TWI580617B - Storage box - Google Patents

Description

Storage Box Field of invention

The technique disclosed in this case relates to a storage box.

Background of the invention

There is a method in which one end is fixed to a second surface facing the first surface of the bag body at a predetermined height, and the intermediate portion is folded downward toward the bottom surface of the bag body, and the fitting can be accommodated between the holding portion and the holding portion. The storage structure of the accessory with the sub-member.

Further, there is a holder for holding a magnet on a mobile phone, and when the mobile phone is held by the holder, the magnetic sensor of the telephone detects the system substrate of the magnet and turns off the power of the liquid crystal display unit. Holder.

[First technical literature]

[Patent Literature]

[Patent Document 1] Japanese Patent Laid-Open Publication No. 2003-325219

[Patent Document 2] Japanese Patent Laid-Open Publication No. 2004-228959

Summary of invention

In the storage case in which the electronic device is housed, there is a structure in which the magnetic sensor of the electronic device is detected to approach the magnet of the storage case, and a predetermined power saving state is performed, for example, switching to a power-off state or a standby state.

In order to reliably detect the magnet by the magnetic sensor, when the magnet protrudes from the inner surface of the casing body, the magnet is pushed by the shed through the lining.

The disclosed technique of the present invention is directed to suppress damage of the detecting member.

In the technique disclosed in the present invention, a hole portion that avoids the detecting member protruding from the inner surface of the cartridge body is formed in the inner cloth provided inside the cartridge body.

According to the technique disclosed in the present invention, damage of the detecting member can be suppressed.

12‧‧‧ storage box

14‧‧‧Storage

14A‧‧‧ display surface

14B‧‧‧Outer cover

14T‧‧‧ upper surface

18‧‧‧Removal Department

18A‧‧‧Suppression

18B‧‧‧Handle belt

20‧‧‧Magnetic sensor

22‧‧‧ Magnet Body

22M‧‧‧ insertion port

24‧‧‧ front board

24T‧‧‧Upper

24U‧‧‧ inner surface

26‧‧‧ Back panel

26T‧‧‧Upper

26U‧‧‧ inner surface

27‧‧‧ side

28‧‧‧ bottom

29‧‧‧Tie Passing Department

29B‧‧‧fasteners

29F‧‧‧ Pressing member

29L‧‧‧带圈

30‧‧‧ Magnetite components

32‧‧‧ Magnetite components

34‧‧‧Magnetic body

36‧‧‧Magnetic Maintenance Department

36P‧‧‧ Pressing Department

36S‧‧‧ inclined section

38‧‧‧ Pull out the components

40‧‧‧ Rib

40A‧‧‧Mobile Department

40B‧‧‧ Fixture

40C‧‧‧Continuous Department

42‧‧‧ Pull out the cover

42F‧‧‧Front cover

42T‧‧‧Upper Department

44‧‧‧cutting section

46‧‧‧Hands

48‧‧‧Flex Department

50‧‧‧Exposed hole

52‧‧‧ recess

54‧‧‧ Hole Department

80‧‧‧ Rib

82‧‧‧ storage box

D1‧‧‧ interval

D2‧‧‧ interval

FR‧‧ arrow

S1‧‧‧ arrow

T1‧‧‧ thickness

UP‧‧‧ arrow

W‧‧‧ arrow

Fig. 1 is a perspective view showing the storage case of the first embodiment together with the object to be stored.

Fig. 2 is a longitudinal sectional view showing the storage case of the first embodiment together with the object to be stored.

Fig. 3 is a longitudinal sectional view showing an enlarged portion of the storage case of the first embodiment and displayed together with the stored article.

Fig. 4 is a perspective view showing the drawing member of the storage case according to the first embodiment together with the object to be stored.

Fig. 5 is a view showing the storage case of the first embodiment together with the object to be stored Profile view.

Fig. 6 is a perspective view showing the storage case of the first embodiment together with the object to be stored.

Fig. 7 is a longitudinal sectional view showing the storage case of the first embodiment together with the object to be stored.

FIG. 8 is a perspective view showing the drawing member of the storage case according to the first embodiment together with the object to be stored.

Fig. 9 is a longitudinal sectional view showing the storage case of the first embodiment together with the object to be stored.

Fig. 10 is a longitudinal sectional view showing an enlarged portion of a storage box of a comparative example.

Detailed description of the preferred embodiment [Formation for implementing the invention]

The first embodiment will be described in detail with reference to the drawings.

The storage case 12 of the first embodiment is shown in Figs. 1 and 2 . The storage case 12 can accommodate, for example, a stored object 14 such as a tablet type mobile terminal, a smart mobile device, or a mobile phone. In addition, the user can take out the stored article 14 in the storage case 12 while the storage case 12 is attached to the clothes or the like.

The storage case 12 has a strap for the user to install. Hereinafter, the "front side" refers to the side of the storage case 12 that is far away from the belt (away from the user side). In the following, "upper" refers to the upper side in a state where the user installs the storage case 12. In each drawing, above the storage box 12, The front and width directions are indicated by arrows UP, FR and arrow W, respectively.

As shown in Fig. 2, the stored article 14 of the present embodiment has a display surface 14A and an outer cover surface 14B. For example, a display is provided on the display surface 14A. On the other hand, the take-out portion 18 is provided on the outer cover surface 14B. In the example shown in FIGS. 1 and 2, the take-out portion 18 has a pair of upper and lower restraining members 18A attached to the outer cover surface 14B, and a holding belt 18B spanned between the restraining members 18A. The take-out portion 18 is a member that can be brought into contact with a finger or the like when the user takes out the stored article 14 from the storage case 12.

Further, as shown in FIG. 2, the stored article 14 of the present embodiment includes a magnetic sensor 20 therein. When the magnetic force (magnetic flux density) detected by the magnetic sensor 20 is equal to or greater than a predetermined value, the stored object 14 is switched to a power saving state, such as a power OFF state or a standby state. The magnetic sensor 20 is provided in the upper and lower portions of the object 14 to be stored, and the magnetic force of the magnet body 34 to be described later can be detected even if the stored object 14 is vertically stored upside down in the storage case 12.

The storage case 12 has a case body 22 that houses the stored object 14 . The cartridge body 22 of the present embodiment includes a front plate 24 and a rear plate 26 having bending rigidity. The front plate 24 and the rear plate 26 are coupled by a side portion 27 and a bottom portion 28, and the case body 22 is a box shape having a substantially rectangular parallelepiped shape having an insertion opening 22M that opens upward. In the present embodiment, as can be seen from Fig. 2, the upper end 24T of the front plate 24 is lower than the upper end 26T of the rear plate 26.

A belt passing portion 29 is provided on the rear surface side of the rear plate 26. In the example shown in FIG. 1, the belt passing portion 29 includes two belt loops 29L extending in the vertical direction, and the belt loops 29L are pressed toward the rear plate 26 in the middle portion in the up and down direction. Attached pressing member 29F. The upper portion of the band 29L is fixed to the rear plate 26, and the lower portion of the band 29L is detachably fixed to the rear plate 26 by the fastener 29B. Then, for example, the vertical position of the pressing member 29F is appropriately set, and a belt or the like of the user is inserted into the gap between the band 29L and the rear plate 26, whereby the user can mount the storage case 12.

The stored article 14 is inserted into the storage case 12 from the insertion port 22M. The insertion direction of the stored article 14 is indicated by an arrow S1.

The respective inner surfaces 24U, 26U of the front plate 24 and the rear plate 26 are provided with magnet members 30, 32. Each of the magnet members 30, 32 has a magnet body 34 and a magnet holding portion 36. The magnet member 30 is an example of a first magnet member, and the magnet member 32 is an example of a second magnet member. Further, the magnet members 30 and 32 are examples of the detecting members.

3 also shows in detail that the magnet holding portions 36 are formed on the inner surface 24U of the front plate 24 and the inner surface 26U of the rear plate 26, respectively, and protrude from the inner surfaces 24U, 26U toward the inner side of the cartridge body 22. A gap is created between the magnet holding portion 36 and the inner surfaces 24U, 26U. The magnet holding portion 36 covers the magnet body 34 and holds the magnet body 34 in the gap.

The magnet holding portion 36 has a pressing portion 36P and an inclined portion 36S. The two pressing portions 36P are opposed to each other inside the cartridge body 22. The inclined portion 36S is inclined from the pressing portion 36P in the insertion direction of the stored object 14 (the direction of the arrow S1). Further, when the object 14 is placed in the cartridge body 22, when it comes into contact with the inclined portion 36S, it is guided toward the center of the cartridge body 22 by the inclined portion 36S. Even if the object 14 hits the magnet holding portion 36 by impact, the impact is alleviated by the inclined portion 36S.

In the present embodiment, the interval D1 between the two pressing portions 36P is approximately the same as the thickness T1 of the stored article 14. When the stored object 14 is positioned between the magnet members 30 and 32, the pressing portion 36P is pressed against the stored object 14 by the thickness T1 of the stored object 14, and the magnet holding portion 36 is slightly bent, and the interval D1 is changed. Wide situation. By the reaction force of the deflection of the magnet holding portion 36, the pressing portion 36P presses the stored object 14 to be in close contact with each other, so that the distance between the stored object 14 and the magnet body 34 can be stably maintained. In addition, when the thickness T1 of the stored article 14 is thinner than the interval D1 between the two pressing portions 36P, the magnet members 30 and 32 are not in contact with the object 14 to be stored, but the magnet body 34 is maintained in a state close to the object 14 to be stored. .

The magnet body 34 is formed in an elongated shape (flat rectangular parallelepiped shape), and the longitudinal direction of the magnet body 34 is along the insertion direction of the object 14 (in the direction of the arrow S1). The position of the lower end of the magnet main body 34 is a position where the magnetic force of the predetermined value or more is applied to the magnetic sensor 20 in the entire storage state (see FIG. 2) in which the storage object 14 is housed in the storage case 12. Further, the position of the upper end of the magnet main body 34 is such that a magnetic force (magnetic flux density) of a predetermined value or more is applied to the magnetic body even when the lower portion of the storage object 14 is housed in a state in which the storage case 12 is housed (see FIG. 6). The position of the sensor 20. In other words, the length of the magnet main body 34 (the range in the vertical direction) is such that the magnetic flux density of a predetermined value or more is generated in the magnetic sensor regardless of the position between the storage position and the partial storage position. The length of 20.

In the present embodiment, two magnet members 30 and 32 are provided, and the objects 14 accommodated in the storage case 12 are placed in the middle, and the pair of magnet bodies 34 are opposed to each other. In particular, the magnet body 34 is oriented toward different magnetic poles (N poles and S pole) is configured in a relative orientation. Therefore, for example, the magnetic flux density is increased in the space between the magnet bodies 34, and the spatial unevenness of the magnetic flux density is small, compared to the configuration in which the magnet bodies 34 are arranged in the direction in which the magnet bodies 34 are opposed to each other. Further, on the outer side of the storage case 12, the magnetic flux density is smaller than that between the magnet bodies 34.

A pull-out member 38 is provided in the storage case 12. As shown in detail in FIGS. 4 and 8, the pull-out member 38 includes a lining 40 formed of a material having flexibility and a pull-out cover 42 formed of a material having bending rigidity.

The lining 40 has a moving portion 40A and a fixing portion 40B, and further has a continuous portion 40C continuous with the moving portion 40A and the fixing portion 40B. The continuous portion 40C connects the moving portion 40A and the fixing portion 40B to the distal end side of the insertion direction (the direction of the arrow S1) of the storage object 14.

The fixing portion 40B is sewn to the inner surface 26U of the rear plate 26 and fixed to the rear plate 26. On the other hand, the moving portion 40A is movable along the inner surface 24U of the front plate 24 in the insertion direction (the direction of the arrow S1) and in the opposite direction. Further, the lower end of the fixing portion 40B and the lower end of the moving portion 40A are continuous in the continuous portion 40C to form an integrated lining 40.

When the stored article 14 is placed in the cartridge body 22 from the insertion port 22M side, it passes through between the moving portion 40A and the fixing portion 40B, and comes into contact with the continuous portion 40C. In this state, when the continuous portion 40C is not in contact with the bottom portion 28, when the continuous portion 40C is pressed downward from the stored object 14, the continuous portion 40C and the moving portion 40A move downward.

When the moving portion 40A is moved upward in the entire storage state of the stored article 14 (see FIG. 1), the continuous portion 40C also moves upward, so that the stored object 14 supported by the continuous portion 40C also moves upward. but Since the fixing portion 40B of the lining 40 is fixed to the rear plate 26, the amount of movement of the moving portion 40A upward is restricted to a certain range in which the fixing portion 40B is not peeled off from the rear plate 26.

A pull-out cover 42 is attached to the moving portion 40A. The pull-out cover 42 has bending rigidity, and has a front cover portion 42F attached to the front side and the upper portion of the moving portion 40A, and an upper cover portion 42T bent from the upper end of the front cover portion 42F (a slightly right angle in the example shown in Fig. 2) .

As shown in FIG. 2, in the all storage state of the accommodated object 14, the moving part 40A and the pull-out cover 42 of the lining 40 are located below, and the front cover part 42F opposes the outer cover surface 14B of the to-be-received object 14. Further, the upper lid portion 42T faces the upper surface 14T of the object 14 to be stored.

Further, the upper lid portion 42T may be engaged with the engaging portion of the cartridge body 22 and the magnet or the like in the entire storage state of the stored article 14, so that the upper lid portion 42T can be maintained and the upper surface of the object 14 can be held. 14T is a relative posture.

The upper end 24T of the front plate 24 is formed with a notch portion 44 that recesses the center in the arrow W direction (width direction) downward. The notch portion 44 prevents the front plate 24 from interfering with the handle portion 46 formed on the front cover portion 42F, and exposes the periphery of the handle portion 46 from the front plate 24 in all the stored state, so that a finger or the like can easily come on the handle portion 46. .

In the moving portion 40A of the lining 40, the boundary between the portion where the cover 42 is attached and the portion where the cover is not attached is pulled out, and the bending rigidity is locally changed. In the lining cloth 40, a bent portion 48 is formed in a portion where the bending rigidity changes.

In the all storage state shown in FIG. 2, the front cover 42F and the front panel 24 will partially overlap. In this state, in the bent portion 48, the moving portion 40A is not bent, and the front cover portion 42F is maintained in a state of being opposed to the stored object 14.

Further, as shown in Fig. 5, even if the pull-out cover 42 is pulled out in the direction of the arrow A1, when a part of the front cover portion 42F overlaps with the front plate 24, the movable portion 40A is not bent at the bent portion 48, and the front cover The portion 42F maintains a state of being opposed to the stored article 14.

On the other hand, as shown in FIG. 7, when the entire position of the pull-out cover 42 is above the front plate 24 of the cartridge body 22, the bent portion 48 can be bent at the bent portion 48, and the movable portion 40A can be bent. . When the moving portion 40A is bent at the bent portion 48, the front cover portion 42F is separated from the stored article 14. Then, a part of the take-out portion 18 of the stored article 14 is exposed.

As shown in FIGS. 6 and 7, the pull-out member 38 (moving portion 40A) is hung in the state in which the bent portion 48 is bent, and a part of the pull-out member 38 (a portion in the vicinity of the bent portion 48) is hung on the cartridge body 22. The insertion port 22M (the upper end 24T of the front plate 24). Specifically, in a direction in which the pull-out member 38 enters the inside of the cartridge body 22 (in the same direction as the arrow S1), a portion of the pull-out member 38 faces the upper end 24T of the front panel 24.

As shown in FIGS. 4 and 8, an elongated elliptical exposure hole 50 is formed in the direction of the arrow W at the position of the bent portion 48 at the drawing member 38. More specifically, the moving portion 40A of the bent portion 48 is formed with an elliptical hole, and a recess corresponding to the upper half of the elliptical hole is formed at the lower side of the front cover portion 42F.

As can be understood from FIGS. 6 and 7, when the pull-out member 38 is bent at the bent portion 48, the exposure hole 50 becomes the central portion in the width direction of the pull-out member 38. The concave portion 52 is recessed. The recessed portion 52 is located at a position corresponding to the notch portion 44, and exposes the take-out portion 18 of the stored article 14 in a wider range.

In the lining 40, as can be seen from Figs. 4 and 8, the lining 40 is formed with a hole portion 54 at a position avoiding the magnet members 30, 32. In particular, in the present embodiment, the moving portion 40A of the lining 40 is used. Moving in the direction of the arrow S1, the relative position of the moving portion 40A and the magnet member 30 changes. The hole portion 54 is formed to be sufficiently large so that the lining 40 does not overlap the magnet member 30 even if the change in the relative position occurs. In particular, in the present embodiment, the hole portion of the magnet member 30 and the hole portion avoiding the magnet member 32 are continuous, so that one hole portion 54 avoids both of the magnet members 30 and 32, and the inner cloth 40 does not overlap with the magnet member. 30, 32 overlapping structures.

Next, the action of this embodiment will be described.

As shown in FIG. 1 to FIG. 3, the storage item 14 is stored in the storage case 12 (all the storage state), and the pressing portion 36P of the magnet holding portion 36 is adhered to the object 14 and is stored in the storage item 14. It is held between the magnet members 30 and 32. The pressing portion 36P presses the stored object 14 against the reaction force of the stored object 14 to suppress the magnet body 34 from being inadvertently moved away from the magnetic sensor 20 of the stored object 14 . Thereby, the distance between the magnetic sensor 20 of the object 14 and the magnet body 34 can be stably maintained. Further, since the magnetic sensor 20 detects the magnetic force of the magnet body 34, the stored object 14 can be surely maintained in the power saving state.

Further, in the present embodiment, the pressing portion 36P of the magnet holding portion 36 is pressed so as to be sandwiched between the objects 14 to be stored. Therefore, for example, even if a gap is formed between the upper surface 14T of the stored article 14 and the upper lid portion 42T, the pressing portion 36P also presses the stored object 14 to cause friction, so that it can be suppressed. The storage item 14 moves up and down in the storage case 12.

The longitudinal direction of the magnet body 34 is along the insertion direction of the object 14 (in the direction of the arrow S1). Therefore, even when the stored object 14 moves up and down in the storage case 12, it is easy to maintain the state in which the magnetic sensor 20 is positioned within the range of the magnetic force of the magnet body 34.

Here, in FIG. 10, the storage case 82 of the comparative example provided with the lining 80 in which the hole part 54 was not formed is shown. In the lining 80 of the comparative example, a part of the lining 80 exists to cover the magnet members 30 and 32. Therefore, between the magnet members 30 and 32, the interval D2 between the objects to be stored is narrower than the interval D1 of the first embodiment, and only the thickness of the lining 80 is narrow. When the accommodated object 14 (see FIG. 2) having the thickness T1 is positioned between the magnet members 30 and 32, the magnet members 30 and 32 are deformed in a direction away from each other, and the position of the magnet body 34 is changed from the magnetic sensor 20. far. In addition, since the impedance when the object 14 is inserted between the magnet members 30 and 32 is increased, the object 14 and the magnet members 30 and 32 are damaged during the insertion.

On the other hand, in the present embodiment, the lining 40 is formed with the hole portion 54, and the lining 40 avoids the magnet members 30 and 32 by the hole portion 54. Therefore, the magnet body 34 can be made closer to the magnetic sensor 20 of the storage object 14 than the lining cloth 80 of the comparative example.

Further, when the object to be stored 14 is inserted between the magnet members 30 and 32, the impedance of the insertion is also smaller than that of the structure of the comparative example. Moreover, damage of the stored object 14 and the magnet members 30 and 32 can be suppressed.

In addition, when the thickness T1 of the storage object 14 is thin, the pressing portion 36P of the magnet holding portion 36 may not be in contact with the object 14 to be stored. But that is In this case, the magnet holding portion 36 is directed toward the inside of the storage case 12, that is, the object 14 is protruded, and the magnet body 34 is located close to the magnetic sensor 20, so that the magnetic sensor 20 can be realized. It is easy to detect the state of the magnetic force of the magnet body 34.

In the present embodiment, the magnet holding portion 36 is formed with an inclined portion 36S. The inclined portion 36S is inclined in the insertion direction (the direction of the arrow S1) of the object 14 to be stored. Therefore, when the stored object 14 hits the inclined portion 36S, the stored object 14 can be guided to the inside of the storage case 12 (in the direction of the arrow U1). Further, compared with the structure in which the inclined portion 36S is not formed, even if the inclined portion 36S is impacted by the storage object 14, the inclined portion 36S can be inclined to alleviate the impact, and the damage of the magnet holding portion 36 can be suppressed.

In the present embodiment, the magnet members 30 and 32 have a magnet body 34 and a magnet holding portion 36. Since the magnet holding portion 36 holds the magnet body 34, the damage of the magnet body 34 can be suppressed as compared with the structure of the non-magnet retaining portion 36.

In order to take out the stored article 14 from the storage case 12, the pull-out member 38 (the pull-out cover 42) is pulled out from the case body 22 (moved in the direction of the arrow A1). At this time, since the periphery of the handle 46 of the pull-out member 38 is exposed by the notch portion 44 of the front plate 24, the operation of pulling the pull-out member 38 is easy.

In the present embodiment, the pull-out member 38 (liner 40) has a structure in which the moving portion 40A and the fixing portion 40B are continuous by the continuous portion 40C. Therefore, by the operation of pulling out the drawing member 38, the stored object 14 is pressed upward by the continuous portion 40C, and the stored object 14 can be moved in the direction of the arrow A1.

Even in the state in which the pull-out member 38 has been pulled out, as shown in FIG. When the front cover portion 42F of the pull-out cover 42 and the front plate 24 are overlapped, the pull-out member 38 is not bent at the bent portion 48. The longitudinal direction of the magnet main body 34 is along the insertion direction of the object 14 (in the direction of the arrow S1), and the magnetic sensor 20 of the storage object 14 is located in the range of the magnetic force of the magnet body 34. Therefore, the magnetic sensor 20 can surely detect the magnetic force of the magnet body 34, and the stored object 14 can be surely maintained in the power saving state.

Further, when the pull-out member 38 is pulled out, as shown in FIGS. 6 and 7, when the entire front cover portion 42F is positioned above the front plate 24, the pull-out member 38 can be bent at the bent portion 48. Since the pull-out member 38 is bent in the bent portion 48, the pull-out member 38 is separated from the take-out portion 18 of the stored article 14, and the take-out portion 18 is exposed. Therefore, it is easy to take out the stored article 14 from the storage case 12.

In the present embodiment, the pull-out member 38 has a moving portion 40A, and the bent portion 48 is provided in the moving portion 40A. Therefore, by the operation of moving the moving portion 40A in the direction of the arrow A1, the bent portion 48 can be positioned outside the cartridge body 22, and the movable portion 40A (a part of the drawing member 38) can be bent.

In particular, when the take-out portion 18 of the stored article 14 moves toward the outside of the cartridge body 22, the pull-out cover 42 provided on the movable portion 40A is positioned outside the cartridge body 22. Therefore, the pull-out member 38 can be bent at the bent portion 48 so that the entire pull-out cover 42 is separated from the take-out portion 18.

The hole portion 54 of the lining 40 is formed to be large so that the relative position of the moving portion 40A and the magnet member 30 changes even if the moving portion 40A moves toward the arrow S1, and the range in which the magnet member 30 relatively moves can be used. Therefore, even from the state shown in FIG. 2 (all the storage state) to the state shown in FIG. The position of the stored article 14 changes, and the lining 40 does not overlap the magnet member 30. Thereby, the state in which the magnet body 34 is close to the magnetic sensor 20 of the object 14 can be maintained.

Even if the moving portion 40A moves to the cartridge body 22 as described above, since the fixing portion 40B is fixed to the cartridge body 22, it does not move. Therefore, the lining 40 does not overlap the magnet member 32 regardless of the state of the lining 40. Further, the hole portion 54 of the lining 40 is continuous from the position avoiding the magnet member 30 to the position avoiding the magnet member 32. The hole portions (two hole portions) corresponding to the respective magnet members 30 and 32 are not formed, and the hole portion 54 is sufficient, so that the formation of the inner cloth 40 is easy.

The two magnet bodies 34 are arranged such that different magnetic poles face each other, and the spatial magnetic flux density between the magnet bodies 34 becomes large and the spatial density of the magnetic flux density is small. Therefore, the magnetic sensor 20 can surely detect the magnetic flux density between the magnet members 30, 32.

Further, as shown in FIG. 9, when the front and back of the storage case 12 are stored in the opposite direction to the example shown in FIG. 1, the position of the magnetic sensor 20 may be located in the vicinity of the rear plate 26. Even in this case, the magnetic sensor 20 can surely detect the magnetic flux density between the magnet members 30, 32.

On the other hand, for example, on the outer side of the storage case 12, the magnetic flux density is smaller than that between the magnet bodies 34. Therefore, even if the magnetic sensor 20 of the storage object 14 approaches the magnet members 30 and 32 on the outside of the storage case 12, the magnetic sensor 20 can be prevented from detecting the magnetic flux density generated by the magnet members 30 and 32.

In the present embodiment, the bent portion 48 of the drawing member 38 is provided. There is an exposed hole 50. The exposure hole 50 is formed in the recessed portion 52 which is recessed downward in a state in which the bent portion 48 bends the pull-out member 38. The position of the recessed portion 52 is located at a position corresponding to the notch portion 44, and the take-out portion 18 of the stored article 14 is exposed in a wider range. Therefore, the work of touching the finger or the like on the take-out portion 18 becomes easy, and the take-out of the stored article 14 is easy.

The pull-out member 38 is in a state in which the bent portion 48 is bent, and a part of the pull-out member 38 (a portion in the vicinity of the bent portion 48) is in a state of being hung on the insertion opening 22M (the upper end 24T of the front panel 24) of the cartridge body 22. . Thereby, the movement of the drawing member 38 toward the inside of the cartridge body 22 can be suppressed.

When the stored article 14 is stored in the storage case 12, the pull-out member 38 is inserted between the fixing portion 40B of the lining 40 and the moving portion 40A in a state where the bent portion 48 is bent.

The longitudinal direction of the magnet body 34 is along the insertion direction (arrow S1 direction). As can be seen from FIG. 7, even if the stored article 14 is placed only in the continuous portion 40C of the lining 40, the magnetic sensor 20 is positioned within the range of the magnetic force of the magnet body 34. In other words, in a state in which the bent portion 48 is bent, the pull-out member 48 can be inserted into the storage case 12 by the stored object 14, and the stored object 14 can be switched to the power-saving state.

Then, the bending of the drawing member 38 at the bent portion 48 is released (the moving portion 40A is formed in a planar shape). Since the pull-out member 38 is in a posture that does not face the front plate 24, the moving portion 40A can move in the direction of the arrow A2. The object 14 can be stored in the storage case 12 by pressing the object 14 in the direction of the arrow A2. The pull-out member 38 (liner 40) has a configuration in which the moving portion 40A and the fixing portion 40B are continuous in the continuous portion 40C. Therefore, the movement of the stored article 14 into the storage case 12 is utilized. The continuous portion 40C can be pressed to move the moving portion 40A in the direction of the arrow A2.

In particular, the continuous portion 40C and the moving portion 40A (the portion where the pull-out cover 42 is not attached) have flexibility. Therefore, when the stored article 14 presses the continuous portion 40C downward by gravity, deformation of the pull-out member 38 (liner 40) can be easily generated, and the stored article 14 can be stored in the storage case 12.

When the stored article 14 is in the all-receiving state, when the upper portion of the storage case 12 is closed by the pull-out cover 42, the stored article 14 can be prevented from being inadvertently ejected from the storage case 12 (for example, due to the movement of the storage case 12) It is taken out by the storage item 14).

In the above, although the magnet members 30 and 32 are exemplified as the detecting members, the detecting members are not limited to the magnet members 30 and 32. Further, even the sensor as the object to be stored is not limited to the magnetic sensor 20. The detecting member may be a member that can be detected by the sensor of the stored object in a state in which the stored object is stored in the case body.

All the documents, patent applications, and technical specifications described in the present specification are placed in the same manner as the specific documents and technical specifications, and are referred to by reference. Into this manual.

Although the embodiments of the present disclosure have been described above, the technology disclosed in the present invention is not limited to the above-described embodiments, and various modifications may be made without departing from the spirit and scope of the invention. Implementation.

12‧‧‧ storage box

14‧‧‧Storage

14A‧‧‧ display surface

14B‧‧‧Outer cover

14T‧‧‧ upper surface

18A‧‧‧Suppression

20‧‧‧Magnetic sensor

22‧‧‧ Magnet Body

24‧‧‧ front board

24T‧‧‧Upper

24U‧‧‧ inner surface

26‧‧‧ Back panel

26T‧‧‧Upper

26U‧‧‧ inner surface

27‧‧‧ side

29‧‧‧Tie Passing Department

29B‧‧‧fasteners

29F‧‧‧ Pressing member

29L‧‧‧带圈

30‧‧‧ Magnetite components

32‧‧‧ Magnetite components

34‧‧‧Magnetic body

36‧‧‧Magnetic Maintenance Department

38‧‧‧ Pull out the components

40‧‧‧ Rib

40A‧‧‧Mobile Department

40B‧‧‧ Fixture

40C‧‧‧Continuous Department

42F‧‧‧Continuous Department

42T‧‧‧Upper Department

44‧‧‧cutting section

46‧‧‧Hands

48‧‧‧Flex Department

54‧‧‧ Hole Department

FR‧‧ arrow

S1‧‧‧ arrow

UP‧‧‧ arrow

Claims (6)

A storage box includes: a box body for accommodating a stored object; a detecting member protruding from an inner surface of the box body and being detected by the sensor of the stored object; and a lining cloth disposed inside the box body a hole portion avoiding the detecting member, the lining having a moving portion disposed along one of the inner surfaces of the case body and movable in an insertion direction of the object to be stored; the fixing portion And the continuous portion is connected to the fixing portion and the moving portion at a distal end side of the object to be inserted in a direction in which the cartridge body is inserted, and the detecting member is provided on the front surface of the cartridge body The first magnet member of one of the inner surfaces of the cartridge body, wherein the hole portion is formed in a range in which the moving portion moves the first magnet member. The storage box according to claim 1, wherein the detecting member includes: a magnet body, a magnetic sensor for magnetic force and the object to be stored; and a magnet holding portion formed on the inner surface of the cartridge body to cover the magnet body . The storage box of claim 2, wherein the longitudinal direction of the detecting member is Along the direction in which the object to be stored is inserted. The storage case of claim 3, wherein the magnet holding portion has a pressing portion that presses the object to be stored by a reaction force when the object to be stored is pressed. The storage box according to claim 3 or claim 4, wherein the cartridge main body has an insertion opening into which the storage object is inserted, and the magnet holding portion has an inclined portion formed on the insertion opening side and inclined in the insertion direction. The storage box of claim 1, wherein the detecting member has the other second magnet member provided on the inner surface of the cartridge body, the hole portion avoiding the position of the first magnet member and avoiding the second portion The position of the magnet member is continuous.