JP4586786B2 - Inductor component manufacturing apparatus and method - Google Patents

Description

  The present invention relates to an inductor component manufacturing apparatus and a manufacturing method.

Normally, the inductor component has a configuration in which an outer frame core is attached to the outer periphery of a drum core around which a winding is wound. As an apparatus for attaching an outer frame core to a drum core, an apparatus has been proposed in which a drum core and an outer frame core are disposed at predetermined positions by a magnetic force of a bar-shaped magnet and then bonded together (see, for example, Patent Document 1).
Utility Model Registration No. 3095614

  As in Patent Document 1, when an inductor component is manufactured from a drum core and a ring-shaped outer frame core, that is, when manufactured from two cores, no repulsive force is generated between the rod-shaped magnet and each core. Each core can be arranged at a desired position. However, for example, when an inductor component is manufactured from a drum core and two divided cores, that is, when manufactured from three cores, a repulsive force is generated between the rod-shaped magnet and each core. Therefore, it is difficult to arrange the three cores at desired positions using the apparatus described in Patent Document 1.

  Therefore, the present invention provides an inductor component manufacturing apparatus and a manufacturing method capable of arranging each core at a predetermined position by a magnet even when the inductor component is manufactured from three or more cores. With the goal.

An inductor component manufacturing apparatus according to the present invention is an inductor component manufacturing apparatus including a magnetic core and an outer peripheral member. The inductor component manufacturing apparatus includes a first magnetic table having N and S poles, and a first magnetic base having N and S poles. 2 magnetic bases, and the magnetic body core spans between the N pole of the first magnetic base and the S pole of the second magnetic base, and the S pole of the first magnetic base and the S of the second magnetic base. A magnetic base fixing means for fixing the poles adjacent to each other and slidable toward the magnetic core by an attractive force from the first magnetic base and the second magnetic base, and the outer peripheral member is attached to the magnetic core. Moving means for moving to a predetermined position .

  According to such a configuration, since the magnetic force becomes the largest at the center of the N pole of the first magnetic table and the S pole of the second magnetic table, the magnetic core can be accurately and easily connected to the N pole of the first magnetic table. It can arrange | position to the center of the S pole of a 2nd magnetic platform.

  Moreover, it is preferable to further include an outer peripheral member localization device for disposing the outer peripheral member at a predetermined position with respect to the magnetic core.

  According to such a configuration, since the outer peripheral member can be disposed at a predetermined position with respect to the magnetic core, the subsequent adhesion between the magnetic core and the outer peripheral member can be performed accurately, and the defective inductor It is possible to prevent the parts from being manufactured.

  Further, the inductor component has a configuration in which the magnetic core is sandwiched between two outer peripheral members, and preferably includes a moving means for moving the two outer peripheral members to a predetermined position with respect to the magnetic core.

  According to such a configuration, since the two outer peripheral members can be moved to a predetermined position with respect to the magnetic core by sandwiching the two outer peripheral members, the outer peripheral member can be more easily attached to the magnetic core. On the other hand, it can be arranged at a predetermined position.

  In addition, it is preferable to further include a magnetic core guide for placing the magnetic core at predetermined positions on the N pole of the first magnetic platform and the S pole of the second magnetic platform.

  According to such a structure, a magnetic body core can be arrange | positioned in a predetermined position more correctly and easily.

  The outer peripheral member is preferably a magnetic body.

  According to such a configuration, since the magnetic core and the outer peripheral member are attracted by the magnetic force from both the first magnetic base and the second magnetic base, even if the outer peripheral member is a magnetic body, repulsive force is generated and the outer peripheral member is It can be prevented that the magnetic core is disposed at a predetermined position with respect to the magnetic core.

The inductor component manufacturing method of the present invention is a method for manufacturing an inductor component including a magnetic core and an outer peripheral member, and is the same from the N pole of the first magnetic platform and the S pole of the second magnetic platform. The magnetic core is mounted so that the center of the magnetic core is positioned near a point on a virtual straight line that passes through the distance and the north pole of the first magnetic base and the south pole of the second magnetic base. Placing the outer peripheral member around the magnetic core, and sliding the moving means toward the magnetic core by the attractive force from the first magnetic base and the second magnetic base. And a moving step of moving the outer peripheral member to a predetermined position with respect to the magnetic core.

  According to such a configuration, since the magnetic force becomes the largest at the center of the N pole of the first magnetic table and the S pole of the second magnetic table, the magnetic core can be accurately and easily connected to the N pole of the first magnetic table. It can be fixed to the center of the S pole of the second magnetic platform, and the outer peripheral member can be moved to a predetermined position with respect to the magnetic core that is accurately fixed. Thereby, a highly accurate inductor component can be manufactured.

  In addition, the inductor component has a configuration in which the magnetic core is sandwiched between two outer peripheral members, and the moving step preferably moves the two outer peripheral members to a predetermined position with respect to the magnetic core.

  According to such a configuration, since the two outer peripheral members can be moved to a predetermined position with respect to the magnetic core by sandwiching the two outer peripheral members, the outer peripheral member can be more easily attached to the magnetic core. On the other hand, it can be arranged at a predetermined position.

  According to the inductor component manufacturing apparatus and inductor component manufacturing method of the present invention, a plurality of magnetic bodies constituting the inductor component can be more accurately arranged at predetermined positions.

  Embodiments of the present invention will be described below with reference to the accompanying drawings.

  FIG. 1 is an overall perspective view of an inductor component 1 manufactured by a magnetic core localization device 10 and a magnetic core bonding device 40 according to the present embodiment. The inductor component 1 includes a drum core 2, a winding 3, and a pair of split cores 4. The drum core 2 and the split core 4 are made of, for example, a Ni—Cu—Zn based magnetic material. The drum core 2 includes a body portion 2a and columnar flange portions 2b provided at both ends of the body portion. The winding 3 is a copper wire with an insulating urethane coating or the like, and is wound around the body 2 a of the drum core 2. The split core 4 has a substantially L shape, and the inner peripheral surface thereof has a semicircular shape along the outer peripheral surface of the flange portion 2 b of the drum core 2. The split core 4 is disposed with a small gap 5 from the flange portion 2b. Although not shown in FIG. 1, the split core 4 is bonded to the gap 5 in order to connect the flange portion 2b and the split core 4. Agent is being injected.

  Next, the magnetic core positioning device 10 for determining the positions of the drum core 2 and the pair of split cores 4 will be described. The magnetic core localization apparatus 10 corresponds to the inductor component manufacturing apparatus of the present invention. FIG. 2 is an overall perspective view of the magnetic core localization apparatus 10, and FIG. 3 is an exploded perspective view of the magnetic core localization apparatus 10. As shown in FIG. 3, the magnetic core localization device 10 includes a magnetic force generation device 20 and a sandwiching device 30.

  The magnetic force generator 20 includes a base pallet 21 and a magnet set 22 as shown in FIG. The base pallet 21 is a 180 mm × 30 mm plate-like member made of a material other than a magnetic body, and a concave portion 211 for arranging the magnet set 22 is arranged at a predetermined interval in the longitudinal direction at the center in the width direction. A plurality are formed in the space. A plurality of magnet insertion holes 212 are formed in the longitudinal direction at both ends of the base pallet 21 in the width direction. The magnet insertion hole 212 will be described later. The base pallet 21 corresponds to the magnetic table fixing means of the present invention.

  The magnet set 22 includes a pair of bar magnets 22a and 22b each having an N pole at one end and an S pole at the other end. The N pole of the bar magnet 22a, the S pole of the bar magnet 22b, and the S pole of the bar magnet 22a. And the north pole of the bar magnet 22b are combined so as to be adjacent to each other. The magnet set 22 is fitted in the recess 211 of the base pallet 21 so that the surface where the N pole and the S pole are adjacent faces the surface direction of the base pallet 21. The bar magnets 22a and 22b correspond to the first magnetic bed and the second magnetic bed of the present invention.

  As shown in FIG. 3, the sandwiching device 30 includes a protective cover 31, a core guide frame 32, a slide plate guide 33, and a pair of slide plates 34. FIG. 4 is an enlarged plan view of the sandwiching device 30. Each of the protective cover 31, the core guide frame 32, and the slide plate guide 33 is a 180 mm × 30 mm plate-shaped member made of a material other than a magnetic material. As shown in FIG. The guide frame 32 and the slide plate guide 33 are stacked in this order. As shown in FIG. 3, the lowermost protective cover 31 is placed on the surface on which the magnet set 22 of the magnetic force generator 20 is fitted. The slide plate 34 is also made of a material other than a magnetic material.

  A core holding hole 321 for temporarily holding the drum core 2 and the divided core 4 is formed in the core guide frame 32 at a position corresponding to the magnet set 22 of the magnetic force generator 20. As shown in FIG. 4, the core holding hole 321 includes a drum core holding hole 321 a for holding the drum core 2 and two divided core holding holes 321 b for holding the pair of divided cores 4. The width of the boundary between the drum core holding hole 321a and the divided core holding hole 321b is smaller than the width of the divided core 4 so that the divided core 4 disposed in the divided core holding hole 321b does not enter the drum core holding hole 321a. Yes. The drum core holding hole 321a corresponds to the magnetic core guide of the present invention, and the divided core holding hole 321b corresponds to the outer peripheral member localization apparatus of the present invention.

  The protective cover 31 and the magnetic core guide 32 are provided with a magnet insertion hole 311 and a magnet insertion hole 322 at positions facing the magnet insertion hole 212 of the base pallet 21, respectively. The magnet insertion holes 311 and 322 will be described later.

  A slide hole 331 extending in the width direction of the slide plate guide 33 is formed in the slide plate guide 33 at a position corresponding to the magnet set 22 of the magnetic force generator 20. Although not shown, the slide hole 331 is formed in a step shape, and the hole in the upper part is formed slightly larger than the hole in the lower part.

  The slide plate 34 has a width substantially the same as the width of the upper portion of the slide hole 331, and a recess 341 that can be engaged with the outer peripheral surface of the split core 4 is formed. The slide plate 34 is slid along the upper portion of the slide plate 34 while being placed on the lower portion of the slide hole 331. The slide plate 34 corresponds to the moving means of the present invention.

  The protective cover 31 is for preventing the magnet set 22 disposed below the protective cover 31 from contacting the drum core 2 and the split core 4 disposed on the protective cover 31.

  Thus, the magnetic core localization device 10 has a configuration in which the magnetic force generation device 20 and the sandwiching device 30 are stacked, and the center line of the width of the core holding hole 321 (center of the drum core 2) and the slide When viewed from above, the center line of the width of the hole 331 coincides with the boundary line between the bar magnet 22a and the bar magnet 22b, as shown in FIGS. 5 (a) to 5 (d).

  Next, a method for determining the positions of the drum core 2 and the pair of split cores 4 using such a magnetic core localization apparatus 10 will be described with reference to FIGS. 5 (a) to 5 (d). FIG. 5A to FIG. 5D are explanatory views for positioning the drum core 2 and the pair of split cores 4 by the magnetic core positioning device 10.

  First, the drum core 2 is disposed in the drum core holding hole 321a (see FIG. 4) in the core holding hole 321 (see FIG. 4) (FIG. 5 (a)). Specifically, the drum core holding hole 321a is arranged so that the approximate center thereof, that is, the center of the drum core 2 substantially coincides with the contact point between the bar magnet 22a and the bar magnet 22b. Here, since the magnetic force is strongest on the boundary line between the bar magnet 22a and the bar magnet 22b, the drum core 2 can be accurately and easily disposed on the boundary line.

  Next, one split core 4 is arranged in one split core holding hole 321b (see FIG. 4) in the core holding hole 321 (see FIG. 4) (FIG. 5B), and the other split core 4 is placed in the other The split core holding holes 321b (see FIG. 4) are arranged (FIG. 5C). As described above, the magnetic force is the strongest on the boundary line between the bar magnet 22a and the bar magnet 22b. When the drum core 2 and the pair of split cores 4 are arranged on the boundary line, no repulsive force is generated between the magnet set 22, the drum core 2, and the split core 4. Therefore, the drum core 2 and the pair of split cores 4 can be accurately and easily disposed in the core holding hole 321.

  Subsequently, the pair of slide plates 34 is slid toward the drum core 2 along the upper portion of the slide hole 331 (see FIG. 4) (FIG. 5D). Here, before the slide plate 34 is slid toward the drum core 2, the magnet insertion hole 212 of the base pallet 21, the magnet insertion hole 311 of the protective cover 31, and the magnet insertion hole of the magnetic core guide 32 shown in FIG. In 322, a magnet having a magnetic force larger than that of the bar magnets 22a and 22b is inserted. Due to the attractive force from the magnet, the slide plate 34 is prevented from sliding toward the drum core 2. Then, by pulling out this magnet from the magnet insertion holes 212, 311, 322, the slide plate 34 now slides toward the drum core 2 by the attractive force from the magnet assembly 22.

  Since the outer peripheral surface of the split core 4 engages with the recess 341 of the slide plate 34, the split core 4 moves to the boundary between the drum core holding hole 321 a and the split core holding hole 321 b as the slide plate 34 slides. Since the width of the split core 4 is wider than the width of the drum core holding hole 321a, the split core 4 cannot move beyond the split core holding hole 321b to the drum core holding hole 321a, and the split core holding hole 321b and the drum core It is held at the boundary of the holding hole 321a. At this time, a minute gap 5 (see FIG. 1) is formed between the drum core 2 and the divided core 4.

  Finally, the inductor component 1 is completed by injecting an adhesive into the gap 5 between the drum core 2 and the split core 4.

  As described above, when the magnetic core localization apparatus 10 is used, the drum core 2 and the split core 4 can be accurately and easily arranged at predetermined positions. Since the drum core 2 and the split core 4 can be maintained in an accurate position, subsequent bonding can be performed accurately, and the defective inductor component 1 can be prevented from being manufactured. it can. In addition, since it is not necessary to use a machine having a complicated structure such as electricity or an LM guide, the environment is not affected. Furthermore, when the drum core 2 and the split core 4 are bonded by flowing in the reflow furnace, the drum core 2 and the split core 4 can be flowed to the reflow furnace in a state where the drum core 2 and the split core 4 are securely fixed. There is no need to consider defects.

  Here, normally, the adhesive is injected into the gap 5 by moving a needle for applying the adhesive horizontally along the gap 5. However, for example, when the magnetic core positioning device 10 is tilted, the distance between the tip of the needle and the gap 5 varies depending on the location, and the adhesive cannot be uniformly injected into the entire range of the gap 5. . Therefore, in the present embodiment, the magnetic core bonding apparatus 40 is used to inject the adhesive into the gap 5.

  FIG. 6 is an explanatory diagram of the magnetic core bonding apparatus 40. The magnetic core bonding apparatus 40 includes a roller guide 50, a needle 60, and a ring bracket 70.

  The roller guide 50 includes a driving force transmission unit 51, a roller guide pin 52, and a displacement detection unit 53. The driving force transmission unit 51 has a cylindrical shape and is driven in the horizontal direction by a driving unit (not shown). The roller guide pin 52 has a rod-like shape, and is disposed in the cylindrical driving force transmission portion 51 with a small gap. The displacement detection unit 53 is attached to the lower end of the roller guide pin 52 and includes a ball unit 531 and a bearing unit 532. The ball portion 531 is rotatably supported by the bearing portion 532. As a result, the ball portion 531 can smoothly follow the displacement of the contacting surface.

  The needle 60 includes an adhesive inside, and can discharge the adhesive from a discharge portion 61 provided at the lower end. The discharge amount of the adhesive per unit time by the needle 60 is constant.

  The ring bracket 70 connects and fixes the roller guide pin 52 of the roller guide 50 and the needle 60. Accordingly, when the driving force transmission unit 51 is driven in the horizontal direction, the roller guide pin 52 disposed in the driving force transmission unit 51 also moves in the horizontal direction and is connected to the roller guide pin 52 by the ring bracket 70. The needle 60 also moves in the horizontal direction. On the other hand, since the roller guide pin 52 is disposed with a small gap in the driving force transmitting portion 51, in the vertical direction, the roller guide pin 52 follows the vertical displacement of the surface with which the ball portion 531 contacts due to gravity. The needle 60 also moves following the movement of the roller guide pin 52 in the vertical direction.

  Therefore, for example, even if the magnetic body localization device 10 holding the drum core 2 and the pair of split cores 4 is inclined, the roller guide pin 52 and the needle 60 are perpendicular to the magnetic body localization device 10 (slide plate guide 33). Following the displacement in the direction, the distance α between the discharge part 61 of the needle 60 and the gap 5, that is, the drum core 2 (divided core 4) is always kept constant. Thus, the adhesive can be uniformly injected into the gap 5 by moving the ball part 531 on the magnetic core positioning device 10 so that the discharge part 61 of the needle 60 moves along the gap 5.

  Next, a method of bonding the drum core 2 and the pair of split cores 4 positioned by the magnetic core positioning device 10 using the magnetic core bonding device 40 will be described.

  First, the driving force transmission unit 51 is driven to dispose the discharge unit 61 of the needle 60 above the gap 5. At this time, the ball portion 531 is in contact with the magnetic core positioning device 10 (slide plate guide 33).

  Next, the driving force transmission unit 51 is driven so that the discharge unit 61 moves along the gap 5 while discharging the adhesive from the discharge unit 61 of the needle 60. When the injection of the adhesive into the gap 5 of the first inductor component 1 is completed, the same processing is performed for the next inductor component 1.

  Thereby, even if the magnetic core localization apparatus 10 is tilted, the distance α between the ejection part 61 and the gap 5 is kept constant, so that the adhesive can be uniformly injected into the gap 5. In particular, when the inclination of the magnetic core positioning device 10 is constant, the distance α between the ejection unit 61 and the gap 5 can be more reliably maintained constant, so that the adhesive is more evenly injected into the gap 5. can do.

  The inductor component manufacturing apparatus and manufacturing method of the present invention are not limited to the above-described embodiment, and various modifications may be made without departing from the scope of the present invention.

  For example, in the above embodiment, the ball portion 531 of the magnetic core adhering device 40 is disposed on the surface of the magnetic core localization device 10, but may be disposed on the drum core 2. In this case, as shown in FIG. 7, the distance between the ball portion 531 and the discharge portion 61 of the needle 60 is preferably as short as possible within a range that does not hinder the mutual operation. Thereby, in addition to the inclination of the magnetic core localization apparatus 10, the inclination of the drum core 2 itself can be corrected, so that the adhesive can be uniformly injected through the gap 5.

  In the above-described embodiment, the vertical displacement is continuously corrected by rolling the ball portion 531. However, the vertical displacement may be corrected by assuming that each drum core 2 is constant. In this case, as shown in FIG. 8, in the magnetic core bonding apparatus 40, the driving force transmission unit 51 and the roller guide pin 52 are integrally configured, and when the driving force transmission unit 51 is rotated. The needle 60 also rotates coaxially with the driving force transmission unit 51. The ring bracket 70 is set to such a length that the distance between the central axis of the driving force transmission portion 51 and the discharge portion 61 of the needle 60 matches the radius of the drum core 2.

  Then, utilizing the circular shape of the drum core 2, the ball portion 531 is disposed at the center of the drum core 2, and the adhesive is injected into the gap 5 while the driving force transmission portion 51 rotates the roller guide pin 52. Since the center of the drum core 2 coincides with the center of the slide hole 331 of the slide plate guide 33, if the position of the magnetic core positioning device 10 is fixed, the center position of the drum core 2 is naturally determined. The Therefore, the ball portion 531 may be set to be arranged at the center of the slide hole 331 by a computer or the like.

  In this way, the displacement generated in each drum core 2 cannot be corrected, but the displacement between the drum cores 2 can be corrected. Further, since the adhesive can be injected from the needle 60 into the gap 5 simply by rotating the roller guide pin 52, the time and labor required for the work can be reduced.

  Moreover, in the said embodiment, although the inductor component 1 was comprised from the drum core 2 and a pair of division | segmentation core 4, it may not be such a combination. For example, the drum core 2 may not be circular, and the split core 4 may not be L-shaped. Further, the number of cores may be three or more.

  Further, the magnetic core localization apparatus 10 is more effective when the number of cores is three or more. For example, even when the number of cores is one, the core is surely arranged at a desired position. Has the effect of being able to.

  The protective cover 31 is for preventing the magnet set 22 disposed below the protective cover 31 from contacting the drum core 2 and the split core 4 disposed on the protective cover 31. Not necessary.

  Moreover, in the said embodiment, although the bar magnet 22a and the bar magnet 22b of the magnet assembly 22 were contacting, it does not need to contact. When the bar magnet 22a and the bar magnet 22b are not in contact with each other, the drum core 2 may be disposed at the center of the interval.

  Further, when the adhesive is discharged from the discharge portion 61 of the needle 60, if the temperature is low or the viscosity of the adhesive is high, the adhesive is not cut well and the adhesive adheres to the discharge portion 61. In such a case, the temperature may be adjusted by warming the needle 60 or the like.

  In the present embodiment, when the magnetic core localization device 10 is tilted, the vertical displacement is corrected using the magnetic core bonding device 40. For example, the magnetic core localization device 10 is warped. Even in such a case, the effect of correcting the displacement in the vertical direction can be obtained. However, as the inclination and the warp are constant, the effect of the magnetic core bonding apparatus 40 can be obtained.

These are the whole perspective views of the inductor component 1 manufactured by the magnetic body localization apparatus 10 and the magnetic core bonding apparatus 40 of this Embodiment. FIG. 2 is an overall perspective view of the magnetic core localization apparatus 10. FIG. 3 is an exploded perspective view of the magnetic core localization apparatus 10. These are the enlarged plan views of the pinching device 30. These are explanatory drawing of positioning of the drum core 2 and a pair of division | segmentation core 4 by the magnetic body core orientation apparatus 10. FIG. These are explanatory drawing of positioning of the drum core 2 and a pair of division | segmentation core 4 by the magnetic body core orientation apparatus 10. FIG. These are explanatory drawing of positioning of the drum core 2 and a pair of division | segmentation core 4 by the magnetic body core orientation apparatus 10. FIG. These are explanatory drawing of positioning of the drum core 2 and a pair of division | segmentation core 4 by the magnetic body core orientation apparatus 10. FIG. These are explanatory drawings of the magnetic body core bonding apparatus 40. FIG. These are modifications of the magnetic body core bonding apparatus 40. These are other modifications of the magnetic body core bonding apparatus 40.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Inductor component 2 Drum core 3 Winding 4 Divided core 5 Crevice 10 Magnetic body localization apparatus 20 Magnetic force generator 21 Base pallet 22a Bar magnet 22b Bar magnet 22 Magnet assembly 30 Clamping apparatus 31 Protective cover 32 Core guide frame 32 Magnetic body guide 33 Slide plate guide 34 Slide plate 40 Magnetic core adhering device 50 Roller guide 51 Driving force transmission unit 52 Roller guide pin 53 Displacement detection unit 60 Needle 61 Discharge unit 70 Ring bracket

Claims (7)

An inductor component manufacturing apparatus including a magnetic core and an outer peripheral member,
A first magnetic platform having N and S poles;
A second magnetic platform having N and S poles;
The N pole of the first magnetic table and the S pole of the second magnetic table are placed adjacent to each other so that the magnetic core is spanned between the N pole of the first magnetic table and the S pole of the second magnetic table. A magnetic table fixing means for fixing,
Moving means that is slidable toward the magnetic core by an attractive force from the first magnetic base and the second magnetic base, and moves the outer peripheral member to a predetermined position with respect to the magnetic core. An inductor component manufacturing apparatus characterized by the above.   2. The inductor component manufacturing apparatus according to claim 1, further comprising an outer peripheral member localization device for disposing the outer peripheral member at a predetermined position with respect to the magnetic core. The inductor component has a configuration in which the magnetic core is sandwiched between two outer peripheral members,
It said moving means, inductor component manufacturing apparatus according to claim 1 or 2, characterized in that for moving the two peripheral member in a predetermined position relative to the magnetic core.   4. A magnetic core guide for placing the magnetic core at predetermined positions on the N pole of the first magnetic platform and the S pole of the second magnetic platform, further comprising: The inductor component manufacturing apparatus according to any one of the above.   The said outer peripheral member is a magnetic body, The manufacturing apparatus of the inductor components as described in any one of Claim 1 to 4 characterized by the above-mentioned. A method of manufacturing an inductor component including a magnetic core and an outer peripheral member,
The same distance from the N pole of the first magnetic table and the S pole of the second magnetic table, and on a virtual straight line passing through the N pole of the first magnetic table and the S pole of the second magnetic table A placing step of placing the magnetic core such that the center of the magnetic core is positioned in the vicinity;
An arranging step of arranging the outer peripheral member around the magnetic core;
A moving step of sliding the moving means toward the magnetic core by the attractive force from the first magnetic base and the second magnetic base and moving the outer peripheral member to a predetermined position with respect to the magnetic core; A method for manufacturing an inductor component, comprising: The inductor component has a configuration in which the magnetic core is sandwiched between two outer peripheral members,
The method of manufacturing an inductor component according to claim 6, wherein in the moving step, the two outer peripheral members are moved to a predetermined position with respect to the magnetic core.

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