JP2018157063A - Ion supply device and mounting machine - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an ion supply device capable of supplying ions from a side of a component tape held by a tape feeder.SOLUTION: An ion supply device can be mounted in a groove portion of a feeder holding device for holding a tape feeder. In the feeder holding device, the tape feeder is mounted, and the ion supply device is mounted. Therefore, the ion supply device can supply ions from a side to a component tape of the tape feeder.SELECTED DRAWING: Figure 13

Description

  The present invention relates to an ion supply device capable of supplying ions toward a component tape of a tape feeder, and a mounting machine capable of mounting the ion supply device.

  Patent Document 1 describes a static eliminator that injects air containing ions to a peeling portion of a top film of a tape feeder. The static eliminator is provided obliquely above the tape feeder and supplies air containing ions to the tape feeder from obliquely above. Patent Document 2 describes a static eliminator attached to a ceiling portion of a mounting machine. The static eliminator supplies air containing ions to the tape feeder from above.

JP 2001-36287 JP Japanese Patent Laid-Open No. 2002-232189

  The subject of this invention is providing the ion supply apparatus which can supply ion from the side to the component tape of a tape feeder.

Means, actions and effects for solving the problem

  The ion supply device according to the present invention can be mounted on a feeder holding device that holds a tape feeder. The feeder holding device is equipped with a tape feeder and an ion supply device. Therefore, the ion supply device can supply ions from the side to the component tape of the tape feeder.

It is a perspective view of the mounting machine which concerns on Example 1 of this invention. The mounting machine is equipped with the ion supply device according to the first embodiment of the present invention. It is a perspective view of the feeder holding | maintenance apparatus contained in the said mounting machine. It is a front view showing the inside of the tape feeder hold | maintained at the said feeder holding | maintenance apparatus. It is a perspective view (part) of the said tape feeder. It is a top view (part) of the said tape feeder. It is a front view (conceptual figure) showing the inside of the said ion supply apparatus. It is a top view (conceptual figure) showing the inside of the said ion supply apparatus. It is a perspective view (conceptual diagram) showing the ion emission part contained in the said ion supply apparatus. It is a block diagram which shows notionally the control apparatus of the said mounting machine. It is a flowchart showing the arrangement | positioning determination program memorize | stored in the memory | storage part of the said control apparatus. It is a flowchart showing the ion emission part movement program memorize | stored in the memory | storage part of the said control apparatus. It is a figure (plan view of a feeder holding device) for explaining the rules of arrangement used in the execution of the arrangement determining program. It is a figure which shows an example of the arrangement | positioning determined by execution of the said arrangement | positioning determination program (plan view of a feeder holding | maintenance apparatus). It is a top view (conceptual figure) showing the inside of the ion emission apparatus which concerns on Example 2 of this invention. It is a figure which shows an example of the arrangement | positioning determined by execution of the said arrangement | positioning determination program (plan view of a feeder holding | maintenance apparatus).

Embodiment of the Invention

  Hereinafter, a mounting machine according to an embodiment of the present invention will be described in detail with reference to the drawings. The mounting machine can be equipped with an ion supply apparatus according to an embodiment of the present invention.

The mounting machine shown in FIG. 1 mounts components on a circuit board, and includes a mounting machine body 2, a circuit board transport holding device 4, a component supply device 6, a head moving device 8, and the like.
The circuit board transport and holding device 4 transports and holds a circuit board F (hereinafter abbreviated as “substrate F”) in a horizontal posture. In FIG. The width direction is the y direction, and the thickness direction of the substrate F is the z direction. The y direction and the z direction are the front-rear direction and the vertical direction of the mounting machine, respectively. The component supply device 6 supplies electronic components (hereinafter abbreviated as components) s to be mounted on the board F, and includes a plurality of tape feeders (hereinafter sometimes simply referred to as feeders) 14 and the like. The head moving device 8 holds the mounting head 10 and moves it in the x, y, and z directions. The mounting head 10 includes a suction nozzle 12 that sucks and holds the component s.

  In the component supply device 6, the plurality of feeders 14 are held on a feeder holding table 16 as a feeder holding device, as shown in FIG. 2. The feeder holding table 16 is attached to the mounting machine body 2 and includes a holding base 18 for holding the feeder 14 and a positioning plate 20 for positioning the feeder 14. The holding base 18 is provided with a plurality of holding grooves 18a extending in parallel to each other and an engaging groove 18b extending in a direction perpendicular to the holding grooves 18a. The positioning plate 20 is provided with two positioning recesses 22a and 22b corresponding to each of the holding grooves 18a and a connector connecting portion 22n. The feeder holding table 16 is attached to the mounting machine main body 2 with the holding groove 18a extending in the y direction.

  As shown in FIG. 3, the feeder 14 includes a feeder body 24 having a longitudinal shape, and two positioning protrusions 26 a and 26 b and a connector 26 n are provided on the end surface of the feeder body 24 in the longitudinal direction. The feeder 14 is held in the holding groove 18a in such a posture that the positioning protrusions 26a and 26b are fitted in the positioning recesses 22a and 22b of the feeder holding table 16 and the connector 26n is fitted in the connector connecting portion 22n. Further, the engaging protrusion 27 is moved to the protruding position and is engaged with the engaging groove 18b. As a result, the feeder 14 is attached to the mounting machine body 2 in a posture in which the longitudinal direction of the feeder body 24 is the y direction. In addition, the feeder 14 and the feeder holding table 16 are electrically connected by the connection between the connector 26n of the feeder 14 and the connector connecting portion 22n of the feeder holding base 16, and the power supply provided in the feeder 14 and the mounting machine. The unit 30 (see FIG. 9) is electrically connected.

The feeder 14 includes a substrate 38 provided with the feeder main body 24, a feeding device 32, a peeling device 36, a feeder-side control unit 37 (see FIG. 9), and the like. 4 is supplied to the component supply position P1 shown in FIG.
The component tape 40 is a tape holding a plurality of components s, and includes a carrier tape 42, a top tape 44, one or more components s held on the carrier tape 42, as shown in FIG. The carrier tape 42 includes a large number of recesses 45 arranged in the longitudinal direction and capable of holding the component s, and guided portions 46 and 47 positioned on both sides of the recesses 45. The guided portion 47 is formed with a large number of feed holes 48 arranged at equal intervals in the longitudinal direction. The top tape 44 covers the openings of the numerous recesses 45 and prevents the component s from jumping out. The component tape 40 is fed along the guide portion 50 in the direction indicated by the arrow G in FIG.

  As shown in FIG. 3, the feeder 32 includes a sprocket 60 provided on the feeder main body 24 so as to be rotatable around a rotation shaft extending in the width direction, an electric motor 62 as a drive source, and an output of the electric motor 62. A rotation transmission device that transmits the rotation of the shaft to the sprocket 60 is included. The sprocket 60 includes a plurality of protrusions 65 that engage with the feed holes 48 of the component tape 42 on the outer peripheral surface thereof, and the component tape 40 is rotated by one pitch by the sprocket 60 being rotated by a set angle by the electric motor 62. The components s are sent one by one to the component supply position P1.

  The peeling device 36 peels the top tape 44 and is driven by an electric motor 62 as a driving source of the feeding device 32. The top tape 44 is peeled off from the carrier tape 42 at the edge 72 (peeling position P2) of the cover part 70, fed in synchronization with the feeding of the component tape 40, and stored in a tape pool (not shown) provided in the mounting machine. The downstream side of the peeling position P2 is the component supply position P1.

  In this embodiment, an ionizer 80 as an ion supply device shown in FIGS. 6 and 7 is mounted on the feeder holding table 16 together with the feeder 14 and held. The ionizer 80 supplies ions to the component tape 40 of the feeder 14 from the side. The ionizer 80 includes a main body 82 that can be engaged with the groove 18 a of the feeder holding table 16, an ion emission portion 84 that emits ions, and a moving device 86 that moves the ion emission portion 84 in the longitudinal direction (y direction) of the main body 82. A rotating device 88 that rotates the ion emitting unit 84 in both forward and reverse directions around the vertical axis (z axis) by 180 °, a high voltage generating unit 90 that generates a high voltage, and an ionizer side control unit 91 (see FIG. 9) and the like.

  Two positioning protrusions 82a and 82b and a connector 82n are provided on the end face of the main body 82 in the longitudinal direction. In the ionizer 80, the positioning projections 82a and 82b are fitted into the positioning recesses 22a and 22b of the feeder holding table 16, the connector 82n is fitted into the connector connection portion 22n, and the engagement projection 94 is engaged with the engagement groove 18b. In such a state, it is held in the holding groove 18a of the feeder holding table 16 and mounted on the mounting machine. In this state, the ionizer 80 is electrically connected to the power feeding unit 30 of the mounting machine.

  The moving device 86 includes an electric motor 96, a slider 100, a screw mechanism 98 that converts the rotation of the electric motor 96 into a linear motion and moves the slider 100, a pair of guide members that extend in the y direction and are engaged with the slider 100. 102, 103 and the like. The rotating device 88 is an electric motor provided on the slider 100 in a posture in which an output shaft extends in the z direction. A rotating plate 106 is attached to the output shaft of the electric motor 88, and an ion emitter 84 is attached to the rotating plate 106. In the present embodiment, the ion emitter 84 is movable in the y direction and rotatable about the z axis.

As shown in FIG. 8, the ion emission unit 84 includes an electrode 110, a first holding member 112 that holds the electrode 110 from below, and a second holding member 114 that holds the electrode 110 from the back. The electrode 110 has a quadrangular pyramid shape with a pointed end 110 s opposite to the back surface, and is connected to the high voltage generating unit 90 via a high voltage line 118. The first holding member 112 and the second holding member 114 are made of an insulating material. When a high voltage is supplied to the electrode 110, for example, corona discharge occurs, and ions are generated from the tip 110s. Is released. In the present embodiment, the ion emitter 84 is rotated in both forward and reverse directions by the electric motor 88, and the tip 110s is switched between a position facing right and a position facing left in FIG. Hereinafter, the direction of the distal end portion 110s may be referred to as the direction of the ion emitting portion 84.
The ionizer 80 is provided with a switch 122. The switch 122 can switch ON / OFF of the power supply from the power supply unit 30.

  In this embodiment, as shown in FIG. 6, the height Hi from the bottom surface of the main body 82 of the ionizer 80 to the tip 110s of the ion emitting portion 84, and the main body 24 of the feeder 14 as shown in FIG. The height Hf from the bottom surface to the guide surface of the guide portion 50 to which the component tape 40 is moved is substantially the same, or the height Hi is slightly higher than the height Hf. Therefore, it is possible to satisfactorily supply the ions released from the ion emitting portion 84 to the component tape 40 that is moved along the guide surface.

  This mounting machine is provided with a main control device 200 as shown in FIG. The main control device 200 is mainly configured by a computer having an execution unit, a storage unit, and an input / output unit. The input / output unit includes various sensors (not shown) provided in the mounting machine. ) And the like, and various actuators included in the substrate transport and holding device 4, the head moving device 8, etc., the feeder side control unit 37, the ionizer side control unit 91, etc. included in the feeder 14, the ionizer 80, etc. are connected. The The feeder-side control unit 37 and the ionizer-side control unit 91 are mainly computers, and control actuators and the like included in the feeder 14 and the ionizer 80 based on commands from the control device 200.

  In the mounting machine configured as described above, (A) the arrangement of the plurality of feeders 14 mounted on the feeder holding table 16 and the ionizer 80 is determined by the control device 200. Further, (B) in the ionizer 80 mounted on the feeder holding table 16, the position and direction of the ion emitting portion 84 in the longitudinal direction are controlled based on a command from the control device 200.

  (A) The arrangement of the feeder 14 and the ionizer 80 represents job information (work plan information) (feeder 14 type determined by the size of the part s used for the mounting work, the number of feeders 14, and the number of parts used). Information and the like), information input by the user (hereinafter sometimes referred to as user information), predetermined rules, and the like.

  In order to make it difficult for parts to be cut, it is desirable that a large number of feeders 14 be mounted on the feeder holding table 16, and it is desirable that fewer ionizers 80 be mounted. However, since the component s is held and moved by the component tape 40, it is often charged by static electricity. Therefore, when the top tape 44 is peeled off in the feeder 14, the component s sticks to the top tape 44, or the component s tilts when the component s is picked up by the suction nozzle 12 ( These problems may be referred to as adsorption errors or may be referred to as adverse effects due to static electricity). In order to solve these problems, it is desirable to mount many ionizers 80 on the feeder holding table 16.

On the other hand, the susceptibility to static electricity varies depending on the characteristics and size of the component s. In general, it is known that a component s having a characteristic of being easily charged and a component s having a small weight are more susceptible to static electricity than a component s having a characteristic that is difficult to be charged and a component s having a large weight. In general, the size of the weight corresponds to the size. For this reason, it is desirable that ions are more reliably supplied to the feeder 14 that supplies the component s that is easily affected by static electricity. On the other hand, it is not necessary to supply ions to the feeder 14 that supplies the parts s that are not easily affected by static electricity.
Based on the above circumstances, rules for determining the arrangement of the feeder 14 and the ionizer 80 can be determined. Hereinafter, although an example of a rule is explained, the following rule is an example to the last, and is not limited to it. In the present embodiment, the position of the ion emitter 84 corresponds to the position of the ionizer 80.

  For example, as shown in FIG. 12, (1) the part s supplied by the feeder 14 has a size “0603” as the first size (the vertical and horizontal dimensions of the part that is a square chip is 0.6 mm; 3 mm), the ion emitter 84 is positioned adjacent to the feeder 14a that supplies the component s (first rule).

  (2) When the part s supplied by the feeder 14 is not less than the first size “0603” and smaller than the second size “1005” (vertical and horizontal dimensions are 1.0 mm and 0.5 mm) If the number of feeders 14b for supplying the parts s is 5 or less, it is allowed to line up adjacent to each other. When three or more feeders 14b are arranged adjacent to each other, one ion emitter 84 is positioned one by one adjacent to the feeders 14b on both sides (second rule). Even when five feeders 14b are arranged adjacent to each other, ions can be satisfactorily supplied to all of the five feeders 14b by the ion emitter 84 located adjacent to the feeders 14b on both sides.

  (3) For the feeder 14c that supplies the component s of the second size “1005” or larger, the necessity of supplying ions is low. Therefore, it is assumed that the ion emitter 84 is not located adjacent to the feeder 14c (third rule). When an adsorption error occurs in the feeder 14c, or when the frequency of the adsorption error increases, the ionizer 80 is placed on the feeder holding table 16 so that the ion emission unit 84 is positioned adjacent to the feeder 14c. It can be installed. Hereinafter, when it is necessary to distinguish the feeder 14 based on the size of the component s held on the component tape 40, the feeder 14 is represented by feeders 14a, 14b, and 14c. Called.

In addition, for example, it is desirable that the feeder 14 for supplying the types of parts s that are used in large numbers is mounted at the center of the feeder holding table 16. Therefore, it is desirable to take this into consideration when determining the arrangement of the feeder 14.
Further, for example, when the user requests that the ion emitter 84 be positioned adjacent to the feeder 14c, the user may request that the number of feeders 14b arranged adjacent to each other be allowed up to seven. The user information representing the user request can be prioritized over the rules (1) to (3) described above when determining the arrangement of the feeder 14 and the ionizer 80.

The arrangement determination program shown in the flowchart of FIG. 10 is executed when a setup change is performed.
In step 1 (hereinafter abbreviated as S1, the same applies to other steps), job information is read. If information is input by a user in S2, the user information is read. In S3, based on the job information, the user information, the above rules (1) to (3), etc., the optimum arrangement which is a plurality of arrangements of the feeder 14 and the ionizer 80 is determined. Is output.

  (B) Further, the position and direction of the ion emitting portion 84 in each ionizer 80 in the longitudinal direction are controlled based on a command from the control device 200 after the feeder 14 and the ionizer 80 are mounted on the feeder holding table 16. The The control device 200 includes information related to the feeder 14 included in the job information or the feeder 14 that is mounted on the feeder holding table 16 and is read from the feeder 14 adjacent to the ionizer 80 (to which ions are supplied by the ionizer 80). Based on the information regarding, the information which represents the component supply position P1 in each feeder 14 is acquired. Then, the control device 200 outputs a control command for the electric motor 96 to the ionizer-side control unit 91 so that the ion emission unit 84 of each ionizer 80 is moved to a position corresponding to the component supply position P1 of the main body 82. To do. Further, the control device 200 instructs the ionizer-side controller 91 to control the electric motor 88 so that the tip 110s of the electrode 110 of the ion emitter 84 faces the feeder 14 to which the ion emitter 84 supplies ions. Is output. As described above, the electric motor 88 rotates the ion emitting portion 84 in both forward and reverse directions around the vertical axis (z axis) by 180 °. Therefore, in the ionizer 80, the tip portion 110s causes ions to flow. In the case where the feeder 14 to be supplied is facing, even if a control command for the electric motor 88 is issued, the direction of the ion emitting portion 84 does not change.

The ion emission part movement program represented by the flowchart of FIG. 11 is executed when a setup change is performed.
In S11, it is determined whether or not the feeder 14 and the ionizer 80 are mounted on the feeder holding table 16. If the determination is YES, information regarding the feeder 14 is acquired in S12, and a control command for the electric motor 96 is output to each ionizer-side controller 91 of the ionizer 80 in S13. Next, in S <b> 14, a control command for the electric motor 88 is output to each ionizer-side control unit 91 of the ionizer 80 in which the direction of the ion emission unit 84 is opposite.

For example, FIG. 13 shows an example of the determined arrangement of the feeder 14 and the ionizer 80 when user information indicating that the ion emitter 84 is positioned adjacent to the feeder 14c is input.
As shown in FIG. 13, with respect to the feeder 14a, the ion emitter 84 is located adjacent to each other, and five feeders 14b are arranged adjacent to each other, one by one adjacent to the feeders 14b on both sides thereof. The arrangement of the feeder 14 and the ionizer 80 is determined so that the ion emitter 84 is located and the feeder 14c is also located adjacent to the ion emitter 84. As a result, it is possible to supply ions to many feeders 14 while reducing the number of ionizers 80. Further, since the ion emitting portion 84 in the ionizer 80 and the component tape 40 in the feeder 14 are located at substantially the same height, the component s existing from the ion emitting portion 84 to the component supply position P1, and the carrier around the component s Ions can be supplied satisfactorily toward the tape 42, the top tape 44, and the like. As a result, adverse effects due to static electricity can be suppressed and adsorption errors can be made difficult to occur. Further, for example, in the ionizer 80 and the feeder 14 a arranged adjacent to each other, the distance between the ion emitting portion 84 and the component tape 40 is smaller than the width of the engaging groove 18 a of the feeder holding table 16. Therefore, ions can be favorably supplied from the ion emission part 84 to the component tape 40 from the side. In other words, since the ion emission part 84 is located in the vicinity of the component tape 40 of the feeder 14a, it is not necessary to use air to supply ions. As a result, it is possible to make it difficult to cause an adsorption error or the like while preventing the harmful effects caused by air such as the parts s being skipped. In addition, since the space | interval of the feeders 14b and 14c and the ion emission part 84 is also narrow, it cannot be overemphasized that the same effect is acquired.

In addition, as shown in FIG. 13, in each ionizer 80, the position in the longitudinal direction of the ion emitter 84 and the direction of the ion emitter 84 are controlled based on a command from the control device 200. As a result, it is possible to reduce the user's work when the setup change is performed.
Further, an ionizer 80 is mounted on the feeder holding table 16, and ions are supplied to the feeder 14. Therefore, there is an advantage that it is not necessary to use the feeder 14 as a feeder having an ion emitting portion, to provide an ionizer obliquely above the feeder 14, or to provide an ionizer on the ceiling portion of the mounting machine body.

  As described above, in this embodiment, the arrangement determining unit is configured by the part that stores S3 and the part that executes S3 of the control device 200, and the movement control unit is configured by the part that stores S12 and S13, the part that executes S12, and the like. Composed.

In the above embodiment, the electric motors 96 and 88 are provided in the ionizer 80. However, the electric motors 96 and 88 are not essential. The position in the longitudinal direction of the ion emitter 84 and the orientation of the tip 110s of the ion emitter 84 can be adjusted manually by the user. Further, the structure of the moving device 86 does not matter, such that the drive source of the moving device 86 can be a solenoid.
Moreover, in the said Example, although the ion discharge | release part 84 was moved to the position corresponding to the component supply position P1 of the feeder 14 of the main body 82, the ion discharge | release part 84 of the main body 82 is made. The feeder 14 may be moved to a position corresponding to a position between the peeling position P2 of the top tape 44 and the component supply position P1.

  Furthermore, in the above-described embodiment, the electric motors 96 and 88 are controlled based on the command of the control device 200. However, the ON / OFF of the switch 122 and the ions discharged from the ion emitter 84 are controlled. The ratio of plus and minus can be controlled. For example, when the ionizer 80 is mounted adjacent to the feeder 14 in advance and suction errors frequently occur in the mounting operation, for example, when the frequency of the suction errors exceeds the first set frequency, the switch 122 is turned on. When the suction error frequency is lower than the second setting frequency (smaller than the first setting frequency), the switch 122 can be turned off. Also, adverse effects due to static electricity are more likely to occur when the humidity is high than when the humidity is low. Therefore, the switch 122 can be turned on when the humidity is high, and can be turned off when the humidity is low. Furthermore, when the frequency of the adsorption error becomes equal to or higher than the first set frequency, the plus / minus ratio of ions emitted from the ion emitting unit 84 can be changed.

The ion supply device may be an ionizer 250 shown in FIG. The ionizer 250 includes a main body 252 extending in the longitudinal direction, two ion emission portions 254 and 255 provided with a gap in the width direction of the main body 252, and two pairs of guide members (256 a and b) extending in the y direction, (257a, b), sliders 258, 259 and the like engaged with these two pairs of guide members (256a, b), (257a, b), respectively. The ion emission portions 254 and 255 are attached to the sliders 258 and 259, respectively.
Further, the ion emission portions 254 and 255 have the same shape as the ion emission portion 84 shown in FIG. 8, and the electrodes 270 and 271 held by the holding member made of an insulating material are provided. Including. The electrodes 270 and 271 each have a pointed shape with tip portions 270s and 271s, and the tip portions 270s and 271s are opposite to each other as shown in FIG.

  Also in the present embodiment, when the ionizer 250 is used, the arrangement of the feeder 14 and the ion emission units 254 and 255 is determined according to the same rules and user information as in the first embodiment. In the present embodiment, the positions of the ion emission portions 254 and 255 correspond to the position of the ionizer 250. An example of the determined arrangement is shown in FIG. As shown in FIG. 15, in the present embodiment, even if the number of feeders 14a, 14b, and 14c held in the feeder holding table 16 is the same, the number of ionizers 250 is smaller than that in the first embodiment. In the present embodiment, the position of the ion emitting portions 254 and 256 in the longitudinal direction of each of the ionizers 250 is adjusted by the user.

  In the ionizer 250, a moving device that moves the ion release portions 254, 255 by an electric motor can be provided. Further, in the control device 200, the arrangement can be determined by using both the ionizer 80 and the ionizer 250. The present invention is not limited to the above-described embodiments, and various modifications can be made based on the knowledge of those skilled in the art. It can implement in the aspect of.

  14a, 14b, 14c: Tape feeder 16: Feeder holding table 32: Feeder 36: Peeling device 50: Guide unit 70: Cover unit 80, 250: Ionizer 82, 252: Main body 84, 254, 255: Ion release unit 86: Moving device 88: Rotating device 96: Electric motor 100, 258, 259: Slider 106: Rotating plate 110, 270, 271: Electrode

Patentable invention

Hereinafter, the claimable invention will be described.
(1) An ion supply device capable of supplying ions toward the component tape of a tape feeder that supplies the component by a component tape that contains and holds the component,
Ions that can be mounted on a feeder holding device that holds the tape feeder, and that include at least one ion release portion that discharges the ions from the side to the component tape of the tape feeder held by the feeder holding device. Feeding device.
This ion supply apparatus supplies ions to a component tape held by a tape feeder. The ion supply device can supply ions to a component held on a component tape, supply ions to a carrier tape or a top tape, and the like.
(2) The feeder holding device includes a plurality of grooves,
The ion supply device includes a main body having a longitudinal shape and engageable with each of the plurality of grooves,
The ion supply device according to (1), wherein each of the at least one ion emission unit is held by the main body so as to be movable in a longitudinal direction.
(3) The ion supply apparatus includes one of the ion emission units,
The ion supply unit according to (1) or (2), wherein the one ion emitting unit emits the ions from the tip, and is held by the main body so that the orientation of the tip can be changed. apparatus.
(4) The ion supply device includes two ion emission units,
Each of the two ion emission parts emits the ions from the tip part, and is held by the main body in a posture in which the directions of the tip parts are opposite to each other and separated in the width direction of the main body. The ion supply device according to item (1) or (2).

(5) the ion supply device according to any one of (1) to (4),
A mounting machine that includes a feeder holding device that holds a plurality of the tape feeders and can hold one or more of the ion supply devices,
The mounting machine includes an arrangement determining unit that determines an arrangement of the plurality of tape feeders and the one or more ion supply devices in the feeder holding device based on a predetermined rule.
(6) Regarding the tape feeder that supplies parts having a size smaller than the first size among the plurality of tape feeders, the ion emission portion is positioned adjacent to the tape feeder. The mounting machine according to (5), including one rule.
(7) The rule allows a set of tape feeders that supply parts having a size not less than the first size and smaller than the second size among the plurality of tape feeders to be arranged adjacent to each other. The mounting machine according to the item (6), including a second rule in which the ion emission units are located one by one adjacent to both sides of the set of tape feeders arranged adjacent to each other.
“Allows a set number of tape feeders to be arranged adjacent to each other” means “not to exceed the number of tape feeders arranged adjacent to each other”. Number, tape feeders can be arranged next to each other. "
For example, the set number can be a number that allows ions to be supplied to the component tape of the set number of feeders by the ion supply devices located on both sides.
(8) When the rule is that the tape feeder supplies parts of the second size or more, the ion feeder is not located adjacent to the tape feeder. The mounting machine according to (6), including the third rule.
(9) The arrangement determining unit determines an arrangement of the plurality of tape feeders and the one or more ion emitting units based on the rules and information input by a user. Or the mounting machine according to any one of (8).
The arrangement of the plurality of tape feeders and the ion supply device is determined according to the rules when no information is input by the user, but when the information is input by the user, the user information as the information is given priority over the rules. Can be determined.
(10) The ion supply device includes a moving device that moves the ion emitting portion in the longitudinal direction,
The mounting machine includes a movement control unit that moves the ion emission unit to a position corresponding to a component supply position of the adjacent tape feeder by controlling the moving device. The mounting machine as described in any one of.
The position is not limited to the position corresponding to the component supply position, and can be moved to a position corresponding to a position between the peeling position and the component supply position.

Claims (9)

An ion supply device capable of supplying ions to the component tape of a tape feeder that supplies the component by a component tape that contains and holds the component,
Mounted on a feeder holding device that holds the tape feeder, and includes at least one ion emitting portion that emits ions from the side toward the component tape of the tape feeder held by the feeder holding device. Ion supply device. The feeder holding device includes a plurality of grooves,
The ion supply device includes a main body having a longitudinal shape and engageable with each of the plurality of grooves,
The ion supply device according to claim 1, wherein each of the at least one ion emitting portion is held by the main body so as to be movable in a longitudinal direction. The ion supply apparatus includes one of the ion emission units,
The ion supply device according to claim 1, wherein the one ion emitting unit emits ions from a tip portion, and is held by the main body so that a direction of the tip portion can be changed. The ion supply apparatus includes two ion emission units,
Each of the two ion emitting portions emits ions from a tip portion, and is held on the main body in a posture in which the directions of the tip portions are opposite to each other and separated in the width direction of the main body. Item 3. The ion supply device according to Item 1 or 2. An ion supply device according to any one of claims 1 to 4,
A mounting machine that includes a feeder holding device that holds a plurality of the tape feeders and can hold one or more of the ion supply devices,
The mounting machine includes an arrangement determining unit that determines an arrangement of the plurality of tape feeders and the one or more ion supply devices in the feeder holding device according to a predetermined rule.   6. The rule includes a first rule in which, for a tape feeder that supplies a component having a size smaller than the first size among the plurality of tape feeders, the ion emission unit is positioned adjacently. The mounting machine described in.   Among the plurality of tape feeders, the rule allows the tape feeders that supply parts having a size not less than the first size and smaller than the second size to be arranged adjacent to each other. The mounting machine according to claim 6, further comprising a second rule in which the ion emitters are positioned one by one adjacent to the tape feeders arranged on both sides of the adjacent tape feeders.   8. The arrangement according to claim 5, wherein the arrangement determining unit determines an arrangement of the plurality of tape feeders and the one or more ion emission units based on the rules and information input by a user. The mounting machine as described in one. The ion supply device includes at least one moving device that moves the at least one ion emitting portion in the longitudinal direction, respectively.
6. The mounting machine includes a movement control unit that controls the at least one moving device based on information about each of at least one tape feeder adjacent to each of the at least one ion emitting unit. The mounting machine as described in any one of thru | or 8.

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