Anti-seismic green building structure with crossed central support

Abstract

The utility model discloses an anti-seismic green building structure with a crossed center support, which relates to the field of green buildings and comprises a support bottom frame, the top surface of the support bottom frame is in butt joint with a main building, support bottom rods are vertically and uniformly arranged on the bottom surface of the support bottom frame downwards, and a middle main rod is vertically arranged on the bottom surface of the support bottom frame. A mounting bottom plate is horizontally welded to the bottom end of the supporting bottom rod and the bottom end of the middle main rod, fixing through holes are evenly formed in the top face of the mounting bottom plate, supporting inclined rods are obliquely arranged on the side edges of the supporting bottom rod, a cross-shaped inner rod is horizontally welded to the inner side edge of the supporting bottom frame, and stabilizing sleeve grooves are evenly formed in the bottom face of the supporting bottom frame; a middle sleeve groove is formed in the bottom face of the cross-shaped inner rod, penetrating through holes are evenly formed in the top face of the supporting bottom frame, a split structure is adopted so that installation and use can be more convenient, and meanwhile the anti-seismic effect is better through a multi-direction buffering weak structure.

Description

Technical Field

[0001] The utility model relates to the technical field of green buildings, in particular to an earthquake-resistant green building structure with a cross-type central support. Background Art

[0002] Green buildings are high-quality buildings that save resources, protect the environment, reduce pollution, provide people with healthy, applicable and efficient space throughout their entire life cycle, and maximize the harmonious coexistence of people and nature.

[0003] When installing current green buildings, they use integrated steel structure materials for fixing operations. As a result, the large integrated structure is bulky, which affects the installation efficiency. At the same time, the single fixed connection structure makes the overall earthquake resistance poor after installation, affecting the safety of the subsequent use of the building. Utility Model Content

[0004] The purpose of the utility model is to provide a cross-type centrally supported earthquake-resistant green building structure to solve the problem raised in the above-mentioned background technology that during the installation operation of current green buildings, an integrated steel structure material is used for fixing operation, so that the large integrated structure has a large volume, which affects the installation efficiency. At the same time, the single fixed connection structure makes the overall earthquake-resistant effect after installation poor, which affects the safety of subsequent use of the building.

[0005] In order to achieve the above purpose, the utility model provides the following technical solutions:

[0006] A cross-type centrally supported earthquake-resistant green building structure comprises a supporting bottom frame, the top surface of the supporting bottom frame is butted against a main building, the bottom surface of the supporting bottom frame is evenly and vertically downwardly provided with supporting bottom rods, the bottom surface of the supporting bottom frame is vertically provided with a middle main rod, the bottom ends of the supporting bottom rods and the middle main rods are horizontally welded with a mounting bottom plate, the top surface of the mounting bottom plate is evenly provided with fixing through holes, the side edges of the supporting bottom rods are obliquely provided with supporting oblique rods, the inner side edges of the supporting bottom frame are horizontally welded with cross inner rods, the bottom surface of the supporting bottom frame is evenly provided with stabilizing sleeve grooves, the bottom surface of the cross inner rods is provided with middle sleeve grooves, the top surface of the supporting bottom frame is evenly provided with through holes, the stabilizing sleeve grooves and The inner side edge of the middle sleeve groove is clamped with an extruded inner plate, and the inner side edge of the supporting bottom frame and the side edge of the cross inner rod are horizontally welded with matching inner strips, and the top surface of the matching inner strips is evenly provided with mounting holes, and the inner side walls of the supporting bottom frame and the cross inner rod are horizontally fixedly clamped with damping inner blocks, and the sides of the supporting bottom rod and the middle main rod are provided with side flip grooves, and the inner side edges of the side flip grooves are horizontally plugged with plug-in connecting rods, and the top ends of the supporting bottom rod and the middle main rod are welded with top stabilizing blocks, and the top ends of the top stabilizing blocks are evenly provided with mounting screw holes, and end flip blocks are symmetrically welded at both ends of the supporting diagonal rod, and the sides of the end flip blocks are provided with sleeve holes, and the inner side edges of the supporting diagonal rods are fixedly connected with internal dampers.

[0007] As a preferred embodiment of the utility model: the supporting bottom frame is arranged in a U-shaped shape, the bottom surface of the main building is fixedly connected to the inner side of the through hole and the mounting hole by bolts, the number of supporting bottom rods is four, and the four supporting bottom rods are arranged parallel to each other, and the top ends of the four supporting bottom rods are butt-jointed and arranged at the bottom open end position of the stabilizing sleeve groove.

[0008] As a preferred embodiment of the utility model: the middle main rod is vertically arranged at the center position of the bottom surface of the cross inner rod, and the top end of the middle main rod is docked at the bottom open end of the middle sleeve groove, the supporting bottom rod and the bottom end of the middle main rod are fixedly arranged at the center position of the top surface of the mounting base plate, and the fixing through holes are all opened in a through-type manner on the top surface of the mounting base plate near the edge.

[0009] As a preferred implementation mode of the present invention: the number of the supporting diagonal rods is set to be consistent with the number of the supporting bottom rods, and the supporting diagonal rods are set in a telescopic rod structure, the supporting diagonal rods are set in an inclined state between the side of the supporting bottom rod and the side of the middle main rod, the cross inner rod is horizontally fixed in a cross shape at the inner center position of the supporting bottom frame, and the stabilizing grooves are correspondingly opened on the bottom surface of the supporting bottom frame near the four corners.

[0010] As a preferred embodiment of the utility model: the middle sleeve groove is opened at the center position of the bottom surface of the cross inner rod, and the bottom extension ends of the through-holes extend to the inner top positions of the stabilizing sleeve groove and the middle sleeve groove, and the extended bottom ends are correspondingly docked and arranged at the top opening end of the mounting screw hole, one side edge of the extruded inner plate is docked and arranged at the outer side edge of the top stabilizing block, and the matching inner strip is horizontally fixedly arranged at the inner side edge of the supporting bottom frame and the top position of the side edge of the cross inner rod, and the top surface of the matching inner strip is docked and arranged at the bottom surface position of the main building.

[0011] As a preferred embodiment of the utility model: the output end of the damping inner block is horizontally extended and fixedly connected to the center position of one side edge of the extruded inner plate, the plug-in connecting rods are horizontally inserted and inserted into the inner side edge of the sleeve hole, the top end of the top stabilizing block is correspondingly inserted into the inner side edge of the stabilizing sleeve groove and the middle sleeve groove, and the end flip block is correspondingly inserted into the inner side edge of the side flip groove.

[0012] Compared with the prior art, the beneficial effects of the utility model are:

[0013] The utility model inserts and sets the top stabilizing blocks of the top ends of the multiple supporting bottom rods and the middle main rod inside the stabilizing sleeve groove and the middle sleeve groove, and then passes the bolts through the through holes and fixes and installs them with the corresponding mounting screw holes, and the multiple supporting oblique rods are obliquely arranged at the position between the supporting bottom rod and the middle main rod, and the end flipping blocks at both ends are inserted and set inside the side flipping grooves, and are connected and fixed inside the side flipping grooves through the internal plug-in connecting rods, so that the multiple supporting oblique rods are obliquely supported at the position between the supporting bottom rod and the middle main rod, and after the installation bottom plate is horizontally arranged at the specified position, the bolts are passed through the fixing through holes to make the installation bottom plate After the installation is fixed, the main building bolts are fixedly connected to the top surface of the supporting bottom frame. When vibration occurs, one end of the internal damping inner block squeezes the inner plate to squeeze the side of the top stabilizing block. In the case of vibration, the damping inner block can buffer and weaken the vibration. At the same time, the support of the multi-directional supporting diagonal rod makes the stability better, and the top connection of the internal damper makes it possible to weaken and buffer the vibration. The split structure makes it more convenient to install and use, and the multi-directional buffering weak structure makes the earthquake resistance better. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Other features, objects and advantages of the present invention will become more apparent by reading the detailed description of non-limiting embodiments with reference to the following drawings:

[0015] Figure 1 It is a three-dimensional structural diagram of a cross-type centrally supported earthquake-resistant green building structure;

[0016] Figure 2It is a structural schematic diagram of the front view section connection details of the supporting bottom frame of a cross-type centrally supported earthquake-resistant green building structure;

[0017] Figure 3 It is a structural schematic diagram of the upward connection details of the supporting bottom frame of a cross-type centrally supported earthquake-resistant green building structure;

[0018] Figure 4 It is a structural schematic diagram of the side view section connection details of the support bottom bar of a cross-type centrally supported earthquake-resistant green building structure;

[0019] Figure 5 This is a structural schematic diagram of the side view section connection details of the supporting diagonal bars of a cross-type centrally supported earthquake-resistant green building structure.

[0020] In the figure: 1. Support bottom frame; 2. Main building; 3. Support bottom rod; 4. Middle main rod; 5. Install bottom plate; 6. Fixing through hole; 7. Support diagonal rod; 8. Cross inner rod; 9. Stabilizing sleeve groove; 10. Middle sleeve groove; 11. Through hole; 12. Extruded inner plate; 13. Matching inner strip; 14. Installing hole; 15. Damping inner block; 16. Side flip groove; 17. Connecting rod; 18. Top stabilizing block; 19. Installing screw hole; 20. End flip block; 21. Sleeve hole; 22. Internal damper. DETAILED DESCRIPTION

[0021] See also Figure 1 In the embodiment of the utility model, a cross-type centrally supported earthquake-resistant green building structure includes a supporting bottom frame 1, the top surface of the supporting bottom frame 1 is connected to the main building 2, and the bottom surface of the supporting bottom frame 1 is evenly and vertically downwardly provided with supporting bottom rods 3, the supporting bottom frame 1 is arranged in a square shape, and the bottom surface of the main building 2 is fixedly connected by bolts and arranged on the inner side of the through hole 11 and the mounting hole 14, the number of the supporting bottom rods 3 is four, and the four supporting bottom rods 3 are arranged in parallel with each other, and the top ends of the four supporting bottom rods 3 are butt-jointed and arranged at the bottom opening end position of the stable sleeve groove 9, The bottom surface of the supporting bottom frame 1 is vertically provided with a middle main rod 4, and the bottom ends of the supporting bottom rod 3 and the middle main rod 4 are horizontally welded with a mounting bottom plate 5, and the top surface of the mounting bottom plate 5 is evenly provided with fixing through holes 6, the middle main rod 4 is vertically provided at the center position of the bottom surface of the cross inner rod 8, and the top end of the middle main rod 4 is butt-jointedly provided at the bottom open end of the middle sleeve groove 10, the bottom ends of the supporting bottom rod 3 and the middle main rod 4 are fixedly provided at the center position of the top surface of the mounting bottom plate 5, and the fixing through holes 6 are all through-type and provided at the top surface of the mounting bottom plate 5 near the edge, and the side of the supporting bottom rod 3 is obliquely provided with a supporting oblique rod 7;

[0022] See also Figure 2-5In the embodiment of the utility model, a cross-type centrally supported earthquake-resistant green building structure is provided, wherein a cross inner rod 8 is horizontally welded to the inner side of the supporting bottom frame 1, and a stable sleeve groove 9 is evenly provided on the bottom surface of the supporting bottom frame 1, and the number of the supporting diagonal rods 7 is arranged in a consistent manner with the number of the supporting bottom rods 3, and the supporting diagonal rods 7 are arranged in a telescopic rod structure, and the supporting diagonal rods 7 are arranged in an inclined shape between the side of the supporting bottom rod 3 and the side of the middle main rod 4, and the cross inner rod 8 is horizontally fixed in a cross shape at the inner center position of the supporting bottom frame 1, and the stable sleeve grooves 9 are correspondingly opened on the bottom surface of the supporting bottom frame 1 near the four At the corner position, the bottom surface of the cross inner rod 8 is provided with a middle sleeve groove 10, and the top surface of the supporting bottom frame 1 is evenly provided with through holes 11. The inner sides of the stabilizing sleeve groove 9 and the middle sleeve groove 10 are clamped with extruded inner plates 12. The inner sides of the supporting bottom frame 1 and the sides of the cross inner rod 8 are horizontally welded with matching inner strips 13, and the top surfaces of the matching inner strips 13 are evenly provided with mounting holes 14. The middle sleeve groove 10 is provided at the center position of the bottom surface of the cross inner rod 8, and the bottom extension ends of the through holes 11 extend to the inner top positions of the stabilizing sleeve groove 9 and the middle sleeve groove 10, and the extended bottom ends correspond to the top openings of the mounting screw holes 19. At the mouth end, one side edge of the extruded inner plate 12 is butt-jointed with the outer side edge of the top stabilizing block 18, and the matching inner strip 13 is horizontally fixedly arranged at the inner side edge of the supporting bottom frame 1 and the top position of the side edge of the cross inner rod 8, and the top surface of the matching inner strip 13 is butt-jointed with the bottom surface position of the main building 2, and the inner side wall of the supporting bottom frame 1 and the cross inner rod 8 is horizontally fixedly connected with a damping inner block 15, and the side edges of the supporting bottom rod 3 and the middle main rod 4 are provided with a side flip groove 16, and the inner side edge of the side flip groove 16 is horizontally plugged with a plug-in connecting rod 17, and the top ends of the supporting bottom rod 3 and the middle main rod 4 are welded with a top stabilizing block 18, and the top stabilizing block 18 The top of the top stabilizing block 18 is evenly provided with mounting screw holes 19, and the two ends of the supporting diagonal rod 7 are symmetrically welded with end flip blocks 20. The output end of the damping inner block 15 is horizontally extended and fixedly connected to the center of one side of the extruded inner plate 12. The plug-in connecting rods 17 are horizontally inserted and inserted into the inner side of the sleeve hole 21. The top of the top stabilizing block 18 is correspondingly inserted into the inner side of the stabilizing sleeve groove 9 and the middle sleeve groove 10. The end flip block 20 is correspondingly inserted into the inner side of the side flip groove 16. The side of the end flip block 20 is provided with a sleeve hole 21, and the inner side of the supporting diagonal rod 7 is fixedly connected with an inner damper 22.

[0023] The working principle of the utility model is:

[0024] The top stabilizing blocks 18 of the top ends of the multiple supporting bottom bars 3 and the middle main bar 4 are inserted and set inside the stabilizing sleeve grooves 9 and the middle sleeve grooves 10, and then the bolts are passed through the through holes 11 and fixedly installed with the corresponding mounting screw holes 19, and the multiple supporting diagonal bars 7 are obliquely set between the supporting bottom bars 3 and the middle main bar 4, and the end flipping blocks 20 at both ends are inserted and set inside the side flipping grooves 16, and are connected and fixed inside the side flipping grooves 16 through the internal plug-in connecting rods 17, so that the multiple supporting diagonal bars 7 are obliquely supported between the supporting bottom bars 3 and the middle main bar 4, so that the installation base plate 5 is water-proof. After being set flat at the designated position, the bolts are passed through the fixing through holes 6 to fix the installation base plate 5, and then the main building 2 is bolted and connected to the top surface of the supporting base frame 1. When vibration occurs, one end of the internal damping inner block 15 squeezes the inner plate 12 to squeeze the side of the top stabilizing block 18. In the case of vibration, the damping inner block 15 can buffer and weaken the vibration. At the same time, with the support of the multi-directional supporting diagonal rod 7, the stability is better, and the top connection of the internal damper 22 can weaken and buffer the vibration.

[0025] What is described above is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes within the technical scope disclosed by the present invention according to the technical scheme and the utility model concept of the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A cross-type centrally supported earthquake-resistant green building structure, comprising a supporting bottom frame (1), characterized in that: The top surface of the support bottom frame (1) is connected to the main building (2), the bottom surface of the support bottom frame (1) is evenly provided with support bottom rods (3) vertically downward, the bottom surface of the support bottom frame (1) is vertically provided with a middle main rod (4), the bottom ends of the support bottom rods (3) and the middle main rods (4) are horizontally welded with a mounting base plate (5), the top surface of the mounting base plate (5) is evenly provided with fixing through holes (6), the side edges of the support bottom rods (3) are obliquely provided with support oblique rods (7), the inner side edges of the support bottom frame (1) are horizontally welded with cross inner rods (8), the bottom surface of the support bottom frame (1) is evenly provided with stabilizing sleeve grooves (9), the bottom surface of the cross inner rods (8) is provided with a middle sleeve groove (10), the top surface of the support bottom frame (1) is evenly provided with through holes (11), the inner sides of the stabilizing sleeve grooves (9) and the middle sleeve grooves (10) are clamped with extruded inner plates (12), and the support The inner side edge of the support bottom frame (1) and the side edge of the cross inner rod (8) are both horizontally welded with matching inner strips (13), the top surface of the matching inner strips (13) is evenly provided with mounting holes (14), the inner side walls of the support bottom frame (1) and the cross inner rod (8) are horizontally fixedly clamped with damping inner blocks (15), the side edges of the support bottom rod (3) and the middle main rod (4) are provided with side turning grooves (16), the inner side edges of the side turning grooves (16) are horizontally A plug-in connecting rod (17) is inserted, and a top stabilizing block (18) is welded to the top of the supporting bottom rod (3) and the middle main rod (4), and mounting screw holes (19) are evenly arranged at the top of the top stabilizing block (18). End flip blocks (20) are symmetrically welded to the two ends of the supporting diagonal rod (7), and a sleeve hole (21) is arranged on the side of the end flip block (20). The inner side of the supporting diagonal rod (7) is fixedly connected to an internal damper (22).

2. The cross-type centrally supported earthquake-resistant green building structure according to claim 1, characterized in that: The supporting bottom frame (1) is arranged in a square shape, and the bottom surface of the main building (2) is fixedly connected to the inner side of the through hole (11) and the mounting hole (14) by bolts. The number of supporting bottom rods (3) is four, and the four supporting bottom rods (3) are arranged parallel to each other. The top ends of the four supporting bottom rods (3) are butt-jointed and arranged at the bottom opening end of the stabilizing sleeve groove (9).

3. The earthquake-resistant green building structure with a cross-type central support according to claim 1 is characterized in that: The middle main rod (4) is vertically arranged at the center position of the bottom surface of the cross inner rod (8), and the top end of the middle main rod (4) is butt-jointed with the bottom open end of the middle sleeve groove (10). The bottom ends of the supporting bottom rod (3) and the middle main rod (4) are fixedly arranged at the center position of the top surface of the mounting base plate (5), and the fixing through holes (6) are all through-opened at the top surface of the mounting base plate (5) near the edge.

4. The earthquake-resistant green building structure with a cross-type central support according to claim 1 is characterized in that: The number of the supporting oblique rods (7) is arranged to be consistent with the number of the supporting bottom rods (3), and the supporting oblique rods (7) are arranged in a telescopic rod structure. The supporting oblique rods (7) are arranged in an inclined manner between the side of the supporting bottom rod (3) and the side of the middle main rod (4). The cross inner rods (8) are horizontally fixed in a cross shape at the inner center position of the supporting bottom frame (1), and the stabilizing sleeve grooves (9) are correspondingly opened on the bottom surface of the supporting bottom frame (1) near the four corners.

5. The earthquake-resistant green building structure with a cross-type central support according to claim 1 is characterized in that: The middle sleeve groove (10) is provided at the center position of the bottom surface of the cross inner rod (8), and the bottom extension ends of the through-holes (11) extend to the inner top positions of the stabilizing sleeve groove (9) and the middle sleeve groove (10), and the extended bottom ends are correspondingly butted against the top opening ends of the mounting screw holes (19), and one side edge of the extruded inner plate (12) is butted against the outer side edge of the top stabilizing block (18), and the matching inner strip (13) is horizontally fixedly arranged at the inner side edge of the supporting bottom frame (1) and the top position of the side edge of the cross inner rod (8), and the top surface of the matching inner strip (13) is butted against the bottom surface position of the main building (2).

6. The earthquake-resistant green building structure with a cross-type central support according to claim 1 is characterized in that: The output end of the damping inner block (15) is horizontally extended and fixedly connected to the center position of one side of the extruded inner plate (12); the plug-in connecting rods (17) are all horizontally inserted and inserted into the inner side of the sleeve hole (21); the top end of the top stabilizing block (18) is correspondingly inserted into the inner side of the stabilizing sleeve groove (9) and the middle sleeve groove (10); and the end flip block (20) is correspondingly inserted into the inner side of the side flip groove (16).

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