JP2009194333A - Chip part feeding method and chip part feeding device - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a chip part feeding method capable of quickly transferring chip parts from a feeding part to a rotary table without causing bite-in, and without using a special separating mechanism such as separating pins, and a chip part feeding device. <P>SOLUTION: The chip part feeding device includes: a rotary table 4 having a holding part 22a for freely detachably holding chip parts 20 on the periphery, and intermittently rotating around a pivot in accordance with the holding part 22a; and a feeding part 8 sequentially feeding the chip parts 20 toward the holding part 22a positioned in a predetermined delivery position 30 along the rotating direction of the rotary table 4. When the chip parts 20 are transferred from the feed part 8 to the holding part 22a of the rotary table 4, the chip parts 20 are transferred to the delivery position 30 moving from an exit 28a of the feeding part 8 in a direction where the chip parts 20 transferred gradually leave along the direction of movement X according to the rotation of the rotary table 4. <P>COPYRIGHT: (C)2009,JPO&INPIT

Description

  The present invention relates to a chip component supply apparatus and a chip component supply method, and more specifically, a chip component supply method and a chip component capable of delivering a chip component at high speed without biting from a feeder section to a rotary table. It relates to a supply device.

  For example, as shown in Patent Document 1 below, in order to perform inspection of chip components, the chip components are held one by one in a holding portion formed at a predetermined interval on the outer periphery of the rotary table, and the rotary table is intermittently held. Devices for rotating are known. In such an apparatus, a mechanism is required in which a large number of chip parts are aligned in a row at the feeder section and fed in the outlet direction, and the chip parts are delivered from the outlet to the holding part of the rotary table.

  In the conventional apparatus, the traveling direction of the chip parts arranged in a line in the feeder section and the rotation axis of the rotary table are arranged in parallel. Further, the chip parts supplied from the outlet of the feeder part to the holding part of the rotary table receive a feeding force from the chip parts arranged in a row for the next supply.

  Therefore, when the chip part supplied to the holding part of the rotary table from the outlet of the feeder part rotates with the rotation of the rotary table, the chip part supplied next to the chip part is the chip part supplied first. The so-called biting phenomenon occurs due to the rotation of.

  When the biting phenomenon occurs, it is difficult to automatically turn off the chip parts that have been bitten by stopping the rotary table, and it is necessary to stop the device and perform the work of discharging the chip parts that have been bitten by hand. Therefore, it takes time to restore the device.

  In order to prevent biting, chip components supplied to the rotary table from the outlet of the feeder unit are temporarily aligned with a separation pin or the like after being aligned in a row at the feeder unit. Devices for stopping are known.

However, with a mechanism that drives a separation pin for separating chip components at the outlet of the feeder unit, it becomes difficult to supply the chip components to the rotary table at high speed. Further, in the mechanism that separates the chip component using the separation pin, the chip component may be damaged by the separation pin.
JP 2007-153578 A

  The present invention has been made in view of such a situation, and an object thereof is to deliver a chip component at a high speed without using a special separation mechanism such as a separation pin and without biting from a feeder portion to a rotary table. It is to provide a chip component supply method and a chip component supply apparatus capable of performing the above.

In order to achieve the above object, the chip component supply method of the present invention comprises:
A rotary table is formed on the outer periphery to removably hold the chip component, and rotates intermittently around the rotation axis according to the holding unit;
A method of supplying a chip component using a chip component supply device having a feeder unit that sequentially supplies the chip component toward the holding unit positioned at a predetermined delivery position along a rotation direction of the rotary table. There,
The rotary table is intermittently set in a state where the rotation axis is inclined at a first predetermined angle larger than 0 degrees within 15 degrees with respect to a straight line parallel to a direction in which the chip component is advanced in the feeder section. Rotating the process,
When the chip part is delivered from the feeder part to the holding part of the rotary table, the chip part after the delivery follows the straight line from the outlet of the feeder part as the rotary table rotates. And a step of delivering the chip component at a delivery position that moves away in the direction.

  In the method of the present invention, when the chip part is transferred from the feeder part to the rotary table, the chip part after the transfer moves in a direction away from the outlet of the feeder part along the traveling straight line as the rotary table rotates. To do. Therefore, even if the chip component supplied from the outlet of the feeder unit to the holding unit of the rotary table rotates with the rotation of the rotary table, the chip component supplied next to the chip component is not the same as the chip component supplied previously. The risk of being attracted by rotation is reduced. Therefore, the biting phenomenon can be prevented.

  In addition, there is less risk of friction between the chip component that rotates while being held by the holding part of the rotary table and the chip part that is next reserved at the outlet of the feeder part, and the chip part that is next reserved may be dropped. And the damage caused by rubbing between the chip parts is reduced.

A first chip component supply apparatus according to the present invention includes:
A rotary table is formed on the outer periphery to removably hold the chip component, and rotates intermittently around the rotation axis according to the holding unit;
A chip part supply device having a feeder part for sequentially supplying the chip parts toward the holding part located at a predetermined delivery position along the rotation direction of the rotary table,
The rotation axis is inclined at a first predetermined angle greater than 15 degrees and greater than 0 degrees with respect to a straight line parallel to a direction in which the chip component is advanced in the feeder section;
The feeder part is disposed on the surface side of the rotary table where the rotation axis is inclined upward,
The delivery position is set to a position in the middle of the chip component held on the rotary table ascending in the vertical direction by the rotation of the rotary table.

  In the first chip component supply apparatus according to the present invention, when the chip component is delivered from the feeder unit to the rotary table, the chip component after the delivery is made to travel straight from the outlet of the feeder unit as the rotary table rotates. Move away along. Therefore, the operational effect of the above-described chip component supply method of the present invention can be achieved.

  Preferably, the outlet of the feeder section at the delivery position is opened in the direction of travel of the chip component and is opened in a tangential direction toward the rotational direction of the turntable. According to such a configuration, even if the biting phenomenon occurs, the next chip component to be withdrawn easily from the opening that opens in the tangential direction toward the rotation direction as the rotary table rotates. Discharged.

  Preferably, a second predetermined angle of a line connecting the rotation center of the rotary table and the delivery position is 45 degrees with respect to a line connecting the rotation center of the rotary table and the uppermost position of the rotary table. Is within. By setting the delivery position in such a range, the gravitational direction of the chip component immediately after being delivered from the outlet of the feeder section acts in a direction in contact with the outer periphery of the rotary table. Therefore, delivery from the outlet of the feeder unit to the holding unit of the rotary table is ensured, and the rotary table can be prevented from failing to hold the chip component.

  Preferably, a direction in which the chip component is advanced in the feeder portion is a horizontal direction. In the horizontal direction, it is easy to align and advance the chip parts by vibration or the like.

  The direction in which the chip component is advanced in the feeder section may be perpendicular to the rotational tangent direction of the rotary table, but may be inclined at a third predetermined angle. By inclining the traveling direction of the chip component in the feeder portion at a third predetermined angle with respect to the rotational tangential direction of the rotary table, the chip component held in the holding portion is removed from the outlet of the feeder portion as the rotary table rotates. The effect of moving away from the traveling straight line increases.

The second chip component supply apparatus according to the present invention is:
A rotary table is formed on the outer periphery to removably hold the chip component, and rotates intermittently around the rotation axis according to the holding unit;
A chip part supply device having a feeder part for sequentially supplying the chip parts toward the holding part located at a predetermined delivery position along the rotation direction of the rotary table,
The rotation axis is inclined at a first predetermined angle greater than 15 degrees and greater than 0 degrees with respect to a straight line parallel to a direction in which the chip component is advanced in the feeder section;
The feeder unit is disposed on the surface side of the rotary table where the rotation shaft is inclined downward,
The delivery position is set to a position in the middle of the chip component held by the rotary table moving downward in the vertical direction by the rotation of the rotary table.

  In the second chip component supply device of the present invention, when the chip component is transferred from the feeder to the rotary table, the chip component after the transfer is rotated as in the first chip component supply device described above. As the table rotates, it moves in a direction away from the outlet of the feeder section along the traveling straight line. Therefore, the operational effect of the above-described chip component supply method of the present invention can be achieved.

A third chip component supply apparatus according to the present invention is as follows.
A rotary table is formed on the outer periphery to removably hold the chip component, and rotates intermittently around the rotation axis according to the holding unit;
A chip part supply device having a feeder part for sequentially supplying the chip parts toward the holding part located at a predetermined delivery position along the rotation direction of the rotary table,
The rotation axis is inclined at a first predetermined angle greater than 15 degrees and greater than 0 degrees with respect to a straight line parallel to a direction in which the chip component is advanced in the feeder section;
The direction in which the chip component is advanced in the feeder section is inclined at a third predetermined angle greater than 90 degrees with respect to the rotational tangent direction of the rotary table.

  In the third chip component supply device of the present invention, when the chip component is transferred from the feeder to the rotary table, the chip component after the transfer is rotated as in the first chip component supply device described above. As the table rotates, it moves in a direction away from the outlet of the feeder section along the traveling straight line. Therefore, the operational effect of the above-described chip component supply method of the present invention can be achieved.

Hereinafter, the present invention will be described based on embodiments shown in the drawings.
FIG. 1 is a schematic view of a chip component inspection apparatus using a chip component supply apparatus according to an embodiment of the present invention.
FIG. 2 is a schematic cross-sectional view of an essential part showing the relationship between the first rotary table and the second rotary table shown in FIG.
FIG. 3 is a schematic cross-sectional view of an essential part showing the relationship between the first rotary table and the feeder section shown in FIG.
4 is a cross-sectional view showing the main part of FIG.
FIG. 5 is a schematic diagram showing the relationship between the feeder portion, the return portion, and the delivery position as seen from the direction along line VV shown in FIG.
6 is an enlarged view of the main part of FIG.
FIG. 7 is a schematic view of a chip component inspection apparatus using a chip component supply apparatus according to another embodiment of the present invention.
First embodiment

  As shown in FIG. 1, a chip component inspection device 2 using a chip component supply device according to an embodiment of the present invention includes a first turntable 4 and a second turntable 6. The first rotation table 4 is rotated in the first rotation direction R1 by the first drive mechanism 16, the second rotation table 6 is rotated in the second rotation direction R2 by the second drive mechanism 18, and these rotation axes are mutually connected. Arranged substantially vertically.

  As will be described later, chip parts are supplied from the feeder unit 8 to the outer periphery of the first turntable 4, and the first turntable 4 rotates intermittently, so that the appearance of the chip parts is obtained by the first camera 12 or the like. Inspection is possible. The chip parts held on the outer periphery of the first rotary table 4 are subjected to appearance inspection by the first camera 12, and then at the table delivery position 26 along with the rotation of the first rotary table 4, the second rotary table 6. It is handed over to the outer periphery.

  Thereafter, along with the rotation of the second turntable 6, the appearance inspection of the chip component is performed at the position of the second camera 14. The chip component whose appearance has been inspected at the position of the second camera 14 is removed from the holding portion of the second rotary table 6 before rotating to the table delivery position 26.

  The chip parts are delivered from the first rotary table 4 to the second rotary table 6 at the table delivery position 26, so that the first camera 12 and the second camera have the appearance of the chip parts from different sides of the chip parts. Can be observed. In addition to the first camera 12 and the second camera 14, other cameras and inspection devices may be arranged at the outer peripheral position of the first rotary table 4 and / or the second rotary table 6.

  In addition, as shown in FIG. 1, the return part 10 is arrange | positioned substantially parallel next to the feeder part 8. As shown in FIG. The return unit 10 is a part for returning the chip components that have failed to be supplied from the feeder unit 8 to the first rotary table 4 to the supply source of the feeder unit 8, and basically has the same mechanism as the feeder unit 8. The traveling direction of the chip component is opposite.

  As shown in FIG. 2, holding portions 22 a are formed on the outer periphery of the first turntable 4 at predetermined intervals in the circumferential direction. The holding portion 22a is a portion that detachably holds the chip component 20, and in this embodiment, has a concave groove shape in which the chip component 20 can be accommodated. An adsorption hole 24a is formed at the bottom of each holding part 22a. By generating a negative pressure in the adsorption hole 24a, the chip component 20 can be sucked from the holding part 22a so as not to fall. .

  At the table delivery position 26 between the first rotary table 4 and the second rotary table 6, the negative pressure of the suction hole 24 a is released, and the negative pressure of the suction hole 24 b formed in the holding portion 22 b of the second rotary table 6. The chip component 20 can be delivered from the holding unit 22a to the holding unit 22b. At the time of delivery, the rotation of both tables 4 and 6 is intermittently stopped.

  In the embodiment shown in FIG. 2, the holding portion 22 a of the first rotary table 4 is formed into a concave groove shape, and the holding portion 22 b of the second rotary table 6 is a circumferential surface that is flush with the outer peripheral surface of the table 6. It is formed. According to this embodiment, it is considered that the delivery of the chip component 20 at the table delivery position 26 is particularly smooth, but the specific shapes of the holding portions 22a and 22b are not particularly limited. For example, the holding part 22a may have the same shape as the holding part 22b, or the holding part 22b may have the same shape as the holding part 22a.

  As shown in FIG. 5, in the present embodiment, as shown in FIG. 3 and FIG. 4, toward the holding portion 22 a located at a predetermined feeder delivery position 30 along the rotation direction R <b> 1 in the first turntable 4. A feeder groove 28 is formed in the feeder portion 8 for arranging the chip components 20 in a line and proceeding in the direction of arrow X. As shown in FIG. 4, the feeder unit 8 does not contact the first rotary table 4, but approaches to a fairly close position, and the clearance is smaller than the length of the chip component 20.

  As shown in FIG. 4, at the feeder delivery position 30, a stopper member 32 that covers the holding portion 22 a formed on the outer periphery of the first rotary table 4 from the outside is fixed to the feeder member 8. The stopper member 32 prevents the chip component 20 delivered to the holding portion 22a from falling outward in the traveling direction X and the radial direction.

  As shown in FIGS. 4 to 6, at the feeder delivery position 30, the feeder groove 28 in the feeder portion 8 and the groove of the holding portion 22 a in the first rotary table 4 coincide with each other and are located at the outlet 28 a of the feeder groove 28. The most advanced chip component 20 is delivered to the holding portion 22a. At the outlet 28a of the feeder groove 28, as shown in FIG. 4, the feeder groove 28 is open toward the holding portion 22a, and as shown in FIG. An opening is also made in a tangential direction toward the rotation direction R1, and the chip component 20 is surrounded from three sides.

  Therefore, the chip component 20 that has failed to be delivered to the holding portion 22a at the feeder delivery position 30 moves only in the tangential direction toward the rotational direction R1 along with the rotation of the first rotary table 4, and falls to the return portion 10. It has become. The chip component 20 dropped on the return unit 10 moves in the direction opposite to the moving direction X of the feeder groove 28 and is returned to the chip component supply unit to the feeder unit 8.

  As shown in FIG. 3, in the present embodiment, the rotation axis X1 of the first turntable 4 is a first predetermined relative to a straight line 28x parallel to the traveling direction X of the chip component 20 in the feeder groove 28 of the feeder portion 8. It is inclined at an angle θ1. The first predetermined angle θ1 is preferably within 15 degrees and larger than 0 degrees, and more preferably 5 degrees or more and 15 degrees or less.

  In this embodiment, the advancing direction X of the chip components 20 substantially coincides with the horizontal direction, and the chip components 20 are brought into contact with each other by the vibration feeding mechanism in the feeder groove 28 and aligned in a line toward the advancing direction X. It is arranged to send in.

  As shown in FIG. 3, the feeder unit 8 is arranged on the surface side where the rotation axis X1 of the first rotary table 4 is inclined upward with respect to the straight line 28x. In addition, as shown in FIG. 5, the feeder delivery position 30 is set to a position in the middle of the chip component held on the first rotary table 4 rising upward in the vertical direction by the rotation of the first rotary table 4. It is.

  In particular, in the present embodiment, as shown in FIG. 5, the rotation of the first turntable 4 with respect to a line L <b> 1 connecting the rotation center X <b> 0 of the first turntable 4 and the uppermost position of the first turntable 4. The second predetermined angle θ2 of the line L2 connecting the center X0 and the feeder delivery position 30 is within 45 degrees, preferably 25 to 45 degrees.

  In the present embodiment, when the chip part 20 is delivered from the feeder unit 8 to the first rotary table 4 at the feeder delivery position 30, the chip part 20 after delivery is transferred as the first rotary table 4 rotates. It moves in the direction away from the outlet 28a of the feeder groove 28 along the traveling direction X. This is because of the interaction between the first predetermined angle θ1 and the second predetermined angle θ2.

  Therefore, even if the chip component 20 supplied from the outlet 28 a of the feeder groove 28 to the holding portion 22 a of the first turntable 4 rotates with the rotation of the first turntable 4, the chip supplied next to the chip component 20. The risk of the component 20 being pulled by the rotation of the previously supplied chip component 20 is reduced. Therefore, the biting phenomenon can be effectively prevented.

  Also, the friction between the chip component 20 held and rotated by the holding portion 22a of the first turntable 4 and the chip component 20 that is reserved next at the outlet 28a of the feeder groove 28 is reduced, and the next The risk of dropping the chip component 20 is reduced, and damage caused by rubbing between the chip components 20 is reduced.

  Further, at the outlet 28 a of the feeder groove 28 at the feeder delivery position 30, the feeder groove 28 opens in a tangential direction toward the rotation direction R <b> 1 of the first turntable 4. According to such a configuration, even if the biting phenomenon occurs, the chip component 20 to be kept next opens in the tangential direction toward the rotation direction R1 as the first turntable 4 rotates. It is easily discharged from the opening of the outlet 28a.

Further, in the present embodiment, the rotation center X0 of the first turntable 4 and the feeder delivery position 30 with respect to the line L1 connecting the rotation center X0 of the first turntable 4 and the uppermost position of the first turntable 4. The second predetermined angle θ2 of the line connecting the two is within 45 degrees. By setting the feeder delivery position 30 in such a range, the gravitational direction of the chip component 20 immediately after being delivered from the outlet 28a of the feeder groove 28 comes into contact with the outer periphery of the first rotary table 4 (holding portion). Acting in the groove 22a). Therefore, delivery from the outlet 28a of the feeder groove 28 to the holding portion 22a of the first turntable 4 is ensured, and the first turntable 4 can be prevented from failing to hold the chip component 20.
Second embodiment

  The component supply device of this embodiment has the same configuration as the component supply device of the first embodiment described above except for the following, and has the same operational effects.

As shown in FIG. 7, in the present embodiment, similarly to the first embodiment, the direction X in which the chip component 20 is advanced by the feeder unit 8 is perpendicular to the rotational tangential direction X2 of the first turntable 4. Although it is good, it may be inclined at the third predetermined angle θ3. The third angle θ3 is 90 degrees or more, preferably 90 to 105 degrees, and more preferably 95 to 105 degrees.
By tilting the advancing direction X of the chip component 20 in the feeder unit 8 at a third predetermined angle θ3 with respect to the rotational tangential direction X2 of the first rotary table 4, the holding unit 22a is moved along with the rotation of the first rotary table 4. The effect of moving the held chip component in the direction away from the outlet 28a of the feeder groove 28 along the traveling direction X increases.
If the first predetermined angle θ1 shown in FIG. 3 is larger than 0 degrees within 15 degrees and the third angle θ3 is larger than 90 degrees, the second predetermined angle θ2 shown in FIG. 5 is 0 degrees or 180 degrees. There may be. For example, the rotation axis X1 may be inclined at the first predetermined angle θ1 with respect to the horizontal traveling straight line 28x without being inclined with respect to the horizontal line. In this case, if the third angle θ3 is larger than 90 degrees. The second predetermined angle θ2 shown in FIG. 5 may be 0 degree or 180 degrees.

  The present invention is not limited to the above-described embodiment, and can be variously modified within the scope of the present invention.

  For example, in 1st Embodiment or 2nd Embodiment, the feeder part 8 is arrange | positioned in the surface side in which the rotating shaft X1 inclines downward with respect to the advancing straight line 28x in the surface of the 1st turntable 4 shown in FIG. May be. In that case, the feeder delivery position 30 is set to a position in the middle of the chip component 20 held by the first rotary table 4 moving downward in the vertical direction by the rotation of the first rotary table 4. Is preferred.

  Even with such a configuration, when the chip component 20 is delivered from the feeder unit 8 to the first rotary table 4 in the same manner as the chip component supply device of the first embodiment described above, the chip component 20 after the delivery is delivered. As the first turntable 4 rotates, it moves in the direction away from the outlet 28a of the feeder groove 28 along the traveling direction X. Therefore, the same operational effects as those of the chip component supply device of the first embodiment described above can be obtained.

  In the present invention, the chip parts are not particularly limited, and examples thereof include capacitor chip parts, coil chip parts, inductor chip parts, chip resistors, and LEDs.

FIG. 1 is a schematic view of a chip component inspection apparatus using a chip component supply apparatus according to an embodiment of the present invention. FIG. 2 is a schematic cross-sectional view of an essential part showing the relationship between the first rotary table and the second rotary table shown in FIG. FIG. 3 is a schematic cross-sectional view of an essential part showing the relationship between the first rotary table and the feeder section shown in FIG. 4 is a cross-sectional view showing a main part of FIG. FIG. 5 is a schematic diagram showing the relationship among the feeder portion, the return portion, and the delivery position as seen from the direction along the line VV shown in FIG. 6 is an enlarged view of a main part of FIG. FIG. 7 is a schematic view of a chip component inspection apparatus using a chip component supply apparatus according to another embodiment of the present invention.

Explanation of symbols

DESCRIPTION OF SYMBOLS 2 ... Chip component inspection apparatus 4 ... 1st rotation table 6 ... 2nd rotation table 8 ... Feeder part 10 ... Return part 20 ... Chip components 22a, 22b ... Holding part 24a, 24b ... Adsorption hole 26 ... Table delivery position 28 ... Feeder Groove 28a ... Exit 30 ... Feeder delivery position

Claims (8)

A rotary table is formed on the outer periphery to removably hold the chip component, and rotates intermittently around the rotation axis according to the holding unit;
A method of supplying a chip component using a chip component supply device having a feeder unit that sequentially supplies the chip component toward the holding unit positioned at a predetermined delivery position along a rotation direction of the rotary table. There,
The rotary table is intermittently set in a state where the rotation axis is inclined at a first predetermined angle larger than 0 degrees within 15 degrees with respect to a straight line parallel to a direction in which the chip component is advanced in the feeder section. Rotating the process,
When the chip part is delivered from the feeder part to the holding part of the rotary table, the chip part after the delivery follows the straight line from the outlet of the feeder part as the rotary table rotates. A chip component supply method including a step of delivering the chip component at a delivery position that moves away in the direction. A rotary table is formed on the outer periphery to removably hold the chip component, and rotates intermittently around the rotation axis according to the holding unit;
A chip part supply device having a feeder part for sequentially supplying the chip parts toward the holding part located at a predetermined delivery position along the rotation direction of the rotary table,
The rotation axis is inclined at a first predetermined angle greater than 15 degrees and greater than 0 degrees with respect to a straight line parallel to a direction in which the chip component is advanced in the feeder section;
The feeder part is disposed on the surface side of the rotary table where the rotation axis is inclined upward,
The chip part supply apparatus, wherein the delivery position is set to a position in the middle of the chip part held on the rotary table by the rotation of the rotary table going up in the vertical direction.   The chip component supply device according to claim 2, wherein an outlet of the feeder unit at the delivery position is opened in a moving direction of the chip component and is opened in a tangential direction toward a rotation direction of the rotary table. .   A second predetermined angle of a line connecting the rotation center of the turntable and the delivery position is within 45 degrees with respect to a line connecting the rotation center of the turntable and the uppermost position of the turntable. The chip component supply apparatus according to claim 2 or 3.   The chip component supply apparatus according to claim 2, wherein a direction in which the chip component is advanced in the feeder unit is a horizontal direction.   The chip component supply device according to claim 2, wherein a direction in which the chip component is advanced in the feeder section is inclined at a third predetermined angle with respect to a rotation tangent direction of the rotary table. A rotary table is formed on the outer periphery to removably hold the chip component, and rotates intermittently around the rotation axis according to the holding unit;
A chip part supply device having a feeder part for sequentially supplying the chip parts toward the holding part located at a predetermined delivery position along the rotation direction of the rotary table,
The rotation axis is inclined at a first predetermined angle greater than 15 degrees and greater than 0 degrees with respect to a straight line parallel to a direction in which the chip component is advanced in the feeder section;
The feeder unit is disposed on the surface side of the rotary table where the rotation shaft is inclined downward,
2. The chip component supply apparatus according to claim 1, wherein the delivery position is set to a position in the middle of the chip component held on the rotary table by the rotation of the rotary table going down in the vertical direction. A rotary table is formed on the outer periphery to removably hold the chip component, and rotates intermittently around the rotation axis according to the holding unit;
A chip part supply device having a feeder part for sequentially supplying the chip parts toward the holding part located at a predetermined delivery position along the rotation direction of the rotary table,
The rotation axis is inclined at a first predetermined angle greater than 15 degrees and greater than 0 degrees with respect to a straight line parallel to a direction in which the chip component is advanced in the feeder section;
The chip component supply apparatus according to claim 1, wherein a direction in which the chip component is advanced in the feeder portion is inclined at a third predetermined angle larger than 90 degrees with respect to a rotation tangent direction of the rotary table.

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