Installation method of modularized rapid assembly type double-bent frame

Abstract

The invention discloses an installation method of a modularized rapid assembly type double-bent frame. The installation method of the double-bent frame comprises the steps that firstly, wall body connecting modules are installed on a plane; acquiring installation data of the wall body connection module, processing the data, and judging whether the data meets requirements or not; otherwise, adjusting the connecting direction of the connecting piece and the plane until the condition meets the requirement, connecting the connecting piece module and the vertical rod module to the wall body connecting module, detecting whether the connecting piece module and the vertical rod module are vertical to the wall body connecting module or not, otherwise, adjusting the connecting piece module and the vertical rod module until the condition meets the requirement, and executing subsequent installation. According to the installation method of the modularized rapid assembly type double-bent frame, after the wall body connecting modules are installed, installation data of the wall body connecting modules are processed and judged, deviation can be adjusted in time, it is ensured that the installation position is accurate, and the overall firmness of the double-bent frame is improved.

Description

Technical Field

[0001] The invention relates to the technical field of double-row frames, and in particular to an installation method of a modular quick-assembly type double-row frame. Background Art

[0002] Double-row scaffolding is a commonly used scaffolding, which consists of two rows of vertical poles connected by horizontal poles and scissor braces. It has good stability and load-bearing capacity. During construction, it provides a safe working platform for personnel to facilitate various operations. The erection must strictly follow the specifications, from the foundation treatment to the setting of each component. It is related to safety. It can flexibly adapt to different construction needs and is indispensable in the construction field.

[0003] At present, the existing double-row frames lack a detection link during the installation process. This installation method is very likely to cause installation position deviation, which will greatly weaken the firmness of the double-row frames. Especially in high-altitude construction scenarios, the accidental risks caused by position deviation are significantly increased, posing a serious threat to construction safety. Summary of the invention

[0004] The purpose of the present invention is to provide a method for installing a modular quick-assembly double-row frame to solve the problems raised in the above-mentioned background technology.

[0005] To achieve the above object, the present invention provides the following technical solution: a method for installing a modular quick-assembly double-row frame, the installation steps of the double-row frame comprising:

[0006] S1: First install the wall connection module on the plane;

[0007] S2: Obtain the installation data of the wall connection module, process the data, and determine whether it meets the requirements. If so, execute S3; otherwise, adjust the connection direction of the connection piece and the plane until the conditions meet the requirements and execute S3;

[0008] S3: Connect the connector module and the pole module to the wall connection module, and check whether they are perpendicular to the wall connection module. If so, execute S4; otherwise, adjust the connector module and the pole module until the conditions meet the requirements and execute S4;

[0009] S4: Connecting the crossbar connection module to the vertical pole module, and connecting the anti-fall net and the diagonal rod module to the vertical pole module through the crossbar connection module to complete the installation of the double-row rack;

[0010] S5: Continuously monitor the double-row rack.

[0011] Preferably, the installation data includes the verticality of the wall connection module and the plane, the horizontality of the wall connection module and the horizontal plane, the verticality of the connector module and the wall connection module, and the bending degree of the wall connection module bearing the connector module and the vertical pole module;

[0012] The verticality is measured by the fourth detector, the horizontality is measured by the third detector, the verticality is measured by the first detector, and the curvature is measured by the second detector;

[0013] The first detector, the second detector, the third detector and the fourth detector are equipped with batteries and signal transmitters.

[0014] Preferably, the wall connection module includes a mounting plate arranged on the connecting head, the mounting plate is attached to a plane, the other end of the connecting head is also provided with a support rod, the support rod is connected to the fourth detector, a bearing plate is provided at the connection between the support rod and the fourth detector, the bearing plate is used to connect the third detector, a bearing beam and a supporting bridge are provided on the bearing plate, the bearing plate, the supporting bridge and the bearing beam form a triangle, the bearing beam is connected to the connecting member module, the first detector is arranged at the bottom of the connecting member module, one end of the bearing beam is connected to the second detector, and a connecting rod is also provided on the vertical pole module.

[0015] Preferably, the detailed installation steps of S1 include:

[0016] S11: plugging and installing the connector and the mounting plate on one side of the carrier plate, and installing a third detector and a fourth detector on the carrier plate;

[0017] S12: installing a supporting bridge and a bearing beam on the other side of the bearing plate, installing a second detector at one end of the bearing beam, and installing a first detector at the bottom of the bearing beam;

[0018] S13: Insert the connector on a plane, and the plane is flush with the mounting plate.

[0019] Preferably, the detailed steps of S2 and S5 include:

[0020] S21: The fourth detector and the third detector construct a Bayesian network, and transmit the network to the cloud platform to judge the data and summarize the settlement results;

[0021] S22: judging whether the connector and the plane installation meet the standards by summarizing the results;

[0022] S51: The first detector detects the verticality of the connector module and the vertical pole module with the wall connection module;

[0023] S52: The second detector detects the bending degree of the wall connection module;

[0024] S53: the third detector measures the levelness of the wall connection module and the horizontal plane;

[0025] S54: the fourth detector is used to measure the verticality of the connection between the connector and the carrier plate;

[0026] S55: Four sets of data are transmitted to the blockchain-based data center architecture. The sensors process the data, encrypt the data and transmit it to the data center through the federated learning protocol, and then feed it back.

[0027] Preferably, the connector module comprises: a screw rod provided on the wall connection module, and a connecting handle is connected to the screw rod.

[0028] Preferably, the pole module is provided with a first ring, the pole module is provided with a connecting hole, the pole module is also provided with a second ring, the first ring and the second ring are connected, the first ring and the second ring are provided with connectors, and the pole module is also provided with a protective plate.

[0029] Preferably, the crossbar connection module comprises: a crossbar connection member provided on the vertical bar module, a fixed plug rod plugged into the crossbar connection member, a crossbar connected to the crossbar connection member, a support plate placed on the crossbar, and a buckle member provided on the support plate;

[0030] The oblique rod module is provided with an oblique rod connector, the cross rod connector is provided with an oblique rod plug-in rod, and the oblique rod plug-in rod is connected to the oblique rod connector.

[0031] Preferably, the detailed steps of S3 include:

[0032] S31: Connecting the screw rod and the wall connection module using the connection handle;

[0033] S32: The first detector detects the screw rod to ensure that the screw rod and the wall connection module are vertical;

[0034] S33: connecting the first circular ring and the second circular ring with the connector, and connecting the guard plate to the first circular ring and the second circular ring;

[0035] S34: Connect the vertical pole module and the screw rod.

[0036] Preferably, the detailed steps of S4 include:

[0037] S41: inserting the crossbar connector onto the outside of the first circular ring or the second circular ring;

[0038] S42: inserting a fixed plug rod connected to the cross bar into the cross bar connecting member, and fixing the cross bar connecting member and the first ring or the second ring;

[0039] S43: setting up the support plate on the cross bar, and fastening the fastener on the cross bar;

[0040] S44: Insert the diagonal rod connector into the installed diagonal rod plug-in rod on the cross rod connector to fix the diagonal rod module.

[0041] Compared with the prior art, the present invention has the following beneficial effects:

[0042] The installation method of the modular quick-assembly double-row frame processes and judges the installation data after installing the wall connection module, can calibrate the deviation in time, ensure the accuracy of the installation position, and improve the overall firmness of the double-row frame.

[0043] The installation method of the modular quick-assembly double-row frame detects the verticality of the connector module and the vertical pole module with the wall connection module when installing the connector module and the vertical pole module, so as to further ensure the stability of the structure.

[0044] The installation method of this modular quick-assembly double-row frame includes an anti-fall net during the installation process to enhance the safety of high-altitude operations. Finally, continuous monitoring can timely discover potential problems, ensure safety during use, effectively reduce the risk of accidents in high-altitude construction, and provide strong protection for construction safety. BRIEF DESCRIPTION OF THE DRAWINGS

[0045] Figure 1 It is a flow chart of the installation steps of the present invention;

[0046] Figure 2 It is a structural schematic diagram of a double-row frame of the present invention;

[0047] Figure 3 It is a schematic diagram of the side view structure of the double-row frame of the present invention;

[0048] Figure 4 For the present invention Figure 3 A schematic diagram of the enlarged structure at A in the middle;

[0049] Figure 5 For the present invention Figure 2 A schematic diagram of the enlarged structure at B in the middle;

[0050] Figure 6 It is a structural schematic diagram of the wall connection module of the present invention;

[0051] Figure 7It is a structural schematic diagram of the pole module of the present invention;

[0052] Figure 8 It is a schematic diagram of the local structure of the pole module of the present invention.

[0053] In the figure: 1. wall connection module; 11. connector; 12. mounting plate; 13. support rod; 14. load-bearing plate; 15. support bridge; 16. load-bearing beam; 17. first detector; 18. second detector; 19. connecting rod; 110. third detector; 111. fourth detector; 2. connector module; 21. screw rod; 22. connecting handle; 3. vertical pole module; 31. first ring; 32. connecting hole; 33. second ring; 34. connector; 35. guard plate; 4. crossbar connection module; 41. crossbar connector; 42. fixed plug rod; 43. support plate; 44. buckle; 45. crossbar; 5. anti-fall net; 6. diagonal pole module; 61. diagonal pole connector; 62. diagonal pole plug rod. DETAILED DESCRIPTION

[0054] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0055] See also Figure 1 The present invention provides a technical solution: a method for installing a modular quick-assembly double-row frame, the installation steps of the double-row frame comprising:

[0056] S1: First install the wall connection module 1 on the plane to ensure that the wall connection module 1 can be stably connected to the plane of the building, plug the connector 11 and the wall plane, and fix them with bolts to ensure the stability of the device.

[0057] S2: Obtain the installation data of the wall connection module 1, process the data, and determine whether it meets the requirements. If so, execute S3; otherwise, adjust the connection direction of the connector and the plane until the conditions meet the requirements and execute S3. Check the wall connection module 1 to ensure that the wall connection module 1 and the building plane remain vertical when connecting the wall connection module 1, so as not to affect the tilt of the double-row frame. Secondly, ensure that the wall connection module 1 and the ground horizontal plane are parallel. In order to ensure that the double-row frame will not tilt outward or inward when connected to the wall connection module 1, it is avoided that the double-row frame is tilted due to uneven connection, which causes a safety hazard to the construction.

[0058] S3: Connect the connector module 2 and the pole module 3 to the wall connection module 1, and check whether they are perpendicular to the wall connection module 1. If so, execute S4, otherwise adjust the connector module 2 and the pole module 3 until the conditions meet the requirements and execute S4. The first detector 17 is used to ensure that the screw rod 21 and the load-bearing beam 16 can reach a vertical state, ensure that the pole module 3 subsequently installed on the screw rod 21 can be stable, and ensure that the downward gravity of the pole module 3 can remain perpendicular to the ground.

[0059] S4: Connect the cross bar connection module 4 to the vertical pole module 3, the cross bar connection module 4 is used to connect the two vertical pole modules 3, and can make the double-row frame have the function of carrying construction workers or construction tools, and connect the anti-fall net 5 and the diagonal bar module 6 to the vertical pole module 3 through the cross bar connection module 4 to complete the installation of the double-row frame. The anti-fall net 5 is to prevent accidents during high-altitude operations, and the diagonal bar module 6 is used to connect and fix the vertical pole module 3 and the cross bar connection module 4, so as to prevent the possibility of deformation of the double-row frame when using it, thereby reducing the occurrence of accidents.

[0060] S5: Continuous monitoring of the double-row racks. The subsequent four types of detectors will continuously monitor the double-row racks to ensure that any unexpected situations that occur during the use of the double-row racks can be predicted and the double-row racks can be adjusted in advance.

[0061] See also Figure 2 Figure 3The installation data includes the verticality of the wall connection module 1 and the plane. The verticality is used to ensure that the double-row frame can be parallel to the building plane, and the subsequent connecting rod 19 can stably connect the building plane and the double-row frame, the horizontality of the wall connection module 1 and the horizontal plane. The horizontality is used to ensure that the double-row frame and the ground remain level, and there is no possibility of a tilt, which will cause uneven force on all wall connection modules 1 and affect the service life of the double-row frame, the verticality of the connector module 2 and the wall connection module 1, and the verticality of the wall connection module 1 is used to ensure that the center of the double-row frame subsequently installed on the connector module 2 can be straight down vertically on the wall connection module 1, the bending degree of the wall connection module 1 carrying the connector module 2 and the vertical pole module 3, and the bending degree is used for the wall connection module The load-bearing capacity of block 1, if the load-bearing capacity of the double-row frame exceeds a certain range, it will cause the wall connection module 1 to tilt, the verticality is measured by the fourth detector 111, the horizontality is suitable for the third detector 110 to measure, the verticality is measured by the first detector 17, and the bending degree is measured by the second detector 18. The first detector 17, the second detector 18, the third detector 110 and the fourth detector 111 are equipped with batteries and signal generators. The battery can ensure that the detector does not require an external power supply. First, it can reduce the load-bearing capacity of the wall connection module 1, and second, it is more convenient. The detector can send the detected data signal to the data terminal, and the data terminal will summarize and monitor the data to ensure that the double-row frame is in a safe state when in use.

[0062] The wall connection module 1 includes a mounting plate 12 arranged on the connecting head 11, and the mounting plate 12 is used to be close to the building plane to ensure that a simple positioning can be achieved. When the connecting head 11 is adjusted after the subsequent detection of the fourth detector 111, there is a basis, and there is no need to make blind adjustments. The mounting plate 12 fits the plane, and you can first simply confirm that the wall connection module 1 is connected to the plane in a vertical state. The other end of the connecting head 11 is also provided with a support rod 13, and the support rod 13 is used to connect the connecting head 11 and the supporting plate 14 together to ensure that the connecting head 11 can support the supporting plate 14, and the support rod 13 is connected to the fourth detector 111. A supporting plate 14 is provided at the connection between the support rod 13 and the fourth detector 111, and the supporting plate 14 is used to carry the third detector 110 and the fourth detector 111, and is also used to connect the connecting head 11 and the support rod 13 with the supporting bridge 15 and the bearing beam 16 to ensure the wall connection module The completion of block 1, the load-bearing plate 14 is used to connect the third detector 110, and a load-bearing beam 16 and a support bridge 15 are provided on the load-bearing plate 14. The support bridge 15 and the load-bearing beam 16 are triangular in shape, which are used to strengthen the load-bearing capacity of the wall connection module 1. The load-bearing plate 14, the support bridge 15 and the load-bearing beam 16 form a triangle, which can have stronger support. The load-bearing beam 16 is connected to the connector module 2, and the load-bearing beam 16 is used as a load-bearing member of the connector module 2, thereby carrying the entire double-row frame. The first detector 17 is arranged at the bottom of the connector module 2. During installation, it is used to detect the connector module 2 and the upright module 3 to ensure the verticality of the connector module 2 and the load-bearing beam 16. One end of the load-bearing beam 16 is connected to the second detector 18. The second detector 18 is used to monitor the subsequent use of the double-row frame. A connecting rod 19 is also provided on the upright module 3. The connecting rod 19 is used to connect the subsequent height of the double-row frame to the plane to enhance the stability of the double-row frame.

[0063] See also Figure 6 , the detailed installation steps of S1 include:

[0064] S11: plug and install the connector 11 and the mounting plate 12 on one side of the carrier plate 14 for basic connection, and install the third detector 110 and the fourth detector 111 on the carrier plate 14 to detect the connector 11 and perform subsequent monitoring work.

[0065] S12: A support bridge 15 and a load-bearing beam 16 are installed on the other side of the load-bearing plate 14. The support bridge 15 is used to support the load-bearing beam 16. The load-bearing beam 16 is used to support the connector module 2 and the vertical pole module 3. A second detector 18 is installed at one end of the load-bearing beam 16. The second detector 18 is used to subsequently monitor the load-bearing capacity of the wall connection module 1. A first detector 17 is installed at the bottom of the load-bearing beam 16. The first detector 17 is used to determine the verticality of the connector module 2 and then the vertical pole module 3, so as to ensure that its own gravity can be borne on the load-bearing beam 16.

[0066] S13: Insert the connector 11 on a plane, and make sure that the plane is flush with the mounting plate 12.

[0067] The detailed steps of S2 and S5 include:

[0068] S21: The fourth detector 111 and the third detector 110 construct a Bayesian network. Bayesian reasoning can update the probability distribution based on prior knowledge and new observation data. The data of the vertical angle sensor and the horizontal angle sensor are regarded as two different observation variables, and a Bayesian network (directed acyclic graph) is constructed. In this network, nodes represent variables (such as vertical angle, horizontal angle, possible interference factors, etc.), and edges represent the probabilistic dependencies between variables. There may be some hidden factors (such as ambient temperature, magnetic field interference, etc.) that affect the measurement accuracy of the vertical and horizontal angle sensors at the same time. By establishing a joint probability distribution P(V,H,I) for these variables, where V represents the vertical angle, H represents the horizontal angle, and I represents the interference factor, using the Bayesian formula To update the angle estimate, the prior probability distribution P(V) of the vertical angle sensor's measurement accuracy in the absence of interference and the prior probability distribution P(H) of the horizontal angle sensor are known. When a new set of measurements appears, and considering the possible interference factor I, the conditional probability P(I|V,H) between the interference factor and the angle measurement value is obtained through historical data or experiments, and the posterior probability distribution P(V,H|I) under given interference conditions can be calculated, thereby obtaining a more accurate fusion estimate of the vertical and horizontal angles. This method combined with the graphical model can intuitively represent complex variable relationships, and can effectively handle uncertainty, and transmit it to the gimbal to judge the data and summarize the settlement results;

[0069] S22: judging whether the connector 11 and the plane installation meet the standards through the summary results; if not, the connection position between the connector 11 and the building plane needs to be adjusted until it reaches a qualified position;

[0070] S51: The first detector 17 monitors the verticality of the connector module 2 and the upright module 3 with the wall connection module 1 in real time to ensure that no unexpected situation occurs when the double-row rack is used;

[0071] S52: The second detector 18 monitors the bending degree of the wall connection module 1 in real time to prevent the double-row frame from being accidentally overloaded by weighing, thereby causing the double-row frame to tilt;

[0072] S53: The third detector 110 monitors the levelness of the wall connection module 1 and the horizontal plane in real time to prevent the foundation wall connection module 1 of the double-row frame from tilting;

[0073] S54: The fourth detector 111 is used to monitor the verticality of the connection between the connector 11 and the carrier plate 14 to ensure that the wall connection module 1 can always be vertical to the connection plane and that the support force of the plane on the wall connection module 1 will not tilt;

[0074] S55: Four sets of data are transmitted to the blockchain-based data center architecture. The sensor processes the data and transmits it to the data center in an encrypted manner through a federated learning protocol. In the IoT environment, sensor data is usually generated on edge devices (computing devices close to the sensors). Edge computing can perform preliminary data processing and feature extraction on these edge devices. For vertical and horizontal angle sensor data, edge devices can perform simple filtering, normalization and other operations on the data and extract some local features. Then, these local features (rather than raw data) are transmitted to the data center through federated learning. In the data center, the feature models of each edge device are aggregated and fused. Multiple IoT nodes (such as smart robots) with vertical and horizontal angle sensors deployed, each robot's edge computing unit processes its own sensor data, such as calculating features such as angle change rate and angle difference. These features are transmitted to the data center in an encrypted manner (to protect data privacy) through a federated learning protocol. The data center uses these features from different edge devices to build a global angle estimation model. This architecture can not only reduce the amount of data transmission, but also protect data privacy, while making full use of the computing power of edge devices to achieve more efficient data aggregation and processing, and then feedback.

[0075] See also Figure 4 - Figure 8 The connector module 2 includes: a screw rod 21 arranged on the wall connection module 1, a threaded hole is opened on the load-bearing beam 16, the size of the threaded hole is consistent with the size of the screw rod 21, so as to ensure that the screw rod 21 can be rotated and screwed into the load-bearing beam 16, and a connecting handle 22 is connected to the screw rod 21, and the connecting handle 22 can better control the rotation of the screw rod 21.

[0076] A first ring 31 is provided on the upright module 3, and the first ring 31 is fixed on the upright module 3 through a connecting hole 32. A connecting hole 32 is provided on the upright module 3, and the connecting hole 32 is used to fix the first ring 31. A second ring 33 is also provided on the upright module 3, and the second ring 33 and the first ring 31 are connected by a connector 34 to ensure that the first ring 31 and the second ring 33 can rotate. The first ring 31 and the second ring 33 are connected, and a connector 34 is provided on the first ring 31 and the second ring 33. A connecting hole is provided on the first ring 31 and the second ring 33, and the connecting hole is used to cooperate with the cross bar connection module 4 for connection. A guard plate 35 is also provided on the upright module 3, and the guard plate 35 is used to prevent accidents and limit the materials carried on the cross bar connection module 4 during use to prevent the materials from accidentally falling during use.

[0077] The crossbar connection module 4 includes: a crossbar connection member 41 arranged on the vertical bar module 3, a plug-in groove is opened at the outer end of the crossbar connection member 41, the plug-in groove is used to clamp the first ring 31 or the second ring 33, and then the fixed plug-in rod 42 is plugged into the crossbar connection member 41, so that the crossbar connection member 41 can be fixed on the first ring 31 or the second ring 33, the fixed plug-in rod 42 plugged into the crossbar connection member 41, the fixed plug-in rod 42 is used to be plugged into the crossbar connection member 41, so that the connection of the crossbar connection member 41 can be fixed, and a crossbar 45 connected to the crossbar connection member 41, the crossbar 45 is plugged into the crossbar connection member 41, and the crossbar 45 is mainly used to carry the support plate 43, and the support plate 43 placed on the crossbar 45 3. A buckle 44 is provided on the support plate 43, and the support plate 43 can be mounted on the cross bar 45 through the buckle 44. Buckles 44 are provided at both ends of the support plate 43, and the buckle 44 is used to limit the support plate 43 to prevent movement. A bevel bar connector 61 is provided on the bevel bar module 6, and the bevel bar connector 61 is used to connect the bevel bar plug-in rod 62 with the bevel bar module 6. A plug-in hole with a size matching the bevel bar plug-in rod 62 is provided on the bevel bar connector 61, and is used to cooperate with the plug-in work of the bevel bar plug-in rod 62, so as to connect the bevel bar module 6 to the cross bar connector 41. A bevel bar plug-in rod 62 is provided on the cross bar connector 41, and the bevel bar plug-in rod 62 is connected to the bevel bar connector 61.

[0078] The detailed steps of S3 include:

[0079] S31: Connect the screw rod 21 and the wall connection module 1 with the connecting handle 22. The connecting handle 22 facilitates the manipulation of the screw rod 21 for rotation. Rotating the connecting handle 22 drives the screw rod 21 to rotate, thereby connecting the screw rod 21 to the wall connection module 1.

[0080] S32: The first detector 17 detects the screw rod 21 to ensure that the screw rod 21 is perpendicular to the wall connection module 1, thereby preventing accidents from occurring during subsequent use;

[0081] S33: Connect the first circular ring 31 and the second circular ring 33 with the connector 34, and perfectly fit them on the vertical pole module 3, and connect the guard plate 35 to the first circular ring 31 and the second circular ring 33, so that the guard plate 35 prevents the material carried by the horizontal pole connection module 4 from accidentally falling off;

[0082] S34: Connect the pole module 3 and the screw rod 21 to complete the assembly of the pole module 3 and the connector module 2. One end of the pole module 3 is provided with a threaded hole, which is used to connect with the screw rod 21.

[0083] S4 detailed steps include:

[0084] S41: insert the crossbar connector 41 into the outside of the first circular ring 31 or the second circular ring 33 , and insert the crossbar connector 41 and the first circular ring 31 or the second circular ring 33 to fix the crossbar 45 .

[0085] S42: inserting the fixed plug rod 42 connected with the cross bar 45 into the cross bar connecting member 41, fixing the cross bar connecting member 41 and the first ring 31 or the second ring 33, and connecting the cross bar connecting module 4 and the vertical pole module 3;

[0086] S43: A support plate 43 is set up on the cross bar 45. The support plate 43 is used to carry materials or construction workers. The buckle 44 is buckled on the cross bar 45, so as to limit the support plate 43 to prevent accidents when the support plate 43 is in use;

[0087] S44: Insert the diagonal rod connector 61 into the diagonal rod plug-in rod 62 on the installed cross bar connector 41 to fix the diagonal rod module 6. The diagonal rod module 6 is used to ensure the stability of the double-row frame and ensure that the double-row frame will not be deformed during use.

[0088] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A method for installing a modular quick-assembly double-row rack, characterized in that: The installation steps of the double-row rack include: S1: First install the wall connection module (1) on the plane; S2: Obtain the installation data of the wall connection module (1), process the data, and determine whether the requirements are met. If so, execute S3; otherwise, adjust the connection direction of the connection piece and the plane until the conditions meet the requirements and execute S3; S3: Connect the connector module (2) and the pole module (3) to the wall connection module (1), and detect whether they are perpendicular to the wall connection module (1). If so, execute S4; otherwise, adjust the connector module (2) and the pole module (3) until the conditions meet the requirements and execute S4; S4: Connecting the crossbar connection module (4) to the vertical pole module (3), and connecting the anti-fall net (5) and the diagonal rod module (6) to the vertical pole module (3) through the crossbar connection module (4), thereby completing the installation of the double-row frame; S5: Continuous monitoring of double-row racks.

2. The method for installing a modular quick-assembly double-row frame according to claim 1, characterized in that: The installation data includes the verticality of the wall connection module (1) and the plane, the horizontality of the wall connection module (1) and the horizontal plane, the verticality of the connector module (2) and the wall connection module (1), and the bending degree of the wall connection module (1) carrying the connector module (2) and the vertical pole module (3); The verticality is measured by the fourth detector (111), the horizontality is measured by the third detector (110), the verticality is measured by the first detector (17), and the curvature is measured by the second detector (18); The first detector (17), the second detector (18), the third detector (110) and the fourth detector (111) are equipped with a storage battery and a signal transmitter.

3. The method for installing a modular quick-assembly double-row frame according to claim 2, characterized in that: The wall connection module (1) comprises a mounting plate (12) arranged on a connection head (11), wherein the mounting plate (12) is attached to a plane, and a support rod (13) is further provided at the other end of the connection head (11), wherein the support rod (13) is connected to the fourth detector (111), and a bearing plate (14) is provided at the connection between the support rod (13) and the fourth detector (111), wherein the bearing plate (14) is used to connect the third detector (110), and a bearing beam (16) and a supporting bridge (15) are provided on the bearing plate (14), wherein the bearing plate (14), the supporting bridge (15) and the bearing beam (16) form a triangle, and the bearing beam (16) is connected to the connection module (2), wherein the first detector (17) is arranged at the bottom of the connection module (2), and one end of the bearing beam (16) is connected to the second detector (18), and a connecting rod (19) is further provided on the vertical pole module (3).

4. The method for installing a modular quick-assembly double-row frame according to claim 3 is characterized in that: The detailed installation steps of S1 include: S11: plugging and mounting the connector (11) and the mounting plate (12) on one side of the carrier plate (14), and mounting a third detector (110) and a fourth detector (111) on the carrier plate (14); S12: installing a support bridge (15) and a load-bearing beam (16) on the other side of the load-bearing plate (14), installing a second detector (18) on one end of the load-bearing beam (16), and installing a first detector (17) on the bottom of the load-bearing beam (16); S13: Insert the connector (11) onto a plane, with the plane being flush with the mounting plate (12).

5. The method for installing a modular quick-assembly double-row frame according to claim 3, characterized in that: The detailed steps of S2 and S5 include: S21: the fourth detector (111) and the third detector (110) construct a Bayesian network, and transmit the data to the cloud platform for data evaluation and summary of settlement results; S22: judging whether the connector (11) and the plane installation meet the standards by summarizing the results; S51: The first detector (17) monitors the verticality of the connector module (2) and the vertical pole module (3) with respect to the wall connection module (1); S52: the second detector (18) monitors the bending degree of the wall connection module (1); S53: the third detector (110) monitors the levelness of the wall connection module (1) and the horizontal plane; S54: the fourth detector (111) is used to monitor the verticality of the connection between the connecting head (11) and the carrying plate (14); S55: Four sets of data are transmitted to the blockchain-based data center architecture. The sensors process the data, encrypt the data and transmit it to the data center through the federated learning protocol, and then feed it back.

6. The method for installing a modular quick-assembly double-row frame according to claim 2, characterized in that: The connector module (2) comprises: a screw rod (21) arranged on the wall connection module (1), and a connecting handle (22) is connected to the screw rod (21).

7. The method for installing a modular quick-assembly double-row frame according to claim 6, characterized in that: The pole module (3) is provided with a first circular ring (31), the pole module (3) is provided with a connecting hole (32), the pole module (3) is also provided with a second circular ring (33), the first circular ring (31) and the second circular ring (33) are connected, the first circular ring (31) and the second circular ring (33) are provided with plug-in components (34), and the pole module (3) is also provided with a protective plate (35).

8. The method for installing a modular quick-assembly double-row frame according to claim 7, characterized in that: The crossbar connection module (4) comprises: a crossbar connection member (41) arranged on the vertical bar module (3), a fixed plug rod (42) plugged into the crossbar connection member (41), a crossbar (45) connected to the crossbar connection member (41), a support plate (43) arranged on the crossbar (45), and a buckle (44) is provided on the support plate (43); The oblique rod module (6) is provided with an oblique rod connector (61), the cross rod connector (41) is provided with an oblique rod plug-in rod (62), and the oblique rod plug-in rod (62) is connected to the oblique rod connector (61).

9. The method for installing a modular quick-assembly double-row rack according to claim 8, characterized in that: The detailed steps of S3 include: S31: connecting the screw rod (21) and the wall connection module (1) using the connection handle (22); S32: The first detector (17) detects the screw rod (21) to ensure that the screw rod (21) and the wall connection module (1) are perpendicular; S33: Connecting the first circular ring (31) and the second circular ring (33) with the connector (34), and connecting the protective plate (35) to the first circular ring (31) and the second circular ring (33); S34: Connecting the upright pole module (3) and the screw rod (21).

10. The method for installing a modular quick-assembly double-row rack according to claim 9, characterized in that: The detailed steps of S4 include: S41: inserting the crossbar connector (41) onto the outside of the first circular ring (31) or the second circular ring (33); S42: inserting a fixed plug rod (42) connected to a cross bar (45) onto the cross bar connecting member (41), and fixing the cross bar connecting member (41) and the first circular ring (31) or the second circular ring (33); S43: The support plate (43) is placed on the cross bar (45), and the fastening member (44) is fastened to the cross bar (45); S44: Insert the diagonal rod connector (61) into the diagonal rod plug-in rod (62) installed on the cross rod connector (41) to fix the diagonal rod module (6).

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