JP2000138145A - Manufacture of electronic parts - Google Patents

Abstract

PROBLEM TO BE SOLVED: To accurately form a plurality of external electrodes electrically connected to internal electrodes on the front and rear surfaces of a multiple electronic parts element. SOLUTION: A pair of side surfaces 10, 11 opposed to each other of a sintered body 1 are sandwiched by a holder 20. A cylindrical body 22, of which rotation is being stopped, is brought into contact with an upper ridge portion 5 on the front surface 4 of the sintered body 1. A roll-up electrode 14 is coated by rotating the cylindrical body 22 counter clockwise. Then the cylindrical body 22, of which is being stopped, is brought into contact with a lower ridge portion 6. A rolling electrode 15 is coated by rotating the cylindrical body 22 clockwise. Subsequently, an electrode 16 is coated by pressing the stationary cylindrical body 22 onto the front surface 4 so that the rolling electrodes 14, 15 coated in the first and second processes are connected with each other. Then, an external electrode 19 is coated on the rear surface 7 by repeating the first to third processes, dried and baked.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a method for manufacturing an electronic component for forming electrodes on an element.

[0002]

2. Description of the Related Art The prior art will be described with reference to elements for a multiple-layer monolithic ceramic capacitor.

As shown in FIG. 6, an external electrode is formed so as to be electrically connected to the end of an internal electrode 45 exposed on the front and rear surfaces 43 and 44 of a sintered element 40 previously manufactured by using a multilayer ceramic capacitor manufacturing method. FIG. 6
As shown in (a), first, a plurality of wraparound electrodes 47 are screen-printed at a predetermined interval in a portion near the ridge of one surface 41, and drying is performed. Next, as shown in FIG. 6B, the electrode 48 is screen-printed on a portion near the ridge of the other surface 42 facing the surface 41 and dried. Next, as shown in FIG. 6C, an electrode 49 is printed on one side surface 43 sandwiched between the surfaces 41 and 42 on which the wraparound electrodes 47 and 48 are printed so as to be connected to one of the wraparound electrodes 47 and 48. And dry. Subsequently, the electrodes 50 were similarly printed on the rear surface 44 facing the front surface 43, dried, and baked at a predetermined temperature to complete the multi-layer monolithic ceramic capacitor.

[0004]

In the conventional method of forming an external electrode, since the element alignment, printing and drying are repeated at least four times for one element 40, the productivity is very low. was there.

SUMMARY OF THE INVENTION It is an object of the present invention to solve the above-mentioned problems and to provide a method for forming an external electrode in which the electrodes are applied to the front and rear surfaces, dried and baked after holding the element once.

[0006]

SUMMARY OF THE INVENTION In order to achieve the above object, the present invention comprises a pair of opposing side surfaces of an element sandwiched by a holder, and one of upper and lower ridges on the front surface of the element sandwiched by the holder.
The first step of applying the electrode by abutting the applied body, and then the second step of applying the electrode by abutting the applied body to the other ridge, and then the first step, between the electrodes applied in the second step In order to connect, after passing through the third step of applying the electrode by pressing the coating body on the front surface, subsequently, on the rear surface facing the front surface, repeat the first step from the third step to apply the electrode, the expected The purpose is achieved.

[0007]

DESCRIPTION OF THE PREFERRED EMBODIMENTS According to the first aspect of the present invention, a pair of opposing side surfaces of a rectangular parallelepiped element are sandwiched between holders, and one of the upper and lower ridges on the front surface of the element sandwiched between the holders. A first step of applying the electrode by applying the applied body, and a second step of applying the electrode by applying the applied body to the other ridge, and then the first step, between the electrodes applied in the second step. After the third step of applying the electrode by pressing the application body on the front surface so as to connect the electrodes, subsequently, repeating the first to third steps on the rear surface facing the front surface to apply the electrode. A method for manufacturing an electronic component characterized by the following.

According to the above manufacturing method, the first step to the third step are continuously performed on the ridge and the side face on the front surface side of the element by holding the element once by the holding body. Similarly, the first step to the third step can be continuously performed on the ridge portion and the side surface on the rear surface side facing the front surface, resulting in extremely high productivity.

In the invention according to a second aspect of the present invention, the coating body comprises a cylindrical body and a scraping plate provided in parallel with the cylindrical body, and the cylindrical body has a plurality of grooves formed at predetermined intervals on an outer peripheral surface thereof. 2. The method for manufacturing an electronic component according to claim 1, wherein the scraping plate is formed with a notch at a position facing the groove. After scraping the electrode material applied to the groove other than the groove with a scraping plate, by contacting or pressing the cylindrical body to the element, the appropriate amount of electrode material held in the groove portion of the element ridge, In addition, the electrode material can be applied to a plurality of locations accurately and simultaneously on the side surface.

According to a third aspect of the present invention, the bottom of the groove formed in the cylindrical body is processed into an arc shape, and the surface between the grooves is mirror-finished. A method for producing an electronic component according to claim 1 or claim 2,
This makes it possible to cleanly remove the electrode material applied to the surface of the cylindrical body from the portions other than the grooves formed on the surface with a scraping plate. Therefore, only the electrode material held in the groove when the cylindrical body is brought into contact with or pressed against the element can be accurately transferred and applied to the element, and a short circuit between the formed electrodes can be prevented, and the groove can be prevented. Because the bottom of was processed into an arc shape,
The electrode material held in the groove is easily peeled from the groove.

According to a fourth aspect of the present invention, there is provided the electronic component manufacturing method according to any one of the first to third aspects, wherein the cylindrical body is made of a hardened steel material. is there. In other words, in order to continuously transfer and apply the electrode material to the element, it is necessary to always scrape off the excess electrode material applied to the surface of the cylindrical body by bringing the scraping plate into contact with the surface, For this reason, the cylindrical body is required to have abrasion resistance that can withstand long-term use, and in order to accurately form a plurality of grooves with a constant shape on the surface at narrow intervals, this cylindrical body is formed of quenched steel material did.

The invention according to claim 5 of the present invention is characterized in that the bottom of the scraping plate notch is machined into an arc shape, and the width of the notch is smaller than the width of the groove of the cylindrical body. A method of manufacturing an electronic component according to any one of claims 2 to 4. In other words, when removing the electrode material applied to other than the groove on the surface of the cylindrical body with the scraping plate, the width of the cutout portion of the scraping plate is made smaller than the width of the groove of the cylindrical body. The edge of the part presses the electrode material firmly into the groove, ensuring that an appropriate amount of electrode material is held in the groove, and the surface of the electrode material is formed in a circular arc outward along the width of the notch. Can be molded into Therefore, when the cylindrical body is brought into contact with or pressed against the element, an appropriate amount of electrode material can be reliably transferred and applied to the element. Further, since no extra electrode material is applied to the portions other than the grooves of the columnar body, it is possible to perform transfer application without short-circuiting electrodes at narrow intervals.

According to a sixth aspect of the present invention, in the electronic component according to any one of the second to fifth aspects, the scraping plate is formed of an elastic thin metal plate. It is a manufacturing method. In other words, by forming the scraping plate with an elastic metal plate, when the scraping plate is pressed against the cylinder, the scraping plate bends along the surface of the cylinder, thereby coating the surface of the cylinder. The excess electrode material thus removed can be removed neatly, and the electrode material can be pressed into the inside of the groove to maintain an appropriate amount.

According to a seventh aspect of the present invention, a part of the surface of the cylindrical body is always immersed in the electrode material tank, and the electrode material is applied to the surface while being rotated, and the surface is scraped with a scraping plate. 3. The method for manufacturing an electronic component according to claim 1, wherein after the electrode material is held only in the groove formed on the surface of the cylindrical body, the electrode material is transferred and applied to the element from the cylindrical body. It is. In other words, a part of the surface of the cylindrical body is always immersed in the electrode material bath, fresh electrode material is always supplied to the surface of the cylindrical body, and excess electrode material other than the groove of the electrode material attached to the surface is scraped off. Scraping with
An appropriate amount of the electrode material is correctly held only in the groove portion, so that the electrode material can be accurately transferred and applied to the element.

According to an eighth aspect of the present invention, in applying an electrode by applying a cylindrical body to the ridge of the element, the cylindrical body is brought into contact with the ridge in a stopped state, and then the upper ridge is formed. 2. The electronic device according to claim 1, wherein the column material is rotated counterclockwise in the case of clockwise, and clockwise in the case of the lower ridge portion, and the electrode material held in the groove of the cylindrical body is transferred and applied to the element. This is a method for manufacturing parts. As a result, it is possible to transfer and apply an appropriate amount of the electrode material to the upper and lower ridges of the front and rear surfaces of the element sandwiched by the holder.

According to a ninth aspect of the present invention, when a cylindrical body is pressed against the front or rear surface of the element to apply an electrode, the cylindrical body is pressed in a state where the cylindrical body is stopped, and a groove is formed in the cylindrical body. The method according to claim 1 or 8, wherein the held electrode material is applied to the element. This has an effect that an appropriate amount of electrode material having a uniform thickness is applied to the element, and the electrodes at the upper and lower ridges of the element already coated with the electrode material can be correctly connected.

According to a tenth aspect of the present invention, in the first to third steps of applying an electrode material to the element, the column is moved in the vertical direction of the element. A method for manufacturing an electronic component according to claim 9. This makes it possible to reliably connect the upper and lower ridges of the element and the electrodes between them, and to prevent a short circuit between adjacent electrodes even when the distance between the electrodes transferred and applied to the element is small.

According to an eleventh aspect of the present invention, an element which has been subjected to chamfering is used.
An electronic component manufacturing method according to claim 10. As a result, the ridge on the side of the element becomes an arc,
The electrodes applied to the elements sandwiched between the holding plates can be formed in a continuous U-shape.

According to a twelfth aspect of the present invention, the element is a multiple electronic component element.
The method for manufacturing an electronic component according to any one of claims 11 to 11, wherein a multiple-type electronic component element in which a plurality of functional elements are formed inside a single element also has an internal electrode on the front or rear surface thereof. External electrodes can be formed so as to be electrically connected.

According to a thirteenth aspect of the present invention, the electrode material is applied by abutting or pressing the cylindrical body in a state where the element is sandwiched between a pair of comb teeth, and the holder is in a comb shape. The method for manufacturing an electronic component according to claim 1, wherein: This makes it possible to simultaneously transfer and apply the same shape of electrode material to a large number of elements, thereby improving productivity.

According to a fourteenth aspect of the present invention, after the elements are preliminarily aligned and transported on an alignment and transport plate in a longitudinal direction, the upper portion between the comb teeth of the holding member is pushed and spread by a jig having a V-shaped projection. The method for manufacturing an electronic component according to claim 13, wherein the element is rotated by 90 degrees and inserted and clamped in the gap.
The side surface of the element to which the electrode material is transferred and coated can be properly held between the comb teeth.

According to a fifteenth aspect of the present invention, the electrode material is transferred and dried, and then the space between the comb teeth of the holder is V
The method for producing an electronic component according to claim 13 or 14, wherein the element is taken out by blowing out compressed air from a nozzle in a state of being spread by a jig having a projection. Can be easily taken out from between the comb teeth.

Hereinafter, an embodiment of the present invention will be described with reference to an element for a multi-layered multilayer ceramic capacitor in which four multilayer ceramic capacitors are formed in a single body.

(Embodiment 1) First, a plurality of ceramic dielectric layers 12 and internal electrodes 13 are alternately laminated as shown in FIG.
Four monolithic ceramic capacitors in which one end of the internal electrode 13 is alternately exposed with the ceramic dielectric layer 12 interposed therebetween and exposed on the opposing front surface 4 and rear surface 7 are formed in a single element. A rectangular sintered body 1 (an example of an element) for a continuous multilayer ceramic capacitor is prepared.

Next, the sintered body 1 is chamfered, and the entire end of the internal electrode 13 formed inside the sintered body 1 is completely exposed to the front and rear surfaces 4, 7 as shown in FIG.

Next, as shown in FIG. 2, after the sintered bodies 1 are aligned in the longitudinal direction by the alignment plate A, the sintered bodies 1 are sucked by the suction pins B and rotated 90 degrees to be turned sideways. In the state, the holding plate 20 in which the space between the comb teeth 21 is expanded by the V-shaped protrusion C
Then, the sintered body 1 is inserted between each pair of comb teeth 21. At this time, before the end of the internal electrode 13 of the sintered body 1 was exposed,
The rear faces 4, 7 are inserted so as to be horizontal. continue,
By moving the V-shaped protrusion C upward, the side surfaces 10 and 11 of the sintered body 1 are sandwiched.

Thereafter, as shown in FIG. 3, a scraping plate 25 having a notch 26 corresponding to the groove 23 is pressed against the surface of the cylindrical body 22 having the electrode material 24 adhered in the groove 23. The convex electrode material 24 is held inside the groove 23 of the body 22, and excess electrode material 24 attached to the surface of the cylindrical body 22 is scraped off.

Next, at the first station, as shown in FIG. 4A, a columnar body having an electrode material 24 adhered to the upper ridge 5 of the front surface 4 of the sintered body 1 sandwiched by the holding plate 20. The rotation of the cylinder 22 is stopped, and then the columnar body 22 is rotated in a direction opposite to the clockwise direction, and the electrode 14 is applied to the upper ridge 5. The application position at this time is a vertical upper ridge 5 portion corresponding to the end of the internal electrode 13 exposed on the front surface 4 of the sintered body 1. Subsequently, as shown in FIG.
The cylinder 22 is moved away from the sintered body 1 in the vertical lower direction,
The cylindrical body 22 is brought into contact with the lower ridge 6 of the side surface 4 of the sintered body 1 in a stopped state, and then the cylindrical body 22 is rotated clockwise to wrap around the lower ridge 6 to apply the electrode 15. The application position at this time is the internal electrode 1 exposed on the side surface 4 of the sintered body 1.
The vertical lower ridge 6 is aligned with the three ends. Subsequently, the columnar body 22 is further moved vertically upward away from the sintered body 1 and pressed against the front surface 4 of the sintered body 1 while the rotation of the cylindrical body 22 is stopped as shown in FIG. Then, the electrode 16 is transferred and applied while the sintered body 1 is slid backward between the comb teeth 21. The application position at this time is matched with the end position of the internal electrode 13 exposed on the front surface 4 of the sintered body 1 and the upper ridge 5
Electrode 14 around the lower edge and the electrode 15 around the lower ridge 6
Apply to connect. As a result, a wraparound electrode 14 is formed on the upper ridge 5 portion of the sintered body 1 sandwiched by the holding plate 20, an electrode 16 is formed on the front surface 4, and a wraparound electrode 15 is formed on the lower ridge 6 portion. Are formed, four U-shaped external electrodes are formed.

Next, the holding plate 20 is moved to the second station, and the columnar body 22 holding the electrode material 24 in the groove 23 is placed on the upper ridge 8 of the rear surface 7 of the sintered body 1 as in the first station. A wraparound electrode 17 is formed on the lower electrode 9, a wraparound electrode 18 is formed on the lower ridge 9, and an electrode 19 is formed on the rear surface 7.
After forming four U-shaped external electrodes electrically connected to the three ends, the sintered body 1 is dried together with the holding plate 20.

Next, the V-shaped projection C is lowered from above the holder 20 and inserted between the comb teeth 21, and compressed air is blown from behind the holder 20 to take out the sintered body 1. .

Next, the sintered body 1 was baked at a predetermined temperature to form an external electrode, thereby completing a quadruple-type multilayer ceramic capacitor. A 1608 type of 0.8 mm was used as the interval between adjacent ends of the internal electrodes 13 exposed on the front and rear surfaces 4 and 7 of the sintered body 1.

The material of the cylindrical body 22 is hardened steel having a diameter of 10 mm, and when pressed against the front and rear surfaces 4, 7 of the sintered body 1,
The surface of the cylindrical body 22 is sufficiently larger than the sintered body 1 so that the front surface and the rear surfaces 4 and 7 of the sintered body 1 are almost in contact with each other in a straight line. The width of the groove 23 formed on the surface of the cylindrical body 22 is 0.25 mm, the depth is 0.2 mm, and the bottom is machined in an arc shape. Further, the interval between the grooves 23 is 0.8 mm,
Four sintered bodies 1 are provided, and the surface of the cylindrical body 22 other than the groove 23 is mirror-finished. The reason why the inside of the groove 23 is formed in an arc shape is that the electrode material 24 held in the groove 23 is easily peeled off from the groove 23 when the cylindrical body 22 comes into contact with the sintered body 1.

Further, the scraping plate 25 is made of spring steel having a thickness of 0.2 mm, and an arc-shaped notch 26 having a width of 0.2 mm is provided at a position corresponding to the groove 23 of the cylindrical body 22. It is attached in such a way as to be pressed against the surface. The notch 26 of the scraping plate 25 is formed in an arc shape because the electrode material 24 held in the groove 23 of the cylindrical body 22 is required to have an application area of the electrode material 24 when the electrode material 24 contacts the sintered body 1. Consideration has been given so that it will not spread further.

As shown in FIG. 5, the electrode material 24 is applied to and held on the cylindrical body 22 by a tank 2 containing the electrode material 24.
At the lower corner position of 4a, the rotatably mounted cylindrical body 22 is rotated in the opposite direction to the clockwise direction so that the electrode material 24 is applied to the surface thereof, and the electrode material 24 attached to portions other than the grooves 23 on the side walls 27 is removed. . Subsequently, the cylindrical body 22
The scraping plate 25 attached to the surface of the side wall 27 so as to be in pressure contact with the surface of the cylindrical member 22 completely scrapes off the electrode material 24 except for the groove 23, and corresponds to the groove 23 of the columnar body 22. The surface of the electrode material 24 held in the groove 23 by the narrow notch 26 is formed into an arc shape. As a result, the electrode material 24 is strongly pressed into the groove 23, and an appropriate amount of the electrode material 24 can be held in the groove 23. Tank 2
The reason why a part of the surface of the cylindrical body 22 is always immersed in 4a is as follows.
This is for always supplying the fresh electrode material 24 to the surface of the cylindrical body 22. Further, the roller 28 provided at the other corner portion of the electrode material 24 tank rotates the roller 28 to constantly stir the electrode material 24 to keep the viscosity of the electrode material 24 constant.

In the above series of operation steps, the ridges 5, 6, 8, 9 and the front and rear surfaces 4, 7 are precisely aligned with the end positions of the internal electrodes 12 exposed on the front and rear surfaces 4, 7 of the sintered body 1. It is possible to apply an appropriate amount of the electrode material 24. Needless to say, the viscosity of the electrode material 24 must be adjusted in advance to a viscosity suitable for the width of the electrode to be formed.

According to the method of the present invention, in the quadruple-type multilayer ceramic capacitor, four external electrodes which are electrically connected to the ends of the internal electrodes 13 exposed on the front and rear surfaces 4 and 7 of the sintered body 1 are adjacent to each other. The electrodes can be formed accurately at narrow intervals without short-circuiting between the electrodes. The wraparound electrodes 14, 15, 17, formed on the surfaces 2, 3 sandwiched between the ridges 5, 6, 8, and 9 portions,
Numeral 18 is provided to ensure solderability when soldering the quadruple-type multilayer ceramic capacitor to a printed board (not shown) or the like.

[0037]

As described above, according to the present invention, a plurality of external electrodes electrically connected to the ends of the internal electrodes formed inside the multiple-type electronic component element are exposed before and after the ends of the internal electrodes are exposed. Can be accurately formed at a narrow interval without short-circuiting between adjacent electrodes.

[Brief description of the drawings]

FIG. 1 is a perspective view of a quadruple-type multilayer ceramic capacitor sintered body according to an embodiment of the present invention.

FIG. 2 is a perspective view showing a state in which the sintered body of the quadruple-type multilayer ceramic capacitor is aligned and sandwiched between holding plates.

FIG. 3A is a front view showing a relationship between a cylindrical body and a scraping plate. FIG. 3B is a front view showing a state where an electrode material is held in a groove of the cylindrical body.

FIG. 4 (a) is a view showing a state in which a wraparound electrode is applied to an upper ridge of a sintered body; and (b) is a view showing a state in which a wraparound electrode is applied to a lower ridge of the sintered body. Diagram showing the state of applying electrodes on the side

FIG. 5 is a plan view showing the overall positional relationship of the application body.

FIG. 6A is a perspective view of a state in which a wraparound electrode is applied to the upper surface of a sintered body by a conventional electrode coating method. FIG. 6B is a perspective view of a state in which a wraparound electrode is applied to the lower surface of the sintered body. ) Perspective view of the state where an external electrode is applied to the side surface of the sintered body

[Explanation of symbols]

 DESCRIPTION OF SYMBOLS 1 Sintered body 2 Upper surface 3 Lower surface 4 Front surface 5, 8 Upper ridge 6, 9 Lower ridge 7 Back surface 10, 11 Side surface 12 Dielectric ceramic layer 13 Internal electrode 14, 17, Surrounding electrode 15, 18, Surrounding electrode 16, 19 Electrode Reference Signs List 20 holding plate 21 comb teeth 22 cylindrical body 23 groove 24 electrode material 25 scraping plate 26 notch 27 electrode material tank side wall 28 roller

 ──────────────────────────────────────────────────続 き Continued on the front page (72) Inventor Ikutaka Asada 1006 Kazuma Kadoma, Osaka Prefecture Matsushita Electric Industrial Co., Ltd. Terms (Reference) 5E001 AB03 AC04 AD04 AF02 AF03 AF06 AH01 AJ03 5E082 AA01 AB03 CC20 EE04 EE23 EE35 FF05 FG06 FG26 FG46 GG10 GG28 JJ03 JJ06 JJ23 MM12 MM13 MM17

Claims (15)

[Claims] A first step of sandwiching a pair of opposing side surfaces of a rectangular parallelepiped element with a holder, and applying an electrode by applying an application body to one of upper and lower ridges on the front surface of the element sandwiched by the holder;
Next, the second step of applying the electrode by abutting the applied body on the other ridge, and then pressing the applied body to the front surface, so as to connect the electrodes applied in the first step and the second step. A method of manufacturing an electronic component, comprising: after a third step of applying an electrode, subsequently repeating the first to third steps to apply an electrode to a rear surface facing the front surface. 2. The coating body comprises a cylindrical body and a scraping plate provided in parallel with the cylindrical body. The cylindrical body has a plurality of grooves at predetermined intervals on an outer peripheral surface thereof, and the scraping plate is provided with the grooves. The method for manufacturing an electronic component according to claim 1, further comprising a notch at a position facing the electronic component. 3. The electronic component according to claim 1, wherein the bottom of the groove formed in the cylindrical body is processed into an arc shape, and a surface between the grooves is mirror-finished. Manufacturing method. 4. The method for manufacturing an electronic component according to claim 1, wherein the cylindrical body is made of a hardened steel material. 5. The scraper according to claim 2, wherein the bottom of the cutout portion is machined into an arc shape, and the width of the cutout portion is smaller than the width of the groove of the cylindrical body. A method for manufacturing an electronic component according to any one of the preceding claims. 6. The method for manufacturing an electronic component according to claim 2, wherein the scraping plate is formed of an elastic thin plate. 7. A part of the surface of the cylindrical body is always immersed in an electrode material tank, and the surface is coated with an electrode material while rotating.
The electrode material is applied to the element from the cylindrical body after the electrode material is held only in the groove formed on the surface of the cylindrical body by scraping the electrode material with the scraping plate. Electronic component manufacturing method. 8. When a cylindrical body is brought into contact with the ridge of the element and the electrode is applied, after the column is brought into contact with the ridge in a stopped state,
2. The device according to claim 1, wherein the electrode material held in the groove of the cylindrical body is applied to the element by rotating the cylindrical body clockwise in the case of the upper ridge and clockwise in the case of the lower ridge. Electronic component manufacturing method. 9. A method of applying an electrode by pressing a cylindrical body on the front or rear surface of the element and applying the electrode material held in the groove of the cylindrical body to the element by pressing the cylindrical body while the cylindrical body is stopped. The method for manufacturing an electronic component according to claim 1, wherein: 10. The device according to claim 1, wherein in the first to third steps of applying an electrode material to the device, the column is moved in the vertical direction of the device. Electronic component manufacturing method. 11. The method for manufacturing an electronic component according to claim 1, wherein an element subjected to chamfering is used. 12. The method for manufacturing an electronic component according to claim 1, wherein the element is a multiple-type electronic component element. 13. The holding body according to claim 1, wherein the holding body has a comb shape, and the electrodes are applied by abutting or pressing the cylindrical body in a state where the element is sandwiched between a pair of comb teeth. Manufacturing method of electronic components. 14. After the elements are preliminarily aligned and conveyed on an aligning and conveying plate in the longitudinal direction, the elements are rotated 90 degrees in a gap in which the upper portion between the comb teeth of the holding body is spread by a jig having a V-shaped projection. The method for manufacturing an electronic component according to claim 13, wherein the electronic component is inserted and clamped. 15. An electrode material is transferred and coated on the element, dried and dried.
14. The device according to claim 13, wherein compressed air is blown from a nozzle to the element while the space between the comb teeth of the holding body is pushed out from above by a jig having a V-shaped projection, and the element is taken out of the holding body. A method for manufacturing an electronic component according to claim 14.