JP5513463B2 - Drawer storage structure - Google Patents

Description

  The present invention relates to an improvement of a drawer storage structure in which a drawer can be stored well.

  When the drawer is pushed into the drawer storage section vigorously, the drawer may bounce back and jump out of the drawer storage section. In order to prevent this, a resin stopper is generally used, but it has been pointed out that it is difficult to maintain a constant catching force due to deterioration due to temperature change, wear due to long-term use, and the like.

  Although it is conceivable to use a damper mechanism or the like, not only is it difficult to cope with a small drawer storage structure because installation space is required, but an increase in cost is unavoidable.

  On the other hand, in Patent Document 1, the first magnet is attached to the rear portion of the bottom plate of the drawer, and the first magnet and the second magnet having the opposite polarity are attached to the bottom portion of the drawer storage portion corresponding to the bottom plate of the drawer, thereby completing the drawer push-in state. Thus, the attracting force is exerted by bringing both magnets close to each other so that the drawer does not jump out of the drawer storage section even if the drawer is pushed into the drawer storage section vigorously.

Japanese Patent Laying-Open No. 2011-62416 (paragraphs 0021-0024, FIGS. 2, 6-8)

  However, in the said patent document 1, when the attraction force of a 1st magnet and a 2nd magnet is too strong, there exists a dislike that the impact at the time of pushing in a drawer becomes strong. Furthermore, since the first magnet is attached to the bottom plate of the drawer, in the case of the second and third stage drawers, there is no place for mounting the second magnet on the drawer storage section side, and it is difficult to cope with it. In addition, when an object is stored in the drawer, the bottom plate may warp due to the weight. In this case, the first magnet is too close to the second magnet and the attracting force becomes excessive, or both magnets are in contact with each other. This makes it difficult to enter and exit.

  The present invention has been made in view of the above points, and the object of the invention is to provide a constant catching force in a state in which the drawing of the drawer is completed even when the drawing of the drawer is not strong and there are a plurality of drawers. Is to prevent the drawer from bouncing back.

  In order to achieve the above object, the present invention is characterized in that the repulsive force of the magnet is utilized when the drawer is pushed in, and the mounting location and the mounting method are devised.

  Specifically, the present invention is directed to a drawer storage structure in which a drawer is stored in a drawer storage unit so that it can be inserted and removed horizontally, and the following solution is provided.

That is, in the first invention, a first magnet is attached to a side plate of the drawer, and a second magnet having the same polarity as the first magnet is attached to a side plate of the drawer storage portion corresponding to the side plate of the drawer. A third magnet having a polarity opposite to the first magnet is attached to the side plate of the drawer in front of the drawer storage section with respect to the first magnet, and the first magnet is in the drawer drawer state. Is located closer to the drawer storage unit than the second magnet when the drawer is fully inserted, and is located further to the interior of the drawer storage unit than the second magnet. It is located on the front side of the drawer storage unit .

According to a second aspect of the present invention, as the object drawer storage structure, a first magnet is attached to a side plate of the drawer, and a side plate of the drawer storage portion corresponding to the side plate of the drawer is the same as the first magnet. A polar second magnet is attached, and on the side plate of the drawer storage part, a third magnet having a polarity opposite to the first magnet is attached to the back side of the drawer storage part with respect to the second magnet, and the first magnet is In the drawer drawer state, it is located closer to the drawer storage part than the second magnet, and in the drawer push-in completion state, it is located farther from the second magnet storage part than the second magnet. In the state, it is located in the drawer storage part back | inner side rather than the said 1st magnet.

According to a third invention, in the first invention, a fourth magnet having the same polarity as the first magnet is attached to the side plate of the drawer storage portion closer to the front side of the drawer storage portion than the second magnet. The magnet overlaps with the third magnet in a side view when the drawer is fully inserted.

According to a fourth invention, in the second invention, on the side plate of the drawer, a fourth magnet having the same polarity as the first magnet is attached to the deeper side of the drawer storage portion than the second magnet, and the fourth magnet is In the drawing-in completion state, the third magnet overlaps the third magnet in a side view.

According to a fifth aspect of the present invention, as the object drawer storage structure, a first magnet is attached to a side plate of the drawer, and a side plate of the drawer storage portion corresponding to the side plate of the drawer is the same as the first magnet. A second magnet having polarity is attached, and a third magnet having a polarity opposite to the first magnet is attached to the side plate of the drawer housing portion closer to the drawer housing portion than the second magnet. A fourth magnet having the same polarity as that of the first magnet is attached to the front side of the drawer housing portion with respect to the first magnet, and a fifth magnet having a polarity opposite to the first magnet is disposed on the side plate of the drawer. The first magnet is positioned in front of the drawer storage unit with respect to the second magnet in the drawer drawer state, and the rear side of the drawer storage unit with respect to the second magnet in the drawer press-in state. located in, the third magnet, the first magnet and completion status closet drawers Located in remote drawer storage unit front side, and is overlapped with the fourth magnet and a side view, the fifth magnet is positioned in the drawer storage portion front side than the second magnet and completion status closet drawers It is characterized by being .

According to the first invention, immediately before the draw-in press is completed, the first magnet approaches the second magnet and the pull-in press speed is weakened by the repulsive force of both magnets. There is no impact from the reaction. Further, in the drawer push-in completed state, the first magnet is located on the back side of the drawer storage unit with respect to the second magnet. It is kept stable. Furthermore, since the pulling-out or pushing-in is achieved by overcoming the repulsive force of both magnets when the drawer is put in and out, the operation feeling at the time of putting in and out is obtained and the operability is good. In addition, since the first magnet is attached to the side plate of the drawer, and the second magnet is attached to the side plate of the drawer storage unit, even in the case of a drawer storage structure having a plurality of drawers, the magnet installation is hindered. Therefore, it is possible to keep the catching force in a state where the drawer has been pushed in and prevent the drawer from bouncing back. In addition, in the drawing-in state of the drawer, the drawing force to the front side of the drawer storage unit due to the attracting force of the third magnet and the second magnet and the rear side of the drawer storage unit due to the repulsive force between the first magnet and the second magnet The balance with the pull-in force is improved, and the operability during entry / exit is further improved.

According to the second invention, the same effect as the first invention can be obtained. In addition, in the drawing-in state of the drawer, the drawing force to the front side of the drawer storage unit due to the attractive force of the first magnet and the third magnet and the rear side of the drawer storage unit due to the repulsive force between the first magnet and the second magnet The balance with the drawing-in force is achieved, and the operability at the time of entering / exiting is further improved as in the first invention.

According to the third to fifth aspects of the present invention, in the state where the drawing-in is completed, due to the force to stop in place due to the attractive force between the third magnet and the fourth magnet, and the repulsive force between the first magnet and the second magnet The balance with the drawing-in force to the rear side of the drawer storage portion is balanced, and this also improves the operability when entering and exiting.

According to 5th invention, in addition to the effect of 1st invention, the drawing-out force to the front side of the drawer storage part by the attractive force of 5th magnet and 2nd magnet, and the 5th magnet and 3rd magnet The pulling force to the rear side of the drawer storage part due to the repulsive force is further added, and the operability at the time of entering / exiting is further improved.

It is a perspective view of the drawer storage structure which concerns on the reference form 1. FIG. It is a top view of the drawer stowage structure which concerns on the reference form 1, (a) shows the drawer drawer state, (b) shows the state immediately before completion of the drawer pushing-in, (c) shows the drawer pushing-in completed state, respectively. FIG. 3 is a view corresponding to FIG. 2 of the drawer storage structure according to the first embodiment. Is 2 corresponding to FIG drawer storage structure according to a second embodiment. It is FIG. 2 equivalent view of the drawer storage structure which concerns on Embodiment 3. FIG. FIG. 9 is a view corresponding to FIG. 2 showing a drawer storage structure according to a fourth embodiment. FIG. 3 is a view corresponding to FIG. 2 showing a drawer storage structure according to Reference Embodiment 2 ; FIG. 9 is a view corresponding to FIG. 2 showing a drawer storage structure according to a fifth embodiment.

  Hereinafter, embodiments of the present invention will be described with reference to the drawings.

( Reference form 1)
Figure 1 shows a drawer storage structure according to Reference Embodiment 1. In FIG. 1, reference numeral 1 denotes a drawer, and 3 denotes a drawer storage portion in which the drawer 1 is pushed in and stored in a horizontal manner. This drawer storage part 3 comprises main bodies, such as a chiffon and a cabinet.

  The drawer 1 is composed of a front plate 1a, a facing plate 1b, a bottom plate 1c, and left and right side plates 1d. The first magnet 5 protrudes from the both side plates 1d toward the facing plate 1b and toward the lower end. Is attached.

  The drawer storage unit 3 is composed of a top plate 3a, a bottom plate 3b, a back plate 3c, and left and right side plates 3d. The side plate 3d is closer to the back plate 3c and closer to the lower end, that is, to both side plates 1d of the drawer 1. A second magnet 7 having the same polarity as that of the first magnet 5 is attached to both side plates 3d of the corresponding drawer storage portion 3 so as to protrude.

As shown in FIG. 2 (a), the first magnet 5 is positioned on the front side of the drawer storage portion 3 with respect to the second magnet 7 in the drawer 1 pulled out state, and immediately before the completion of the insertion of the drawer 1, FIG. ) Approach the second magnet 7 and then slightly overtake the second magnet 7 in a state of partially overlapping with the second magnet 7, as shown in FIG. In the state where the drawer 1 is fully inserted, it is located on the deeper side of the drawer storage portion 3 than the second magnet 7 . In FIG. 2, the fact that both the first magnet 5 and the second magnet 7 are blacked out indicates that the magnets 5 and 7 have the same polarity. The same applies to the following embodiments and reference embodiments .

  In the drawer storage structure configured as described above, when the drawer 1 is pushed into the drawer storage unit 3, the first magnet 5 approaches the second magnet 7 just before the drawer 1 is completely pushed, and the repulsion of the two magnets 5 and 7 occurs. The draw 1 push-in speed is weakened by force. Therefore, even if the drawer 1 is pushed into the drawer storage unit 3 vigorously, the impact due to the reaction can be eliminated.

  In the drawer 1 pushing-in completion state, the first magnet 5 is positioned on the back side of the drawer storage unit 3 with respect to the second magnet 7, and the drawer 1 is pulled into the back side of the drawer storage unit 3 by the repulsive force of both the magnets 5 and 7. Accordingly, the retracted state of the drawer 1 can be stably maintained.

  Further, when the drawer 1 is put in and out, it overcomes the repulsive force of both the magnets 5 and 7 and is pulled out or pushed in, so that a feeling of operation at the time of putting in and out can be obtained and operability can be improved.

  In addition, since the first magnet 5 is attached to the side plate 1d of the drawer 1 and the second magnet 7 is attached to the side plate 3d of the drawer storage unit 3, the magnet 5 can be used even in the case of the drawer storage structure in which the drawer 1 has a plurality of stages. , 7 can be prevented from being rebounded, and the drawer 1 can be prevented from bouncing by holding a certain catching force when the drawer 1 is fully inserted.

(Embodiment 1 )
FIG. 3 shows a drawer storage structure according to Embodiment 1 of the present invention . In Embodiment 1, the first magnet 5 is the drawer 1, the second magnet 7 is attached so as to protrude respectively on the drawer storage portion 3, and these mounting position is the same as Reference Embodiment 1 The first magnet 5 and the opposite-polarity third magnet 9 are attached to the side plate 1d of the drawer 1 so as to protrude at a distance from the first magnet 5 to the front side of the drawer storage portion 3 with reference to the side plate 1d. Different from Form 1. In FIG. 3, the third magnet 9 that is white is shown to be opposite in polarity to the first magnet 5. The same applies to the following embodiments and reference embodiments .

As shown in FIG. 3 (a), the first magnet 5 and the third magnet 9 are located on the front side of the drawer storage part 3 relative to the second magnet 7 in the drawer 1 pulled out state, immediately before the completion of the drawer 1 pushing-in. As shown in FIG. 3 (b), the first magnet 5 approaches the second magnet 7, and then the first magnet 5 overtakes the second magnet 7 to complete the insertion of the drawer 1 as shown in FIG. 3 (c). In the state, it is located on the back side of the drawer storage portion 3 with respect to the second magnet 7 . On the other hand, the third magnet 9 is located on the front side of the drawer storage portion 3 with respect to the second magnet 7 in a state where the drawer 1 is fully inserted.

  In the drawer storage structure configured as described above, the drawing force to the front side of the drawer storage unit 3 by the attraction force of the third magnet 9 and the second magnet 7, the first magnet 5 and the first magnet in the state where the drawer 1 is completely inserted. The balance with the drawing-in force to the back side of the drawer storage part 3 by the repulsive force with the 2 magnets 7 can be balanced, and the operability at the time of going in / out can be improved further.

(Embodiment 2 )
FIG. 4 shows the drawer storage structure according to the second embodiment. In the second embodiment, the first magnet 5 is attached to the drawer 1 and the second magnet 7 is attached so as to protrude from the drawer storage portion 3, and the attachment positions thereof are the same as those of the reference embodiment 1 and the embodiment 1 . Although it is substantially the same (slightly on the front side of the drawer storage unit 3), contrary to the first embodiment, the first magnet 5 and the third magnet 9 having the opposite polarity are provided on the side plate 3d of the drawer storage unit 3 described above. 7 is different from the first embodiment in that it is attached so as to protrude to the rear side of the drawer storage portion 3 with a space from the rear.

As shown in FIG. 4A, the first magnet 5 is positioned on the front side of the drawer storage portion 3 with respect to the second magnet 7 and the third magnet 9 in the drawer 1 drawing state, and immediately before the completion of the insertion of the drawer 1. As shown in FIG. 4B, the second magnet 7 and the third magnet 9 are approached, and then the first magnet 5 passes the second magnet 7 as shown in FIG. 4C. In the state where the drawer 1 is fully inserted, it is located on the back side of the drawer storage portion 3 with respect to the second magnet 7 . On the other hand, the third magnet 9 is not overtaken by the first magnet 5, and is located on the back side of the drawer storage portion 3 with respect to the first magnet 5 in a state in which the drawer 1 is pushed in.

In the drawer storage structure configured as described above, the drawing force to the front side of the drawer storage portion 3 by the attractive force of the first magnet 5 and the third magnet 9, the first magnet 5, The balance with the drawing-in force to the back side of the drawer storage part 3 by the repulsive force with the two magnets 7 can be balanced, and the operability at the time of putting in / out can be further improved as in the first embodiment.

(Embodiment 3 )
FIG. 5 shows a drawer storage structure according to the third embodiment. In the third embodiment, the first magnet 5 and the third magnet 9 are attached to the drawer 1 and the second magnet 7 is attached so as to protrude from the drawer storage portion 3, and the attachment positions thereof are the same as those of the first embodiment. The second magnet 7 is slightly the same as the second magnet 7, but the fourth magnet 11 having the same polarity as the first magnet 5 is provided on the side plate 3 d of the drawer storage portion 3. The point which is attached so that it may protrude with a space | interval in front of the drawer storage part 3 side rather than Embodiment 1 is different.

As shown in FIG. 5 (a), the first magnet 5 and the third magnet 9 are positioned on the front side of the drawer storage portion 3 relative to the second magnet 7 and the fourth magnet 11 in the drawer 1 drawing state, Immediately before the completion of one push-in, as shown in FIG. 5 (b), the first magnet 5 approaches the fourth magnet 11, and then the first magnet 5 passes the fourth magnet 11 and partially overlaps the second magnet 7. Then, the second magnet 7 is slightly overtaken, and as shown in FIG. 5C, the drawer 1 is in a state where the drawer 1 is completely inserted, and is located on the back side of the drawer storage portion 3 with respect to the second magnet 7 . On the other hand, the fourth magnet 11 is not overtaken by the third magnet 9 and overlaps the fourth magnet 11 in a side view when the drawer 1 is fully pushed. Here, “overlapping in side view” includes not only the case of complete overlap but also the case of partial overlap. The same applies to the following embodiments and reference embodiments .

  In the drawer storage structure configured as described above, in the state where the drawer 1 is completely pushed in, the force to stop in place by the attractive force between the third magnet 9 and the fourth magnet 11, and the first magnet 5 and the second magnet 7. The balance with the drawing-in force to the back side of the drawer storage part 3 due to the repulsive force can be improved, and the operability at the time of entering and exiting can be further improved.

(Embodiment 4 )
FIG. 6 shows a drawer storage structure according to the fourth embodiment. In the fourth embodiment, the first magnet 5 is attached to the drawer 1 and the second magnet 7 is attached so as to protrude from the drawer storage portion 3, and their attachment positions are substantially the same as those of the reference embodiment 1 (slightly , The front side of the drawer storage unit 3), the first magnet 5 and the opposite polarity third magnet 9 are spaced apart from the second magnet 7 on the back side of the drawer storage unit 3 on the side plate 3 d of the drawer storage unit 3. The fourth magnet 11 having the same polarity as that of the first magnet 5 is spaced from the second magnet 7 on the back side of the drawer housing portion 3 on the side plate 1d of the drawer 1 so as to be opened and protruded. It is different from the other embodiments and the reference embodiment that it is mounted so as to protrude.

  As shown in FIG. 6 (a), the first magnet 5 and the fourth magnet 11 are positioned on the front side of the drawer storage portion 3 relative to the second magnet 7 and the third magnet 9 in the drawer 1 drawing state, Immediately before the completion of one push-in, as shown in FIG. 6B, the second magnet 7 is approached, and then the fourth magnet 11 passes the second magnet 7, and as shown in FIG. It overlaps with the said 3rd magnet 9 by the side view in the completion state of drawer 1 pushing-in. On the other hand, the first magnet 5 slightly overtakes the second magnet 7 in a state where it partially overlaps the second magnet 7, and, as shown in FIG. It is located on the back side of the drawer storage part 3 with respect to 7.

In the drawer storage structure configured as described above, in the same manner as in the third embodiment, in the state where the drawer 1 is completely pushed in, the force to stop in place by the attractive force of the third magnet 9 and the fourth magnet 11 and the first The retraction force between the magnet 5 and the second magnet 7 is balanced with the pulling force toward the back side of the drawer storage portion 3, and the operability at the time of entering and exiting can be further improved.

( Reference form 2 )
FIG. 7 shows a drawer storage structure according to the second embodiment . In this reference form 2 , the first magnet 5 is attached to the drawer 1 and the second magnet 7 is attached so as to protrude from the drawer storage part 3, and their attachment positions are the same as in the reference form 1. The third magnet 9 having the opposite polarity to the first magnet 5 is attached to the side plate 3d of the drawer storage unit 3 so as to protrude with a gap from the second magnet 7 on the front side of the drawer storage unit 3. And the 4th magnet 11 of the same polarity as the 1st magnet 5 is attached to the side plate 1d of the said drawer 1 so that it may protrude from the said 1st magnet 5 in front of the drawer storage part 3 at intervals. Is different from other embodiments and reference embodiments .

  As shown in FIG. 7A, the first magnet 5 and the fourth magnet 11 are positioned on the front side of the drawer storage portion 3 relative to the second magnet 7 and the third magnet 9 in the drawer 1 drawing state. Immediately before the completion of one push-in, as shown in FIG. 7 (b), it approaches the third magnet 9, and then the first magnet 5 overtakes the third magnet 9, and as shown in FIG. 7 (c), The second magnet 7 is slightly overtaken in a state where it partially overlaps the second magnet 7 in the state where the drawer 1 is completely pushed. On the other hand, as shown in FIG. 7C, the third magnet 9 overlaps with the fourth magnet 11 in a side view when the drawer 1 is fully pushed.

In the drawer storage structure configured as described above, in the same manner as in the third and fourth embodiments, in the state where the drawer 1 has been pushed in, a force that tries to stop in place due to the adsorption force between the third magnet 9 and the fourth magnet 11; The retraction force between the first magnet 5 and the second magnet 7 is balanced with the pulling force toward the rear side of the drawer storage portion 3, and the operability during loading / unloading can be further improved.

(Embodiment 5 )
FIG. 8 shows a drawer storage structure according to the fifth embodiment. In the fifth embodiment, the first magnet 5 is attached to the drawer 1 and the second magnet 7 is attached so as to protrude from the drawer storage portion 3, the mounting positions thereof, and the side plate 3 d of the drawer storage portion 3. The first magnet 5 and the opposite polarity third magnet 9 are attached to the front side of the drawer storage part 3 so as to protrude with a gap from the second magnet 7, and the side plate 1d of the drawer 1 is Although the 4th magnet 11 of the same polarity as the 1st magnet 5 is attached so that it may protrude from the above-mentioned 1st magnet 5 in front of the drawer storage part 3 at intervals, it is the same as that of the reference form 2. Reference Embodiment 2 is that the first magnet 5 and the opposite polarity fifth magnet 13 are attached to the side plate 1d of the drawer 1 so as to protrude between the first magnet 5 and the fourth magnet 11. Is different.

  As shown in FIG. 8 (a), the first magnet 5 and the fourth magnet 11 are positioned on the front side of the drawer storage portion 3 relative to the second magnet 7 and the third magnet 9 in the drawer 1 drawing state. Immediately before the completion of one push-in, as shown in FIG. 8B, the third magnet 9 is approached, and then the first magnet 5 passes the third magnet 9, and as shown in FIG. The second magnet 7 is slightly overtaken in a state where it partially overlaps the second magnet 7 in the state where the drawer 1 is completely pushed. Further, the fifth magnet 13 does not pass the second magnet 7 in a state where the fifth magnet 13 is partially overlapped with the second magnet 7 in the state where the drawer 1 is completely inserted, and is located on the front side of the drawer storage portion 3 relative to the second magnet 7. ing. On the other hand, as shown in FIG. 8C, the third magnet 9 overlaps with the fourth magnet 11 in a side view when the drawer 1 is fully inserted.

In the drawer storage structure configured as described above, as in the third and fourth embodiments and the reference embodiment 2 , in the state where the drawer 1 is completely pushed in, it tries to stop in place due to the attractive force between the third magnet 9 and the fourth magnet 11. Is not only balanced with the retraction force of the first magnet 5 and the second magnet 7 to the back side of the drawer housing 3 but also attracted by the fifth magnet 13 and the second magnet 7. The pull-out force to the front side of the drawer storage unit 3 by force and the pull-in force to the back side of the drawer storage unit 3 by the repulsive force of the fifth magnet 13 and the third magnet 9 are further added, so It can be made even better.

In each of the above embodiments and reference embodiments , the magnet is attached so as to protrude from the side plate of the drawer and the drawer storage unit, but the side plate may be dug and embedded. In this case, the entire magnet may be embedded, or it may be embedded so that it partially protrudes from the side plate, but if the entire magnet is embedded, it will not protrude from the side plate, so safety is improved and the design is refreshed. Become. In addition, if the recessed part for digging is previously formed in the side plate, the attachment position of a magnet will be easy to understand and attachment work can be performed smoothly.

Further, in each of the above embodiments and the reference embodiment , the magnet is attached near the direction of the side plate in the drawer, and near the back plate of the side plate in the drawer storage portion, but the magnet is installed in consideration of the work of attaching and removing the magnet. May be attached closer to the front plate of the side plate in the drawer, and closer to the front portion of the side plate in the drawer storage portion.

  Further, the size and number of magnets can be appropriately set according to the size and weight of the drawer. Moreover, you may make the shape of a magnet different in the drawer side and the drawer storage part side.

  The present invention is useful for a drawer storage structure in which a drawer can be stored well.

DESCRIPTION OF SYMBOLS 1 Drawer 1d Drawer side plate 3 Drawer storage part 3d Drawer storage side plate 5 1st magnet 7 2nd magnet 9 3rd magnet 11 4th magnet 13 5th magnet

Claims (5)

A drawer storage structure in which the drawer is inserted into the drawer storage part so that it can be inserted and removed horizontally.
A first magnet is attached to the side plate of the drawer,
A second magnet having the same polarity as the first magnet is attached to the side plate of the drawer storage portion corresponding to the side plate of the drawer.
On the side plate of the drawer, a third magnet having a polarity opposite to the first magnet is attached to the front side of the drawer storage portion with respect to the first magnet,
The first magnet is positioned closer to the drawer storage unit than the second magnet in the drawer drawer state, and is positioned closer to the rear of the drawer storage unit than the second magnet in the draw-in state .
The said 3rd magnet is located in the drawer storage part near side of the said 2nd magnet in the drawing-in pushing completion state, The drawer storage structure characterized by the above-mentioned . A drawer storage structure in which the drawer is inserted into the drawer storage part so that it can be inserted and removed horizontally.
A first magnet is attached to the side plate of the drawer,
A second magnet having the same polarity as the first magnet is attached to the side plate of the drawer storage portion corresponding to the side plate of the drawer.
A third magnet opposite to the first magnet is attached to the side plate of the drawer storage section on the back side of the drawer storage section with respect to the second magnet,
The first magnet is positioned closer to the drawer storage unit than the second magnet in the drawer drawer state, and is positioned closer to the rear of the drawer storage unit than the second magnet in the draw-in state.
The said 3rd magnet is located in the drawer storage part back | inner side rather than the said 1st magnet in the drawing-in completion state, The drawer storage structure characterized by the above-mentioned. The drawer storage structure according to claim 1 ,
A fourth magnet having the same polarity as the first magnet is attached to the side plate of the drawer storage unit closer to the front side of the drawer storage unit than the second magnet,
The said 4th magnet has overlapped with the said 3rd magnet by the side view in the drawing-out pushing completion state, The drawer storage structure characterized by the above-mentioned. The drawer storage structure according to claim 2 ,
On the side plate of the drawer, a fourth magnet having the same polarity as the first magnet is attached to the deeper side of the drawer storage section than the second magnet,
The said 4th magnet has overlapped with the said 3rd magnet by the side view in the drawing-out pushing completion state, The drawer storage structure characterized by the above-mentioned. A drawer storage structure in which the drawer is inserted into the drawer storage part so that it can be inserted and removed horizontally.
A first magnet is attached to the side plate of the drawer,
A second magnet having the same polarity as the first magnet is attached to the side plate of the drawer storage portion corresponding to the side plate of the drawer.
On the side plate of the drawer storage unit, a third magnet having a polarity opposite to the first magnet is attached to the front side of the drawer storage unit with respect to the second magnet,
On the side plate of the drawer, a fourth magnet having the same polarity as that of the first magnet is attached to the front side of the drawer storage section with respect to the first magnet,
On the side plate of the drawer, a first magnet and a fifth antipolar magnet are attached between the first magnet and the fourth magnet,
The first magnet is positioned closer to the drawer storage unit than the second magnet in the drawer drawer state, and is positioned closer to the rear of the drawer storage unit than the second magnet in the draw-in state.
The third magnet is positioned closer to the drawer storage portion than the first magnet in the drawer press-in completion state, and overlaps the fourth magnet in a side view ,
The said 5th magnet is located in the drawer storage part front side rather than the said 2nd magnet in the drawing-in pushing completion state, The drawer storage structure characterized by the above-mentioned .

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