Bearing support with deformation detection function and mounting method thereof

Abstract

The invention relates to the technical field of bearing supports, in particular to a bearing support with a deformation detection function and an installation method of the bearing support. The technical problems that due to the fact that a bearing support is used for bearing and supporting equipment upwards, when the equipment above is loosened, the support cannot bear expected loads, deformation impact occurs, structural safety is affected, and the overall safety effect is reduced are solved. According to the technical scheme, the bearing support with the deformation detection function comprises a bearing deformation placing assembly, a telescopic positioning assembly, a balance straightening connecting assembly, a connecting supporting assembly, a reinforcing rod and an adjustable sinking assembly; the connecting and supporting assemblies are symmetrically arranged at the lower end of the bearing deformation placement assembly and can be used for supporting, reinforcing and maintaining overall pressure bearing, the two connecting and supporting assemblies are located in the middles of the connecting and supporting assemblies through reinforcing rods, adjustable sinking assemblies are utilized, operation can slide up and down, and sinking supporting is adjusted according to the change of the upper bearing pressure; and the overall safety and stability are improved.

Description

Technical Field

[0001] The present invention relates to the technical field of load-bearing brackets, and in particular to a load-bearing bracket with a deformation detection function and an installation method thereof. Background Art

[0002] A load-bearing bracket is a structural component used to support and disperse weight. It is usually designed to have sufficient strength and stability to withstand and disperse gravity loads from above or around, thereby ensuring the stability and safety of the entire structure. It is mainly used to support building structures, large equipment, pipelines and other components to stabilize the structure of the building or fix equipment. The load-bearing bracket is usually composed of multiple columns, beams and connectors, and has a certain load-bearing capacity and shock resistance. It is of great significance to ensure the stability and safety of engineering structures. The existing load-bearing bracket, during the load-bearing process, due to the upward load-bearing supporting equipment, when the upper equipment becomes loose, the bracket cannot withstand the expected load, and deformation impact occurs, affecting the structural safety and reducing the overall safety effect; therefore, we propose a load-bearing bracket with deformation detection function and its installation method to solve the above problems. Summary of the invention

[0003] In order to overcome the problem that the load-bearing bracket is used to support the equipment upward, when the upper equipment becomes loose, the bracket cannot bear the expected load, and deformation impact occurs, which affects the structural safety and reduces the overall safety effect.

[0004] The technical solution of the present invention is: a load-bearing bracket with a deformation detection function, comprising a load-bearing deformation placement component, a retractable positioning component, a balance and straightening connection component, a connection support component, a reinforcement rod and an adjustable sinking component; both ends of the load-bearing deformation placement component are symmetrically provided with retractable positioning components for retractable adjustment for installation protection, both sides of the load-bearing deformation placement component are symmetrically provided with balance and straightening connection components for installing positioning equipment and performing shape straightening protection, the lower end of the load-bearing deformation placement component is symmetrically provided with connection support components for support and reinforcement and maintaining overall pressure, a reinforcement rod for reinforcement and stability is provided between the two groups of connection support components, and an adjustable sinking component is provided in the middle of the connection support component which can slide up and down to adjust the sinking support according to the change of the upper pressure.

[0005] Preferably, through the balancing and straightening connection components, which are symmetrically arranged on both sides of the load-bearing deformation placement component, it can be used to install the positioning equipment and perform shape straightening protection. Through the connection support component, which is symmetrically arranged at the lower end of the load-bearing deformation placement component, it can be used for support reinforcement and maintaining the overall pressure. The two groups of connection support components are reinforced by reinforcement rods to improve the reinforcement stability performance. The adjustable sinking component is located in the middle of the connection support component, which can be slid up and down, and the sinking support is adjusted according to the change of the upper pressure to improve the overall safety and stability performance.

[0006] Preferably, the bearing deformation placement component includes a first bearing plate, a mounting sleeve, a central balance plate, a second bearing plate, a mounting strip, a shock-absorbing airbag, a first protective ring, a display screen, a second protective ring, a flashing light, a weighing sensor, a snap-on ring sleeve, a displacement sensor, a piezoelectric sensor and a level ruler. The first bearing plate and the second bearing plate are coaxially stacked, a central balance plate is provided between the first bearing plate and the second bearing plate, and mounting strips fixedly installed with the connecting support component are symmetrically provided at the bottom edge of the second bearing plate. The snap-on ring sleeve can be used for installation and plugging.

[0007] Preferably, multiple groups of shock-absorbing airbags are provided on all four sides of the central balance board, and clamping ring sleeves are provided at all four corners of the central balance board. A displacement sensor is provided in the center of the clamping ring sleeve, and the lower end of the displacement sensor is provided with a second protective ring connected to the second supporting plate, and a flashing light is provided at the lower end of the displacement sensor. Multiple groups of superimposed weighing sensors and piezoelectric sensors are provided along the central ring direction of the central balance board, and the lower ends of the weighing sensors and piezoelectric sensors are provided with a second protective ring connected to the second supporting plate, and display screens are provided at the lower ends of the weighing sensors and piezoelectric sensors. Level rulers are provided on both sides of the second supporting plate. When the equipment is placed on the first supporting plate, the overall bias is checked by observing the level rulers.

[0008] Preferably, the telescopic positioning assembly includes a push rod, a guide plate, a connecting plate, a telescopic cylinder, an adjusting spring and a damper. Push rods are symmetrically provided at both ends of the guide plate. The telescopic cylinder drives the push rod to drive the guide plate to move. A connecting plate is vertically provided at one end of the guide plate. Key slots are provided on the connecting plate and the guide plate. An adjusting spring extending to the load-bearing deformation placement assembly is symmetrically provided at the bottom of the connecting plate. A damper is provided inside the adjusting spring. The telescopic cylinder drives the push rod to drive the guide plate to move, and it is installed through the key slot.

[0009] Preferably, the balancing and straightening connection assembly includes a rectangular carrier, a fixed ring tube, an adjusting shaft, a tensioning bolt, an adjusting frame, a fixed shaft, a flat plate and a sleeve plate. A limit groove is provided in the middle of the rectangular carrier, and rectangular grooves that are connected to the limit groove and penetrate the two ends of the rectangular carrier are provided. Fixed ring tubes are provided at both ends of the rectangular carrier, and a rotatable adjusting shaft is provided in the center of the fixed ring tube. The adjusting shaft is adjusted by tensioning bolts to reach a suitable angle so that the flat plate fits the outside of the equipment.

[0010] Preferably, a tensioning bolt is provided at one end of the adjusting shaft, and adjusting frames are provided at both ends of the adjusting shaft. A fixed shaft is provided at the end of the adjusting frame away from the adjusting shaft, and sleeves are provided at both ends of the fixed shaft. A flat plate is provided at the front end of the sleeve, and a straightening groove is provided on the flattening plate in a horizontal linear manner. The corresponding straightening structure can be installed in the straightening groove to detect itself and the equipment deviation structure.

[0011] Preferably, the connecting support assembly includes a curved frame, a bearing frame, a pillar, a ring, an inclined frame and a reinforcement plate. The curved frame is arranged in two groups opposite to each other, and a bearing frame is provided between the two groups of curved frames. A pillar is provided at the lower end of the curved frame, a ring is provided on the pillar, and an inclined frame is provided in a circumferential direction on the outer end of the ring. A reinforcement plate connected to the pillar is provided at the lower end of the inclined frame. A sliding groove for sliding an adjustable sinking assembly is provided in the middle of the curved frame, and a plurality of groups of through holes are linearly provided on the sliding groove, and the through holes cooperate with positioning bolts to complete the locking installation operation.

[0012] Preferably, the adjustable sinking assembly includes a cross frame, positioning bolts, a fixing sleeve, a cross column, an extension rod, an insertion rod and a spring column. Both ends of the cross frame are provided with sliding sleeves, and the centers of both ends of the cross frame are provided with sockets. The centers of the sockets are provided with positioning bolts. The cross frame can be positioned by the positioning bolts for directional installation.

[0013] Preferably, a fixing sleeve is provided below the cross frame, a spring column is provided between the fixing sleeve and the cross frame, a spring damping layer is provided inside the spring column, cross columns are provided at both ends of the fixing sleeve, an extension rod is provided at the end of the cross column away from the fixing sleeve, and an insertion rod is provided at the lower end of the extension rod, by means of which a deep insertion operation can be performed.

[0014] According to another aspect of the present invention, there is provided a load-bearing bracket with a deformation detection function and a method for installing the same, comprising the following steps:

[0015] S1. Observe the equipment to be placed, select a suitable position, place the connecting support assembly on the ground, and use the pillars and the inclined frame to support the four nodes. As the equipment is placed on the first load-bearing plate, observe the level ruler to check the overall deflection, pull the fixing sleeve to make the cross frame slide along the slide groove, and stretch its spring column to reduce the upper bearing pressure, sink the extension rod to a suitable ground depth, connect the support, and lock it with the positioning bolt;

[0016] S2. Then, according to the shape of the equipment, the telescopic cylinder drives the push rod to drive the guide plate to move, and install it through the keyway. With the pulling operation, the adjustment spring moves and stretches to reduce the impact pressure of the equipment. The equipment can be positioned around by installing the sleeve, and the adjustment shaft can be adjusted with the loose bolts to achieve a suitable angle so that the flat plate fits the outside of the equipment. The corresponding straightening structure can be installed through the straightening groove to detect itself and the equipment deviation structure;

[0017] S3. After the overall installation is completed, the device is placed on the first bearing plate, and the corners around it are supported in the middle by the clamping ring sleeve. The displacement sensor promptly feeds back the displacement of the device on the flashing light, and synchronizes the weighing sensor and the piezoelectric sensor;

[0018] S4. Use the piezoelectric effect to measure the strain of the object being measured, and convert the measured mass into electrical or mechanical quantity output and feedback it to the display screen for easy observation and timely adjustment.

[0019] Beneficial effects of the present invention:

[0020] 1. According to the previous load-bearing brackets, due to the upward load-bearing support equipment, when the upper equipment becomes loose, the bracket cannot bear the expected load, deformation impact occurs, affecting the structural safety and reducing the overall safety effect. The difference is that through the retractable positioning components, the two ends of the load-bearing deformation placement component are symmetrically arranged, which can be used for retractable adjustment for installation protection; through the balancing and straightening connection components, the two sides of the load-bearing deformation placement component are symmetrically arranged, which can be used to install the positioning equipment and perform shape straightening protection; through the connecting support components, the lower end of the load-bearing deformation placement component is symmetrically arranged, which can be used for support reinforcement and maintain overall pressure; the two groups of connecting support components are reinforced by reinforcement rods to improve the reinforcement stability performance; the adjustable sinking component is located in the middle of the connecting support component, which can be slid up and down, and the sinking support is adjusted according to the change of the upper pressure to improve the overall safety and stability performance.

[0021] 2. When performing deformation measurement, the middle support is provided by the clamping ring sleeve to maintain the stability of the node. The displacement sensor provides timely feedback on the displacement of the equipment on the flashing light. The weighing sensor and the piezoelectric sensor are synchronized to measure the strain of the object being measured using the piezoelectric effect. The measured mass is converted into electrical or mechanical quantity output and fed back to the display screen, which is convenient for observation and timely adjustment to improve the overall detection performance.

[0022] 3. When installing, place the connecting support assembly on the ground, and support it at four nodes by the support and the inclined frame to improve the overall support performance. As the equipment is placed on the first load-bearing plate, observe the level ruler to check the overall deflection, pull the fixing sleeve to make the cross frame slide along the slide groove, and perform movable adjustment operations. The spring column cooperates to stretch to reduce the upper bearing pressure, sink the extension rod to reach the appropriate ground depth, support and connect, and lock it with the positioning bolts to increase the overall safety performance. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is an overall schematic diagram of the load-bearing bracket of the present invention;

[0024] Figure 2 It is a schematic diagram of a load-bearing bracket bearing deformation placement component of the present invention;

[0025] Figure 3 It is a schematic diagram of the clamping ring sleeve of the load-bearing bracket of the present invention;

[0026] Figure 4 It is a schematic diagram of the load-bearing support balance straightening connection assembly of the present invention;

[0027] Figure 5 It is a schematic diagram of the load-bearing bracket connecting the support assembly of the present invention;

[0028] Figure 6 It is a schematic diagram of the adjustable sinking assembly of the load-bearing support of the present invention.

[0029] Explanation of the reference numerals: 1. bearing deformation placement component; 2. retractable positioning component; 3. balancing and straightening connection component; 4. connecting support component; 5. reinforcement rod; 6. adjustable sinking component; 101. first bearing plate; 102. mounting sleeve; 103. center balance plate; 104. second bearing plate; 105. mounting strip; 106. shock-absorbing airbag; 107. first protective ring; 108. display screen; 109. second protective ring; 110. flashing light; 111. weighing sensor; 112. snap ring sleeve; 113. displacement sensor; 114. piezoelectric sensor; 115. level ruler; 201. push rod; 202. guide plate; 203. connecting plate; 204. key slot; 205, telescopic cylinder; 206, adjusting spring; 207, damper; 301, rectangular carrier; 302, rectangular slot; 303, limit slot; 304, fixed ring tube; 305, adjusting shaft; 306, tension bolt; 307, adjusting frame; 308, fixed shaft; 309, flat plate; 310, sleeve plate; 311, straightening slot; 401, curved frame; 402, carrier frame; 403, slide slot; 404, perforation; 405, pillar; 406, ring; 407, inclined frame; 408, reinforcement plate; 601, cross frame; 602, positioning bolt; 603, fixing sleeve; 604, cross column; 605, extension rod; 606, plug rod; 607, spring column. DETAILED DESCRIPTION

[0030] The present invention will be further described below in conjunction with the accompanying drawings and embodiments.

[0031] See also Figure 1-3 The present invention provides an embodiment: a load-bearing bracket with a deformation detection function, comprising a load-bearing deformation placement component 1, a retractable positioning component 2, a balance and straightening connection component 3, a connection support component 4, a reinforcement rod 5 and an adjustable sinking component 6; both ends of the load-bearing deformation placement component 1 are symmetrically provided with retractable positioning components 2 for retractable adjustment for installation protection, both sides of the load-bearing deformation placement component 1 are symmetrically provided with balance and straightening connection components 3 for installing positioning equipment and performing shape straightening protection, the lower end of the load-bearing deformation placement component 1 is symmetrically provided with connection support components 4 for supporting and reinforcing and maintaining overall pressure, a reinforcement rod 5 for reinforcing stability is provided between the two groups of connection support components 4, and an adjustable sinking component 6 is provided in the middle of the connection support component 4, which can slide up and down to adjust the sinking support according to the change of the upper pressure.

[0032] See also Figure 2-4In this embodiment, the bearing deformation placement component 1 includes a first bearing plate 101, a mounting sleeve 102, a central balance plate 103, a second bearing plate 104, a mounting bar 105, a shock-absorbing airbag 106, a first protective ring 107, a display screen 108, a second protective ring 109, a flashing light 110, a weighing sensor 111, a clamping ring sleeve 112, a displacement sensor 113, a piezoelectric sensor 114 and a level 115. The displacement sensor 113 is PC-M-050, and the piezoelectric sensor 114 is PT124B-123. The first bearing plate 101 and the second bearing plate 104 are coaxially stacked, and the weighing sensor 111 is DBSL-30t. A central balance plate 103 is provided between the first bearing plate 101 and the second bearing plate 104. A mounting bar 105 fixedly installed with the connecting support component 4 is symmetrically provided at the bottom edge of the second bearing plate 104. The clamping ring sleeve 1 12. It can be installed and plugged. Multiple groups of shock-absorbing airbags 106 are provided on the four sides of the central balance plate 103. Snap ring sleeves 112 are provided at the four corners of the central balance plate 103. A displacement sensor 113 is provided at the center of the snap ring sleeve 112. The lower end of the displacement sensor 113 is sleeved with a second protective ring 109 connected to the second bearing plate 104. A flashing light 110 is provided at the lower end of the displacement sensor 113. Multiple groups of superimposed weighing sensors 111 and piezoelectric sensors 114 are provided along the central ring direction of the central balance plate 103. The lower ends of the weighing sensors 111 and the piezoelectric sensors 114 are sleeved with a second protective ring 109 connected to the second bearing plate 104. A display screen 108 is provided at the lower ends of the weighing sensors 111 and the piezoelectric sensors 114. Level rulers 115 are provided on both sides of the second bearing plate 104. When the equipment is placed on the first bearing plate 101, the level ruler 115 is observed to check the overall deflection.

[0033] See also Figure 3-5In this embodiment, the telescopic positioning assembly 2 includes a push rod 201, a guide plate 202, a connecting plate 203, a telescopic cylinder 205, an adjusting spring 206 and a damper 207. Push rods 201 are symmetrically penetrated at both ends of the guide plate 202. The telescopic cylinder 205 drives the push rod 201 to drive the guide plate 202 to move. A connecting plate 203 is vertically provided at one end of the guide plate 202. A key slot 204 is provided on both the connecting plate 203 and the guide plate 202. An adjusting spring 206 extending to the bearing deformation placement assembly 1 is symmetrically provided at the bottom of the connecting plate 203. A damper 207 is provided inside the adjusting spring 206. The telescopic cylinder 205 drives the push rod 201 to drive the guide plate 20 2 is guided and moved, and installed through the key slot 204. The balancing and straightening connection assembly 3 includes a rectangular carrier 301, a fixed ring tube 304, an adjusting shaft 305, a tightening bolt 306, an adjusting frame 307, a fixed shaft 308, a flat plate 309 and a sleeve plate 310. A limiting groove 303 is provided in the middle of the rectangular carrier 301, and rectangular grooves 302 are provided at both ends of the rectangular carrier 301 and are connected with the limiting groove 303 and are arranged through the two ends of the rectangular carrier 301. A fixed ring tube 304 is provided at both ends of the rectangular carrier 301, and a rotatable adjusting shaft 305 is provided at the center of the fixed ring tube 304. The adjusting shaft 305 is adjusted by the tightening bolt 306 to reach a suitable angle so that the flat plate 309 fits the outside of the equipment.

[0034] See also Figure 4-5 In this embodiment, a tension bolt 306 is provided at one end of the adjusting shaft 305, and both ends of the adjusting shaft 305 are sleeved with an adjusting frame 307, and the end of the adjusting frame 307 away from the adjusting shaft 305 is provided with a fixed shaft 308, and both ends of the fixed shaft 308 are provided with a sleeve plate 310, and a flat plate 309 is provided at the front end of the sleeve plate 310, and a straightening groove 311 is opened on the flat plate 309 in a horizontal linear manner. The straightening groove 311 can be installed with a corresponding straightening structure to detect the deviation structure of itself and the equipment. The connecting support assembly 4 includes a curved frame 401, a bearing frame 402, a pillar 405, and a ring 406. , an inclined frame 407 and a reinforcement plate 408, the curved frame 401 is arranged in two groups opposite to each other, a bearing frame 402 is arranged between the two groups of curved frames 401, a pillar 405 is arranged at the lower end of the curved frame 401, a ring 406 is sleeved on the pillar 405, an inclined frame 407 is arranged in a circumferential direction on the outer end of the ring 406, a reinforcement plate 408 connected to the pillar 405 is arranged at the lower end of the inclined frame 407, a slide groove 403 for sliding of the adjustable sinking component 6 is opened in the middle of the curved frame 401, a plurality of groups of through holes 404 are linearly arranged on the slide groove 403, and the through holes 404 cooperate with the positioning bolts 602 to complete the locking installation operation.

[0035] See also Figure 5-6In this embodiment, the adjustable sinking component 6 includes a cross frame 601, a positioning bolt 602, a fixing sleeve 603, a cross column 604, an extension rod 605, an insertion rod 606 and a spring column 607. Both ends of the cross frame 601 are provided with sliding sleeves, and the centers of both ends of the cross frame 601 are provided with sockets. The centers of the sockets are provided with positioning bolts 602. The cross frame 601 can be positioned by the positioning bolts 602 for directional installation. A fixing sleeve 603 is provided below the cross frame 601, and a spring column 607 is provided between the fixing sleeve 603 and the cross frame 601. A spring damping layer is provided inside the spring column 607. Both ends of the fixing sleeve 603 are provided with cross columns 604. An extension rod 605 is provided at one end of the cross column 604 away from the fixing sleeve 603. An insertion rod 606 is provided at the lower end of the extension rod 605. The insertion rod 606 can be used for deep plugging operations.

[0036] According to another aspect of the present invention, there is provided a load-bearing bracket with a deformation detection function and a method for installing the same, comprising the following steps:

[0037] S1. Observe the equipment to be placed, select a suitable position, place the connecting support assembly 4 on the ground, and support it with four nodes by the support pillar 405 and the inclined frame 407. As the equipment is placed on the first bearing plate 101, observe the level ruler 115 to check the overall deflection, pull the fixing sleeve 603 to make the cross frame 601 slide along the slide groove 403, and its spring column 607 cooperates to stretch to reduce the upper bearing pressure, sink the extension rod 605 to a suitable ground depth, support and connect, and lock it with the positioning bolt 602;

[0038] S2. Then, according to the shape of the equipment, the telescopic cylinder 205 drives the push rod 201 to drive the guide plate 202 to move, and is installed through the key slot 204. With the pulling operation, the adjusting spring 206 cooperates with the movement and stretching to reduce the impact pressure of the equipment. The equipment can be positioned around by installing the sleeve 102, and the adjusting shaft 305 is adjusted by the loose bolt 306 to reach a suitable angle so that the flattening plate 309 fits the outside of the equipment. The corresponding straightening structure can be installed through the straightening slot 311 to detect itself and the equipment deflection structure;

[0039] S3. After the overall installation is completed, the device is placed on the first bearing plate 101. The corners around the device are supported in the middle by the clamping ring sleeve 112. The displacement sensor 113 provides timely feedback on the device displacement on the flashing light 110, and synchronizes the weighing sensor 111 and the piezoelectric sensor 114.

[0040] S4. The strain of the object being measured is measured using the piezoelectric effect, and the measured mass is converted into electrical quantity or mechanical quantity output and fed back to the display screen 108 for easy observation and timely adjustment.

[0041] Through the above steps, the balancing and straightening connection components 3 are symmetrically arranged on both sides of the load-bearing deformation placement component 1, which can be used to install the positioning equipment and perform shape straightening protection. The connecting support components 4 are symmetrically arranged at the lower end of the load-bearing deformation placement component 1, which can be used for support reinforcement and maintain overall pressure. The two groups of connecting support components 4 are connected through the reinforcement rod 5 to improve the reinforcement stability performance. The adjustable sinking component 6 is located in the middle of the connecting support component 4, which can be slid up and down, and the sinking support is adjusted according to the change of the upper pressure to improve the overall safety and stability performance.

[0042] The embodiments of the present invention are described in detail above with reference to the accompanying drawings, but the present invention is not limited to the above embodiments, and various changes can be made within the knowledge scope of those skilled in the art without departing from the spirit of the present invention.

Claims

1. A load-bearing bracket with deformation detection function, comprising a load-bearing deformation placement component (1); characterized in that: The invention also comprises a retractable positioning component (2), a balanced straightening connection component (3), a connection support component (4), a reinforcement rod (5) and an adjustable sinking component (6); both ends of the bearing deformation placement component (1) are symmetrically provided with retractable positioning components (2) for retractable adjustment for installation protection; both sides of the bearing deformation placement component (1) are symmetrically provided with balanced straightening connection components (3) for installing positioning equipment and performing shape straightening protection; the lower end of the bearing deformation placement component (1) is symmetrically provided with connection support components (4) for supporting and reinforcing and maintaining overall pressure; a reinforcement rod (5) for reinforcing stability is provided between the two groups of connection support components (4); and the middle part of the connection support component (4) is provided with an adjustable sinking component (6) that can slide up and down to adjust the sinking support according to the change of the upper pressure.

2. A load-bearing bracket with deformation detection function according to claim 1, characterized in that: The bearing deformation placement component (1) comprises a first bearing plate (101), a mounting sleeve (102), a central balance plate (103), a second bearing plate (104), a mounting strip (105), a shock-absorbing airbag (106), a first protective ring (107), a display screen (108), a second protective ring (109), a flashing light (110), a weighing sensor (111), a clamping ring sleeve (112), a displacement sensor (113), a piezoelectric sensor (114) and a level ruler (115); the first bearing plate (101) and the second bearing plate (104) are coaxially stacked; a central balance plate (103) is provided between the first bearing plate (101) and the second bearing plate (104); and mounting strips (105) fixedly mounted to the connection support component (4) are symmetrically provided at the bottom edge of the second bearing plate (104).

3. A load-bearing bracket with deformation detection function according to claim 2, characterized in that: A plurality of groups of shock-absorbing airbags (106) are arranged on the four sides of the central balance plate (103); a clamping ring sleeve (112) is arranged at the four corners of the central balance plate (103); a displacement sensor (113) is arranged at the center of the clamping ring sleeve (112); a second protective ring (109) connected to the second bearing plate (104) is sleeved on the lower end of the displacement sensor (113); a flashing light (110) is arranged on the lower end of the displacement sensor (113); a plurality of groups of superimposed weighing sensors (111) and piezoelectric sensors (114) are arranged along the central ring direction of the central balance plate (103); a second protective ring (109) connected to the second bearing plate (104) is sleeved on the lower ends of the weighing sensors (111) and the piezoelectric sensors (114); a display screen (108) is arranged on the lower ends of the weighing sensors (111) and the piezoelectric sensors (114); and a level ruler (115) is arranged on both sides of the second bearing plate (104).

4. The load-bearing bracket with deformation detection function according to claim 1, characterized in that: The telescopic positioning component (2) comprises a push rod (201), a guide plate (202), a connecting plate (203), a telescopic cylinder (205), an adjusting spring (206) and a damper (207). Push rods (201) are symmetrically provided at both ends of the guide plate (202). The telescopic cylinder (205) drives the push rod (201) to drive the guide plate (202) to move. A connecting plate (203) is vertically provided at one end of the guide plate (202). Both the connecting plate (203) and the guide plate (202) are provided with a key slot (204). An adjusting spring (206) extending to the bearing deformation placement component (1) is symmetrically provided at the bottom of the connecting plate (203). A damper (207) is provided inside the adjusting spring (206).

5. The load-bearing bracket with deformation detection function according to claim 1, characterized in that: The balancing and straightening connection assembly (3) comprises a rectangular carrier (301), a fixed ring tube (304), an adjusting shaft (305), a loose bolt (306), an adjusting frame (307), a fixed shaft (308), a flat plate (309) and a sleeve plate (310). A limiting groove (303) is provided in the middle of the rectangular carrier (301), and rectangular grooves (302) are provided at both ends of the rectangular carrier (301) and are connected to and penetrate the limiting groove (303). Fixed ring tubes (304) are provided at both ends of the rectangular carrier (301), and a rotatable adjusting shaft (305) is provided at the center of the fixed ring tube (304).

6. A load-bearing bracket with deformation detection function according to claim 5, characterized in that: A tightening bolt (306) is provided at one end of the adjusting shaft (305), and an adjusting frame (307) is sleeved on both ends of the adjusting shaft (305). A fixed shaft (308) is provided at one end of the adjusting frame (307) away from the adjusting shaft (305), and sleeve plates (310) are provided at both ends of the fixed shaft (308). A flattening plate (309) is provided at the front end of the sleeve plate (310), and a straightening groove (311) is linearly provided on the flattening plate (309) in a transverse direction.

7. The load-bearing bracket with deformation detection function according to claim 1, characterized in that: The connecting support assembly (4) comprises a curved frame (401), a bearing frame (402), a pillar (405), a ring (406), an inclined frame (407) and a reinforcing plate (408). The curved frame (401) is arranged in two groups opposite to each other. A bearing frame (402) is arranged between the two groups of curved frames (401). A pillar (405) is arranged at the lower end of the curved frame (401). A ring (406) is sleeved on the pillar (405). An inclined frame (407) is arranged in a circumferential direction at the outer end of the ring (406). A reinforcing plate (408) connected to the pillar (405) is arranged at the lower end of the inclined frame (407). A sliding groove (403) for sliding an adjustable sinking assembly (6) is provided in the middle of the curved frame (401). A plurality of groups of through holes (404) are linearly arranged on the sliding groove (403).

8. The load-bearing bracket with deformation detection function according to claim 1, characterized in that: The adjustable sinking assembly (6) comprises a cross frame (601), a positioning bolt (602), a fixing sleeve (603), a cross column (604), an extension rod (605), an insertion rod (606) and a spring column (607). Both ends of the cross frame (601) are sleeved with sliding sleeves. The centers of both ends of the cross frame (601) are provided with insertion holes, and the centers of the insertion holes are provided with positioning bolts (602).

9. The load-bearing bracket with deformation detection function according to claim 8, characterized in that: A fixing sleeve (603) is provided below the cross frame (601), a spring column (607) is provided between the fixing sleeve (603) and the cross frame (601), a spring damping layer is provided inside the spring column (607), cross columns (604) are provided at both ends of the fixing sleeve (603), an extension rod (605) is provided at one end of the cross column (604) away from the fixing sleeve (603), and an insertion rod (606) is provided at the lower end of the extension rod (605).

10. A load-bearing bracket with deformation detection function and a method for installing the same, comprising the load-bearing bracket with deformation detection function and a method for installing the same according to any one of claims 1 to 9, characterized in that: The following steps are involved: S1. Observe the equipment to be placed, select a suitable position, place the connecting support assembly (4) on the ground, and use the pillars (405) and the inclined frame (407) to support the four nodes. As the equipment is placed on the first bearing plate (101), observe the level ruler (115) to check the overall deflection, pull the fixing sleeve (603) to make the cross frame (601) slide along the slide groove (403), and its spring column (607) cooperates to stretch to reduce the upper bearing pressure, sink the extension rod (605) to reach a suitable ground depth, carry out support connection, and lock it with the positioning bolt (602); S2. Then, according to the shape of the equipment, the telescopic cylinder (205) drives the push rod (201) to drive the guide plate (202) to move and guide, and is installed through the keyway (204). With the pulling operation, the adjustment spring (206) cooperates with the movement and stretching to reduce the impact pressure of the equipment. The equipment can be positioned around by installing the sleeve (102). The adjustment shaft (305) is adjusted by the loose bolt (306) to reach a suitable angle so that the flattening plate (309) fits the outside of the equipment. The corresponding straightening structure can be installed through the straightening groove (311) to detect itself and the equipment deflection structure; S3. After the overall installation is completed, the device is placed on the first bearing plate (101), and the central part of the device is supported by the clamping ring sleeve (112) at the corners around it. The displacement sensor (113) promptly feeds back the displacement of the device on the flashing light (110), and synchronizes the weighing sensor (111) and the piezoelectric sensor (114); S4. The strain of the object being measured is measured using the piezoelectric effect, and the measured mass is converted into electrical quantity or mechanical quantity and outputted and fed back to the display screen (108) for easy observation and timely adjustment.

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