrodes of a printed circuit board. The device includes a cylindrical member, which is positioned above the mask for arraying solder balls, for gathering solder balls immediately below the openings by sucking in air from the openings. A movement mechanism is for moving the cylindrical member horizontally relative to the mask for arraying solder balls, wherein solder balls gathered on the mask for arraying solder balls are moved by moving the cylindrical member and are then dropped on electrodes of the printed circuit board via openings of the mask for arraying solder balls.

Abstract: The invention provides apparatus, systems, and methods for positioning solder balls in a desired arrangement on a surface. In preferred embodiments of the invention, a vacuum head body is configured to direct a vacuum force through a vacuum chamber wherein a permeable vacuum plate encloses the vacuum chamber. A stencil adjacent to the vacuum plate includes solder ball niches configured to capture solder balls. The vacuum head may be used to pick up solder balls within the solder ball niches by way of vacuum force, and may be caused to release the solder balls from the solder ball niches by relaxing the vacuum force. According to particular preferred embodiments, the permeable vacuum plate is a porous metallic plate, such as a plate of sintered metal. Preferred embodiments also disclose interchangeable stencils for use with the permeable vacuum plate.

Abstract: A solder ball loading unit for loading a solder balls to be turned to a solder bumps on a connection pad of a printed wiring board, including a ball arranging mask having a plurality of openings corresponding to the connection pad of the printed wiring board, a cylinder member located above the ball arranging mask for gathering the solder balls just below the opening portion by sucking air from the opening portion, and a moving mechanism for moving the cylinder member in the horizontal direction, the moving mechanism moving the solder balls gathered on the ball arranging mask by moving the cylinder member and dropping the solder balls onto the connection pads of the printed wiring board through the opening in the ball arranging mask.

Abstract: A method for forming bumps 19 on electrodes 32 of a wiring board 31 includes the steps of: (a) supplying a fluid 14 containing conductive particles 16 and a gas bubble generating agent onto a first region 17 including the electrodes 32 on the wiring board 31; (b) disposing a substrate 40 having a wall surface 45 formed near the electrodes 32 for forming a meniscus 55 of the fluid 14, so that the substrate 40 faces the wiring board 31; and (c) heating the fluid 14 to generate gas bubbles 30 from the gas bubble generating agent contained in the fluid 14.

Abstract: A method and apparatus are disclosed for placing solder spheres on electronic receiving pads of a ball grid array (BGA) component package, such as by a BGA solder sphere placement apparatus. The solder spheres are held to a pattern of solder sphere apertures in a foil and against a solder sphere backing rib of a second layer by a vacuum holding force. After locating the solder spheres to receiving pads of a BGA component package, the system removes the holding force and the solder spheres are then released and placed on the receiving pads. Optionally, the apparatus can ensure release of the solder spheres as well as seating the solder spheres onto the receiving pads by applying a tapping or vibrational force.

Abstract: A method of mounting a conductive ball according to the present invention includes the steps of, disposing a mask on a substrate including connection pads, the mask having opening portions corresponding to the connection pad, supplying conductive balls on the mask, arranging the conductive balls on the connection pad of the substrate through the opening portions of the mask by moving the conductive balls to one end side of the mask by ball moving member (a brush), and removing excess conductive balls remaining on a region of the mask where the opening portions are provided, by bonding the excess conductive balls to a ball removal film (adhesive film).

Abstract: An apparatus for arranging magnetic solder balls includes: a stage for placing and fixing the substrate thereon; a magnet which is incorporated in the stage and is movable in parallel with a lower surface of the placed and fixed substrate so as to cause a magnetic force to act in an upward direction of the stage; and a mask frame capable of being positioned above the stage. An arranging method using this arranging apparatus is also provided. An apparatus for arranging magnetic solder balls includes: a stage for placing and fixing the substrate thereon; a mask frame capable of being positioned above the stage; and a magnetic generator which is movable above the mask frame and causes a magnetic force to act on the stage. An arranging method using this arranging apparatus is also provided.

Abstract: A method for producing a solder circuit board includes imparting tackiness to a surface of a conductive circuit electrode provided on a printed wiring board to form a tackiness-imparted area. depositing solder powder on the tackiness-imparted area and heating the printed wiring board so as to melt the solder to thereby form a solder circuit. The solder powder is placed in a vessel. The printed wiring board having the electrode whose surface has been imparted with tackiness is placed in the vessel. The vessel is tilted to thereby deposit the solder powder on the tackiness-imparted area.

Abstract: A solder mold for transferring solder to a wafer includes a substrate, a plurality of solder cavities for holding solder, and a plurality of ventilation channels formed between the plurality of solder cavities.

Abstract: A solder ball loading apparatus for loading solder balls onto pads of a printed wiring board includes a holding device for holding a printed wiring board having pads and holding a ball array mask having of openings that correspond to pads of the printed wiring board, one or more cylinder members positioned over the holding device such that an opening portion of the cylinder member faces the holding device, the cylinder member gathering solder balls on the surface of the ball array mask under the cylinder member by suctioning air through the opening portion of the cylinder member, and a conveyor mechanism for moving the ball array mask and the printed wiring board relative to the cylinder member such that solder balls gathered under the opening portion of the cylinder member can be loaded onto the pads of the printed wiring board through the openings of the ball array mask held by the holding device.

Abstract: There is provided a conductive ball mounting apparatus. The conductive ball mounting apparatus includes: a conductive ball mounting mask disposed to oppose a substrate having a plurality of pads coated with an adhesive flux, the conductive ball mounting mask having a plurality of ball mounting through holes for mounting each of conductive balls on each of the plurality of pads, the plurality of ball mounting through holes being arranged to oppose to the plurality of pads; and a conductive ball supplying unit for moving or removing the conductive balls on the conductive ball mounting mask by sucking an air on an upper surface side of the conductive ball mounting mask. The conductive ball mounting mask includes through portions formed to block passing of the conductive balls.

Abstract: A device for loading electro-conductive ball onto the terminal regions of a substrate more correctly and reliably is disclosed. Micro-ball loading device (200) may have the following parts: backing plate (220) supporting substrate (100) such that plural terminal regions (108) formed on one surface of substrate (100) are free, transfer mask (210), which contains a metal mask and has plural through-holes (216) formed corresponding to plural terminal regions (108) of the substrate, fixing block (230) onto which end portions (210a) of the transfer mask are fixed such that transfer mask (210) faces one surface of the substrate, and magnet part (240), which attaches transfer mask (210) by magnetic force to the side of backing plate (220); for magnet part (240), the attachment force to the center portion of the substrate is less than that of the peripheral edge portion.

Abstract: A method for manually reattaching solder balls onto a plurality of contact areas arranged in a pattern on a device to be reballed is provided. First, a single use preform with a plurality of solder balls arranged in a pattern corresponding to the pattern of contact areas on the device is provided. The solder balls are held in respective apertures in the preform by an adhesive layer on the preform that defines a closed end of the apertures and are partially exposed on one side of the preform. A solder paste or paste flux is applied to, at least, the contact areas of the device. The device is manually aligned with the exposed solder balls of the preform and the device and the exposed balls of the preform are manually brought into contact. The aligned device and preform are heated to reflow the solder balls onto the land areas of the device. The preform including the adhesive layer is then removed from the device with the solder balls being retained on the device.

Abstract: Method and device for transferring a solder deposit configuration having multiple solder deposits onto a terminal surface configuration of a contact surface of a substrate (36) using a removal of multiple solder deposits from a solder deposit reservoir (25) accommodated in a solder deposit receptacle unit (11) via an isolation unit (12), which is implemented like a template and is situated above the solder deposit reservoir, to implement the solder deposit configuration implemented corresponding to the terminal surface configuration, and using a subsequent transfer of the solder deposit configuration onto the terminal surface configuration of the substrate, the solder deposit reservoir being impinged by partial vacuum through template openings (15) of the isolation unit to transfer the solder deposits from the solder deposit reservoir into the isolation unit, the solder deposit reservoir (25) being ventilated via a floor wall (20) situated diametrically opposite the isolation unit during the partial vacuum im

Abstract: A conductive ball arraying apparatus includes an arraying jig including conductive ball insertion parts in a predetermined array pattern, a ball cup that has an opening formed in a bottom surface thereof and is capable of housing a plurality of conductive balls along with the arraying jig, moving means that moves the arraying jig and the ball cup relatively, the moving means moving the ball cup relatively along a top surface of the arraying jig and dropping off the conductive balls into the ball insertion parts of the arraying jig, floating means that floats the ball cup from the arraying jig, and vibrating means that vibrates the ball cup. The moving means moves the ball cup relatively along the top surface of the arraying jig while floating the ball cup from the arraying jig and vibrating the ball cup.

Abstract: In a method and apparatus for dispensing solder balls, a container having an opening for dispensing solder balls is positioned to enable a flow of the solder balls through the opening. The solder balls have a common configurable solder ball diameter. A proximal opening of a tube is coupled to the opening of the container. A distal opening of the tube is coupled to a nozzle. The nozzle has a nozzle orifice that is configured in accordance with the solder ball diameter to dispense the solder balls into a ball bin. A hopper vibrator is coupled to the nozzle to impart vibration energy to the nozzle, thereby providing a stimulus to the flow. A tool head picks selected ones of the solder balls from the ball bin for an assembly of a semiconductor device.

Abstract: A select solder machine configured to solder a circuit board using a solder material. The select solder machine includes a solder head movable with respect to the circuit board. The solder head is configured to position the solder material with respect to the circuit board to solder the circuit board. The select solder machine further includes a support member configured to support the circuit board in a position adjacent the solder head, and a heating member configured to heat the circuit board. The heating member is located above the circuit board.