JP6944294B2 - Elevator type mechanical parking device in the building - Google Patents

Description

The present invention relates to an elevator type mechanical parking device in a building configured in a main building.

As a conventional elevator-type mechanical parking device in a building configured in a main building, those described in JP-A-2007-224644 (Patent Document 1) and JP-A-2005-248668 (Patent Document 2) are known. ing.

Patent Document 1 describes a traversing drive device equipped in an elevator-type parking device for traversing a vehicle mount on an elevator hoistway and a parking shelf, which is close to the parking shelf directly below and the parking shelf. An endless chain including a lower horizontal circulation path substantially parallel to the parking shelf and an upper horizontal circulation path close to and substantially parallel to the parking shelf in the turning path, and a first arranged on the endless chain. Described is a traversing drive device for an elevator-type parking device having an engaging member and an engaged member disposed on the vehicle mounting frame on which the first engaging member engages with each other so as not to move left and right. ing.

Further, in Patent Document 2, a cage elevating part is provided in the central portion of the building in the vertical direction, and a comb-toothed lift cage provided with comb-shaped tire support members inward in the horizontal direction from both left and right positions can be stored so as to be able to move up and down. In addition, warehousing / delivery berths are provided on the left and right sides of the building, and a conveyor extending in the left-right direction to reach one side of the cage elevating portion is provided on the floor surface of the warehousing / delivery berth. At the lower position of the part, a vehicle transfer device equipped with a belt conveyor in the shape of a comb on the left and right so that it can pass each other by alternating with each tire support member of the comb-toothed lift cage is installed at the center position of the cage elevating part and above. A storage space is provided on both the left and right sides of the cage elevating part excluding the first floor of the building so that it can be freely shifted to the delivery berth side, and the storage space is used between the comb-toothed lift cage and the storage space. Described is an elevator-type parking device characterized in that it has a configuration in which a comb-toothed pallet for delivering a vehicle is stored in the cage elevating part so as to be able to be taken in and out in a multi-stage manner.

JP-A-2007-224644 Japanese Unexamined Patent Publication No. 2005-248668

However, in the conventional elevator type mechanical parking device in a building, the vibration generated by the operation of the elevator type mechanical parking device is propagated to the main body building side through the anchor bolts for fixing, and solid propagating noise is generated and vibration failure occurs. No consideration was given to the fact that it would end up.

Therefore, an object of the present invention is to provide an in-building elevator type mechanical parking device capable of sufficiently suppressing vibration and solid propagating sound propagated from the elevator type mechanical parking device side to the main body building side.

The in-building elevator type mechanical parking device according to the first aspect includes a plurality of steel columns, receiving columns, and guide rails arranged near the inner wall surface of the main building in the main building, and provides a parked vehicle. A multi-stage storage space is formed along the longitudinal direction of the receiving column for storage, and the parked vehicle moves between the boarding surface having the entrance / exit of the main building and the storage space while moving up and down along the guide rail. In the elevator type mechanical parking device in the building, the pedestal is mounted on the bottom surface of the pit having the side surface of the pit via the anti-vibration rubber, and the steel column, the receiving column, and the lower end of the guide rail are received. It is established by fixing it to a table, and an upper support with the steel column, the receiving column, and the guide rail fixed to each of the upper part of the main building is provided, and the steel column contacts the inner wall surface of the main building. A plurality of anti-vibration rubber devices that are equipped with anti-vibration rubber and do not use anchor bolts for fixing, and the pedestal is equipped with anti-vibration rubber that contacts the side surface of the pit and uses anchor bolts for fixing. It is characterized by providing a plurality of other anti-vibration rubber devices.

According to the elevator-type mechanical parking device in the building according to the first aspect, the vibration on the elevator-type mechanical parking device side in the building moves to the main building 1 side through the anchor bolts for fixing embedded in the pit portion as in the conventional case. It is possible to prevent the propagation of sound, and it is possible to prevent the generation of solid propagating sound in the main building and the occurrence of vibration obstacles.

The in-building elevator type mechanical parking device according to the second aspect is the in-building elevator type mechanical parking device according to the first aspect, as the pit bottom surface of the first stage pit bottom surface and the first stage pit bottom surface. It has a second-stage pit bottom surface formed at a lower position, and the pedestal is a first pedestal mounted on the first-stage pit bottom surface via an anti-vibration rubber and the second-stage pedestal. It has a second pedestal mounted on the bottom surface of the pit of the eye via another anti-vibration rubber, and the steel pillar and the lower end of the pedestal are fixed to the first pedestal, respectively, and attached to the second pedestal. The lower ends of the guide rails are fixed to each other, and a plurality of anti-vibration rubber devices provided with anti-vibration rubber that contacts the pit side surface of the bottom surface of the first-stage pit are provided on the first pedestal. The table is provided with a plurality of other anti-vibration rubber devices provided with other anti-vibration rubbers that come into contact with the pit side surface of the bottom surface of the second stage pit.

According to the elevator type mechanical parking device in the building according to the second aspect, the load on the steel frame column, the receiving column and the guide rail side can be shared between the first pedestal and the second pedestal. It is possible to reduce the load sharing of the oscillating rubber and extend the service life.

The elevator-type mechanical parking device in the building according to the third aspect is the elevator-type mechanical parking device in the building according to the first aspect, in which a turntable for turning to change the direction of the parked vehicle is mounted on the second cradle. It is characterized by that.

According to the elevator-type mechanical parking device in the building according to the third aspect, the turntable is not installed on the pit surface, but is mounted on the second cradle and fixed and floated from the pit surface. There is no need for anchor bolts for fixing as when installing the turntable on the pit surface, and solid propagating noise and vibration are not generated in the main building due to the vibration generated when the elevator type mechanical parking device in the building is operating. The structure will be maintained, and it will be an elevator-type mechanical parking device in the building with improved vibration and sound insulation performance.

The in-building elevator type mechanical parking device according to the fourth aspect is the in-building elevator type mechanical parking device according to the first aspect, and the vibration-proof rubber device and the other vibration-proof rubber device are on the inner wall surface side of the main building. A plurality of anti-vibration rubber brackets are fixed to the steel column at a position facing the pit and the pedestal at a position facing the side surface of the pit, and a non-slip plate is attached to the anti-fixing side of each of the anti-vibration rubber brackets. Each is fixed, and the anti-vibration rubber device is arranged so as to sandwich the anti-vibration rubber device between the anti-slip plate and the inner wall surface side and the pit side surface of the main body building, and each anti-vibration rubber device is on the non-fixing side. It is characterized in that it is configured with anti-vibration rubber at each end.

According to the in-building elevator type mechanical parking device according to the fourth aspect, the anti-vibration rubber device reliably blocks the vibration generated during the operation of the in-building elevator type mechanical parking device by the anti-vibration rubber and is embedded in the main building. It is possible to prevent the vibration on the elevator type mechanical parking device side in the building from propagating to the main building side through the anchor bolt etc., which causes solid propagating noise in the main building and vibration failure. Can be prevented. Further, when replacing the anti-vibration rubber, the anti-vibration rubber can be easily removed from the anti-vibration rubber bracket side, and then the anti-vibration rubber can be easily replaced with a newly installed anti-vibration rubber. In this way, the replacement work of the anti-vibration rubber can be completed easily and in a short time.

The in-building elevator type mechanical parking device according to the fifth aspect is the in-building elevator type mechanical parking device according to the first aspect, in which the upper end of the steel frame pillar is directly below the ceiling of the main building to prevent lifting during an earthquake. The direct type earthquake lift prevention support is characterized by being provided with anti-vibration rubber provided at the non-fixed side end on the ceiling portion side.

According to the elevator type mechanical parking device in the building according to the fifth aspect, since the pedestal is mounted without using the anchor bolts for fixing, there is a possibility that the pedestal may be lifted when a direct earthquake occurs. Since the top of the steel frame is vertically supported on the ceiling of the main building, etc., a direct type earthquake lift prevention support is installed, so it is possible to prevent vertical lift by any chance.

According to the elevator-type mechanical parking device in a building according to the present invention, the vibration on the elevator-type mechanical parking device side propagates to the main building 1 side through fixing anchor bolts and the like embedded in the pit portion as in the conventional case. It is possible to prevent the generation of solid propagating sound in the main building and the occurrence of vibration obstacles.

It is a front view of the elevator type mechanical parking device in a building according to one Example of this invention. It is an enlarged view which shows the vicinity of the pit part of the elevator type mechanical parking device in a building shown in FIG. It is a top view which shows the vicinity of the pit shown in FIG. It is an enlarged plan view which shows the upper part of the elevator type mechanical parking device in a building shown in FIG. It is a front view which is enlarged and shown in the upper part shown in FIG. It is a top view of the anti-vibration rubber device shown in FIG. It is a side view of the anti-vibration rubber device shown in FIG. It is a side view which shows the 1st stage of the replacement work of the anti-vibration rubber device shown in FIG. It is a side view which shows the 2nd stage of the replacement work of the anti-vibration rubber device shown in FIG. It is a side view which shows the 3rd stage of the replacement work of the anti-vibration rubber device shown in FIG.

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

FIG. 1 is a front view of an elevator type mechanical parking device in a building according to an embodiment of the present invention.

As shown in FIG. 3, which will be described later, the main building 1 on the machine parking device side is configured to have building columns 2A to 2D arranged at four corners, multi-stage beams 3A to 3N, and the like, and a parked vehicle gets on the lower position. A boarding surface 5 having a boarding port 4 used for the purpose, a pit bottom surface 6 of the first stage, and a pit bottom surface of the second stage formed at the center of the pit bottom surface 6 of the first stage. 7 is provided, and the ceiling portion 8 is provided above.

The details will be described with reference to FIG. 2, but the first pedestal 9 is arranged on the bottom surface 6 of the pit of the first stage, and the second pedestal 10 is arranged on the bottom surface 7 of the pit of the second stage. On the upper surface side of the first pedestal 9, the lower ends of the steel columns 11A to 11D arranged at the four corners near the inner wall surface of the main building 1 and the receiving columns 12A to 12D arranged inside the steel columns 11A to 11D. The lower ends are fixed respectively. In the figure, only the steel columns 11A and 11B and the receiving columns 12A and 12B arranged on the front side are shown, but as shown in FIG. 3 described later, other steel columns 11C, on the back side thereof. 11D and receiving columns 12C and 12D are arranged.

Further, on the upper surface side of the second cradle 10, the lower ends of the four guide rails 13A to 13D arranged on the center side of the main building 1 are fixed, and the turntable 14 is mounted. In the figure, only the guide rails 13A and 13B arranged on the front side are shown, but as shown in FIG. 3 described later, other guide rails 13C and 13D are arranged on the back side thereof. ..

On the other hand, the upper end portion of the steel columns 11A~11D disposed substantially vertically is established on the first cradle 9, prevents support 1 5 floating during direct type earthquake same structure in the ceiling portion 8 of the body building 1 It is supported by each. Further, the upper end of each of the receiving columns 12A to 12D established on the second pedestal 10 and arranged substantially vertically is a ceiling support assembled in a grid shape or a square shape above the steel frame columns 11A to 11D. It is connected to the body 16. The upper ends of the guide rails 13A to 13D established on the second cradle 10 and arranged substantially vertically are also connected to the ceiling support 16. A drive unit 17 mounted on the machine base is configured above the ceiling support 16.

The details will be described with reference to FIG. Traverse carriages 19A to 19D, 20A to 20N, and the like that move horizontally along the railroad trolleys are provided to form a storage space having a double-row multi-stage structure for storing parked vehicles.

Each of the steel frame columns 11A to 11D described above has a plurality of anti-vibration rubber devices 21 in contact with the inner surface side of the beams 3A to 3N constituting the main body building 1 as shown by circles at predetermined intervals in the longitudinal direction thereof. It is provided. Further, a plurality of anti-vibration rubber devices 22 in contact with the pit side surface 24 formed adjacent to the pit bottom surface 6 of the first stage are also provided on the outer peripheral portion of the first pedestal 9. Similarly, a plurality of anti-vibration rubber devices 23 in contact with the pit side surface 25 formed adjacent to the pit bottom surface 7 of the second stage are provided on the outer peripheral portion of the second cradle 10. The specific configurations of the anti-vibration rubber devices 21 to 23 will be described later with reference to FIGS. 6 to 10.

2 and 3 are an enlarged view and a plan view showing the vicinity of the pit portion of the elevator type mechanical parking device in the building shown in FIG.

Pit portion as described above, is a pit bottom surface 6 of the first stage as shown in FIG. 2 is an enlarged view a two-stage configuration having a second stage of the pit bottom 7, each pit bottom surface 6 The pit side surfaces 24 and 25 which are substantially vertical are formed adjacent to the pit. The anti-vibration rubber provided at the tip of the anti-vibration rubber device 22 is in contact with the pit side surface 24, and similarly, the anti-vibration provided at the tip of the anti-vibration rubber device 23 is contacted with the pit side surface 25. The rubber is in contact.

The first pedestal 9 arranged on the bottom surface 6 of the pit of the first stage has an end slightly retracted from the side surface 24 of the pit for arranging the anti-vibration rubber device 22, but the steel columns 11A to 11D It has a size that can be connected with the lower end portion of the above and the lower end portions of the receiving columns 12A to 12D mounted. In other words, the first pedestal 9 is also used to connect and integrate all the lower ends of the four independent steel columns 11A to 11D and the receiving columns 12A to 12D to strengthen the whole. It is fixed.

As shown in FIG. 3, the first pedestal 9 has a girder-shaped or square-shaped structure as a whole, and has a girder portion 26 arranged so as to receive the lower ends of the steel frame columns 11A to 11D at the four corners, and the girder portion 26. The receiving columns 27A for receiving columns, which are located at the lower part of the receiving columns 12A and 12C arranged inside the above beam and whose both ends are connected to the girder portion 26, and the receiving columns arranged inside the girder portion 26. It has a receiving beam 27B for a column, which is located at the lower part of 12B and 12D, and both ends thereof are connected to the girder portion 26.

The first pedestal 9 having such a configuration is not fixed to the bottom surface 6 of the pit of the first stage by using anchor bolts for fixing as in the conventional case, but the bottom surface 6 of the pit of the first stage. It is mounted with a plurality of anti-vibration rubbers 28 arranged in the above intervening. The first pedestal 9 has a sufficiently larger area and size than the contact surface when the lower ends of the steel columns 11A to 11D and the receiving columns 12A to 12D are directly mounted on the bottom surface 6 of the pit of the first stage. Is used.

As shown in FIG. 2, the plurality of anti-vibration rubbers 28 are the foundation slabs corresponding to the space between the first pedestal 9 and the bottom surface 6 of the pit of the first stage, particularly the lower parts of the steel frame columns 11A to 11D and the receiving columns 12A to 12D. It is intervened in each part. However, as described above, the anchor bolts for fixing that are normally used are not provided in the foundation slab portion in the lower part of the steel frame columns 11A to 11D and the receiving columns 12A to 6D as well as in the vicinity of each anti-vibration rubber 28.

As shown in FIG. 3, the anti-vibration rubber device 22 arranged on the outer peripheral portion of the first pedestal 9 includes the anti-vibration rubber device 22A which is in contact with the pit side surface 24 in the front-rear direction at the four corners of the girder portion 26 and the girder portion 26. It has an anti-vibration rubber device 22B that is in contact with the pit side surface 24 in the left-right direction at the four corners, and an anti-vibration rubber device 22C that is in contact with the pit side surface 24 at both ends of the beam receiving beams 27A and 27B for receiving columns.

At the center of the first-stage pit bottom surface 6 described above, a second-stage pit bottom surface 7 having a width direction smaller than that of the first-stage pit bottom surface 6 is formed. The second cradle 10 is arranged on the bottom surface 7 of the pit of the eye. As shown in FIG. 2, the second cradle 10 has an end portion slightly retracted from the pit side surface 25 for arranging the anti-vibration rubber device 23, but each lower end portion of the guide rails 13A to 13D. It has a size that can be combined with the rubber mounted. In other words, the second cradle 10 is also used for connecting and integrating the lower ends of the four independent guide rails 13A to 13D, and firmly fixes the whole.

As shown in FIG. 3, the second pedestal 10 is formed in a grid shape or a quadrangular shape as a whole, and is arranged and connected so as to receive the lower ends of the guide rails 13A and 13C, and the guide rail receiving beam 29A and the guide rail. Guide rail receiving beams 29B arranged and joined so as to receive the lower ends of 13B and 13D, and connecting beams 30A and 30B connecting both ends of the guide rail receiving beam 29A and both ends of the guide rail receiving beam 29B. , The lower part of the turntable 14 is configured to have a connecting beam 30C that connects the intermediate portion of the guide rail receiving beam 29A and the intermediate portion of the guide rail receiving beam 29B.

The second pedestal 10 having such a configuration is not fixed to the bottom surface 7 of the pit of the second stage by using anchor bolts for fixing as in the conventional case, but the bottom surface 7 of the pit of the second stage. It is mounted with a plurality of anti-vibration rubbers 31 arranged in the above intervening. A second pedestal 9 having a sufficiently larger area and size than the contact surface when the lower ends of the guide rails 13A to 13D are directly mounted on the bottom surface 7 of the pit of the second stage is used.

As shown in FIG. 2, the plurality of anti-vibration rubbers 31 are interposed between the second cradle 10 and the bottom surface 7 of the pit of the second stage, particularly in the foundation slab portion corresponding to the lower part of the guide rails 13A to 13D. There is. However, as described above, the anchor bolts for fixing that are normally used are not provided in the foundation slab portion in the lower part of the guide rails 13A to 13D as well as in the vicinity of each anti-vibration rubber 31.

As shown in FIG. 3, the anti-vibration rubber device 23 arranged on the outer peripheral portion of the second pedestal 10 includes the anti-vibration rubber device 23A which is in contact with the pit side surface 25 in the front-rear direction at the four corners and the pit side surface 25 in the left-right direction at the four corners. It has a vibration-proof rubber device 23B in contact with the pit side surface 25 at both ends of the connecting beam 30C, and a vibration-proof rubber device 23C in contact with the pit side surface 25.

In an elevator type mechanical parking device in a building, solid propagating sound and vibration failure may occur in the main building 1 due to the parking device equipment side. For example, when the method of embedding the anchor bolts for fixing in the foundation slab of the main building is adopted, the cause is the vibration generated during operation of the elevator type mechanical parking device in the building due to the contact or approach of the reinforcing bars in the foundation slab and the anchor bolts for fixing. Solid propagating sound and vibration are generated in the main building. However, as described above, since the anchor bolts for fixing are not provided, solid propagating noise and vibration are not generated in the main building 1 due to the vibration generated when the elevator type mechanical parking device in the building is operated, and the vibration is prevented. It will be an elevator-type mechanical parking device in a building with improved vibration and soundproofing performance.

Further, since the loads on the steel columns 11A to 11D, the receiving columns 12A to 12D, and the guide rails 13A to 13D can be shared by the first pedestal 9 and the second pedestal 10, the anti-vibration rubber 28 arranged at the lower part can be shared. , 31 load sharing can be reduced and the life can be extended.

Moreover, there is known a configuration in which a turntable 14 for turning is used when a parked vehicle is boarded through the boarding port 4 and then moved to a storage space of a predetermined stage by using an elevating lift 33. Even in this method, the turntable 14 is not installed on the pit surface as shown in FIGS. 1 and 2, but is mounted on the second cradle 10 and fixed so as to float from the pit surface. .. Therefore, unlike when the turntable 14 is installed on the pit surface, anchor bolts for fixing are not required, and solid propagating noise and vibration are generated in the main building 1 due to the vibration generated when the elevator type mechanical parking device in the building is operated. It will be an elevator-type mechanical parking device in a building that retains the structure that does not have to be done and has improved vibration-proof performance and sound-proof performance.

Further, the first pedestal 9 and the second pedestal 10 arranged in the pit portion as described above do not use the anchor bolts for fixing, and the first pit bottom surface 6 and the second stage pit bottom surface 6 are used. Since it is configured to be mounted on 7, there is a possibility that it will be lifted when an earthquake occurs, but it is a direct type that vertically supports the top of the steel frame frames 11A to 11D to the ceiling 8 of the main building 1. Since the support 15 for preventing lifting during an earthquake is installed, it is possible to prevent lifting in the vertical direction by any chance.

4 and 5 are a plan view and a front view showing the A stage of the elevator type mechanical parking device in the building shown in FIG. 1 in an enlarged manner.

Each of the steel columns 11A to 11D shown in FIG. 1 is a portion facing the beam 1A of the main building 1 and has a girder shape or a square shape so as to surround the outer peripheral portions of the receiving columns 12A to 12D and the guide rails 13A to 13D. It is connected by the upper support 32 configured in. The upper support 32 includes a connecting member 33A that connects the steel column 11A and the steel column 11B on substantially the same horizontal plane, a connecting member 33B that connects the steel column 11A and the steel column 11C, and the steel column 11C and the steel column 11D. It is configured to have a connecting member 33C for connecting the columns and a connecting member 33D for connecting the steel column 11D and the steel column 11B.

The upper support 32 supports the receiving columns 12A to 12D and the guide rails 13A to 13D by connecting the opposing portions with a coupling member. Further, the upper support 32 is provided with anti-vibration rubber devices 21A that are in contact with the inner surface of the beam 1A in the front-rear direction at its four corners and anti-vibration rubber devices 21B that are in contact with the inner surface of the beam 1A in the left-right direction at the four corners.

In FIG. 1, between the boarding surface 5 and the tops of the steel columns 11A to 11D, other upper supports other than the upper support 32 are not shown, but the other beams 1B to 1N of the main building 1 are formed. A plurality of anti-vibration rubber devices 21A and 21B extending in the front-rear direction and the left-right direction are arranged on the steel frame columns 11A to 11D of the facing portions as in the case of the upper support 32, and the anti-vibration rubber devices 21A and 21B are respectively arranged. The anti-vibration rubber provided at the tip of the beam is made to come into contact with the inner surfaces of the other beams 1B to 1N in the main building 1 to form a multi-stage structure.

However, the attachment of the anti-vibration rubber devices 21A and 21B on the steel frame columns 11A to 11D is not limited to the configuration shown in the figure. Other vertical girder-shaped or square-shaped upper supports having the same configuration as those shown in FIG. 4 are provided at predetermined intervals in the axial direction of each steel column 11A to 11D, and each anti-vibration rubber is also provided on the other upper supports. Devices 21A and 21B may be attached.

In this way, from the upper support 32 to the first pedestal 9 and the second pedestal 10 formed in the pit portion, a space portion continuous in the vertical direction is formed on the central side thereof. In this space, a pair of elevating lifts 33 that can move up and down along the guide rails 13A to 13D arranged at the corners of the quadrangle, and traversing rails 18A to 18N that form pairs on both sides of the elevating lift 33, respectively. Spaces are formed for arranging the traversing carriages 19A to 19N and 20A to 20N, which can be horizontally moved by using the traversing rails 18A to 18N.

Although the configuration of each stage is the same, in the stage A shown in FIG. 4, the traversing rails 18A paired on both sides of the lifting lift 33 and the traversing rails 18A paired with each other can be horizontally moved. The trolleys 19A and 20A are arranged. The space facing the traversing rail 18A and the upper support 32 is used for arranging the motor 34 and the like for driving the traversing carriages 19A and 20A, and moves in different directions while balancing with the elevating lift 33. It is also used as a moving space for the counter weight 35.

A drive unit 17 mounted on the machine base is configured on the upper portion of the ceiling support 16 as shown in FIG. The drive unit 17 has a main rope 37 wound around a pulley 36, and one end of the main rope 37 is connected to an elevating arm 38 that can be moved up and down along guide rails 13A to 13D. The lift 33 is driven up and down by 38.

As described above, the anti-vibration rubber device 21 is arranged between the main building 1 and the elevator type mechanical parking device in the front-rear direction and the left-right direction, respectively, and the vibration generated by the operation of the elevator type mechanical parking device is generated in the main building. It is prevented from being propagated to one side to generate solid propagating sound and vibration interference. Further, as shown in FIGS. 1 and 2, in the pit portion, a plurality of anti-vibration rubber devices 22 and 23 are arranged between the first pedestal 9 and the second pedestal 10 and the pit side surfaces 24 and 25. Therefore, the vibration generated by the operation of the elevator type mechanical parking device is propagated to the main body building 1 side to prevent the generation of solid propagating sound and the occurrence of vibration failure.

Next, a specific configuration of each anti-vibration rubber device 21 to 23 will be described. In this embodiment, since the anti-vibration rubber devices 21 to 23 have the same configuration, the anti-vibration rubber device 21B attached to the steel frame column 11A will be described here as a representative.

6 and 7 are a plan view and a side view of the anti-vibration rubber device 21B.

A vibration-proof rubber bracket 39 is welded to the steel column 11A, and a non-slip plate 40 is welded to a predetermined position on the upper surface side of the vibration-proof rubber bracket 39 near the end. An anti-vibration rubber device 21B provided with a substantially triangular anti-vibration rubber metal fitting 41 and an anti-vibration rubber 42 is arranged between the anti-slip plate 40 and the beam 3A on the main body building 1 side.

As shown in FIG. 7, the anti-vibration rubber hardware 41 is reinforced with a fixing surface 43 mounted on the upper surface side of the anti-vibration rubber bracket 39, an anti-vibration rubber mounting fixing surface 44 facing substantially parallel to the beam 3A, and reinforcement. It has a rubber rib 45. The fixed surface 43 is used as a joint to the anti-vibration rubber bracket 39, and the anti-vibration rubber mounting fixed surface 44 is used as a mounting surface for the anti-vibration rubber 42.

As shown in FIG. 7, the anti-vibration rubber bracket 39 is formed with a pair of bolt holes 46 on the end side of the anti-slip plate 40, and the fixing surface 43 of the anti-vibration rubber metal 41 has a pair of bolt holes 46. As shown in FIG. 6, a pair of elongated holes 47 extending toward the beam 3A are formed at positions matching each bolt hole 46. When the fixing surface 43 of the anti-vibration rubber hardware 41 is placed on the upper surface side of the anti-vibration rubber bracket 39 on the beam 3A side of the anti-slip plate 40, each bolt hole 46 of the anti-vibration rubber bracket 39 and Each elongated hole 47 of the anti-vibration rubber hardware 41 matches.

For anti-vibration rubber, insert high-strength bolts 48 into each bolt hole 46 from the lower surface side of the anti-vibration rubber bracket 39, and tighten the nut 49 to the side protruding from the elongated hole 47 of the anti-vibration rubber hardware 41. The anti-vibration rubber hardware 41 is coupled to the bracket 39. On the other hand, the anti-vibration rubber 42 is arranged on the beam 3A side of the anti-vibration rubber mounting fixing surface 44 of the anti-vibration rubber hardware 41, and the anti-vibration rubber mounting bolt 51 is arranged from the beam 3A side of the end plate 50 of the anti-vibration rubber 42. The anti-vibration rubber 42 is attached to the anti-vibration rubber metal fitting 41 by screwing the nut 52 into the anti-vibration rubber mounting bolt 51 protruding from the anti-vibration rubber mounting fixing surface 44.

As described above, the anti-vibration rubber device 21B provided with the anti-vibration rubber hardware 41 and the anti-vibration rubber 42 is sandwiched between the anti-slip plate 40 fixed to the anti-vibration rubber bracket 39 and the beam 3A. It is arranged. For this reason, both ends of the anti-vibration rubber device 21B are not a push-pull type that pushes at one end and pulls at the other end, as in the case of using anchor bolts for fixing embedded in the beam 3A side. Both ends of the oscillating rubber device 21B are push-push type that are pushed at one end and pushed at the other end.

Moreover, since the anti-vibration rubber bracket 39 and the anti-vibration rubber device 21B or the anti-vibration rubber hardware 41 are not connected by welding but are connected by using high-strength bolts 48, they are prevented by removing the high-strength bolts 48. The vibration-proof rubber bracket 39 and the vibration-proof rubber device 21B or the vibration-proof rubber hardware 41 can be separated.

Next, the replacement work of the anti-vibration rubber 42 in the anti-vibration rubber device 21B will be described.

FIG. 8 is a side view of the anti-vibration rubber device 21B showing the first stage of the replacement work.

First, the nut 49 of the high-strength bolt 48 that was connected between the anti-vibration rubber bracket 39 and the anti-vibration rubber hardware 41 is loosened, and the high-strength bolt 48 is removed.

FIG. 9 is a side view of the anti-vibration rubber device 21B showing the second stage of the replacement work.

The anti-vibration rubber hardware 41 separated from the anti-vibration rubber bracket 39 by removing the high-strength bolt 48 is moved upward. At this time, since the anti-vibration rubber metal 41 and the anti-vibration rubber 42 in the bonded state are in a deteriorated state, the anti-vibration rubber metal 41 can be easily removed from the anti-slip plate 40.

FIG. 10 is a side view of the anti-vibration rubber device 21B showing the third stage of the replacement work.

Next, the nut 52 is loosened from the removed anti-vibration rubber hardware 41, the anti-vibration rubber mounting bolt 51 is pulled out, and the deteriorated anti-vibration rubber 42 is replaced with a new one. Alternatively, a new anti-vibration rubber hardware 41 to which a new anti-vibration rubber 42 is attached is prepared in advance. After that, the anti-vibration rubber hardware 41 to which the new anti-vibration rubber 42A is attached is pushed between the anti-slip plate 40 and the beam 3A and arranged in the same manner as in the state before removal shown in FIGS. 6 and 7. ..

As can be seen from the description of the replacement work described above, when the high-strength bolt 48 is removed, the anti-vibration rubber hardware 41 and the anti-vibration rubber 42 can be easily separated from the anti-vibration rubber bracket 39, and thereafter, By removing the anti-vibration rubber mounting bolt 51, the anti-vibration rubber 42 can be easily separated from the anti-vibration rubber hardware 41. In this way, the replacement work of the anti-vibration rubber 42 can be completed easily and in a short time. Therefore, it does not bother the owners and end users of the elevator mechanical parking system in the building. Furthermore, since there is less vibration and noise during the replacement work, there is less discomfort to the occupants.

Since the anti-vibration rubber bracket 39 and the anti-vibration rubber hardware 41 are detachably connected by the high-strength bolt 48, the joint portion of the anti-vibration rubber device 21B is used for the replacement work of the anti-vibration rubber 42. There is no need to perform cutting work. Therefore, although the parked vehicle parked in the elevator type mechanical parking device in the building is filled with gasoline, there is no danger of the parked vehicle catching fire or exploding due to the metal part cutting work during the above-mentioned replacement work. It is not necessary to replace the anti-vibration rubber 42 by closing the elevator type mechanical parking device in the building or moving the parked vehicle to another mechanical parking device, which is a simple and inexpensive replacement work.

Although the above description has been given for the anti-vibration rubber device 21B, another anti-vibration rubber device 21A can be configured by changing the orientation of the anti-vibration rubber bracket 39 in the longitudinal direction. Further, if the anti-vibration rubber bracket 39 is fixed to the first pedestal 9 or the second pedestal 10, the anti-vibration rubber device 22 or the anti-vibration rubber device 23 can be configured.

In the conventional mechanical parking device, anchor bolts for fixing were used for the anti-vibration rubber device that supports the upper part on the ward side such as the beam of the main building 1, but in this elevator type mechanical parking device, the pit side, Not only the turntable 14, but also the anti-vibration rubber device supported on the ward side such as the beam of the main building 1 does not use the anchor bolts for fixing.

Therefore, when the above-mentioned anti-vibration rubber devices 21 to 23 are used, the vibration generated during the operation of the elevator type mechanical parking device is surely blocked by the anti-vibration rubber 42. Through the anchor bolts for fixing embedded in 3A, it is possible to prevent the vibration on the elevator type machine parking device side from propagating to the main building 1 side, and the solid propagating sound generated in the main building 1 can be prevented. , It is possible to prevent the occurrence of vibration failure.

Moreover, in all the anti-vibration rubber devices 21 to 23, even if the anti-vibration rubber 42 needs to be replaced, the work can be easily performed. Further, since the replacement does not involve the cutting work of the same part, the cost for the replacement work of the anti-vibration rubber 42 is also low.

The first pedestal 9 and the second pedestal 10 arranged in the pit portion as described above are placed on the bottom surface 6 of the pit of the first stage and the bottom surface 7 of the pit of the second stage without using the anchor bolts for fixing. Since it is configured to be mounted, the uppermost part of the steel frame frames 11A to 11D may be lifted when a direct earthquake occurs, but the uppermost part of the steel frame frames 11A to 11D is vertically oriented to the ceiling 8 or the like of the main building 1. Since the support 15 for preventing lift during a direct earthquake is installed, it is possible to prevent lift in the vertical direction. Although the specific configuration of the direct earthquake lift prevention support 15 is not mentioned, the direct earthquake lift prevention support 15 has the same configuration as the anti-vibration rubber devices 21 to 23 shown in FIGS. 6 to 10. It is good to configure.

Further, in an elevator type mechanical parking device in a building, a waterproof layer may be required because an electric room or the like is arranged directly under the machine parking device. Even for this type of requirement, since the embedded anchor bolt for fixing is not used in the pit portion, the water stopping property can be greatly improved without damaging the waterproof layer.

The elevator type mechanical parking device in a building according to the present embodiment shows a fork type in which a fork type lifting lift is used as the lifting lift 33 and a fork type moving carriage is used as the moving carriage 12. Not limited to the fork type, it can be similarly applied to an elevator type mechanical parking device in a building having other configurations such as a pallet type. Further, although a double-row configuration in which storage spaces for storing parked vehicles are formed on both sides of the lift 33 is illustrated, the same can be applied to a single-row configuration.

A plurality of steel columns 11A to 11D, receiving columns 12A to 12D, and guide rails 13A to 13D arranged near the inner wall surface of the main building 1 are provided in the main building 1 to store a parked vehicle. A multi-stage storage space is formed along the longitudinal direction of the receiving columns 12A to 12D, and the parked vehicle moves between the storage space and the boarding surface having the entrance / exit of the main building 1 while moving up and down along the guide rails 13A to 13D. It can be applied to the elevator type mechanical parking device in the building.

Further, in the elevator type mechanical parking device in the building according to the present embodiment, the first-stage pit bottom surface 6 and the second-stage pit bottom surface 9 are formed in the pit portion, and the first pedestal 6 and the second pedestal 7 are formed. However, even if only the bottom surface 9 of the pit in the second stage is used and the first pedestal 6 and the second pedestal 7 or a common pedestal in which they are integrated are arranged on the same pit surface. , Almost the same effect can be obtained. As can be seen from this explanation, the specific configurations of the pit bottom surfaces 6 and 9 and the first pedestal 6 and the second pedestal 7 are not limited to those shown in the figure.

As described above, the present invention comprises a plurality of steel columns 11A to 11D, receiving columns 12A to 12D, and guide rails 13A to 13D arranged near the inner wall surface of the main building 1 in the main building 1. A boarding surface having an entrance / exit of the main building 1 while forming a multi-stage storage space along the longitudinal direction of the receiving columns 12A to 12D and moving up and down along the guide rails 13A to 13D to store the parked vehicle. In an elevator-type mechanical parking device in a building that moves parked vehicles between the storage space and the storage space, cradle 9 and 10 are mounted on the bottom surface of the pit having the pit side surface via anti-vibration rubbers 28 and 31, and the steel columns 11A to 11A to The 11D, the receiving columns 12A to 12D, and the lower ends of the guide rails 13A to 13D are fixed to the pedestals 9 and 10 to be established, and the steel columns 11A to 11D and the receiving columns 12A to 12D are located above the main building 1. And, an upper support 32 to which the guide rails 13A to 13D are fixed is provided, and the steel columns 11A to 11D are provided with anti-vibration rubber that contacts the inner wall surface of the main body building 1, and a plurality of fixing anchor bolts are not used. The anti-vibration rubber device 21 and a plurality of anti-vibration rubber devices 22 and 23 provided on the pedestals 9 and 10 with anti-vibration rubber in contact with the side surface of the pit and without using anchor bolts for fixing. And.

According to such a configuration, it is possible to prevent the vibration on the elevator type mechanical parking device side from propagating to the main body building 1 side through the fixing anchor bolts embedded in the pit portion as in the conventional case. Therefore, it is possible to prevent the generation of solid propagating sound and the occurrence of vibration disturbance in the main building 1.

Further, in addition to the above-described configuration, the present invention includes, as pit surfaces, a pit bottom surface 6 of the first stage and a pit bottom surface 7 of the second stage formed at a position lower than the pit bottom surface 6 of the first stage. The pedestals 9 and 10 are mounted on the bottom surface 6 of the pit of the first stage via the anti-vibration rubber 28, and the pedestals 9 and 10 are mounted on the bottom surface 7 of the pit of the second stage via the anti-vibration rubber 31. It has a second pedestal 10 mounted on it, the lower ends of the steel columns 11A to 11D and the receiving columns 12A to 12D are fixed to the first pedestal 9, and the lower ends of the guide rails 13A to 13D are fixed to the second pedestal 10. The first pedestal 9 is provided with a plurality of anti-vibration rubber devices 22 provided with anti-vibration rubber that contacts the pit side surface 24 of the first-stage pit bottom surface 6, and the second pedestal 10 is provided with a second anti-vibration rubber device. A plurality of anti-vibration rubber devices 23 provided with anti-vibration rubber that come into contact with the pit side surface 25 of the pit bottom surface 7 of the step are provided.

According to such a configuration, the loads on the steel columns 11A to 11D, the receiving columns 12A to 12D, and the guide rails 13A to 13D can be shared by the first pedestal 9 and the second pedestal 10, so that the lower part can be shared. It is possible to reduce the load sharing of the arranged anti-vibration rubbers 28 and 31 and extend the life.

Further, the present invention is characterized in that, in addition to the above-described configuration, a turntable 14 for turning to change the direction of the parked vehicle is mounted on the second cradle 10.

According to such a configuration, the turntable 14 is mounted on the second cradle 10 and fixed and floated from the pit surface instead of being installed on the pit surface. Therefore, the turntable 14 is mounted on the pit surface. Anchor bolts for fixing are no longer required as in the case of installation in, and the configuration in which solid propagating noise and vibration are not generated in the main building 1 due to vibration generated during operation of the elevator type mechanical parking device is maintained and prevented. It will be an elevator-type mechanical parking device in a building with improved vibration and soundproofing performance.

Further, in addition to the above-described configuration, in the present invention, the anti-vibration rubber devices 21 to 23 include steel columns 11A to 11D at positions facing the inner wall surface side of the main building 1 and pedestals 9 and 10 at positions facing the side surfaces of the pits. A plurality of anti-vibration rubber brackets 39 are fixed to each of the anti-vibration rubber brackets 39, and anti-slip plates 40 are fixed to the non-fixed sides of each anti-vibration rubber bracket 39. The anti-vibration rubber devices 21 to 23 are arranged so as to be sandwiched between the pit side surface and the anti-vibration rubber devices 21 to 23, respectively. do.

According to such a configuration, the anti-vibration rubber device 21B reliably blocks the vibration generated during the operation of the elevator type mechanical parking device by the anti-vibration rubber 42, and the elevator is passed through an anchor bolt or the like embedded in the main body building 1. It is possible to prevent the vibration on the side of the mechanical parking device from propagating to the main body building 1 side, and it is possible to prevent the generation of solid propagating sound and the occurrence of vibration obstacles in the main body building 1. Further, when replacing the anti-vibration rubber 42, the anti-vibration rubber 42 can be easily removed from the anti-vibration rubber bracket 39 side, and then can be easily replaced with a newly installed anti-vibration rubber. In this way, the replacement work of the anti-vibration rubber 42 can be completed easily and in a short time.

Further, in addition to the above-described configuration, in the present invention, the upper end portions of the steel frame columns 11A to 11D are supported on the ceiling portion 8 of the main building 1 by the direct type earthquake lift prevention support 15, and the direct type earthquake lift prevention support 15 is provided. It is characterized in that the anti-vibration rubber 42 provided at the non-fixed side end on the ceiling portion 8 side is provided.

According to such a configuration, since the pedestals 9 and 10 are mounted without using the anchor bolts for fixing, there is a possibility that the pedestals 9 and 10 may be lifted when a direct earthquake occurs. Since the direct type earthquake lift prevention support 15 that vertically supports the uppermost portion of 11D on the ceiling 8 or the like of the main building 1 is installed, it is possible to prevent the vertical lift by any chance.

1 Main building 5 Boarding surface 6, 7 Pit bottom surface 8 Ceiling 9 First pedestal 10 Second pedestal 11A to 11D Steel pillar 12A to 12D Receiving pillar 13A to 13D Guide rail 14 Turntable 15 Direct type Preventing lifting during an earthquake Supports 21 to 23 Anti-vibration rubber device 24, 25 Pit side surface 28.31 Anti-vibration rubber 32 Upper support 39 Anti-vibration rubber bracket 40 Anti-slip plate 42 Anti-vibration rubber

Claims (2)

This is an elevator-type mechanical parking device in a building where an elevator-type mechanical parking device is installed in the main building.
The main building includes an inner wall surface, a boarding surface having a boarding port, and a ceiling portion, and the boarding surface is a second view in a plan view and is located at the center of the boarding surface. The bottom surface of the pit of the second stage is provided, the bottom surface of the pit of the first stage is provided around the bottom surface of the pit of the second stage, and the side surface of the pit of the second stage is the said of the first stage. It has a pit portion that is continuous downward from the end portion on the bottom surface side of the pit of the second stage on the bottom surface of the pit.
The pit portion has a first pedestal installed on the bottom surface of the first-stage pit via anti-vibration rubber and a second cradle installed on the bottom surface of the second-stage pit via anti-vibration rubber. With a stand,
The first pedestal has a plurality of steel columns extending toward the ceiling and extending toward the ceiling at intervals toward the central portion of the steel columns to form a multi-stage storage space. With multiple receiving columns, is fixed,
A plurality of guide rails extending toward the ceiling and allowing the lifting lift to move up and down are fixed to the second cradle.
The steel frame column is supported by the ceiling portion via a direct type earthquake lift prevention support having rigidity extending from the upper end portion of the steel frame column toward the ceiling portion, and is below the ceiling portion. It has a ceiling support in which the steel columns are connected to each other above the steel columns.
The upper ends of the receiving columns and the guide rails are fixed to the ceiling support.
Between the steel column and the inner wall surface, between the first pedestal and the pit side surface of the first stage , and between the second pedestal and the pit side surface of the second stage. Multiple anti-vibration rubber devices are arranged and in contact with each other.
Each of the anti-vibration rubber and the anti-vibration rubber device does not use anchor bolts for fixing.
Elevator type mechanical parking device in the building. The elevator-type mechanical parking device in a building according to claim 1, wherein a turntable for turning to change the direction of a parked vehicle is mounted on the second cradle.

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