TWM642151U - Support assembly for raised floor - Google Patents

Abstract

A support assembly for raised floors is provided, in which an auxiliary frame is horizontally placed second adapters at bottom of a plurality of supporting devices for erecting the floor, and a first inclined frame and a second inclined frame are arranged on the auxiliary frame, so that the first inclined frame and the second inclined frame are connected to through first adapters at top of two adjacent supporting devices, wherein the first inclined frame and the second inclined frame are set at opposite angles to form a triangular channel with a larger space under the floor, so that required pipelines can be arranged.

Description

Supporting structures for raised floors

This work is related to a support structure, especially a support structure for raised floors.

At present, raised floors have been widely used in anti-static computer rooms or clean rooms. Existing raised floors formed by die-casting of aluminum alloy go through five main processes of mold opening, aluminum melting, die-casting, forming and trimming.

When erecting the floor, the floor is raised by the support components, such as CN201220413748 patent, so that the floor is a certain distance above the ground, and the support strength is enhanced by the inclined support frame (such as the element symbol 2 of the CN201220413748 patent).

However, in the above-mentioned conventional support assembly, the configuration of its inclined support frame will limit the space under the floor, so that the pipelines required for the machine room or clean room cannot be buried in the space below the raised floor, which is not conducive to the machine room or Clean room configuration piping.

Therefore, how to overcome the problems of the above-mentioned conventional technologies has become an urgent problem to be solved at present.

In view of the various deficiencies of the above-mentioned conventional technologies, this invention provides a support structure for raised floors, which includes: multiple support devices, which include a pipe body and are used to elevate the floor; an adapter and a second adapter, so that the first adapter is arranged at one end of the pipe, and the second adapter is arranged at the other end of the pipe; the bracket assembly, It includes a first slanted frame and a second slanted frame, so that the first slanted frame and the second slanted frame are respectively installed on the adjacent two of the plurality of supporting devices through the first adapter; and the auxiliary frame is By placing the second adapter piece horizontally between adjacent two of the plurality of support devices, the first inclined frame and the second inclined frame are connected, so that the first inclined frame and the second inclined frame are relatively opposite to the The auxiliary frame is arranged obliquely, wherein, the inclination direction of the first oblique frame is opposite to the inclination direction of the second oblique frame.

In the above-mentioned supporting structure, each supporting device further includes: a rod body, which is erected at the end of the pipe body provided with the first adapter piece; an adjustment component, which is arranged on the pipe body; a bearing member, It is installed on the rod body for setting the frame; and the support seat is arranged at the end of the rod body and has a plurality of support columns for erecting the floor, wherein the bearing part is located between the support seat and the between the tubes. For example, the adjustment component includes a positioning piece pierced through the rod body, a stop piece pierced through the pipe wall of the pipe body, and a rotating piece pierced through the rod body, and the spacer piece further includes a screw, Screw the welding nut of the screw rod and the fixing nut of the screw rod, make the screw rod screw the welding nut and the fixing nut and pass through the pipe wall of the pipe body and insert the positioning piece, and place the The fixing nut and the welding nut are interlocked to fix the positioning member.

In the aforementioned supporting structure, the first adapter and the second adapter are pipe clip structures, which include a plurality of clips clamping the pipe body, and extending outwards at opposite ends of the clips. wing, so that the wing is connected to the bracket assembly or the auxiliary frame. For example, the clip fits the diameter of the tube.

In the aforementioned supporting structure, the first adapter and the second adapter are pipe clip structures, which include a plurality of clips clamping the pipe body, and extending outwards at opposite ends of the clips. wing, so that the wing is connected to the bracket assembly or the auxiliary frame. The clip is matched with the pipe diameter of the pipe body.

In the aforementioned supporting structure, the ends of the first inclined frame and the second inclined frame have first fixing holes for engaging the auxiliary frame.

In the aforementioned supporting structure, the ends of the first slanted frame and the second slanted frame have second fixing holes for engaging the first adapter.

In the aforementioned supporting structure, the auxiliary frame is configured with a plurality of first openings in the middle thereof to connect the first inclined frame and the second inclined frame.

In the aforementioned supporting structure, the auxiliary frame is configured with second openings at opposite ends thereof to engage the second adapter.

In the aforementioned support structure, the first inclined frame and the second inclined frame are arranged in a V-like arrangement, and the included angle between the V-like arrangement is greater than 60 degrees.

In the aforementioned supporting structure, the inclination angle of the first inclined frame is the same as that of the second inclined frame, and the sum of the inclination angles of the first inclined frame and the second inclined frame is less than 120 degrees.

It can be seen from the above that the support structure used for the raised floor in this creation is mainly through the design of the support component to form a channel with a large enough space under the floor for the pipelines required for the configuration of the machine room or clean room. Compared with the prior art, the supporting structure used in the raised floor of the present invention can bury the pipelines required by the machine room or the clean room in the space below the floor, thus facilitating the allocation of pipelines in the machine room or the clean room.

The implementation of this creation is described below through specific specific examples, and those who are familiar with the art can easily understand other advantages and effects of this creation from the content disclosed in this specification.

It should be noted that the structures, proportions, sizes, etc. shown in the drawings attached to this manual are only used to match the content disclosed in the manual, for the understanding and reading of those familiar with this technology, and are not used to limit the implementation of this creation Therefore, it has no technical substantive meaning. Any modification of structure, change of proportional relationship or adjustment of size shall still fall within the scope of this creation without affecting the effect and purpose of this creation. The technical content revealed by the creation must be within the scope covered. At the same time, terms such as "upper", "lower", "left", "right", "front", "rear", "first", "second" and "one" cited in this specification, It is also only for the convenience of description, not to limit the scope of implementation of this creation. The change or adjustment of its relative relationship should also be regarded as the scope of implementation of this creation without substantial changes in technical content.

Fig. 1A, Fig. 1B and Fig. 1C are the relevant schematic diagrams of the supporting structure 7 for the raised floor of the present creation, and Fig. 2 is the side schematic diagram of the supporting structure 7 for the raised floor of the present creation.

As shown in FIG. 2 , the support structure 7 includes a plurality of support devices 1 , a plurality of support components 2 , at least one auxiliary frame 3 and a plurality of adapter components 4 .

In this embodiment, as shown in Figure 1A, Figure 1B and Figure 1C, the supporting device 1 defines the direction of the configuration frame as left and right directions (such as arrow direction X) and front and rear directions (such as arrow direction Y ), and the height direction along the supporting device 1 is defined as the up and down directions (such as the arrow direction Z). It should be understood that this orientation is used to illustrate the configuration of this embodiment, and is not particularly limited.

The support device 1 includes a base 11, a pipe body 10 standing on the base 11, a rod body 12 standing on the end of the pipe body 10, a rod body 12 standing on the rod body 12. The bearing member 13 , a support seat 14 arranged on the rod body 12 , and an adjustment assembly 1 a arranged on the pipe body 10 . The supporting device 1 is used to elevate the floor.

The base 11 is a base, such as a rectangular plate, so as to be fixed on the environment ground 8 (as shown in FIG. 3 ) by piercing through the perforation 110 with a fixing member such as a rivet (not shown in the figure). For example, the through holes 110 are disposed at four corners of the base 11 .

The tube 10 is a hollow tube, the bottom end of which is fixed in the middle of the base 11 , and the rod 12 is inserted into the top opening 100 of the tube 10 .

The rod 12 is a screw, one end 12a is inserted into the tube 10, and the screw body protrudes out of the tube 10, and the other end 12b is formed with a projection 120 for the rod. The body 12 engages the support seat 14 .

The bearing member 13 is a sheet, which is located between the top of the pipe body 10 and the support base 14, and the bearing member 13 has a through hole 130 passing through the rod body 12 and a plurality of external frames Pin 13a of component 5 (as shown in FIG. 3 ).

In this embodiment, the supporting member 13 is in the shape of a cross, so that the through hole 130 is located in the middle of the supporting member 13, and the pin 13a is formed with a first fixing hole 131, which can be fixed by screws or rivets. The fixing part (as shown in Figure 3) is fixedly connected to the frame part 5. For example, a second fixing hole (not shown) corresponding to the first fixing hole 131 is formed at both ends of the frame member 5, so that the fixing member engages the first fixing hole 131 and the second fixing hole, so that the frame The component 5 is fixed on the carrier 13 .

The supporting seat 14 is a rectangular plate, which is connected to the upper end 12 b of the rod body 12 so that the bearing member 13 is located between the supporting seat 14 and the tube body 10 . For example, a pair of recesses (not shown) of the protruding block 120 are formed in the middle of the bottom surface of the supporting base 14, so that the protruding block 120 tightly fits (such as inserts) the recessed portion, so that the supporting base 14 is erected on the protruding block 120. on the rod body 12; or, use welding to fix the bottom of the support base 14 on the upper end of the rod body 12, so that the support base 14 is erected on the rod body 12.

In this embodiment, the four corners of the top surface of the support base 14 are provided with support columns 140 for erecting and positioning a floor 9 (as shown in FIG. 3 ). For example, the bottom of the support column 140 is fixed on the support base 14 by riveting or welding, and there is a screw hole structure in the middle, so as to fix the floor 9 by a fixing member such as a screw (not shown).

The adjustment assembly 1a is fixed on the top of the pipe body 10 and covers the top opening 100, so as to adjust the support seat by actuating the adjustment assembly 1a to adjust the length of the rod body 12 protruding from the pipe body 10 14 height.

In this embodiment, the adjustment assembly 1a includes a positioning member 15 passing through the rod body 12, a position limiting member 16 passing through the tube wall 10c of the pipe body 10, and a rotating part passing through the rod body 12. piece 17.

The positioning member 15 is an anti-lift nut, which is screwed to the rod body 12 and located at the top of the tube body 10 to cover the top opening 100 of the tube body 10 .

In this embodiment, the locating member 15 is inserted into the tubular body 10 with its column portion 150, and the cap 151 of the locating member 15 is a hexagonal nut, and the diameter of the cap 151 is larger than that of the tubular body. 10 outside diameter, so that the bottom of the cap 151 can be supported on the pipe wall above the top opening 100 of the pipe body 10 .

The rotating member 17 is a hexagonal nut, which is screwed to the rod body 12 and located between the positioning member 15 and the bearing member 13 .

In this embodiment, when the rotating member 17 is rotated and loosened (rotation direction R as shown in FIG. 1B shown in the direction of the arrow Z), and then adjust the length of the rod body 12 protruding from the tube body 10 to fine-tune the height of the support seat 14, and then lock the rotating member 17 and the positioning member 15 to fix The rod body 12.

The limiting member 16 is a screw nut structure, and its screw 161 passes through the opening (not shown) on the tube wall 10c of the tube body 10 in a screwed manner, so as to stop and fix the rod body 12 . The limiting member 16 is at least one, that is, multiple, such as two, three or four, can be used according to requirements.

In this embodiment, the exposed end of the screw rod 161 of the limiting member 16 is fixedly connected with a nut 160 to drive the screw rod 161 to rotate forward, so that the screw rod 161 abuts against the column portion 150 of the positioning member 15, so as to The positioning member 15 is compressed to fasten the rod body 12 , thereby stopping the rod body 12 .

Furthermore, two welding nuts 162 and fixed nuts 163 are screwed between the two ends of the screw rod 161, so that the welding nuts 162 and the fixed nuts 163 are located on the tube of the tubular body 10. Outside the wall 10c, the screw rod 161 is screwed to the welding nut 162 and the fixing nut 163 to pass through the opening on the pipe wall 10c and insert into the column part 150 of the positioning part 15, and then the fixing nut 163 and the welding nut The caps 162 are interlocked to fix the positioning member 15 . Alternatively, in other embodiments, only one welded nut may be used instead of multiple nuts.

Therefore, when using the support device 1, as shown in Figure 3, a plurality of support devices 1 are connected to the frame member 5 in the required direction by the carrier 13 to form a rectangular elevated structure, and then through the adjustment The assembly 1a adjusts the extension length of the rod body 12 to adjust the height position of each support base 14 . Afterwards, the floor 9 can be laid on the rectangular elevated structure, wherein the floor 9 is a rectangle, and joint holes (not shown) are formed at the corners, so as to connect with the support columns 140 of the support seat 14 through the joint holes. The screw hole structure makes the single floor 9 fixed on the four support devices 1 (or, the single support device 1 is erected on the corners of the four floor boards 9).

As shown in Figure 2, the described adapter assembly 4 comprises a first adapter 4a and a second adapter 4b, so that the first adapter 4a is arranged at one end of the pipe body 10 (such as top), and the second adapter 4b is located at the other end of the tube (such as the bottom), so that the first adapter 4a and the second adapter 4b are located between the limiter 16 and the base Between 11.

In this embodiment, the first and second adapters 4a, 4b are pipe clip structures, which include two semicircular clips 40 sandwiching the pipe body 10, as shown in FIG. 4A, which are opposite to each other. Wings 41 extend outward at both ends, and each wing 41 is formed with a perforation 410, so that when the two clips 40 clamp the tube body 10 to make each wing 41 close to each other, by Fixing parts 71 such as screws (as shown in FIG. 3 ) engage with the through holes 410 so that the first and second adapter parts 4 a and 4 b are fixed on the tube body 10 . For example, the clip 40 can be formed by punching steel plate to match the diameter of the pipe body 10 .

Moreover, the radians of the clips of the first and second adapters 4a, 4b can be designed according to requirements, such as the quarter-arc clip 50 shown in FIG. 4B, so that the first and second adapters The wing portions 41 of 4a and 4b are arranged in a cross shape. It should be understood that the number of wing portions 41 of the first and second adapters 4a, 4b can be designed according to requirements, such as a T-shaped arrangement as shown in FIG. 4C , and there is no special limitation.

The support assembly 2 includes a first slanted frame 2a and a second slanted frame 2b, so that the first slanted frame 2a and the second slanted frame 2a are respectively arranged on adjacent two of the plurality of supporting devices 1 through the first adapter 4a. The second inclined frame 2b.

In this embodiment, the first and second slanting frames 2a, 2b are plate materials, such as flat steel sheets, so that one end portion of the first slanting frame 2a and one end portion of the second slanting frame 2b Connect the wings 41 of the first adapters 4a on two adjacent supporting devices 1 . For example, opposite ends of the first and second inclined frames 2 a, 2 b respectively have a first fixing hole 21 and a second fixing hole 22 , so that the second fixing hole 22 is correspondingly connected to the supporting device 1 .

Furthermore, between two adjacent support devices 1 , the first adapters 4 a are respectively connected to the first and second inclined frames 2 a, 2 b. For example, the second fixing holes 22 of the first and second slanting frames 2a, 2b are aligned with the through holes 410 of the first adapter 4a, and then passed through by fixing members 71 such as screws (as shown in FIG. 3 ). The through hole 410 and the second fixing hole 22 allow the first adapter 4a to be fixed to the first and second inclined frames 2a, 2b.

The auxiliary frame 3 is horizontally placed between two adjacent support devices 1 through the second adapter 4b to connect the other end of the first inclined frame 2a and the other end of the second inclined frame 2b , the first and second inclined frames 2a, 2b are arranged obliquely relative to the auxiliary frame 3, and the inclined direction of the first inclined frame 2a and the inclined direction of the second inclined frame 2b are opposite to each other.

In this embodiment, the auxiliary frame 3 is a plate, such as an L-shaped steel plate, which has a plurality of first openings 31 and second openings 32, so that the first and second inclined frames 2a, 2b The fixing holes 21 are respectively aligned with the first openings 31, and then the auxiliary frame 3 is made to pass through the first openings 31 and the first fixing holes 21 by a fixing member 72 (as shown in FIG. 3 ) such as a screw. The first and second inclined frames 2a, 2b are fixedly connected. For example, the first openings 31 are formed in the middle of the auxiliary frame 3, and the second openings 32 are formed at opposite ends of the auxiliary frame 3, so that the first openings 31 are located at between the second openings 32 .

Furthermore, between two adjacent supporting devices 1 , the second adapters 4 b are connected to the auxiliary frame 3 . For example, the second opening 32 of the auxiliary frame 3 is aligned with the through hole 410 of the second adapter 4b, and then a fixing member 73 such as a screw (as shown in FIG. 3 ) passes through the through hole 410 and the second Holes 32 are opened to allow the wings 41 of the second adapter 4b to be fixedly connected to the auxiliary frame 3 .

Moreover, the first inclined frame 2a and the second inclined frame 2b are arranged in a V-like shape to increase the shock resistance of the supporting device 1 . For example, the inclination angle α of the first slanting frame 2a and the inclination angle β of the second slanting frame 2b can be the same or different. The sum of the inclination angle α and the inclination angle β is less than 120 degrees, that is, the angle between the first inclined frame 2a and the second inclined frame 2b arranged in a V-like shape is greater than 60 degrees, and the angle between the V-shaped arrangement is according to The height of the pipe body 10 is determined such that the included angle of the V-shaped arrangement is inversely proportional to the height of the pipe body 10 .

Therefore, between the two adjacent support devices 1, the first inclined frame 2a and the second inclined frame 2b are installed on opposite slopes to form a triangular-like channel S under the floor 9 for configuring a machine room or a clean room. The required pipeline 6 is shown in FIG. 3 .

To sum up, the support structure 7 used for the raised floor in this creation is mainly through the design of the bracket component 2 to form a channel S with a large enough space under the floor 9 for the configuration of the machine room or clean room. Therefore, compared with the prior art, the supporting structure 7 for the raised floor of this creation can bury the required pipeline 6 in the machine room or clean room in the space below the floor 9, thus facilitating The equipment room or clean room is equipped with pipeline 6, which can increase the shock resistance of supporting device 1.

Furthermore, by aligning the corners of the floor 9 with the support column 140, it is beneficial for the workers to lay multiple floors 9 evenly, so that a straight line is formed between each floor 9, so compared with the prior art, the use of this creation The support structure on the raised floor can avoid the problem of the upturning of the floor 9 through the support device 1, so that the purpose of effectively leveling the laid floors 9 can be achieved.

Moreover, the extension length of the rod body 12 is adjusted by the adjustment assembly 1a, so that the height positions of the support seats 14 are approximately the same, so that the ground can be leveled after laying a plurality of floor plates 9 .

The above-mentioned embodiments are used to illustrate the principle and effect of the invention, but not to limit the invention. Any person familiar with this art can modify the above-mentioned embodiments without departing from the spirit and scope of this creation. Therefore, the scope of protection of the rights of this creation should be listed in the scope of the patent application described later.

1: Support device 1a: Adjustment components 10: tube body 10c: pipe wall 100: opening 11: Base 110: perforation 12: rod body 12a, 12b: end 120: Bump 13: Carrier 13a: pin 130: through hole 131: the first fixing hole 14: Support seat 140: support column 15: Positioning piece 150: column part 151: hat part 16: limit piece 160: Nut 161: screw 162: welding nut 163: fixed nut 17: rotating parts 2: Bracket assembly 2a: The first inclined frame 2b: Second inclined frame 21: The first fixing hole 22: Second fixing hole 3: Auxiliary frame 31: The first opening 32: Second opening 4: Transition components 4a: The first adapter 4b: Second adapter 40,50: clip 41: wing 410: perforation 5: frame 6: pipeline 7: Support structure 71,72,73: Fixing parts 8: Environmental ground 9: floor R: direction of rotation S: channel α, β: tilt angle X, Y, Z: Arrow direction

Fig. 1A is the schematic diagram of the three-dimensional combination of the supporting device in the supporting structure for the raised floor of the present creation.

FIG. 1B is a partially exploded schematic diagram of FIG. 1A .

FIG. 1C is a partial perspective view of FIG. 1A.

Fig. 2 is the side schematic view of the supporting structure used for the raised floor of this creation.

Fig. 3 is a three-dimensional schematic diagram of the application of the supporting structure for the raised floor of the present creation.

Fig. 4A, Fig. 4B and Fig. 4C are three-dimensional schematic diagrams of different embodiments of related adapter components in the supporting structure for raised floors of the present creation.

1: Support device

11: Base

16: limit piece

2: Bracket assembly

2a: The first inclined frame

2b: Second inclined frame

21: The first fixing hole

22: Second fixing hole

3: Auxiliary frame

31: The first opening

32: Second opening

4: Transition components

4a: The first adapter

4b: Second adapter

410: perforation

7: Support structure

α, β: tilt angle

Claims (11)

A support structure for a raised floor comprising: a plurality of supporting devices comprising a tube and used to elevate the floor; The adapter assembly includes a first adapter and a second adapter, so that the first adapter is arranged at one end of the pipe body, and the second adapter is arranged at the end of the pipe at the other end; The bracket assembly includes a first slanted frame and a second slanted frame, so that the first slanted frame and the second slanted frame are respectively arranged on adjacent two of the plurality of support devices through the first adapter; and The auxiliary frame is used to connect the first inclined frame and the second inclined frame by placing the second adapter piece horizontally between adjacent two of the plurality of supporting devices, so that the first inclined frame and the second inclined frame The frame is arranged obliquely relative to the auxiliary frame, wherein the inclination direction of the first oblique frame is opposite to the inclination direction of the second oblique frame. The support structure as described in Claim 1, wherein each support device further comprises: The rod body is erected at the end of the pipe body provided with the first adapter piece; The adjustment component is arranged on the pipe body; a bearing part, which is arranged on the rod body for setting the frame part; and The supporting seat is arranged at the end of the rod body and has a plurality of supporting columns for erecting the floor, wherein the bearing part is located between the supporting seat and the pipe body. The supporting structure as described in Claim 2, wherein the adjustment component includes a positioning piece passing through the rod body, a stopper passing through the pipe wall of the pipe body, and a rotating shaft passing through the rod body piece, and the limiting piece further includes a screw, a welding nut screwed to the screw, and a fixing nut screwed to the screw, so that the screw is screwed to the welding nut and the fixing nut and passes through the tube of the tube body The positioning part is inserted into the wall, and the fixing nut and the welding nut are mutually locked to fix the positioning part. The supporting structure as described in Claim 1, wherein, the first adapter and the second adapter are pipe clip structures, which include a plurality of clips clamping the pipe body, and two opposite sides of the clip. Wings extending outward from the ends respectively, so that the wings are connected to the bracket assembly or the auxiliary frame. The supporting structure as claimed in claim 4, wherein the clamping piece matches the pipe diameter of the pipe body. The support structure as claimed in claim 1, wherein the ends of the first and second slant frames have first fixing holes for engaging the auxiliary frame. The support structure as claimed in claim 1, wherein the ends of the first and second slant frames have second fixing holes for engaging the first adapter. The supporting structure as claimed in claim 1, wherein the auxiliary frame is provided with a plurality of first openings in the middle thereof to connect the first inclined frame and the second inclined frame. The supporting structure as claimed in claim 1, wherein the auxiliary frame is provided with second openings at opposite ends thereof to engage with the second adapter. The supporting structure as described in Claim 1, wherein the first inclined frame and the second inclined frame are arranged in a V-like shape, and the included angle between the V-like arrangement is greater than 60 degrees. The supporting structure according to claim 1, wherein the inclination angle of the first slanted frame is the same as the inclination angle of the second slanted frame, and the inclination angle of the first slanted frame is the same as the inclination angle of the second slanted frame The sum is less than 120 degrees.

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