JPH11131785A - Underfloor storage equipment in building - Google Patents

Abstract

PROBLEM TO BE SOLVED: To enhance the rigidity of a sleeper and to prevent the transmission of noise downstairs by making a twin type sleepers for supporting a storage space together with a coupling block connected in one united body placed and supported between a pair of beam members among sleepers supported by reversed beams without using struts. SOLUTION: Both ends of sleepers B1, B2 are supported by a pair of reversed beams Rb, Rb at a middle portion of the height of the reversed beams without using strut on a slab S, a skip floor 1 is formed below a floor surface 3 thereby creating a storage space 2, and the storage space 2 to be loaded with goods is supported by twin type sleepers B2. The twin type sleepers B2 have a pair of steel beam members 12, 12 each consisting of a web 121 and upper and lower flanges 122 , 123 and a plurality of coupling blocks 13 held and fixed at certain intervals in the longitudinal direction, and the whole is coupled in one united body with coupling members 14. The twin type sleepers B2 are able to secure a sufficient rigidity without enlarging the height compared to a single type, and is able to prevent the transmission of noise generated when taking loads in and out downstairs through the slab S.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an underfloor storage device in a building having a so-called inverted beam structure having a plurality of inverted beams projected on a slab.

[0002]

2. Description of the Related Art Conventionally, in a building in which a reverse beam is projected on a slab partitioning each story, a floor member is laid on the reverse beam, and an underfloor storage section is formed below the floor member. Under the member, a skip floor one step lower than the floor surface and an article storage section that can store drawers are provided, and the drawer in the article storage section is skipped from the entrance provided at the boundary between the article storage section and the skip floor. What can be pulled out on the floor is known.

[0003]

However, the underfloor storage apparatus has a problem that noise from the article storage section and the skip floor travels down the slab from a plurality of bundles erected on the slab and spreads downstairs. Since the load supporting the underfloor storage unit is subjected to the load from the skip floor, the load of the stored items, and the load from the floor member that separates the underfloor space from the above-floor space, the lift is independent of the bundle. Alternatively, there is a technical demand that the stiffness should be high enough to withstand these loads without increasing the vertical width.

The present invention has been made in view of such circumstances, and it is intended to prevent noise from being transmitted from a skip floor or an article storage section to the lower floor thereof and to support the article storage section, in particular, a doorway of the article storage section from the slab. It is an object of the present invention to provide a new underfloor storage device in a new building, which has a high rigidity without depending on a bundle to be provided and without increasing its vertical width.

[0005]

In order to achieve the above object, according to the first aspect of the present invention, a plurality of inverted beams are integrally projecting upward on a slab and laid on the inverted beams. In a building in which an underfloor space is formed below the floor surface to be formed, a plurality of large bundles are erected from above the slab at an intermediate portion in the vertical direction of the pair of inverted beams arranged side by side at intervals. Without any bridge support, on top of these dramas, skip floors,
An article storage section is arranged side by side, and at the boundary between the skip floor and the article storage section, a drawer stored in the article storage section is opened at an entrance for drawing out on the skip floor, and the article storage section is opened. Of the plurality of supporting pulleys, at least the pulleys supporting the entrances and exits are a plurality of beam members arranged in parallel with each other, a connecting block sandwiched between opposing surfaces of adjacent beam members, and a plurality of beam members. And a connecting member that integrally connects the connecting block.According to such a feature, the noise from the article storage unit or the skip floor is not transmitted directly to the slab, and is passed downstairs through this slab. Without extending, and the squeeze can have sufficient rigidity without increasing its vertical width, and must be supported by the bundle on the slab. It is asserted against the load from the storage compartment, yet its Obiki is never reduce the effective volume of the underfloor space.

In order to achieve the above object, according to a second aspect of the present invention, in the first aspect, the upper surface of the opening of the skip floor can be opened and closed by a slidable movable floor. According to this feature, the skip floor can be easily changed to another room.

[0007]

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, embodiments of the present invention will be described based on embodiments of the present invention shown in the accompanying drawings.

FIG. 1 is a partial perspective view of a building provided with the underfloor storage device of the present invention, FIG. 2 is a plan view taken along line 2 of FIG. 1, and FIG.
2 is a sectional view taken along line 3-3 in FIG. 2, and FIG.
FIG. 5 is a cross-sectional view taken along line 4, FIG.
FIG. 6 is an enlarged partial view taken along arrow 6 of FIG. 4, FIG. 7 is a view taken along line 7 of FIG. 6, and FIG. 8 is a cross-sectional view taken along line 8-8 of FIG.

[0009] The skeleton F constituting the skeleton of a building such as an apartment house
Includes a horizontal frame portion Fh extending in the horizontal direction and dividing the building into a plurality of upper and lower layers, and a vertical frame portion Fv extending in the vertical direction and interconnecting adjacent horizontal frame portions Fh.

The horizontal frame portion Fh has a so-called inverted beam structure in which a plurality of inverted beams Rb are integrally formed on the upper surface of the slab S so as to protrude upward. A plurality of living room portions C are provided on the inverted beam Rb extending in a lattice shape vertically and horizontally so as to be partitioned by the inverted beam Rb.

One of the living room portions C is provided with an underfloor storage device in which a skip floor 1 and an article storage section 2 are juxtaposed in the underfloor space.

Hereinafter, the structure of the underfloor storage device will be described in detail. As shown in FIGS. 2 to 4, a pair of inverted beams Rb, Rb, which are arranged in parallel on the slab S at intervals, will be described later in detail. A plurality of series formulas and a series of formulas B1 and B2
Are supported on a bridge parallel to each other at intervals. That is, a series-type and double-type large-size B is provided at a vertically intermediate portion of the inner surfaces of the pair of left and right inverted beams Rb, Rb facing each other.
1 and B2 are supported at both ends, and no bundle is erected on the slab S as in the prior art.
The noise transmitted to B1 and B2 is not transmitted directly downstairs through the slab S. The upper surfaces of the series and double-type pulleys B1 and B2 are formed on the same plane.

The living room portion C has a normal floor surface 3 formed at a position higher than the upper surfaces of the cross beams Rb, Rb, and a step lower than the normal floor surface 3 by one step. A skip floor 1 formed at an upper and lower middle portion is formed adjacent to the floor, and an article storage section 2 is formed below a normal floor. The floor of the article storage 2 is the floor of the skip floor 1. It is formed on the same plane as the surface. The article storage section 2 is provided at a boundary step wall portion between the floor 3 and the skip floor 1.
Is opened.

The skip floor 1 is formed in a concave shape in vertical section, and the outer periphery of the skip floor 1 is surrounded by the normal floor surface 3 which is one step higher through a stepped wall.

A series of pulling B1 supports the skip floor 1, and is made of a steel plate as shown in FIGS. 4 and 5, and has a web portion 6, an upper edge and a lower portion of the web portion 6. It is composed of upper flanges 7 and 8 extending integrally from the edge. The web portion 6 is formed in a straight band shape,
The upper flange portion 6 is formed in an inverted triangular shape from the upper end of the web portion 6 and its free end is opened, and the lower flange portion 8 is formed in a triangular shape from the lower end of the web portion 6. , Its free end is open. Then, both ends of this series of large pullers B1 are fixed to the upper and lower intermediate portions of the pair of inverted beams Rb, Rb via angled connecting members 9 with connecting bolts 10.

Next, the double type B2 is provided in the article storage section 2 (particularly below the entrance 4 of the article storage section 2) to which a large load is applied compared to the skip floor 1. B2 is supported by this double-type pulling B
2 is configured to increase its rigidity, particularly its bending stiffness, without increasing its height as compared with the above-mentioned series of large-scale pulling B1. As will be described with reference to 4, 6 to 8, this double-barreled pulley B2 has a pair of beam members 12, 12 and a space between the beam members 12, 12 in the longitudinal direction thereof. It is composed of a plurality of connection blocks 13 to be clamped and fixed, a pair of beam members 12, 12, and a connection member 14 for integrally connecting the connection blocks 13.

[0017] The pair of each beam member 12, 12 is made of steel sheet, it is of the same structure as Obiki B1 of the series type, i.e. a web portion 12 _1, the web portion 1
Extending integrally from the top of 2 ₁ and lower edges, on, becomes more and lower flange portions 12 _2, 12 _3. The web section 12
₁ is formed in a straight band shape, and one or a plurality of mounting holes 15 for fixing the connecting block 13 are formed in the center in the vertical direction at intervals in the longitudinal direction. The mounting holes 15, as can be loosely through the bolt 14 ₁ of the connecting member 14, it is formed in a circular hole or elongated hole of slightly larger diameter than the diameter of the shaft of the bolt 14 _1. Also the upper flange portion 12 _2, the web portion 12
It extends in an inverted triangular shape from the upper edge of ₁ and its free end is open. Also the lower flange portion 12 _3, the is extended in triangular lower end of the web portion 12 _1, the free end is open.

The connecting block 13 is formed of a solid block made of a hard synthetic resin material and a plywood of wood, has a hexagonal cross section, and has a flat middle portion 13 on both left and right sides. _1, upper 13 ₂ and both side surfaces of the both side surfaces are inclined in a wedge shape toward the upper end is more the lower 13 ₃ inclined in wedge shape toward the lower end. The connecting block 13 is opened at the center in the up-down direction on both left and right sides, and the bolt 14 _{1 of the} connecting member 14 is provided.
The connecting block 13 is formed so as to have a transverse section symmetrical with respect to the left and right and up and down center lines.

[0019] The connecting member 14 is made of bolts 14 ₁ and the nut 14 _2, the bolts 14 _1, shaped to Kushidori the through hole 16 of the mounting hole 15 and the coupling block 13 of the pair of beam members 12 and 12 It is penetrating, by screwing the nut 14 ₂ therein via the washer, and integrally coupled to the connecting block 13 and the pair of beam members 12 and 12 as shown in FIGS. 6 and 7 of the duplex Obiki B ₂ is constructed.

The pair of beam members 12, 12, a plurality of
Double type large consisting of connecting block 13 and connecting member 14
To assemble the pull B2, a pair of beam members 12, 12
With their outsides facing outward and their length
Multiple connecting blocks between them spaced apart in the hand direction
13 is pinched. Also, the intermediate part 1 of each connecting block 13
3₁Left and right beam members 1
2,12 flat webs 12₁, 12₁Abut each other
And the wedge-shaped upper part 13 of the connecting block 13 _TwoAnd
Lower part 13_ThreeThe left and right beam members 12, 12
Upper and lower flanges 12_Two, 12_ThreeAbut the sloped part
Let And the mounting hole 15 and the through-hole which coincide with each other.
16 and bolt 14₁Through the nut 1
4_TwoIs screwed through a washer. At this time, a pair of left and right
The mounting holes 15, 15 of the beam members 12, 12 are
4₁A hole or a hole with a diameter larger than the diameter of the shaft of
And the left and right beam members 12, 12 and the connecting block
Since the lock 13 has the above structure, the bolt 1
4₁And nut 14_TwoA pair of beam parts with tightening adjustment
The upper and lower surfaces of the materials 12 and 12 can be
Can be automatically adjusted to
You can fine-tune the size.

The two ends of the double bar B2 constructed as described above are connected to the angled connecting member 9 (the connecting member of the series of large bar B1) at the middle part of the vertical beams Rb and Rb in the vertical direction. And the connection bolts 10).

As shown in FIG. 4, the article storage section 2 does not stand the bundle on the slab S as described above, and
By being supported by a plurality of double-type pulleys B2 supported by a bridge between Rb, noises and the like emitted from the article storage unit 2 due to the loading / unloading of the load and the like are not transmitted downstairs through the slab S.

The article storage unit 2 is provided on the double-type pulling B2.
Is laid, and the floor surface of the floor member 20 is the same as the floor surface of the skip floor 1. On the floor member 20 of the article storage unit 2, a plurality of hollow rectangular cylindrical columns 21 are erected at intervals in a plurality of rows in a direction intersecting with the arrangement direction of the double-type large-size pull B2. , Secured thereto by bolts 19. These posts 21 are for setting the height of the article storage section 2, and as shown clearly in FIGS. 6 and 7, support members 23 are fixedly supported on these posts 21, respectively. On the member 23, a beam member 22 extending in a direction perpendicular to the double-type puller B2 is fixed by bolts and nuts 25, and a plurality of joists 24 are fixed on the beam member 22 in a direction perpendicular to the beam member 22. The normal floor surface 3 is laid on the joists 24 supported.

The column 21 may be constituted by a bundle member which can be moved up and down, and the beam member 22 is composed of the beam members 12 of the series-type large-size B1 and the double-type large-size B2.
The same thing as 12 can be used.

As shown in FIG. 3, the inside of the article storage section 2 is partitioned into a plurality of, in this embodiment, three drawer storage spaces 26 by the plurality of rows of columns 21 and beam members 22. In the space 26, drawers 27 that can be put in and out of the entrance 4 are respectively housed. Each drawer 27 is formed in a box shape with an open top surface, a plurality of casters 28 are pivotally supported at the corners of the bottom surface, and a handle 29 is fixed to the front surface of the drawer 27. As shown by the arrows in FIG. 2, each drawer 27 can be pulled out from the article storage space 26 onto the skip floor 1, where articles can be taken in and out.

As shown in FIGS. 1 and 2, the upper surface of the skip floor 1 can be opened and closed by a movable floor such as a sliding tatami mat provided so as to be movable on a normal floor surface 3. When the floor is closed by the movable floor 30, the skip floor 1 can be changed to a tatami room or the like. A plurality of rolling wheels 31 are rotatably supported on the lower surface of the slide floor 30 so that the slide floor 30 can smoothly and lightly reciprocate between the floor surface 3 and the skip floor 1.

A part of the article storage section 2 is a series type
1 may be supported. FIG. 9 shows a support structure in which the article storage unit 2 is supported by a series-type large-size pull B1. In this case, a series type pulling B1 is used instead of the double pulling B2, and the other configuration is the same as that of the above embodiment.

Next, another modified example of this embodiment will be described with reference to FIG. 10. FIG.
FIG. 4 is a cross-sectional view similar to FIG. 3, and this modified example is slightly different from that of the above-described embodiment in the support structure at both ends of a series or double type large pulley. On the side bases of the opposing reverse beams Rb, Rb, a leveling mortar or vibration-proof rubber 34 is integrally provided in a block shape, respectively. Daibiki B
1 and B2 are supported at both ends, and fixed thereto with fasteners 35 such as nails.

In this modification as well, the above-mentioned series and double-type pulleys B1, B2 can be bridge-supported on the reverse beams Rb, Rb without forming a bundle on the slab S. Accordingly, noise generated in the skip floor 1 and the article storage unit 2 does not reach downstairs through the slab.

Although one embodiment of the present invention has been described above, the present invention is not limited to the embodiment, and various embodiments are possible within the scope of the present invention. For example, instead of the double puller of the above-described embodiment, a triple puller may be used. This triple puller includes three beam members arranged in parallel at intervals and their beam members. 2 sandwiched between
Bolts to connect the two connecting blocks together
Composed of nuts.

[0031]

As described above, according to the first aspect of the present invention, a plurality of inverted beams are integrally projecting upward from a slab, and are provided below a floor member laid on the inverted beams. In a building that forms an underfloor space, a plurality of large bridges are supported on a bridge at a middle portion in the vertical direction of the pair of inverted beams, which are arranged side by side at intervals, without raising a bundle from the slab, A skip floor and an article storage section are juxtaposed, and a drawer stored in the article storage section is drawn on the skip floor at the boundary between the skip floor and the article storage section. Of the plurality of large doors that open the doorway and support the drawer storage section, at least the large wall that supports the doorway is sandwiched between the plurality of beam members arranged in parallel with each other and the opposing surfaces of the adjacent beam members. Connected blocks and multiple beams Since it is composed of a connecting member for integrally connecting the material and the connecting block, the noise from the article storage section or the skip floor does not directly reach the slab and does not reach downstairs through this slab. , It can provide sufficient rigidity without increasing its vertical width, and can withstand the load from the article storage unit even if it is not supported by the bundle on the slab. Does not reduce the volume.

According to a second aspect of the present invention, in the first aspect, the upper surface of the opening of the skip floor can be opened and closed by a slidable movable floor. Can be easily changed.

[Brief description of the drawings]

FIG. 1 is a partial perspective view of a building provided with an underfloor storage device.

FIG. 2 is a plan view of FIG.

FIG. 3 is a sectional view taken along line 3-3 in FIG. 2;

FIG. 4 is a sectional view taken along line 4-4 in FIG. 2;

5 is an enlarged partial view of FIG.

FIG. 6 is an enlarged partial view of FIG.

FIG. 7 is a view taken in the direction of arrow 7 in FIG. 6;

8 is a sectional view taken along line 8-8 in FIG. 7;

FIG. 9 is a diagram showing a support structure of an article storage unit by a series type pull-out.

FIG. 10 is a sectional view similar to FIG. 3, showing a modification of the present invention;

[Explanation of symbols]

 DESCRIPTION OF SYMBOLS 1 Skip floor 2 Article storage part 3 Floor surface 4 Doorway 12 Beam member 13 Connection block 14 Connection member 30 Moving floor B1 Large B2 Large Rb Reverse beam S Slab

Claims (2)

[Claims] 1. A plurality of inverted beams (Rb) are integrally and projecting upwardly on a slab (S), and an underfloor space is provided below a floor surface (3) laid on the inverted beams (Rb). In the building formed, a plurality of large bundles (B1, B2) are bundled from above the slab (S) at the middle part in the vertical direction of the pair of inverted beams (Rb) arranged in parallel at intervals. The bridge is supported without standing, and the skip floor (1) is placed on these bridges (B1, B2).
And the article storage section (2) are arranged side by side, and a drawer stored in the article storage section (2) is provided at the boundary between the skip floor (1) and the article storage section (2). (1) An entrance (4) for opening the upper side is opened, and among the plurality of entrances supporting the article storage section (2), at least the entrance (B2) supporting the entrance (4) is parallel to each other. A plurality of beam members (12), a connection block (13) sandwiched between opposing surfaces of adjacent beam members (12), and the plurality of beam members (12) and the connection block (13). And a connecting member (14) coupled to the floor. 2. The underfloor storage device in a building according to claim 1, wherein the upper surface of the opening of the skip floor (1) can be opened and closed by a movable floor (30) slidable.