A support structure and leveling process for assembled overhead floor

Abstract

The present application discloses a support structure and leveling process of an assembled overhead floor, which relates to the technical field of building floors. The support structure includes bolts, nuts and support members; the nuts are arranged on the floor layer; a clearance opening is provided on the floor layer; the support member is arranged on the head of the bolt; a plurality of grooves are provided on one side of the nut; the support member has a cavity inside, and the support member is penetrated by a plurality of first openings and a plurality of second openings; a through hole is provided inside the bolt, and the two ends of the through hole are respectively connected to the clearance opening and the cavity; the through hole is filled with adhesive; the process includes the following steps: S1, rotating the bolt; S2, filling a certain amount of adhesive into the through hole; S3, filling adhesive into the clearance opening. The present application can effectively prevent the bolt from rewinding, thereby effectively improving the stability and safety of the assembled overhead floor.

Description

Technical Field

[0001] The present application relates to the technical field of building floors, and in particular to a support structure and leveling process for an assembled elevated floor. Background Art

[0002] Prefabricated elevated floor is a modern building floor, mainly used in working conditions where drainage, heating, electrical and other pipeline equipment need to be laid on the foundation floor. It can separate the floor used to support objects and for people to walk on from the pipeline equipment below.

[0003] Existing prefabricated elevated floors are usually manufactured in factories and then assembled and installed on site. They are mainly composed of adjustable support structures and floor layers. By adjusting the support structure, the heights of multiple floor layers can be made consistent to form a flat floor, and sufficient space for laying pipelines and equipment can be formed under the floor layers. They combine the technical advantages of factory production and on-site assembly, bringing innovation and change to the construction industry.

[0004] However, in the existing prefabricated elevated floor, its adjustable support structure is usually leveled and fixed by the combination of bolts and nut threads. During the use of the prefabricated elevated floor after leveling, when the floor layer is stepped on and vibrates frequently, the bolts and nuts are prone to backthread due to resonance, which not only affects the stability of the prefabricated elevated floor, but also poses a greater risk of collapse of the prefabricated elevated floor due to uneven stress on the bolt backthread. Summary of the Invention

[0005] The present application provides a support structure and leveling process for an assembled elevated floor, which can effectively prevent bolt thread retraction, thereby effectively improving the stability and safety of the assembled elevated floor.

[0006] On the one hand, the present application provides a support structure for an assembled elevated floor slab, which adopts the following technical solutions:

[0007] A supporting structure for an assembled elevated floor, which is arranged at the corners of the floor, and includes bolts, nuts and supporting members;

[0008] The nut is arranged on the floor layer, and the axis of the nut is parallel to the thickness direction of the floor layer;

[0009] The tail of the bolt is engaged with the thread of the nut, and a clearance opening is provided on the floor slab for the tail of the bolt to pass through, and the clearance opening passes through both sides of the floor slab along the thickness direction of the floor slab; the support member is provided on the head of the bolt, and is used to contact and abut against the foundation floor slab;

[0010] The nut is provided with a plurality of grooves on a side close to the floor layer, and the grooves are communicated with the clearance opening; the support member has a cavity inside, the bottom of the support member is penetrated by a plurality of first through-openings, and the peripheral side of the support member is penetrated by a plurality of second through-openings, and the first through-openings and the second through-openings are both communicated with the cavity; the bolt is provided with a through-hole inside, the through-hole passes through both ends of the bolt along the axial direction of the bolt, and the two ends of the through-hole are respectively communicated with the clearance opening and the cavity;

[0011] The through hole is filled with adhesive, and the adhesive can flow out through the first through port and the second through port and fill the clearance port.

[0012] By adopting the above technical solution, while facilitating the staff to adjust the height and level the prefabricated elevated floor, the adhesive can form a strong and stable connection between the support and the foundation floor, between the bolt and the support, between the bolt and the nut, between the bolt and the floor layer, and between the nut and the floor layer, forming a stable support structure for the floor layer. At the same time, it can effectively absorb the destructive force generated by resonance during the use of the prefabricated elevated floor, effectively prevent the backlash between the nuts and bolts due to resonance, and effectively eliminate abnormal noise, thereby effectively improving the stability and safety of the prefabricated elevated floor.

[0013] Optionally, it also includes a connecting piece and a filling nozzle;

[0014] The connecting piece is provided on the floor layer and is located in the clearance opening, and the end of the connecting piece away from the nut is flush with the end surface of the floor layer; the floor layer is provided with a clamping groove at its bottom that communicates with the clearance opening, and the bottom of the connecting piece has a clamping portion that is adapted to the clamping groove; the nut is connected to the connecting piece and contacts and abuts against the clamping portion and the bottom of the floor layer;

[0015] The filling nozzle is arranged on the connecting piece, a filling hole is opened inside the filling nozzle, and two ends of the filling hole are respectively communicated with the space on one side of the floor layer away from the nut and the clearance port.

[0016] By adopting the above technical solution, the supporting effect of the supporting structure on the floor layer can be effectively improved, and at the same time, the connection relationship between the supporting structure and the floor layer can be effectively improved, so as to improve the reliability of the supporting effect of the supporting structure on the floor layer; at the same time, it can be convenient for the staff to fill the adhesive, thereby improving the construction efficiency of the prefabricated elevated floor, and the flush surface of the floor layer after filling the adhesive can improve the aesthetics of the prefabricated elevated floor after construction.

[0017] Optionally, the filling nozzle is movably connected to the connecting piece, and the movable direction of the filling nozzle is parallel to the thickness direction of the floor layer;

[0018] When the filling nozzle moves toward the direction approaching the bolt until it abuts against the bolt, the filling hole is communicated with the through hole.

[0019] By adopting the above technical solution, it is convenient for workers to fill the adhesive into the through hole or fill the adhesive into the clearance opening through the filling nozzle, thereby making the process of filling the adhesive more convenient.

[0020] Optionally, an elastic member is also included;

[0021] The elastic member is arranged inside the connecting member, and the two ends of the elastic member are respectively connected to the filling nozzle and the connecting member. The elastic member has a tendency to drive the filling nozzle to move in the direction away from the bolt to the extreme position and maintain it, and at this time, the end of the filling nozzle away from the bolt is flush with the end face of the connecting member.

[0022] By adopting the above technical solution, the filling nozzle can be kept flush with the end face of the connector before and after filling, so as to further effectively ensure the aesthetics of the prefabricated elevated floor after construction; at the same time, it can protect the through hole before filling, reducing the probability of external impurities entering the through hole to form a blockage and affect the subsequent filling.

[0023] Optionally, a blocking block is also included;

[0024] The blocking block is disposed in the through hole to form a blockage in the through hole, and in an initial state, the blocking block is located at an end of the through hole away from the head of the bolt.

[0025] By adopting the above technical solution, the blocking block before filling can further reduce the probability of external impurities entering the through hole, thereby further ensuring the effect of subsequent filling with adhesive.

[0026] Optionally, the blocking block is movable along the through hole; when the blocking block moves to an extreme position in a direction close to the supporting member, the through hole is communicated with the cavity.

[0027] By adopting the above technical solution, the block can move along the through hole under the action of adhesive and gas during filling. In this process, the effect of the adhesive filling the through hole can be effectively improved. At the same time, the filling can be completed without removing the block, thereby further improving the efficiency of filling the adhesive.

[0028] Optionally, the support member is provided with a plug-in slot adapted to the block on the cavity wall at the bottom of the cavity, and when the block moves toward the support member to an extreme position, the block is plugged into and matched with the plug-in slot and the block portion is located in the end of the through hole close to the bolt head;

[0029] A plurality of diverter grooves are provided at one end of the block away from the support member, and the diverter grooves are distributed in a circular array on the block with the axis of the through hole as the axis, and at this time, the two ends of the diverter grooves are respectively connected to the through hole and the cavity; the plurality of diverter grooves correspond one-to-one to the plurality of first openings and the plurality of second openings, and the corresponding diverter grooves, the first openings and the second openings are all located in the same radial direction relative to the bolt.

[0030] By adopting the above technical solution, after the through hole is filled with adhesive, the block can play a supporting role between the bolt and the support member, thereby improving the structural strength here; and at this time, the block can guide the adhesive to enter the cavity evenly from different directions, and at the same time, it can guide the adhesive to flow out through the first through port to contact and bond with the foundation floor below the support member and to flow out through the second through port to contact and bond with the foundation floor around the support member, so that the adhesive is more evenly distributed relative to the support member, thereby further improving the stability and reliability of the connection between the support member and the foundation floor through the adhesive, and reducing the probability of the support member being unstable due to different bonding effects between its different positions and the foundation floor.

[0031] Optionally, the second opening is obliquely opened on the support member, and an end of the second opening close to the cavity is an inclined upper end;

[0032] During the process of the blocking block moving along the through hole, the blocking block remains in the through hole to form a blockage.

[0033] By adopting the above technical solution, when the block moves along the through hole during filling, the block can drive the gas in the through hole into the cavity and be discharged through multiple second openings. At this time, the gas discharged from the second openings can blow away impurities on the foundation floor around the support member, thereby effectively improving the bonding effect between the adhesive subsequently flowing out through the second openings and the foundation floor.

[0034] Optionally, it further includes a plurality of elastic positioning members; the positioning member is arranged at one end of the through hole away from the head of the bolt, and in the initial state, the blocking block is simultaneously in contact with the plurality of positioning members for positioning.

[0035] By adopting the above technical solution, the blocking block can be conveniently maintained at the end of the through hole away from the head of the bolt in the initial state, so that the blocking block can maintain a stable position before filling and effectively protect the through hole.

[0036] On the other hand, the present application provides a leveling process, which adopts the following technical solutions:

[0037] A leveling process, based on the above-mentioned support structure of the assembled elevated floor, comprises the following steps:

[0038] S1. Turn the bolts to form a space of required height below the floor slab and keep it level.

[0039] S2, filling a certain amount of adhesive into the through hole;

[0040] S3, filling the adhesive into the clearance opening until the clearance opening is completely filled.

[0041] In summary, this application has at least one of the following beneficial effects:

[0042] 1. It can effectively form a stable support structure for the floor layer, and at the same time can effectively absorb the destructive force generated by resonance during the use of the assembled elevated floor, effectively prevent the nuts and bolts from reeling due to resonance, and effectively eliminate abnormal noise, thereby effectively improving the stability and safety of the assembled elevated floor;

[0043] 2. It can effectively improve the aesthetics of the assembled overhead floor after construction, and at the same time effectively improve the supporting effect of the supporting structure, and improve the reliability of the supporting effect on the stability of the floor layer;

[0044] 3. It can make the process of filling adhesive more convenient, and at the same time can effectively improve the filling effect of adhesive and reduce the probability of the existence of hollow unfilled areas;

[0045] 4. It can effectively improve the effect of forming a connection between the support and the foundation floor through adhesive bonding, and at the same time can improve the uniformity of the bonding strength at different positions around the support, thereby further improving the position stability of the assembled overhead floor after construction. BRIEF DESCRIPTION OF THE DRAWINGS

[0046] Figure 1 This is a schematic structural diagram of a support structure of an assembled elevated floor in Example 1 when in use (adhesive omitted);

[0047] Figure 2 This is a schematic diagram of the internal structure of a supporting structure of an assembled elevated floor in Example 1 when in use (adhesive omitted);

[0048] Figure 3 This is a schematic structural diagram of a support structure of an assembled elevated floor in Example 2 when in use;

[0049] Figure 4This is a schematic diagram of the internal structure of a support structure of an assembled elevated floor in Example 2 when it is in use and just before adhesive is filled into the through hole;

[0050] Figure 5 yes Figure 4 Enlarged view of point A in the middle;

[0051] Figure 6 This is a schematic diagram of the internal structure of a support structure of an assembled elevated floor in Example 2 when in use and just before filling the clearance opening with adhesive (adhesive omitted);

[0052] Figure 7 yes Figure 6 Enlarged view of point B in the middle;

[0053] Figure 8 It is a structural schematic diagram of the block in Example 2.

[0054] Explanation of the accompanying reference numerals: 1. Floor layer; 11. Makeway; 12. Snap-fit ​​groove; 2. Nut; 21. Groove; 3. Bolt; 31. Through hole; 4. Support member; 41. Cavity; 42. First through opening; 43. Second through opening; 44. Plug-in groove; 5. Connector; 51. Snap-fit ​​portion; 6. Filling nozzle; 61. Filling hole; 7. Elastic member; 8. Block; 81. Plug-in portion; 82. Diverter groove; 9. Positioning member. DETAILED DESCRIPTION

[0055] The following is combined with Figure 1-8 This application is described in further detail.

[0056] Example 1:

[0057] The embodiment of the present application discloses a support structure of an assembled elevated floor slab, which plays a supporting role in the structure of the assembled elevated floor slab.

[0058] Reference Figure 1 The assembled elevated floor comprises a floor layer 1 and a plurality of supporting structures, and the plurality of supporting structures are all arranged on the same side of the floor layer 1 to support the floor layer 1. In this embodiment, the floor layer 1 is preferably a square plate-shaped structure, and the assembled elevated floor preferably comprises four supporting structures in total, and the four supporting structures are all located on one side of the thickness direction of the floor layer 1 and are respectively located at the four corners of the floor layer 1; since the floor layer 1 is a prior art in this field, only the supporting structures will be described in detail below, and the floor layer 1 will not be described in detail, and the floor layer 1 will only be briefly shown in the accompanying drawings.

[0059] Reference Figure 1 and Figure 2The support structure includes nuts 2, bolts 3, and support members 4. Nuts 2 are used to adjust the support structure, thereby adjusting the levelness of the floor slab 1 and its height relative to the foundation slab; bolts 3 are used to raise the floor slab 1 and provide the primary support; and support members 4 are used to allow the support structure to contact and abut the foundation slab, allowing the support structure to support the floor slab 1 based on the foundation slab.

[0060] The floor layer 1 is provided with clearance openings 11 at its four corners along its thickness direction. The clearance openings 11 are cylindrical in shape, and the axis of the clearance openings 11 is parallel to the thickness direction of the floor layer 1. The four clearance openings 11 are distributed in a circular array with the vertical center line of the floor layer 1 as the axis.

[0061] The four nuts 2 correspond to the four clearance openings 11 one by one. The nuts 2 are fixedly connected to the floor slab 1 . The axes of the nuts 2 are parallel to the thickness direction of the floor slab 1 and coincide with the axes of the clearance openings 11 .

[0062] The bolt 3 is threadedly connected to the nut 2, and the bolt 3 is threadedly connected to the nut 2 in such a way that its head is located on the side of the corresponding nut 2 away from the floor layer 1. At this time, the axis of the bolt 3 coincides with the axis of the clearance opening 11; by controlling the rotation of the bolt 3 relative to the nut 2, the bolt 3 can be driven to move along its own axial direction relative to the floor layer 1. During the movement of the bolt 3, the tail of the bolt 3 can enter the corresponding clearance opening 11 and move in the corresponding clearance opening 11; the radial dimension of the clearance opening 11 is larger than the radial dimension of the tail of the bolt 3, which can facilitate the tail of the bolt 3 to enter the clearance opening 11 and move in the clearance opening 11.

[0063] The support member 4 is a circular, pancake-shaped structure that is fixedly mounted on the head of the corresponding bolt 3, with the axis of the support member 4 coinciding with the axis of the bolt 3. The radial dimension of the support member 4 is larger than that of the head of the bolt 3, effectively expanding the contact area between the support structure and the foundation slab.

[0064] The bolt 3 has a through hole 31 formed inside along its axis, and the through hole 31 extends through both ends of the bolt 3 along its axis. The support member 4 has a cavity 41 formed inside, with a plurality of first openings 42 formed at its bottom and a plurality of second openings 43 formed around its circumference. The plurality of first openings 42 and the plurality of second openings 43 are distributed in a circular array on the support member 4 with the axis of the support member 4 as the axis, and both the first openings 42 and the second openings 43 penetrate the support member 4 to form openings and communicate with the cavity 41. In this embodiment, the first openings 42 preferably penetrate the bottom of the support member 4 downward along the axis of the support member 4 to form an opening, and the second openings 43 preferably penetrate the circumference of the support member 4 along the radial direction of the support member 4 to form an opening.

[0065] When the bolt 3 and the nut 2 are threadedly connected, the two ends of the through hole 31 are connected to the corresponding clearance opening 11 and the corresponding cavity 41 respectively; when the height of the floor layer 1 is adjusted by rotating the bolt 3, a certain amount of adhesive is filled into the through hole 31 at the end of the bolt 3 located in the clearance opening 11. After the adhesive fills the through hole 31, it will enter the cavity 41 and flow out through multiple first openings 42 and multiple second openings 43. The adhesive flowing out of the first opening 42 will directly contact the foundation floor below the support member 4, and the adhesive flowing out of the second opening 43 will contact the foundation floor around the support member 4; after the adhesive solidifies, additional connections will be formed between the support member 4 and the foundation floor, and between the bolt 3 and the support member 4, thereby further improving the connection strength between the support member 4 and the foundation floor, and between the bolt 3 and the support member 4. In this embodiment, the adhesive is preferably polyurethane foam glue. Since polyurethane foam glue is a common existing technology, it will not be described in detail here.

[0066] Furthermore, in order to improve the position stability of the bolt 3 after rotation adjustment relative to the nut 2, it is preferred that a plurality of grooves 21 are opened at one end of the nut 2 close to the floor layer 1, the grooves 21 are connected to the corresponding clearance openings 11, and the plurality of grooves 21 are distributed in a circular array on the nut 2 with the axis of the nut 2 as the axis.

[0067] After a certain amount of adhesive is filled into the through hole 31, in order to make the surface of the floor layer 1 after the construction of the prefabricated elevated floor more beautiful, the adhesive will continue to be filled into the makeshift opening 11 so that the adhesive fills the makeshift opening 11 and the adhesive after solidification in the makeshift opening 11 can form an end surface flush with the top end surface of the floor layer 1.

[0068] During the process of adhesive filling the clearance opening 11, the adhesive entering the clearance opening 11 will come into contact with the nut 2 and at the same time be able to enter the several grooves 21 on the nut 2; after the adhesive solidifies, additional connections will be formed between the nut 2 and the floor layer 1, between the nut 2 and the bolt 3, and between the bolt 3 and the floor layer 1, thereby further improving the connection strength between the nut 2 and the floor layer 1, between the nut 2 and the bolt 3, and between the bolt 3 and the floor layer 1.

[0069] At this time, the nut 2 can not only maintain a fixed relative position relative to the floor layer 1 under the action of the adhesive solidified in the clearance opening 11, but also maintain a fixed relative position relative to the bolt 3 under the action of the adhesive solidified in the clearance opening 11, thereby effectively preventing wire backlash and improving the stability and safety of the prefabricated elevated floor.

[0070] The implementation principle of the support structure of an assembled elevated floor in the embodiment of the present application is as follows:

[0071] According to the required height of the space between the assembled elevated floor and the foundation floor after construction, multiple support structures on the same floor layer 1 are adjusted, and multiple bolts 3 are rotated in sequence so that the floor layer 1 is placed on the foundation floor through multiple bolts 3 and multiple support members 4. After the surface of the floor layer 1 remains horizontal and the distance between the floor layer 1 and the foundation floor meets the requirements;

[0072] First, a certain amount of adhesive is filled into the multiple through holes 31 in sequence. After filling the through holes 31, the adhesive will flow into the corresponding cavity 41 to fill the cavity 41, and then flow out through the multiple first through holes 42 and the multiple second through holes 43 to contact the basic floor slab; then the adhesive is filled into the multiple clearance openings 11 in sequence until the adhesive fills the clearance openings 11. After the adhesive solidifies, the support member 4 will be fixed relative to the basic floor slab, and the nut 2 will also be fixed relative to the floor layer 1 and the corresponding bolt 3. At the same time, the top surface of the floor layer 1 is flush, which realizes the beauty of the assembled elevated floor slab after construction, and at the same time improves the stability and safety of the assembled elevated floor slab.

[0073] Example 2:

[0074] Reference Figure 3 and Figure 4 ,The difference between this embodiment and embodiment 1 lies in the floor layer 1 and the support member 4;

[0075] Reference Figure 4 and Figure 5 In this embodiment, the supporting structure further includes a connecting member 5, a filling nozzle 6, an elastic member 7, a blocking block 8 and a plurality of positioning members 9.

[0076] Among them, the connecting part 5 is used to facilitate the connection between the nut 2 and the floor layer 1, and at the same time can effectively improve the reliability of the supporting structure for the floor layer 1; the filling nozzle 6 is used to facilitate the staff to fill the adhesive into the through hole 31 or the yield port 11; the elastic part 7 can further facilitate the staff to use the filling nozzle 6; the block 8 is used to keep the inside of the through hole 31 unobstructed before filling the adhesive, and play a protective role in the through hole 31; the positioning part 9 is used to facilitate the block 8 to maintain a stable position in the through hole 31 before filling the adhesive.

[0077] Reference Figure 3 and Figure 4 The floor layer 1 is provided with a snap-in groove 12 at the bottom of the four make way openings 11. The snap-in groove 12 is in the shape of a circular ring structure. The snap-in groove 12 is communicated with the corresponding make way opening 11, and the axis of the snap-in groove 12 coincides with the axis of the make way opening 11.

[0078] The connecting member 5 is a cylindrical structure as a whole and is adapted to the shape of the clearance opening 11. The interior of the connecting member 5 has a space for the tail of the bolt 3 to enter the clearance opening 11, and one end of the connecting member 5 in the axial direction has a clamping portion 51 adapted to the clamping groove 12; the connecting member 5 is fixedly connected to the floor layer 1, and after the connection, the connecting member 5 is entirely located in the clearance opening 11, and its clamping portion 51 is clamped and matched with the corresponding clamping groove 12; at this time, the end faces on both sides of the axial direction of the connecting member 5 are respectively flush with the end faces on both sides in the thickness direction of the floor layer 1, so as to ensure the beauty of the floor layer 1 after the construction of the prefabricated elevated floor.

[0079] The nut 2 is fixedly connected to the corresponding connecting member 5, and at this time the axis of the nut 2 also coincides with the axis of the corresponding connecting member 5; after the nut 2 is fixedly connected to the connecting member 5, the end of the nut 2 close to the corresponding connecting member 5 not only contacts and abuts against the clamping portion 51, but also contacts and abuts against the portion of the floor layer 1 around the corresponding clamping groove 12.

[0080] Reference Figure 5 and Figure 6 The filling nozzle 6 is a cylindrical structure as a whole and is movably installed on the connecting member 5. After the filling nozzle 6 is installed on the connecting member 5, the axis of the filling nozzle 6 coincides with the axis of the connecting member 5, and the movable direction of the filling nozzle 6 is parallel to its own axis direction.

[0081] The movement of the filling nozzle 6 relative to the connecting member 5 is limited. When the filling nozzle 6 moves to its limit position toward the corresponding nut 2, it can contact and abut the tail of the bolt 3 located in the corresponding clearance opening 11. When the filling nozzle 6 moves to its limit position away from the corresponding nut 2, the end of the filling nozzle 6 away from the corresponding nut 2 is flush with the end surface of the connecting member 5 away from the corresponding nut 2.

[0082] The interior of the filling nozzle 6 is provided with a filling hole 61 along its own axis for filling adhesive. The axis of the filling hole 61 coincides with the axis of the filling nozzle 6 and extends through both ends of the filling nozzle 6 to form an opening. When the filling nozzle 6 moves to its limit position toward the corresponding nut 2, the two ends of the filling hole 61 communicate with the space above the filling nozzle 6 and the through hole 31, respectively. When the filling nozzle 6 moves to its limit position away from the corresponding nut 2, the two ends of the filling hole 61 communicate with the space above the filling nozzle 6 and the aperture within the clearance opening 11 located within the connector 5, respectively. In this embodiment, to facilitate communication between the filling hole 61 and the through hole 31, the bottom of the filling nozzle 6 preferably has a constricted structure, and the end of the through hole 31 away from the head of the bolt 3 is flared to match the constricted structure of the filling nozzle 6. In this case, when the filling hole 61 communicates with the through hole 31, the constricted structure at the bottom of the filling nozzle 6 will be located in the flared area of ​​the through hole 31, effectively preventing the adhesive from flowing out of the gap between the filling nozzle 6 and the bolt 3.

[0083] The elastic member 7 is mounted inside the connector 5. Its two ends are fixedly connected to the connector 5 and the stuffing nozzle 6, respectively. The elastic member 7 has a tendency to move the stuffing nozzle 6 away from the corresponding nut 2 to an extreme position and maintain it there. In this embodiment, the elastic member 7 is preferably a compression spring, and the elastic member 7 is mounted outside the stuffing nozzle 6.

[0084] Reference Figure 4 and Figure 5 The blocking block 8 is a cylindrical structure as a whole, and the shape of the blocking block 8 is adapted to the through hole 31; before filling the through hole 31 with adhesive, the blocking block 8 will be located at the end of the through hole 31 away from the head of the bolt 3, and at this time the blocking block 8 forms a blockage in the through hole 31, which can effectively prevent external impurities from entering the through hole 31 through the opening of the through hole 31 at the tail end of the bolt 3, thereby effectively reducing the probability of impurities clogging the through hole 31 and affecting the subsequent filling of the through hole 31 with adhesive.

[0085] When the block 8 is in the through hole 31, the axis of the block 8 coincides with the axis of the through hole 31, and the block 8 can move along the through hole 31 relative to the bolt 3, and the block 8 can remain in the through hole 31 to form a blockage during the movement along the through hole 31; in the process of filling the through hole 31 with adhesive, the force exerted by the adhesive entering the through hole 31 on the block 8 can drive the block 8 to move along the through hole 31 toward the head of the bolt 3; in this process, the friction between the block 8 and the inner wall of the through hole 31 will make the moving distance of the block 8 related to the amount of adhesive entering the through hole 31, so that the adhesive entering the through hole 31 can fill the through hole 31 first and then drive the block 8 to move, thereby effectively improving the reliability of the adhesive filling the through hole 31.

[0086] The positioning member 9 is elastic, has an overall annular structure, and is fixedly installed at the end of the through hole 31 away from the head of the bolt 3. When the block 8 is located at the end of the through hole 31 away from the head of the bolt 3, the block 8 will simultaneously contact and resist the plurality of positioning members 9. At this time, the plurality of positioning members 9 will be in a state of being squeezed and deformed, so that the block 8 will be fixed in position here by the force of the plurality of positioning members 9. When the through hole 31 is filled with adhesive, the force exerted by the adhesive entering the through hole 31 on the block 8 will drive the block 8 to overcome the force of the plurality of positioning members 9 and move toward the head of the bolt 3, thereby causing the block 8 to break away from the positioning of the plurality of positioning members 9. In this embodiment, the positioning member 9 is preferably made of rubber material; and preferably, two positioning members 9 are installed at the end of the through hole 31 away from the head of the bolt 3. When the block 8 is located at the end of the through hole 31 away from the head of the bolt 3, the two positioning members 9 will respectively apply force to both ends of the block 8 in the axial direction.

[0087] Reference Figure 4 and Figure 6, multiple second openings 43 on the support member 4 are opened at an angle relative to the radial direction of the support member 4, and the end of the second opening 43 close to the cavity 41 is an inclined upper end; when the block 8 moves along the through hole 31 toward the head of the bolt 3, the block 8 will drive the gas originally in the through hole 31 to enter the cavity 41 and then leave through the multiple second openings 43. At this time, the gas leaving from the second openings 43 can be blown to the area of ​​the foundation floor around the support member 4 and close to the corresponding second openings 43, so that the dust in the above-mentioned area can be blown away, making it easier for the subsequent adhesive to flow out to the above-mentioned area through the second openings 43 to form a connection with the foundation floor, thereby improving the connection strength between the support member 4 and the foundation floor through the adhesive.

[0088] Reference Figure 4 and Figure 7 The support member 4 has a socket groove 44 formed in the wall of the bottom of the cavity 41, and the end of the block 8 near the head of the bolt 3 has a socket portion 81 that matches the socket groove 44. When the block 8 moves to its limit position toward the head of the bolt 3, the socket portion 81 will engage with the socket groove 44, and the end of the block 8 away from the socket portion 81 will be located in the end of the through hole 31 near the head of the bolt 3. At this point, the block 8 can form a support between the head of the bolt 3 and the support member 4, reducing the probability of the positional relationship between the head of the bolt 3 and the support member 4 changing, thereby improving the structural strength of the structure.

[0089] Reference Figure 7 and Figure 8 The end of the block 8 away from the insertion portion 81 is provided with a plurality of diverter grooves 82. The diverter grooves 82 are arranged in a circular array around the axis of the block 8. The first openings 42 and second openings 43 on the support member 4 are equal in number, and the diverter grooves 82 correspond one-to-one with the first openings 42 and the second openings 43. When the insertion portion 81 of the block 8 is engaged with the insertion groove 44, the through-hole 31 communicates with the cavity 41 through the plurality of diverter grooves 82. In other words, the adhesive filling the through-hole 31 flows evenly into the cavity 41 from all directions through the plurality of diverter grooves 82.

[0090] Reference Figure 6 and Figure 7 Furthermore, in order to allow the adhesive to flow into the cavity 41 under the guidance of the diverter groove 82 and then flow out smoothly through the corresponding first opening 42 and the second opening 43, that is, when the plug-in portion 81 of the blocking block 8 is plugged into the plug-in groove 44, the diverter groove 82 can be aligned with the corresponding first opening 42 and the second opening 43 along the same radial direction relative to the support member 4.

[0091] Reference Figure 7 and Figure 8Preferably, the plug-in groove 44 is flared in the direction close to the cavity 41, and the groove wall of the plug-in groove 44 has a guiding effect on the plug-in portion 81, which can guide the block 8 to achieve the plug-in fit of the plug-in portion 81 and the plug-in groove 44 in a determined position state; when the plug-in portion 81 is about to start to be plug-fitted with the plug-in groove 44 under the condition that the position state of the block 8 is incorrect, the plug-in portion 81 will be blocked by the groove wall of the plug-in groove 44. At this time, the block 8 will continue to have the tendency of plugging the plug-in portion 81 with the plug-in groove 44 under the action of the adhesive that continues to enter the through hole 31. At the same time, the groove wall of the plug-in groove 44 will guide the plug-in portion 81 to drive the block 8 to rotate around its own axis until the block 8 completes the plug-in fit of the plug-in portion 81 and the plug-in groove 44 in the correct position state.

[0092] Reference Figure 6 and Figure 7 At this time, the amount of adhesive entering the cavity 41 flowing out through the multiple first openings 42 will tend to be equal, and the amount flowing out through the multiple second openings 43 will also tend to be equal, so that the connection strength formed by the adhesive between the bottom and different positions of the circumference of the support member 4 and the foundation floor slab tends to be equal, thereby reducing the probability that the connection between the support member 4 and the foundation floor slab will be easily damaged by a force in a certain direction due to uneven connection strength.

[0093] The implementation principle of the support structure of an assembled elevated floor in the embodiment of the present application is as follows:

[0094] During the process of filling the adhesive, the filling nozzle 6 is first moved downward to the limit position to overcome the force of the elastic member 7 so that the filling hole 61 and the through hole 31 remain in communication, and then a certain amount of adhesive is filled into the through hole 31 through the filling nozzle 6. As the adhesive enters the through hole 31, the blocking block 8 is first disengaged from the positioning of the plurality of positioning members 9, and then the blocking block 8 is driven to move downward along the through hole 31. The blocking block 8 moves downward as the adhesive enters the through hole 31.

[0095] As the blocking block 8 moves downward along the through hole 31, the gas in the through hole 31 is driven into the cavity 41 and then blown out through the plurality of second openings 43, thereby blowing away dust on the foundation slab near the second openings 43, making it easier for the adhesive to flow out of the second openings 43 and bond with the foundation slab to form a connection.

[0096] After the blocking block 8 moves downward to its limit position, its plug-in portion 81 will be plugged into the plug-in groove 44. Then, the adhesive in the through hole 31 will be evenly distributed from multiple directions into the cavity 41 under the diversion of the multiple diversion grooves 82, and then evenly flow out through the multiple first openings 42 and the multiple second openings 43, so that the outflowing adhesive is more evenly distributed, thereby improving the connection quality between the support member 4 and the foundation floor after the adhesive solidifies.

[0097] The filling nozzle 6 is then moved back to its original position under the action of the elastic member 7 , and then adhesive is filled into the space inside the connector 5 in the opening 11 through the filling nozzle 6 until the adhesive overflows from the filling nozzle 6 .

[0098] After all the adhesives are solidified, the supporting structure can now safely and reliably support the floor layer 1 .

[0099] Example 3:

[0100] Reference Figure 1 and Figure 2 The present application discloses a leveling process based on the support structure in Example 1 and applied to the construction of the assembled elevated floor in Example 1, including the following steps:

[0101] S1. Turn bolt 3 to form a space of required height below floor 1 and keep it level.

[0102] According to the height of the space required between the elevated floor and the foundation floor, the multiple bolts 3 on the multiple floor layers 1 are rotated and adjusted so that the floor layer 1 can form an aperture of the required height between the floor and the foundation floor and remain level under the support of multiple supporting structures.

[0103] S2. Fill a certain amount of adhesive into the through hole 31.

[0104] At the tail end of the bolt 3 , a certain amount of adhesive is added into the through hole 31 , so that the adhesive fills the through hole 31 and the cavity 41 and flows out through the plurality of first through openings 42 and the plurality of second through openings 43 ;

[0105] After the adhesive filled this time solidifies, the support member 4 is connected to the foundation floor slab through the adhesive, and the connection strength between the bolt 3 and the support member 4 is strengthened, thereby improving the position stability of the floor slab layer 1 and the structural strength of the supporting structure.

[0106] S3, filling the clearance opening 11 with adhesive until the clearance opening 11 is completely filled.

[0107] Fill the opening of the clearance hole 11 with adhesive until the clearance hole 11 is completely filled with adhesive. During this process, the adhesive in the clearance hole 11 will enter the plurality of grooves 21 of the nut 2;

[0108] After the adhesive filled this time solidifies, connections are formed between the bolt 3 and the floor layer 1 and between the bolt 3 and the nut 2 through the adhesive, and the connection strength between the nut 2 and the floor layer 1 is strengthened, thereby improving the structural stability of the support structure after adjustment and the supporting effect of the support structure on the floor layer 1.

[0109] The above are all preferred embodiments of the present application, and are not intended to limit the scope of protection of the present application. Therefore, any equivalent changes made based on the structure, shape, and principle of the present application should be included in the scope of protection of the present application.

Claims

1. A support structure for an assembled overhead floor, arranged at the corner of a floor layer (1), characterized in that: It comprises a bolt (3), a nut (2) and a support member (4); The nut (2) is arranged on the floor layer (1), and the axis of the nut (2) is parallel to the thickness direction of the floor layer (1); The tail of the bolt (3) is threadably engaged with the nut (2); a clearance opening (11) is provided on the floor slab (1) for the tail of the bolt (3) to pass through, and the clearance opening (11) passes through both sides of the floor slab (1) along the thickness direction of the floor slab (1); the support member (4) is arranged at the head of the bolt (3) and is used to contact and abut against the foundation floor slab; The nut (2) is provided with a plurality of grooves (21) on a side close to the floor layer (1), and the grooves (21) are communicated with the clearance opening (11); the support member (4) has a cavity (41) inside, the bottom of the support member (4) is penetrated with a plurality of first through openings (42), the peripheral side of the support member (4) is penetrated with a plurality of second through openings (43), and the first through openings (42) and the second through openings (43) are both communicated with the cavity (41); the bolt (3) is provided with a through hole (31) inside, the through hole (31) penetrates through both ends of the bolt (3) along the axial direction of the bolt (3), and the two ends of the through hole (31) are respectively communicated with the clearance opening (11) and the cavity (41); The through hole (31) is filled with adhesive, and the adhesive can flow out through the first through opening (42) and the second through opening (43) and can fill the clearance opening (11); It also includes a connecting piece (5) and a filling nozzle (6); The connecting piece (5) is arranged on the floor layer (1) and is located in the clearance opening (11), and one end of the connecting piece (5) away from the nut (2) is flush with the end surface of the floor layer (1); the floor layer (1) is provided with a clamping groove (12) at its bottom which is in communication with the clearance opening (11), and the bottom of the connecting piece (5) has a clamping portion (51) which is adapted to the clamping groove (12); the nut (2) is connected to the connecting piece (5) and contacts and abuts against the clamping portion (51) and the bottom of the floor layer (1); The filling nozzle (6) is arranged on the connecting piece (5), a filling hole (61) is provided inside the filling nozzle (6), and two ends of the filling hole (61) are respectively connected to a space on one side of the floor layer (1) away from the nut (2) and the clearance opening (11); The filling nozzle (6) is movably connected to the connecting piece (5), and the moving direction of the filling nozzle (6) is parallel to the thickness direction of the floor slab layer (1); When the filling nozzle (6) moves in a direction approaching the bolt (3) until it abuts against the bolt (3), the filling hole (61) communicates with the through hole (31).

2. The supporting structure of the assembled overhead floor according to claim 1, characterized in that: Also includes an elastic member (7); The elastic member (7) is arranged inside the connecting member (5), and the two ends of the elastic member (7) are respectively connected to the filling nozzle (6) and the connecting member (5). The elastic member (7) has a tendency to drive the filling nozzle (6) to move in a direction away from the bolt (3) to an extreme position and maintain the position, and at this time, the end of the filling nozzle (6) away from the bolt (3) is flush with the end surface of the connecting member (5).

3. The supporting structure of the assembled overhead floor according to claim 1, characterized in that: Also included is a block (8); The blocking block (8) is arranged in the through hole (31) to form a blockage in the through hole (31), and in an initial state, the blocking block (8) is located at an end of the through hole (31) away from the head of the bolt (3).

4. The supporting structure of the assembled overhead floor according to claim 3 is characterized in that: The blocking block (8) is movable along the through hole (31); when the blocking block (8) moves to an extreme position in a direction close to the support member (4), the through hole (31) is communicated with the cavity (41).

5. The supporting structure of the assembled overhead floor according to claim 4, characterized in that: The support member (4) is provided with a plug-in groove (44) adapted to the block (8) on the cavity wall at the bottom of the cavity (41); when the block (8) moves to an extreme position in a direction close to the support member (4), the block (8) is plugged into and matched with the plug-in groove (44) and a portion of the block (8) is located in an end of the through hole (31) close to the head of the bolt (3); A plurality of diverter grooves (82) are provided at one end of the block (8) away from the support member (4), and the diverter grooves (82) are distributed in a circular array on the block (8) with the axis of the through hole (31) as the axis, and at this time, the two ends of the diverter grooves (82) are respectively connected to the through hole (31) and the cavity (41); the plurality of diverter grooves (82) correspond to the plurality of first openings (42) and the plurality of second openings (43) one by one, and the corresponding diverter grooves (82), the first openings (42) and the second openings (43) are all located in the same radial direction relative to the bolt (3).

6. The supporting structure of the assembled overhead floor according to claim 4, characterized in that: The second opening (43) is obliquely opened on the support member (4), and an end of the second opening (43) close to the cavity (41) is an inclined upper end; During the movement of the blocking block (8) along the through hole (31), the blocking block (8) is maintained to form a blockage with the through hole (31).

7. The supporting structure of the assembled overhead floor according to claim 3, characterized in that: It also includes a plurality of elastic positioning members (9); the positioning members (9) are arranged at one end of the through hole (31) away from the head of the bolt (3); in an initial state, the blocking block (8) is in contact with the plurality of positioning members (9) at the same time for positioning.

8. A leveling process, based on a supporting structure of an assembled overhead floor according to any one of claims 1 to 7, characterized in that: The following steps are involved: S1. Turn the bolt (3) to form a space of required height below the floor layer (1) and keep it level; S2, filling a certain amount of adhesive into the through hole (31); S3, filling the adhesive into the clearance opening (11) until the clearance opening (11) is completely filled.

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