TWI675386B - Electronic parts - Google Patents

Abstract

An object of the present invention is to suppress deterioration of isolation in an electronic component including a terminal disposed on a first side and a terminal disposed on a second side opposite to the first side.

The electronic component (1) of the present invention includes a plurality of terminals (P1 to P3) arranged on a first side (SA), and a plurality of terminals arranged on a second side (SB) opposite to the first side (SA). (P4 ~ P6). The plurality of terminals (P1 ~ P3) arranged on the first side (SA) is the opposite of the sum of the terminals arranged on the first side (SA) and the plurality of terminals (P4 ~ P6) arranged on the second side (SB). Areas where any one of the areas (14-16) is staggered. The terminals (P4 ~ P6) arranged on the second side (SB) are opposite to the sum of the terminals arranged on the second side (SB) and the terminals (P1 ~ P3) arranged on the first side (SA). Areas in which any one of the areas (11 to 13) is staggered.

Description

   Electronic parts   

The invention relates to a rectangular parallelepiped electronic component.

A cuboid-shaped electronic component is disclosed in International Publication No. WO2012 / 124374 (Patent Document 1). This electronic component includes first and second external electrodes arranged on first and second outer peripheral surfaces that face each other. The first and second external electrodes are respectively disposed in mutually opposing regions on the first and second outer peripheral surfaces.

[Prior technical literature]

[Patent Literature]

[Patent Document 1] International Publication WO2012 / 124374

However, if the first and second external electrodes are arranged in areas facing each other like the electronic component disclosed in Patent Document 1, the area where the electrodes face each other becomes larger, so that the first and second external electrodes occur with each other. Capacitive coupling may cause isolation degradation (increased signal leakage). In particular, the degree of capacitive coupling between electrodes is directly proportional to the opposing areas of the electrodes and inversely proportional to the distance between the electrodes. If the miniaturization of electronic components is developed, the distance between the electrodes (the first and second outer peripheral surfaces The distance) is shortened and the capacitive coupling between the electrodes is further increased, so there is a concern that the isolation is further deteriorated.

The present invention has been made in view of the problems described above, and an object thereof is to suppress deterioration of isolation in an electronic component having first and second external electrodes that are respectively disposed on first and second outer peripheral surfaces facing each other.

(1) The electronic component of the present invention has a rectangular parallelepiped shape with a first outer peripheral surface and a second outer peripheral surface facing each other, and includes a plurality of first external electrodes, each of which has an outer peripheral surface disposed on the first outer peripheral surface. The first portion does not include a second portion disposed on the second outer peripheral surface; and at least one second external electrode includes the second portion and does not include the first portion. At least a part of the first part of each of the first external electrodes is an area disposed in the first outer peripheral surface and staggered from a region facing the second part of the second external electrode. At least a part of the second portion of the second external electrode is an area disposed on the second outer peripheral surface and staggered from any one of the plurality of areas facing the first portion of the plurality of first external electrodes.

According to the above-mentioned configuration, at least a part of the first part of each of the first external electrodes and at least a part of the second part of the second external electrodes are disposed in areas not facing each other. Therefore, compared with a case where all of the first part of each of the first external electrodes and all of the second part of the second external electrodes are disposed in areas facing each other, each of the plurality of first external electrodes and the second external electrode Since the facing area is reduced, the degree of capacitive coupling between the first and second external electrodes can be reduced. As a result, in the electronic component provided with the first and second external electrodes respectively disposed on the first and second outer peripheral surfaces facing each other, deterioration of isolation can be suppressed.

(2) In one embodiment, the electronic component includes a plurality of second external electrodes. At least a part of the first part of each of the first external electrodes is an area arranged in the first outer peripheral surface and staggered from any one of a plurality of areas facing the second part of the plurality of second external electrodes. At least a part of the second part of each of the second external electrodes is an area disposed in the second outer peripheral surface and staggered from any one of a plurality of areas facing the first part of the plurality of first external electrodes.

According to the above configuration, when the electronic component includes the plurality of first external electrodes and the plurality of second external electrodes, the capacitive coupling between each of the plurality of first external electrodes and each of the plurality of second external electrodes can be suppressed. .

(3) In one embodiment, all of the first portions of each of the first external electrodes are arranged in the first outer peripheral surface and any one of a plurality of areas opposed to the second portion of the plurality of second external electrodes, respectively. Areas where both are staggered. The second portions of each second external electrode are all arranged in the second outer peripheral surface and a region staggered from any one of a plurality of regions opposed to the first portion of the plurality of first external electrodes.

According to the above configuration, all of the first portions of each of the first external electrodes and the second portions of each of the second external electrodes are arranged in areas not facing each other. Therefore, as compared with a case where a part of the first part of each of the first external electrodes and a part of the second part of each of the second external electrodes are arranged in areas that do not face each other, each of the plurality of first external electrodes is plural and plural. Since the opposing area of each of the second external electrodes is further reduced (becomes 0), the degree of capacitive coupling between the first and second external electrodes can be made smaller.

(4) In one embodiment, the electronic component further includes a third outer peripheral surface connected to the first outer peripheral surface and the second outer peripheral surface; and a fourth outer peripheral surface connected to the first outer peripheral surface and the second outer peripheral surface. And facing the third outer periphery. The distance between the first outer peripheral surface and the second outer peripheral surface is shorter than the distance between the third outer peripheral surface and the fourth outer peripheral surface.

According to the above configuration, the distance between the first and second outer peripheral surfaces is shorter than the distance between the third and fourth outer peripheral surfaces, and accordingly, the degree of capacitive coupling between the first and second external electrodes may increase. However, according to the above-mentioned configuration, at least a part of the first part of each of the first external electrodes and at least a part of the second part of the second external electrodes are disposed in areas not facing each other. Thereby, the opposing area of each of the plurality of first external electrodes and the second external electrode is reduced, and therefore, the degree of capacitive coupling between the first and second external electrodes can be suppressed from increasing.

(5) In one embodiment, the electronic component includes a third external electrode having a third portion disposed on the third outer peripheral surface, and a fourth external electrode having a fourth portion disposed on the fourth outer peripheral surface. . At least a part of the third part of the third external electrode is an area disposed in the third outer peripheral surface and staggered from a region facing the fourth part of the fourth external electrode. At least a part of the fourth portion of the fourth external electrode is an area disposed in the fourth outer peripheral surface and staggered from a region facing the third portion of the third external electrode.

According to the above configuration, at least a part of the third part of the third external electrode and at least a part of the fourth part of the fourth external electrode are also disposed in areas not facing each other. Therefore, in addition to suppressing the capacitive coupling between the first and second external electrodes, it is also possible to suppress the capacitive coupling between the third and fourth external electrodes.

(6) In an embodiment, the electronic component includes: a third external electrode having a third portion disposed on the third outer peripheral surface; and a fourth external electrode having a fourth portion disposed on the fourth outer peripheral surface. . The third portion of the third external electrode is an area in the third outer peripheral surface that is closer to the center than the first external electrode and the second external electrode and has a larger distance from the third outer peripheral surface. The fourth part of the fourth external electrode is an area in the fourth outer peripheral surface which is closer to the center than the first external electrode and the second external electrode and has a larger distance from the fourth outer peripheral surface.

According to the above configuration, it is assumed that the distance between the third outer peripheral surface and the first external electrode and the distance between the third outer peripheral surface and the second external electrode are changed by arranging the first and second external electrodes in areas that do not face each other. Get uneven. Therefore, if the third external electrode is arranged in the center of the third outer peripheral surface, the distance between the third external electrode and the first and second external electrodes, which has a smaller distance from the third outer peripheral surface, cannot be ensured. There is a concern that separation between the third external electrode and the electrode having a smaller distance from the third outer peripheral surface may cause deterioration.

Therefore, in the above-mentioned configuration, the third portion of the third external electrode is arranged in a region on the third outer peripheral surface which is closer to the center than the distance between the first and second external electrodes and the third outer peripheral surface. Larger electrodes. Thereby, compared with the case where the third external electrode is arranged at the center of the third outer peripheral surface, the distance between the third external electrode and the electrode having a smaller distance from the third outer peripheral surface can be secured. Therefore, it is possible to suppress the deterioration of the separation between the third external electrode and the electrode having a smaller distance from the third outer peripheral surface.

Similarly, the fourth portion of the fourth external electrode is disposed in an area on the fourth outer surface which is closer to the center than the first and second external electrodes and has a larger distance from the fourth outer surface. . Thereby, compared with the case where the fourth external electrode is arranged at the center of the fourth outer peripheral surface, the distance between the fourth external electrode and the first and second external electrodes which is smaller than the distance from the fourth outer peripheral surface can be ensured. distance.

Therefore, it is possible to suppress the deterioration of the isolation between the fourth external electrode and the electrode having a smaller distance from the fourth outer peripheral surface.

According to the present invention, in the electronic component including the first and second external electrodes that are respectively disposed on the first and second outer peripheral surfaces facing each other, it is possible to suppress deterioration of isolation.

1, 1A, 1B, 1C‧‧‧Electronic parts

11 ~ 18‧‧‧ facing area

BF‧‧‧ Underside

P1 ~ P8‧‧‧Terminals

CL3‧‧‧ Center of 3rd SC

CL4‧‧‧ Center of 4th SD

LX‧‧‧Distance between 3rd SC and 4th SD

LY‧‧‧The distance between the first side SA and the second side SB

SA‧‧‧Part 1

SB‧‧‧The second side

SC‧‧‧3rd side

SD‧‧‧ 4th side

UF‧‧‧upper surface

FIG. 1 is an external perspective view of an electronic component.

Fig. 2 is a cross-sectional view (part one) of an electronic component.

Fig. 3 is a sectional view of the electronic component (part two).

Fig. 4 is a sectional view of the electronic part (part 3).

Fig. 5 is a sectional view of the electronic component (part 4).

Hereinafter, embodiments will be described with reference to the drawings. In the drawings of the embodiment, the same reference symbols or reference numerals indicate the same or corresponding parts. Moreover, in the description of the embodiment, overlapping descriptions may be omitted for parts and the like marked with the same reference symbols and the like.

FIG. 1 is an external perspective view of an electronic component 1 according to this embodiment. The electronic component 1 is formed in a rectangular parallelepiped shape by laminating a plurality of rectangular dielectric bodies. Hereinafter, the laminated direction of the dielectric body (the height direction of the electronic component 1) is set to the Z-axis direction. The long side (width) direction of the electronic component 1 is set to the X-axis direction. The short-side (depth) direction of the electronic component 1 is set to the Y-axis direction. The X-axis, Y-axis, and Z-axis are orthogonal to each other.

As shown in FIG. 1, the electronic component 1 has a rectangular parallelepiped shape, and has six outer peripheral surfaces, that is, an upper surface UF and a bottom surface BF that are parallel to the XY plane and face each other, and a first side surface SA that is parallel and opposite to the ZX plane and The second side surface SB, and the third side surface SC and the fourth side surface SD parallel to the YZ plane and facing each other.

The electronic component 1 includes terminals (external electrodes) P1 to P8 that can be connected to an external device. Terminals P1 ~ P8 are used as input ports where high-frequency signals are input from external devices, output ports that output high-frequency signals to external devices, ground ports terminated with a predetermined resistance value, and ground ports connected to ground potential.

Each of the terminals P1 to P3 (the first external electrode) is provided over the upper surface UF, the first side surface SA, and the bottom surface BF. Each of the terminals P4 to P6 (second external electrode) is provided over the upper surface UF, the second side surface SB, and the bottom surface BF. The terminal P7 (third external electrode) is provided over the upper surface UF, the third side surface SC, and the bottom surface BF. The terminal P8 (fourth external electrode) is provided over the upper surface UF, the fourth side surface SD, and the bottom surface BF.

In addition, in this embodiment, an example in which the shapes of the terminals P1 to P8 are substantially the same will be described, but the shapes of the terminals P1 to P8 need not be the same. For example, the width in the X-axis direction of one of the terminals P1 to P8 may be different from the width in the X-axis direction of the remaining portions.

In addition, each of the terminals P1 to P8 may not have a portion arranged on at least one of the upper surface UF and the bottom surface BF. That is, each of the terminals P1 to P3 (the first external electrode) has at least a portion disposed on the first side surface SA (more specifically, a portion extending from the upper side to the lower side of the first side surface SA) and not It is sufficient to have a part arranged on the second side surface SB. Each of the terminals P4 to P6 (the second external electrode) has at least a portion disposed on the second side surface SB (more specifically, a portion extending from the upper side to the lower side of the second side surface SB) and has no arrangement. It is sufficient for the part on the first side SA. The terminal P7 (third external electrode) has at least a portion arranged on the third side SC (more specifically, a portion extending from the upper side to the lower side of the third side SC) and does not have a portion arranged on the fourth side SD. Part of it. The terminal P8 (the fourth external electrode) has at least a portion disposed on the fourth side SD (more specifically, a portion extending from the upper side to the lower side of the fourth side SD) and does not have a portion disposed on the third side SC Part of it.

In the following, in order to simplify the description, “the portion where the terminal P1 is disposed on the first side SA”, “the portion where the terminal P2 is disposed on the first side SA”, and “the portion where the terminal P3 is disposed on the first side SA” are also respectively Briefly described as "terminal P1", "terminal P2", and "terminal P3". "Portion of the terminal P4 on the second side SB", "Portion of the terminal P5 on the second side SB", and "Portion of the terminal P6 on the second side SB" are also simply described as "terminal P4" "," Terminal P5 "," terminal P6 ". "The portion where the terminal P7 is arranged on the third side SC" and "the portion where the terminal P8 is arranged on the fourth side SD" are also simply described as "terminal P7" and "terminal P8".

FIG. 2 is a cross-sectional view when the electronic component 1 is cut on a plane parallel to the XY plane. The distance between the first side surface SA and the second side surface SB facing each other is the length LY of the short-side direction (Y-axis direction) of the electronic component 1. The distance between the third side surface SC and the fourth side surface SD facing each other is the length LX of the long side direction (X-axis direction) of the electronic component 1.

In FIG. 2, the areas where the terminals P1 to P3 are respectively projected to the second side surface SB along the Y-axis direction are shown as the areas 11 to 13 facing the terminals P1 to P3 in the second side surface SB, respectively. Similarly, the areas where the terminals P4 to P6 are respectively projected to the first side surface SA along the Y-axis direction are indicated as the areas 14 to 16 opposite to the terminals P4 to P6 in the first side surface SA, respectively. The area where the terminal P8 is projected to the third side surface SC along the X-axis direction is shown as the area 18 facing the terminal P8 in the third side surface SC. A region where the terminal P7 is projected to the fourth side surface SD along the X-axis direction is indicated as an area 17 facing the terminal P7 in the fourth side surface SD.

As described above, the terminals P1 to P3 are arranged on the first side surface SA. The terminals P4 to P6 are arranged on the second side surface SB opposite to the first side surface SA. The terminal P7 is arranged on the third side SC. The terminal P8 is arranged on a fourth side SD facing the third side SC.

If the terminals P1 to P3 are respectively arranged in the areas 14 to 16 opposite to the terminals P4 to P6 in the first side SA, the opposing areas of each of the terminals P1 to P3 and each of the terminals P4 to P6 become larger. Therefore, there is a possibility that the opposing terminals may be capacitively coupled to each other, which may cause isolation degradation. Similarly, if the terminal P7 is disposed in the area 18 opposite to the terminal P8 in the third side SC, the terminals P7 and P8 facing each other may be capacitively coupled to each other, which may cause isolation degradation.

The capacitive coupling degree of the opposing terminals is proportional to the opposing area of the terminals and inversely proportional to the distance between the terminals. If the miniaturization of the electronic component 1 is developed, the distance between the terminals (the length LY in the short side direction, or The length LX) in the long-side direction is shortened, and the degree of capacitive coupling between the terminals becomes larger. Therefore, there is a concern that the isolation may further deteriorate. In particular, the distance LY between the first side SA and the second side SB is shorter than the distance LX between the third side SC and the fourth side SD. Accordingly, the capacitive coupling between the terminals P1 to P3 and the terminals P4 to P6 becomes larger. Concerns.

In view of the foregoing, in the electronic component 1 of this embodiment, the terminals P1 to P3 are arranged in a region where the sum of the first side SA and the opposing regions 14 to 16 of the terminals P4 to P6 are staggered. The terminals P4 to P6 are arranged in areas where the sum of the second side surface SB and any of the facing areas 11 to 13 of the terminals P1 to P3 are staggered.

Therefore, the terminals P1 to P3 (the first external electrode) disposed on the first side SA and the terminals P4 to P6 (the second external electrode) disposed on the second side SB opposite to the first side SA do not face each other. to. Therefore, the opposing areas of the terminals P1 to P3 and the terminals P4 to P6 become 0, and therefore, the degree of capacitive coupling between each of the terminals P1 to P3 and each of the terminals P4 to P6 can be suppressed to a very small value.

Furthermore, in the electronic component 1 of this embodiment, the terminal P7 is arranged in a region where the sum of the third side surface SC and the opposing region 18 of the terminal P8 are staggered. The terminal P8 is arranged in a region where the sum of the fourth side SD is staggered from the facing region 17 of the terminal P7. Therefore, in addition to suppressing the degree of capacitive coupling between each of the terminals P1 to P3 and each of the terminals P4 to P6, it is also possible to suppress the capacitive coupling between the terminals P7 and P8.

Furthermore, in the electronic component 1 of this embodiment, the terminal P7 is arranged in a region closer to the terminal P1 than the center CL3 in the third side surface SC. In this embodiment, the terminals P1 to P3 (the first external electrode) and the terminals P4 to P6 (the second external electrode) are arranged in areas not facing each other, and the third side SC and the terminal P4 (the second external electrode) ) Is smaller than the distance between the third side SC and the terminal P1 (the first external electrode). Therefore, if the terminal P7 is arranged at the center CL3 of the third side SC, the distance between the terminal P7 and the terminal P4 cannot be ensured, and there is a concern that the isolation between the terminal P7 and the terminal P4 may deteriorate.

Therefore, in this embodiment, the terminal P7 is arranged in an area in the third side SC, which is closer to the terminal P1 and the terminal P1 in the terminal P1 and the terminal P4 than the center CL3 in the third side SC. Thereby, compared with the case where the terminal P7 is arranged in the center CL3 of the third side SC, the distance between the terminal P7 and the terminal P4 can be ensured. Therefore, it is possible to suppress the occurrence of deterioration in isolation between the terminal P7 and the terminal P4.

Similarly, in the electronic component 1 of this embodiment, the terminal P8 is arranged in the following area in the fourth side SD, which is closer to the terminal P3 and the terminal P6 than the central CL4 in the distance from the fourth side SD.大 之 terminal P6. Thereby, compared with the case where the terminal P8 is arranged in the center CL4 of the fourth side SD, the distance between the terminal P8 and the terminal P3 can be ensured. Therefore, it is possible to suppress the occurrence of deterioration in isolation between the terminal P8 and the terminal P3.

As described above, in the electronic component 1 of this embodiment, the terminals P1 to P3 arranged on the first side SA and the terminals P4 to P6 arranged on the second side SB opposite to the first side SA are not opposed to each other. It is arranged so that the facing area becomes 0. Thereby, the degree of capacitive coupling between each of the terminals P1 to P3 and each of the terminals P4 to P6 can be suppressed to a very small value.

Furthermore, in the electronic component 1 of this embodiment, the terminal P7 arranged on the third side SC and the terminal P8 arranged on the fourth side SD are arranged so as not to face each other (the facing area becomes 0). Accordingly, the degree of capacitive coupling between the terminal P7 and the terminal P8 can be suppressed to a very small value.

<Modification 1>

Although in the electronic component 1 of the embodiment described above, the terminals P7 and P8 are arranged on the third side SC and the fourth side SD, respectively, but they may not have at least one of the terminals P7 and P8.

FIG. 3 is an example of a cross-sectional view when the electronic component 1A of the first modification example is cut on a plane parallel to the XY plane. The electronic component 1A of the first modification is obtained by removing the terminals P7 and P8 from the electronic component 1 of the above embodiment.

In such an electronic component 1A, the terminals P1 to P3 and the terminals P4 to P6 are arranged in an opposite manner to the electronic component 1 of the embodiment described above. Therefore, each of the terminals P1 to P3 and the terminal can be arranged. The capacitance coupling of each of P4 to P6 is suppressed to a very small value.

<Modification 2>

In the electronic component 1 of the above-mentioned embodiment, all of the terminals P1 to P3 are arranged in an area staggered from any of the facing areas 14 to 16, and all of the terminals P4 to P6 are arranged in the opposite area. Areas in which any one of the areas 11 to 13 is staggered.

However, it is also possible to arrange only a part of each of the terminals P1 to P3 in an area staggered from any of the opposing areas 14 to 16, and to arrange only a part of each of the terminals P4 to P6 in the opposite A region staggered to any of the regions 11 to 13.

FIG. 4 is an example of a cross-sectional view when the electronic component 1B according to the second modification example is cut on a plane parallel to the XY plane. The electronic component 1B of the second modification is different from the electronic component 1 of the above embodiment only in the arrangement of the terminals P1 to P6.

As shown in FIG. 4, in the electronic component 1B of the second modification, most of the terminal P1 is disposed in a region staggered from the facing region 14 to 16, but the remaining portion is included in the facing region 14 and the terminal P4. Opposite. Moreover, although most of the terminal P4 is disposed in a region staggered from the facing region 11 to 13, the remaining portion is included in the facing region 11 and faces the terminal P1. The arrangement relationship between the terminal P2 and the terminal P5, and the arrangement relationship between the terminal P3 and the terminal P6 are also the same as the arrangement relationship between the terminal P1 and the terminal P4.

In such an electronic component 1B, all of the terminals P1 to P3 are included in any one of the facing areas 14 to 16 and each of the terminals P4 to P6 are included in any of the facing areas 11 to 13 Compared with one case, the opposing areas of the terminals P1 to P3 and the terminals P4 to P6 also become smaller, so the capacitive coupling between the terminals P1 to P3 and the terminals P4 to P6 can also be reduced.

<Modification 3>

In the electronic component 1 of the embodiment described above, an example in which three terminals P1 to P3 are arranged on the first side SA and three terminals P4 to P6 are arranged on the second side SB has been described. However, the number of terminals arranged on the first side SA and the number of terminals arranged on the second side SB are not limited to three, and may be one, two, or four or more.

Further, in the electronic component 1 of the above embodiment, the terminals P1 to P3 arranged on the first side SA and the terminals P4 to P6 arranged on the second side SB are not opposed to each other, and are also arranged on the third side SC The terminal P7 and the terminal P8 arranged on the fourth side SD are also arranged in an opposite manner. However, the terminal P7 arranged on the third side SC and the terminal P8 arranged on the fourth side SD may be arranged to face each other.

FIG. 5 is an example of a cross-sectional view when the electronic component 1C of the third modification example is cut on a plane parallel to the XY plane. The electronic component 1C of this modification 3 is obtained by removing the terminals P3, P5, and P6 from the electronic component 1 of the above embodiment, and further changing the arrangement of the terminals P1, P2, P4, P7, and P8.

The distance LY between the first side SA and the second side SB is shorter than the distance LX between the third side SC and the fourth side SD, and accordingly, the degree of capacitive coupling between the terminals P1 and P2 and the terminal P4 may increase. Therefore, in the electronic component 1C of the third modification example, as shown in FIG. 5, the terminals P1 and P2 arranged on the first side SA are arranged in a region staggered from the facing region 14 and the terminals arranged on the second side SB P4 is arranged in a region staggered from the opposing regions 11 and 12. Thereby, the degree of capacitive coupling between the terminals P1 and P2 and the terminal P4 can be suppressed to a very small value.

On the other hand, it is assumed that the distance LX between the third side SC and the fourth side SD is longer than the distance LY between the first side SA and the second side SB. Accordingly, even if the terminals P7 and P8 face each other, the capacitive coupling degree of the two It is also a smaller value. In addition, the third side surface SC and the fourth side surface SD are smaller in width than the first side surface SA and the second side surface SB, and the area where the terminals can be arranged is narrow.

Therefore, in the electronic component 1C of the third modification, as shown in FIG. 5, the terminal P7 disposed on the third side SC is disposed in the facing area 18, and the terminal P8 disposed on the fourth side SD is disposed in the opposite side. Area 17. In this way, the terminals P7 and P8 that are respectively disposed on the third side SC and the fourth side SD that are arranged on the third side SC and the fourth side SD with a long opposing distance and a narrow terminal arrangement area are allowed to face each other. This makes it possible to freely set the arrangement area of the terminals P7 and P8 while suppressing the capacitive coupling degree of the terminals P7 and P8.

The embodiments disclosed this time should be considered as illustrative and not restrictive in all respects. For example, at least a part of the above-mentioned first part of the external electrode disposed on the upper surface may be disposed in a region staggered from a region opposed to the external electrode disposed on the bottom surface. The scope of the present invention is indicated by the scope of the patent application rather than the description above, and is intended to include all modifications within the meaning and scope equivalent to the scope of the patent application.

Claims (5)

An electronic component having a rectangular parallelepiped shape with a first outer peripheral surface and a second outer peripheral surface facing each other, and is characterized by including a plurality of first external electrodes, each of which has an outer peripheral surface disposed on the first outer peripheral surface. The first part does not have the second part disposed on the second outer peripheral surface; at least one second external electrode has the second part and does not include the first part; the third outer surface is connected to the above The first outer peripheral surface and the second outer peripheral surface; the fourth outer peripheral surface is connected to the first outer peripheral surface and the second outer peripheral surface and faces the third outer peripheral surface; and the third external electrode has a configuration A third portion of the third outer peripheral surface; and a fourth external electrode having a fourth portion disposed on the fourth outer peripheral surface; and at least a part of the first portion of each of the first external electrodes is disposed on the first 1 is an area on the outer peripheral surface that is opposite to the area facing the second part of the second external electrode, and at least a part of the second part of the second external electrode is disposed on the second outer surface With the plurality of first external power The above-mentioned part 1 is a region in which any one of the plurality of regions is staggered; the above-mentioned third part of the third external electrode is arranged in the following area in the above-mentioned third outer peripheral surface, which is more than the center An electrode closer to the first outer electrode and the second outer electrode and having a larger distance from the third outer peripheral surface; the fourth portion of the fourth outer electrode is disposed in the following area on the fourth outer peripheral surface, This region is an electrode which is closer to the fourth outer peripheral surface than the first outer electrode and the second outer electrode from the center. The electronic component according to claim 1, wherein the electronic component includes a plurality of the second external electrodes, At least a part of the first part of each of the first external electrodes is any one of a plurality of regions arranged in the first outer peripheral surface and facing the second part of the plurality of second external electrodes, respectively. In the regions staggered, at least a part of the second portion of each of the second external electrodes is a plurality of regions arranged in the second outer peripheral surface and facing the first portions of the plurality of first external electrodes, respectively. Areas where either of them is staggered. The electronic component according to claim 2, wherein the first portion of each of the first external electrodes is all arranged in the first outer peripheral surface and is opposed to the second portions of the plurality of second external electrodes, respectively. A region in which any one of the plurality of regions is staggered, and the second portion of each of the second external electrodes is entirely arranged in the second outer peripheral surface and is opposite to the first portion of the plurality of first external electrodes, respectively. An area in which any one of the plurality of areas is staggered. The electronic component according to any one of claims 1 to 3, wherein a distance between the first outer peripheral surface and the second outer peripheral surface is shorter than a distance between the third outer peripheral surface and the fourth outer peripheral surface. The electronic component according to claim 4, wherein at least a part of the third part of the third external electrode is disposed in the third outer peripheral surface and facing the fourth part of the fourth external electrode. In the staggered area, at least a part of the fourth part of the fourth external electrode is an area disposed on the fourth outer peripheral surface and staggered from an area facing the third part of the third external electrode.