JP7020058B2 - Automatic teller machine and transportation method - Google Patents

Description

The present invention relates to an automated teller machine and a transportation method .

Automated teller machines (ATMs) such as automated teller machines are installed in various places such as banks and convenience stores, and those equipped with safes have been developed from the viewpoint of crime prevention (see Patent Document 1).

FIG. 14 shows one aspect of a conventional automated teller machine. The conventional automated teller machine 901 includes an apparatus main body 902 and a safe 908. A power supply unit, a control unit, a card detail unit, and the like (not shown) are stored in the apparatus main body 902. A banknote unit (not shown) is stored in the safe 908. Further, a part of the front surface of the apparatus main body 902 and the front surface of the safe 908 are covered with the door member 907. The door member 907 is rotatably attached to the apparatus main body 902 and the safe 908 by a hinge 909.

The door member 907 is made of, for example, metal or resin, and has a shape in which the edge portion (excluding one short side) of the rectangular plate material is bent in the plate thickness direction. The door member 907 includes a front surface 907a, a bottom surface 907b, a right side surface 907c, and a left side surface 907d.

As shown in FIG. 15, the front surface 907a of the door member 907 is parallel to the front surface 908a of the safe 908. Further, the angle θ8 formed by the front surface 907a and the bottom surface 907b of the door member 907 is a right angle, and the angle θ9 formed by the bottom surface 907b of the door member 907 and the front surface 908a of the safe 908 is also a right angle. The bottom surface 907b of the door member 907 is located above the bottom surface 908b of the safe 908, and a step is formed by the front surface 907a and the bottom surface 907b of the door member 907 and the front surface 908a and the bottom surface 908b of the safe member 908.

Japanese Unexamined Patent Publication No. 2017-107550

When installing an automated teller machine 901 without using heavy machinery (for example, when climbing over a step such as a staircase), two transport ropes K are passed in the front-rear direction under the automated teller machine 901 for transportation. The automated teller machine 901 is carried while holding both ends of the rope K (see FIGS. 14 and 15).

When the tension acting on the rope K during transportation of the device is T, the force acting on the door member 907 is the resultant force F8, and the force acting on the safe 908 is the resultant force F9. Further, when the resultant forces F8 and F9 are decomposed in the vertical direction and the horizontal direction, the forces in the vertical direction are the component forces F8y and F9y. This component force F8y is a vertical force acting on the door member 907 when the device is transported, and the component force F9y is a vertical force acting on the safe 908.

When a component force F8y in the vertical direction acts on the door member 907, as shown in FIG. 16, a moment force of Ma and Mb is generated on the hinge 909 with points A and B as fulcrums. Points A and B are, for example, joints of hinges 909. Due to the nature of the force, the larger the component force F8y, the larger the moment forces Ma and Mb.

For the above reasons, in the conventional automated teller machine 901, in order to prevent deformation caused by the moment forces Ma and Mb exceeding the allowable stress of the hinge 909, the plate thickness of the hinge 909 is increased or reinforced. I was taking measures. Therefore, there has been a problem that the component cost of the hinge 909 is high.

The present invention has been made in view of the above problems, and provides an automated teller machine and a transportation method capable of reducing the cost of parts as compared with the conventional case.

In order to solve the above problems, the automatic trading device according to one aspect of the present invention exhibits a shape that covers a safe, a device main body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device main body. The door member comprises a door member rotatably attached to at least one of the device body and the safe using a hinge, and the door member is the front surface of the door member and the bottom surface of the door member. It has a slope connecting the door member, the angle formed by the front surface of the door member and the slope of the door member is an blunt angle, the angle formed by the bottom surface of the door member and the front surface of the safe is a right angle, and at least the front surface of the door member. And along the slope, the rope is crawled .
Further, the transportation method according to one aspect of the present invention has a shape that covers the safe, the device main body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device main body. A door member rotatably attached to at least one of the safes using a hinge is provided, the door member having a slope connecting the front surface of the door member and the bottom surface of the door member. Transport for transporting an automatic trading device, characterized in that the angle formed by the front surface of the door member and the slope of the door member is an blunt angle, and the angle formed by the bottom surface of the door member and the front surface of the safe is a right angle. The method is characterized in that it is carried with a crawled rope at least along the front surface and the slope of the door member.

Further, the automatic trading device according to one aspect of the present invention has a shape that covers a safe, a device main body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device main body. And a door member rotatably attached to at least one of the safes using a hinge, the door member being a front surface of the door member and a slope formed continuously from the front surface. The lower end of the slope abuts on the front surface of the safe, and a rope is hung at least on the lower end of the front surface of the door member and the lower end of the front surface of the safe .
Further, the transportation method according to one aspect of the present invention has a shape that covers the safe, the device main body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device main body. A door member rotatably attached to at least one of the safes using a hinge is provided, the door member having a front surface of the door member and a slope formed continuously from the front surface. It is a transportation method for transporting an automatic trading device, characterized in that the lower end portion of the slope abuts on the front surface of the safe, and is hung at least on the lower end of the front surface of the door member and the lower end of the front surface of the safe. It is characterized by carrying a safed rope.

Further, the automatic trading device according to one aspect of the present invention has a shape that covers a safe, a device main body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device main body. A door member rotatably attached to at least one of the safes using a hinge, and the door member is a curved surface formed continuously from the front surface of the door member and the front surface. The virtual plane extending the front surface of the door member and the tangent plane of the curved surface of the door member intersect at an blunt angle, and the tangent plane of the curved surface of the door member and the virtual plane extending the front surface of the safe The intersecting angle is a sharp angle, and the rope is crawls at least along the front surface and the curved surface of the door member .
Further, the transportation method according to one aspect of the present invention has a shape that covers the safe, the device main body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device main body. A door member rotatably attached to at least one of the safes using a hinge is provided, and the door member has a curved surface formed continuously from the front surface of the door member and the front surface. The tangent plane of the curved surface of the door member intersects with the tangent plane of the curved surface of the door member and the tangent plane of the curved surface of the door member intersects. It is a transportation method for transporting an automatic trading device characterized by having a sharp angle, and is characterized in that the rope is transported by holding a rope on which the rope is crawls at least along the front surface and the curved surface of the door member. To do .

Further, the automatic trading device according to one aspect of the present invention has a shape that covers a safe, a device main body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device main body. And a door member rotatably attached to at least one of the safes using a hinge, the front of the door member being formed entirely in a plane inclined towards the safe. It is characterized in that the lower end of the slope of the door member is in contact with the front of the safe, and a rope is hung at least on the upper end of the slope of the door member and the lower end of the front of the safe. do.
Further, the transportation method according to one aspect of the present invention has a shape that covers the safe, the device main body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device main body. A door member rotatably attached to at least one of the safes using a hinge is provided, and the front surface of the door member is formed entirely in a plane inclined toward the safe. A transportation method for transporting an automatic trading device, which is a slope and the lower end of the slope of the door member abuts on the front surface of the safe, at least the upper end of the slope of the door member and the safe. It is characterized by carrying a rope hung on the lower end of the front.

According to the present invention, it is possible to reduce the component cost as compared with the conventional case.

It is a schematic diagram which showed the appearance of the automatic teller machine which concerns on 1st Embodiment of this invention. It is a schematic diagram which showed the inside of the automatic teller machine which concerns on 1st Embodiment of this invention. It is a figure for demonstrating the opening / closing mechanism of a door member. It is an exploded view of a hinge. It is a perspective view which shows the door member of the automatic teller machine which concerns on 1st Embodiment of this invention, and the rope for carrying is hung. It is a schematic diagram which showed the side surface of the door member of the automatic teller machine which concerns on 1st Embodiment of this invention, and the rope for transportation is hung. It is a perspective view which shows the door member of the automatic teller machine which concerns on 2nd Embodiment of this invention, and the rope for carrying is hung. It is a schematic diagram which showed the side surface of the door member of the automatic teller machine which concerns on 2nd Embodiment of this invention, and the rope for transportation is hung. It is a perspective view which shows the door member of the automatic teller machine which concerns on 3rd Embodiment of this invention, and the rope for transportation is hung. It is a schematic diagram which showed the side surface of the door member of the automatic teller machine which concerns on 3rd Embodiment of this invention, and the rope for transportation is hung. It is a perspective view which shows the door member of the automatic teller machine which concerns on the 1st modification of this invention, and the rope for carrying is hung. It is a schematic diagram which showed the cross section of the groove part of the door member of the automatic teller machine which concerns on the 1st modification of this invention, and the rope for carrying is hung. It is a schematic diagram which showed the side surface of the door member of the automatic teller machine which concerns on the 2nd modification of this invention, and the rope for carrying is hung. It is a perspective view which shows the door member of the conventional automatic teller machine, and the rope for transportation is hung. It is a schematic diagram which showed the side surface of the door member of the conventional automatic teller machine, and the rope for transportation is hung. It is a front view which shows the door member of the conventional automatic teller machine, and the rope for transportation is hung.

Hereinafter, embodiments of the present invention will be described in detail with reference to the drawings. Each figure is merely schematically shown to the extent that the present invention can be fully understood. Therefore, the present invention is not limited to the illustrated examples. Further, in the drawings to be referred to, the dimensions of the members constituting the present invention are exaggerated for the sake of clarity. In each figure, common components and similar components are designated by the same reference numerals, and duplicate description thereof will be omitted.

[First Embodiment]
<< Configuration of automated teller machine according to the first embodiment >>
The external structure of the automated teller machine (ATM: Automated / Automatic Teller Machine) according to the first embodiment will be described with reference to FIG. “Up / down”, “left / right”, and “front / back” in the description of the automated teller machine follow the arrows in FIG. The direction is defined for convenience of explanation and does not limit the present invention.

The automated teller machine 1 shown in FIG. 1 serves as an access point for providing financial services to customers. The automatic teller machine 1 is installed in, for example, a branch of a bank, a convenience store, or the like, and is connected to a bank host system (not shown) via a network NW. The automated teller machine 1 includes an apparatus main body 2, an operation unit 3 installed on the front surface of the apparatus main body 2, a rectangular parallelepiped safe 8 installed under the apparatus main body 2, a part of the front surface of the apparatus main body 2, and a part of the front surface of the apparatus main body 2. It is configured to include a door member 7 that covers the front surface of the safe 8.

The operation unit 3 is a part operated by the user, and has a plate shape here. The operation unit 3 is formed with a touch panel 4, an insertion / discharge port 5 for cards and receipts, and a bill deposit / withdrawal port 6. The user performs deposit / withdrawal procedures by operating the touch panel 4. The door member 7 is rotatably attached to the apparatus main body 2 and the safe 8 by two hinges 9. The upper hinge 9 connects the door member 7 and the device main body 2, and the lower hinge 9 connects the door member 7 and the safe 8. The axial direction of the hinge 9 here is in the vertical direction, and the hinge 9 is coaxial with the hinge of the safe door (not shown) of the safe 8. The number and position of the hinges 9 described here are schematically shown, and are not particularly limited.

Next, with reference to FIG. 2, the internal structure of the automated teller machine according to the first embodiment will be described. As shown in FIG. 2, the automatic teller machine 1 includes two bill units 10A and 10B, a card detail unit 11, a power supply unit 12, and a control unit 13. The card statement unit 11 is a unit for printing and discharging transaction details, and the banknote units 10A and 10B are units for depositing or withdrawing banknotes according to instructions from a higher level.

The power supply unit 12 and the control unit 13 are mounted on the upper part of the apparatus main body 2, and the cables of the card detail unit 11 and the bill units 10A and 10B are connected. The card detail unit 11 and the bill unit 10A are attached to the lower part of the apparatus main body 2 via a unit base and a slide rail (not shown). The card detail unit 11 and the bill unit 10A can be pulled forward from the device main body 2 by using a slide rail (not shown) with the door member 7 open.

The bill unit 10B is housed inside the safe 8. A cassette for storing banknotes is mounted inside the banknote unit 10B. The safe 8 is firmly made of a combination of materials and plate thickness, making it difficult to forcibly take out the banknote unit 10B stored inside by a method other than a predetermined method. That is, the bill unit 10B is stored in the safe 8 from the viewpoint of crime prevention. The bill unit 10B can be withdrawn by opening a safe door (not shown) of the safe 8.

Next, the opening / closing mechanism of the door member 7 will be described with reference to FIGS. 3 and 4. As shown in FIG. 3, the door member 7 is rotatably connected to the apparatus main body 2 by the upper hinge 9. Further, although not shown, it is rotatably connected to the safe 8 by the lower hinge 9 with the same configuration. As a result, the door member 7 becomes a side-opening door. The door member 7 is housed under the operation unit 3 in a closed state. The door member 7 is not limited to the one described here, and may be any one that covers at least a part of the device main body 2 and the safe 8.

FIG. 4 is an exploded view of the hinge 9. The hinge 9 here is a hinge for insertion and removal, and the upper blade portion 91 and the lower blade portion 92 can be separated from each other. The hinge 9 is made of metal, for example. A pin 91a as a shaft is formed on the upper blade portion 91, and a cylindrical bearing 92a that pivotally supports the pin 91a is formed on the lower blade portion 92. Mounting holes 91b and 92b are formed in the upper blade portion 91 and the lower blade portion 92, the upper blade portion 91 is fastened to the door member 7 with screws or the like, and the lower blade portion 92 is the main body of the device. It is fastened to 2 or the safe 8 with screws or the like. The structure of the hinge 9 is not limited to that described here, and may be any structure as long as it can rotatably support the door member 7.

Next, the structure of the door member 7 according to the first embodiment will be described with reference to FIGS. 5 and 6. The door member 7 is made of, for example, metal or resin, and has a shape in which an edge portion (excluding one short side) of a rectangular plate material is bent in the plate thickness direction. The door member 7 includes a front surface 7a, a bottom surface 7b, a slope 7e connecting the front surface 7a and the bottom surface 7b, a right side surface 7c, and a left side surface 7d.

As shown in FIG. 6, the front surface 7a of the door member 7 is parallel to the front surface 8a of the safe 8. The angle θ1 formed by the front surface 7a and the slope 7e of the door member 7 is an obtuse angle, for example, “150 °”. Further, the angle θ2 formed by the slope 7e and the bottom surface 7b of the door member 7 is an obtuse angle, for example, “120 °”. Further, the angle θ3 formed by the bottom surface 7b of the door member 7 and the front surface 8a of the safe 8 is a right angle or an angle close to a right angle (for example, 80 ° to 100 °). The bottom surface 7b of the door member 7 is located above the bottom surface 8b of the safe 8, and a step is formed by the slope 7e and the bottom surface 7b of the door member 7 and the front surface 8a and the bottom surface 8b of the safe 8. That is, the corner portion between the front surface 7a and the slope 7e of the door member 7 is located diagonally forward upward with respect to the corner portion between the slope 7e and the bottom surface 7b of the door member 7. Further, the corner portion between the slope 7e and the bottom surface 7b of the door member 7 is located diagonally forward upward with respect to the corner portion between the front surface 8a and the bottom surface 8b of the safe 8. When transporting the device, the rope K is crawled along the slope 7e.

The number and shape of the slopes described here are schematically shown, and are not particularly limited. That is, although one slope 7e is formed here between the front surface 7a and the bottom surface 7b, two or more slopes 7e may be formed between the front surface 7a and the bottom surface 7b. Further, although the slope 7e is formed here from the right side surface 7c to the left side surface 7d, the slope 7e may be partially formed. For example, if the position through which the transport rope K passes is predetermined, only that region may be inclined.

As shown in FIG. 6, when the tension acting on the rope K during transportation of the device is T, the forces acting on the door member 7 are the resultant forces F1 and F2, and the forces acting on the safe 8 are the resultant forces F3. Further, when the resultant forces F1, F2 and F3 are decomposed in the horizontal direction and the vertical direction, the forces in the vertical direction are the component forces F1y, F2y and F3y. The component forces F1y and F2y are vertical forces acting on the door member 7 when the device is transported, and the component forces F3y are vertical forces acting on the safe 8.

In the present embodiment, since the door member 7 is provided with the slope 7e, the angles θ1 and θ2 formed by the vector of the tension T of the rope K for transportation are larger than the conventional angles θ8 (see FIG. 15) for transportation. The total sum (F1 + F2) of the resultant forces F1 and F2 generated in the door member 7 due to the tension T of the rope K is smaller than the resultant force F8 shown in FIG. Therefore, the vertical component forces F1y and F2y are smaller than the conventional vertical component forces F8y. Although not shown, the horizontal component force is smaller than the conventional one for the same reason as the vertical component force.

The result of the simulation of the first embodiment will be described. Assuming that the vertical component force F8y acting on the conventional door member 907 shown in FIG. 15 is "100 kgf (980N)", the sum of the vertical component forces F1y and F2y acting on the door member 7 of the present embodiment (F1y + F2y) is In the calculation, it is reduced to about "74 kgf (725.2N)". That is, the moment forces Ma and Mb acting on the hinge 9 are also reduced to the conventional "74%".

Here, the total sum (F1 + F2) of the resultant forces F1 and F2 generated in the door member 7 of the first embodiment is smaller than the resultant force F8 generated in the conventional door member 907 (see FIG. 15), but the difference is safe. It will shift to the resultant force F3 generated in 8. Therefore, the resultant force F3 acting on the safe 8 of the present embodiment is larger than the resultant force F9 generated in the conventional safe 908 (see FIG. 15). However, since the safe is generally made firmly by combining materials, plate thickness, etc. from the viewpoint of crime prevention, there is no problem even if the load acting on the safe 8 increases during transportation of the device in this way. I can say.

As described above, the automated teller machine 1 according to the first embodiment can reduce the vertical component forces F1y and F2y acting on the door member 7 as compared with the conventional automatic teller machine 901 (FIG. FIG. 14), the moment force acting on the hinge 9 is smaller. Therefore, unlike the conventional automated teller machine 901 (see FIG. 14), it is not necessary to increase or reinforce the plate thickness of the hinge 9 as a measure to prevent the hinge 9 from being deformed, so that the cost of parts of the hinge 9 can be suppressed. Can be done.

Further, in the conventional automatic teller machine 901 (see FIG. 14), it is conceivable that the door member 907 itself is deformed in addition to the hinge 909 by the vertical component force F8y acting on the door member 907. However, in the present embodiment, the vertical component forces F1y and F2y acting on the door member 7 can be made smaller than those in the conventional case, so that the door member 7 can be suppressed from being deformed. Since the operation unit 3 having a low strength is installed on the upper part of the door member 7, if the door member 7 is deformed, the operation unit 3 is also affected, but there is no concern about it.

[Second Embodiment]
<< Configuration of automated teller machine according to the second embodiment >>
The configuration of the automated teller machine 101 according to the second embodiment will be described with reference to FIGS. 7 and 8. “Up / down”, “left / right”, and “front / back” in the description of the automated teller machine 101 follow the arrows in FIG. The direction is defined for convenience of explanation and does not limit the present invention. The structure of the door member 107 of the automated teller machine 101 according to the second embodiment is different from that of the door member 7 (see FIG. 5) according to the first embodiment. Here, the differences from the first embodiment will be described in detail, and the description of the same configuration will be omitted.

The door member 107 is rotatably attached to the apparatus main body 2 and the safe 8 by two hinges 9. The upper hinge 9 connects the door member 107 and the device main body 2, and the lower hinge 9 connects the door member 107 and the safe 8. The axial direction of the hinge 9 here is in the vertical direction, and the hinge 9 is coaxial with the hinge of the safe door (not shown) of the safe 8.

The door member 107 is made of, for example, metal or resin, and has a shape in which an edge portion (excluding one short side) of a rectangular plate material is bent in the plate thickness direction. The door member 107 includes a front surface 107a, a slope 107e continuously formed from the front surface 107a in the downward direction diagonally backward, a right side surface 107c, and a left side surface 107d. That is, the door member 107 here does not have a component corresponding to the bottom surface 7b (see FIG. 6) of the door member 7 of the first embodiment.

As shown in FIG. 8, the front surface 107a of the door member 107 is parallel to the front surface 8a of the safe 8. The angle θ4 formed by the front surface 107a and the slope 107e of the door member 107 is an obtuse angle, for example, “120 °”. Further, the angle θ5 formed by the slope 107e of the door member 107 and the front surface 8a of the safe 8 is an acute angle, for example, “60 °”. The angle θ5 becomes an acute angle because there is no component corresponding to the bottom surface 7b (see FIG. 6) of the door member 7 of the first embodiment. The lower end of the slope 107e is connected to the front surface 8a of the safe 8. That is, the corner portion between the front surface 107a and the slope 107e of the door member 107 is located obliquely forward with respect to the corner portion between the front surface 8a and the bottom surface 8b of the safe 8. When transporting the device, the rope K is crawled along the slope 107e.

As shown in FIG. 8, when the tension acting on the rope K during transportation of the device is T, the force acting on the door member 107 is the resultant force F4, and the force acting on the safe 8 is the resultant force F5. Further, when the resultant forces F4 and F5 are decomposed in the horizontal direction and the vertical direction, the forces in the vertical direction are the component forces F4y and F5y. This component force F4y is a vertical force acting on the door member 107 when the device is transported, and the component force F5y is a vertical force acting on the safe 8.

In the present embodiment, by providing the door member 107 with the slope 107e, the angle θ4 formed by the vector of the tension T of the transport rope K becomes larger than the conventional angle θ8 (see FIG. 15), and the transport rope The resultant force F4 generated in the door member 107 due to the tension T of K is smaller than the resultant force F8 shown in FIG. Therefore, the component force F4y in the vertical direction is smaller than the conventional component force F8y in the vertical direction. Although not shown, the horizontal component force is smaller than the conventional one for the same reason as the vertical component force.

The result of the simulation of the second embodiment will be described. Assuming that the vertical component force F8y acting on the conventional door member 907 shown in FIG. 15 is "100 kgf (980N)", the vertical component force F4y acting on the door member 107 of the present embodiment is calculated as "56 kgf (548. 548. It is reduced to about 8N) ”. That is, the moment forces Ma and Mb acting on the hinge 9 are also reduced to the conventional "56%".

Here, the resultant force F4 generated in the door member 107 of the second embodiment is smaller than the resultant force F8 generated in the conventional door member 907 (see FIG. 15), but the difference is in the resultant force F5 generated in the safe 8. It will be migrated. Therefore, the resultant force F5 acting on the safe 8 of the present embodiment is larger than the resultant force F9 generated in the conventional safe 908 (see FIG. 15). However, since the safe is generally made firmly by combining materials, plate thickness, etc. from the viewpoint of crime prevention, there is no problem even if the load acting on the safe 8 increases during transportation of the device in this way. I can say.

The automated teller machine 101 according to the second embodiment described above can also have substantially the same effect as that of the first embodiment. That is, the automated teller machine 101 according to the second embodiment can reduce the vertical component force F4y acting on the door member 107 as compared with the conventional automated teller machine 901 (see FIG. 14). Then, the moment force acting on the hinge 9 becomes smaller. Therefore, unlike the conventional automated teller machine 901 (see FIG. 14), it is not necessary to increase or reinforce the plate thickness of the hinge 9 as a measure to prevent the hinge 9 from being deformed, so that the cost of parts of the hinge 9 can be suppressed. Can be done.

Further, in the conventional automatic teller machine 901 (see FIG. 14), it is conceivable that the door member 907 itself is deformed in addition to the hinge 909 by the vertical component force F8y acting on the door member 907. However, in the present embodiment, the component force F4y in the vertical direction acting on the door member 107 can be made smaller than in the conventional case, so that the deformation of the door member 107 can be suppressed. Since the operation unit 3 having a low strength is installed on the upper part of the door member 107, if the door member 107 is deformed, the operation unit 3 is also affected, but there is no concern about it.

[Third Embodiment]
<< Configuration of automated teller machine according to the third embodiment >>
The configuration of the automated teller machine 201 according to the third embodiment will be described with reference to FIGS. 9 and 10. “Up / down”, “left / right”, and “front / back” in the description of the automated teller machine 201 follow the arrows in FIG. The direction is defined for convenience of explanation and does not limit the present invention. The structure of the door member 207 of the automated teller machine 201 according to the third embodiment is different from that of the door member 7 (see FIG. 5) according to the first embodiment. Here, the differences from the first embodiment will be described in detail, and the description of the same configuration will be omitted.

The door member 207 is rotatably attached to the apparatus main body 2 and the safe 8 by two hinges 9. The upper hinge 9 connects the door member 207 and the device main body 2, and the lower hinge 9 connects the door member 207 and the safe 8. The axial direction of the hinge 9 here is in the vertical direction, and the hinge 9 is coaxial with the hinge of the safe door (not shown) of the safe 8.

The door member 207 is made of, for example, metal or resin, and has a shape in which the edge portion (excluding one short side) of the rectangular plate material is bent in the plate thickness direction. The door member 207 includes a front surface 207a, a curved surface 207e formed continuously from the front surface 107a in the downward direction diagonally backward, a right side surface 207c, and a left side surface 207d.

As shown in FIG. 10, the front surface 207a of the door member 207 is parallel to the front surface 8a of the safe 8. The curved surface 207e of the door member 207 is continuously formed from the front surface 107a and exhibits a gentle arc. The angle formed by the virtual plane extending downward from the front surface 107a of the door member 207 and the tangent plane of the curved surface 207e is an obtuse angle. Further, the angle formed by the tangent plane of the curved surface 207e of the door member 207 and the virtual plane extending the front surface 8a of the safe 8 downward is an acute angle. The lower end of the curved surface 207e is connected to the front surface 8a of the safe 8. When transporting the device, the rope K is crawled along the curved surface 207e.

As shown in FIG. 10, when the tension acting on the rope K during transportation of the device is T, the force acting on the door member 207 is the resultant force F6, and the force acting on the safe 8 is the resultant force F7. Further, when the resultant forces F6 and F7 are decomposed in the horizontal direction and the vertical direction, the vertical forces are the component forces F6y and F7y. This component force F6y is a vertical force acting on the door member 207 when the device is transported, and the component force F7y is a vertical force acting on the safe 8.

In the present embodiment, by providing the curved surface 207e on the door member 207, the angle formed by the vector of the tension T of the transport rope K becomes larger than the conventional angle θ8 (see FIG. 15), and the transport rope K The resultant force F6 generated in the door member 207 due to the tension T of the above is smaller than the resultant force F8 shown in FIG. Therefore, the component force F6y in the vertical direction is smaller than the conventional component force F8y in the vertical direction. Although not shown, the horizontal component force is smaller than the conventional one for the same reason as the vertical component force.

Here, the resultant force F6 generated in the door member 207 of the third embodiment is smaller than the resultant force F8 generated in the conventional door member 907 (see FIG. 15), but the difference is in the resultant force F7 generated in the safe 8. It will be migrated. Therefore, the resultant force F7 acting on the safe 8 of the present embodiment is larger than the resultant force F9 generated in the conventional safe 908 (see FIG. 15). However, since the safe is generally made firmly by combining materials, plate thickness, etc. from the viewpoint of crime prevention, there is no problem even if the load acting on the safe 8 increases during transportation of the device in this way. I can say.

The automated teller machine 201 according to the third embodiment described above can also exert substantially the same effect as that of the first embodiment and the second embodiment.

Although each embodiment of the present invention has been described above, the present invention is not limited to this, and can be carried out without changing the gist of the claims.

[First modification example]
In the first embodiment, as shown in FIG. 5, the slope 7e is formed from the right side surface 7c to the left side surface 7d, but the slope 7e may be partially formed. Further, the angle θ1 of the slope 7e does not have to be the same over the entire region, and for example, the angle θ1 at a place away from the hinge 9 may be larger than the angle θ1 at a place near. The same applies to the second embodiment and the third embodiment. FIG. 11 shows an automated teller machine 301 according to the first modification. The structure of the door member 307 of the automated teller machine 301 according to the first modification is different from that of the door member 7 (see FIG. 5) according to the first embodiment.

The door member 307 includes a front surface 307a, a bottom surface 307b, a right side surface 307c, and a left side surface 307d. Further, two grooves 307f for passing the rope K for transportation are formed in the corner portion formed by the front surface 307a and the bottom surface 307b of the door member 307. FIG. 12 shows a cross section of the groove 307f portion of the door member 307. As shown in FIG. 12, the groove 307f is composed of a groove bottom surface 307e connecting the front surface 307a and the bottom surface 307b, and side walls 307g rising from both sides of the groove bottom surface 307e. The groove bottom surface 307e of the groove 307f plays the role of the slope 7e of the first embodiment.

The automated teller machine 301 according to the first modification described above can also have substantially the same effect as that of the first embodiment. Further, by passing the rope K for transportation through the groove 307f, the rope K is prevented from shifting to the left or right during transportation, so that the transportation becomes easier.

[Second modification]
In the second embodiment, as shown in FIG. 8, the slope 107e of the door member 107 is continuously formed from the front surface 107a, but it is also possible to configure only the slope. FIG. 13 shows an automated teller machine 401 according to a second modification. The front surface of the door member 407 of the automatic teller machine 401 has a slope 407e inclined toward the safe 8, and the angle formed by the slope 407e of the door member 407 and the front surface 8a of the safe 8 is an acute angle. When transporting the device, the rope K is crawled along the slope 407e. The automated teller machine 401 according to the second modification described above can also achieve substantially the same effect as that of the second embodiment.

In addition, although the description has been given using an automated teller machine as an example in each embodiment, the configuration described in the present embodiment can be applied as long as the device is provided with a door.

1,101,201,301,401 Automatic teller machine 7,107,207,307,407 Door member 7a, 107a, 207a, 307a Front 7b, 307b Bottom surface 7e, 107e, 407e Slope 307e Groove bottom 307f Groove 207e Curved surface 8 Safe 8a front 9 hinge K rope

Claims (10)

Safe and
The main body of the device placed at the top of the safe and
It has a shape that covers the front surface of the safe and the front surface of the device body, and includes a door member rotatably attached to at least one of the device body and the safe using a hinge.
The door member has a slope connecting the front surface of the door member and the bottom surface of the door member, and the angle formed by the front surface of the door member and the slope of the door member is an obtuse angle. The angle formed by the front of the safe is an obtuse angle.
An automated teller machine characterized in that a rope is laid at least along the front and slopes of the door member. Safe and
The main body of the device placed at the top of the safe and
It has a shape that covers the front surface of the safe and the front surface of the device body, and includes a door member rotatably attached to at least one of the device body and the safe using a hinge.
The door member has a front surface of the door member and a slope formed continuously from the front surface, and the lower end portion of the slope abuts on the front surface of the safe.
Rope is hung at least at the lower end of the front of the door member and the lower end of the front of the safe.
An automated teller machine that features. Safe and
The main body of the device placed at the top of the safe and
It has a shape that covers the front surface of the safe and the front surface of the device body, and includes a door member rotatably attached to at least one of the device body and the safe using a hinge.
The door member has a slope connecting the front surface of the door member and the bottom surface of the door member, and the angle formed by the front surface of the door member and the slope of the door member is an obtuse angle. The angle formed by the front of the safe is an obtuse angle.
An automated teller machine characterized in that a groove for passing a rope for transportation is formed in the door member, and the groove bottom surface of the groove is a slope. Safe and
The main body of the device placed at the top of the safe and
It has a shape that covers the front surface of the safe and the front surface of the device body, and includes a door member rotatably attached to at least one of the device body and the safe using a hinge.
The door member has a front surface of the door member and a slope formed continuously from the front surface, and the angle formed by the front surface of the door member and the slope of the door member is made an blunt angle and the slope of the door member. The angle formed by the front of the safe is sharp.
A groove for passing a rope for transportation is formed in the door member, and the groove bottom surface of the groove is the slope.
An automated teller machine that features. Safe and
The main body of the device placed at the top of the safe and
It has a shape that covers the front surface of the safe and the front surface of the device body, and includes a door member rotatably attached to at least one of the device body and the safe using a hinge.
The door member has a curved surface formed continuously from the front surface of the door member, and the angle at which the virtual plane extending the front surface of the door member and the tangent plane of the curved surface of the door member intersect is an blunt angle. At the same time, the angle at which the tangent plane of the curved surface of the door member and the virtual plane extending the front of the safe intersect is set as a sharp angle.
An automated teller machine characterized in that a rope is laid at least along the front surface and curved surface of the door member. Safe and
The main body of the device placed at the top of the safe and
It has a shape that covers the front surface of the safe and the front surface of the device body, and includes a door member rotatably attached to at least one of the device body and the safe using a hinge.
The front surface of the door member is a slope formed by a flat surface inclined toward the safe, and the lower end of the slope of the door member abuts on the front surface of the safe.
Rope is hung at least on the upper end of the slope of the door member and the lower end of the front surface of the safe.
An automated teller machine that features. It has a shape that covers the safe, the device body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device body, and a hinge is used for at least one of the device body and the safe. The door member comprises a door member rotatably attached to the door member, the door member having a slope connecting the front surface of the door member and the bottom surface of the door member, and the front surface of the door member and the door member. It is a transportation method for transporting an automatic trading device, characterized in that the angle formed by the slope is an blunt angle and the angle formed by the bottom surface of the door member and the front surface of the safe is a right angle.
A transportation method in which a rope is carried by a crawl along at least the front surface and a slope of the door member. It has a shape that covers the safe, the device body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device body, and a hinge is used for at least one of the device body and the safe. The door member includes a door member rotatably attached to the door member, the door member has a curved surface formed continuously from the front surface of the door member, and is an extension of the front surface of the door member. An automatic trading device characterized in that the angle at which the tangent plane of the curved surface of the door member intersects with the tangent plane of the curved surface of the door member is made an blunt angle, and the angle at which the tangent plane of the curved surface of the door member intersects with the virtual plane extending the front of the safe is made sharp. It is a transportation method to transport
A transportation method comprising carrying a rope on which a rope is laid, at least along the front surface and a curved surface of the door member. It has a shape that covers the safe, the device body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device body, and a hinge is used for at least one of the device body and the safe. The door member includes a door member rotatably attached to the door member, the door member has a slope formed continuously from the front surface of the door member, and the lower end portion of the slope is the front surface of the safe. It is a transportation method for transporting an automated teller machine, which is characterized by abutting on a door.
A transportation method comprising holding a rope hung at least on the lower end of the front surface of the door member and the lower end of the front surface of the safe. It has a shape that covers the safe, the device body arranged on the upper part of the safe, the front surface of the safe, and the front surface of the device body, and a hinge is used for at least one of the device body and the safe. A door member rotatably attached to the door member, and the front surface of the door member is a slope formed by a plane inclined toward the safe, and the lower end of the slope of the door member. It is a transportation method for transporting an automatic trading device, which is characterized in that a part abuts on the front of a safe.
A transportation method comprising holding a rope hung at least on the upper end of the slope of the door member and the lower end of the front surface of the safe.

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