Connecting device and building equipment

Abstract

The invention relates to the technical field of building connection, in particular to a connecting device and building equipment. The connecting device comprises an adjusting component, the adjusting component comprises a driving assembly, a hinge assembly and an adjusting assembly, the driving assembly comprises a driving component, the hinge assembly comprises a transmission component, one end of the adjusting assembly is hinged to the transmission component, and the other end of the adjusting assembly is used for being hinged to a building component. The driving component rotates to drive the transmission component to move in the first direction so as to drive the other end of the adjusting assembly to drive the building component to move in the second direction, and the first direction and the second direction intersect. In this way, the driving assembly rotates so that the hinge assembly can drive the adjusting assembly to move, the tensioning degree can be flexibly adjusted, the situation that the connecting position of the building component is broken due to excessive deformation is prevented, the integrity and reliability of the structure are enhanced, the shockproof capacity and construction convenience are improved, and the device can adapt to complex connecting conditions.

Description

Technical Field

[0001] This application relates to the technical field of building connections, and in particular, to a connection device and construction equipment. Background Art

[0002] In a concrete structure, steel bars can be connected by tying, which is easy to operate. However, the connection strength of this method is limited. Traditional brick walls are usually connected by a masonry method using cement mortar as the bonding material. At corners, T-shaped intersections and other parts, measures such as staggering joints and setting tie bars are taken to enhance the integrity of the wall. However, this connection method is easily affected by factors such as the mortar fullness and the quality of bricks, and the seismic performance of the wall is relatively weak. In this way, the connection strength between building components in construction is limited, the construction period is long, the seismic capacity is relatively weak, and it is easy to deform and crack.

[0003] Therefore, in view of this situation, a connection device and construction equipment are needed to at least partially solve the problems existing therein. Summary of the Invention

[0004] A series of simplified concepts are introduced in the summary of the application part, which will be further described in detail in the specific implementation part. The summary of the application part of this application does not mean to attempt to define the key features and essential technical features of the claimed technical solution, nor does it mean to attempt to determine the protection scope of the claimed technical solution.

[0005] According to one aspect of the present application, a connection device is provided for connecting building components. The connection device includes an adjustment component, and the adjustment component includes:

[0006] A driving assembly, the driving assembly including a driving member;

[0007] A hinge assembly, the hinge assembly including a transmission member; and

[0008] An adjustment assembly, one end of the adjustment assembly is hinged to the transmission member, and the other end of the adjustment assembly is used for hinging to the building component,

[0009] Wherein, the rotation of the driving member can drive the transmission member to move in a first direction, so as to drive the other end of the adjustment assembly to drive the building component to move in a second direction, and the first direction and the second direction intersect.

[0010] The connecting device according to the present application is used to connect building components. The connecting device includes an adjusting component, and the adjusting component includes a driving assembly, a hinged assembly, and an adjusting assembly. The driving assembly includes a driving member, the hinged assembly includes a transmission member, one end of the adjusting assembly is hinged to the transmission member, and the other end of the adjusting assembly is used to be hinged to the building component. Wherein, when the driving member rotates, it can drive the transmission member to move along a first direction, so as to drive the other end of the adjusting assembly to drive the building component to move along a second direction, and the first direction and the second direction intersect. In this way, when the driving assembly rotates, the hinged assembly can drive the adjusting assembly to move, and the adjusting assembly moves to compensate for the deformation displacement of the building component, having a relatively high tensile strength, and being able to flexibly adjust the tension, preventing the joints of the building component from deforming too much and breaking, enhancing the integrity and reliability of the structure, improving the earthquake resistance ability and construction convenience, and being able to adapt to complex connection situations.

[0011] Optionally, the adjusting assembly includes a rotating member and an adjusting member. One end of the adjusting member is hinged to the transmission member, and the rotating member is arranged at the other end of the adjusting member, and the rotating member is used to be hinged to the building component.

[0012] Optionally, the adjusting assembly includes a first rotating member and a second rotating member, the first rotating member and the second rotating member are meshed with each other, and both the first rotating member and the second rotating member are used to be hinged to the same building component.

[0013] Optionally, the adjusting assembly further includes a third rotating member and a fourth rotating member, the third rotating member and the fourth rotating member are meshed with each other, and both the third rotating member and the fourth rotating member are used to be hinged to another building component.

[0014] Optionally, the moving direction of the third rotating member is opposite to the moving direction of the first rotating member, and the moving direction of the fourth rotating member is opposite to the moving direction of the second rotating member.

[0015] Optionally, the hinged assembly includes at least two transmission members, and the two transmission members are arranged opposite to each other along the first direction and have opposite moving directions.

[0016] Optionally, the adjusting assembly includes at least two adjusting members, and two of the at least two adjusting members are both hinged to one transmission member, and the other two of the at least two adjusting members are both hinged to another transmission member.

[0017] Optionally, the hinged assembly further includes at least two hinged members, and the at least two hinged members are respectively hinged to at least two adjusting members.

[0018] Optionally, the articulated member and the transmission member are respectively arranged at two ends of the adjusting member.

[0019] Optionally, the adjusting component further includes a connecting assembly, and the connecting assembly is articulated with at least two of the articulated members.

[0020] Optionally, the connecting assembly includes a connecting member, two of at least two of the articulated members are both articulated with one connecting member, and the other two of at least two of the articulated members are both articulated with another connecting member.

[0021] Optionally, the driving member includes at least two external threads, the at least two external threads are respectively meshed with at least two of the transmission members, the at least two external threads are arranged at intervals along the first direction, and the thread directions of adjacent external threads are opposite.

[0022] Optionally, the connecting device further includes a tensioning component and a sealing component, the tensioning component is used for connecting the adjusting component and the building component, and the sealing component is used for filling between the adjusting component and the building component.

[0023] Optionally, the connecting device further includes a receiving component, the adjusting component is arranged in the receiving component, the adjusting component further includes a connecting assembly, the receiving component is provided with a guiding assembly, and the connecting assembly is movably connected with the guiding assembly along the second direction.

[0024] According to another aspect of the present application, there is also provided a construction device, the construction device includes a building component and the above-mentioned connecting device, the connecting device connects the building component, the adjusting component includes a driving assembly, an articulated assembly and an adjusting assembly, the driving assembly includes a driving member, the articulated assembly includes a transmission member, one end of the adjusting assembly is articulated with the transmission member, and the other end of the adjusting assembly is used for being articulated with the building component, wherein, when the driving member rotates, it can drive the transmission member to move along the first direction, so as to drive the other end of the adjusting assembly to drive the building component to move along the second direction, and the first direction and the second direction intersect. In this way, when the driving assembly rotates, the articulated assembly can drive the adjusting assembly to move, and the adjusting assembly moves to compensate for the deformation displacement of the building component, has a high tensile strength, and can flexibly adjust the tension, prevent the connection part of the building component from deforming too much and breaking, enhance the integrity and reliability of the structure, improve the earthquake resistance ability and construction convenience, and can adapt to complex connection situations. (20) BRIEF DESCRIPTION OF THE DRAWINGS

[0025] The following drawings of the present application are here as a part of the present application for understanding the present application. The embodiments of the present application are shown in the drawings and their descriptions are used to explain the device and principle of the present application. In the drawings,

[0026] Figure 1 Schematic diagram of the structure of a connecting device according to a preferred embodiment of the present application;

[0027] Figure 2 is Figure 1 front view schematic diagram of the connecting device shown; and

[0028] Figure 3 is Figure 2 front view schematic diagram of the adjusting member shown, in which the connecting assembly is omitted.

[0029] Explanation of reference numerals:

[0030] 1: Connecting device; 2: Building component;

[0031] 10: Tensioning member;

[0032] 101: First tensioning assembly; 102: Second tensioning assembly;

[0033] 20: Sealing member;

[0034] 30: Adjusting member;

[0035] 31: Adjusting assembly;

[0036] 311: First adjusting member; 312: Second adjusting member; 313: Third adjusting member; 314: Fourth adjusting member; 315: First rotating member; 316: Second rotating member; 317: Third rotating member; 318: Fourth rotating member;

[0037] 32: Hinge assembly;

[0038] 321: First hinge member; 322: First transmission member; 323: Second hinge member; 324: Third hinge member; 325: Second transmission member; 326: Fourth hinge member;

[0039] 34: Driving assembly;

[0040] 341: Driving member;

[0041] 35: Connecting assembly;

[0042] 351: First connecting member; 352: Second connecting member; 353: Elastic member;

[0043] 40: Accommodating member;

[0044] 41: Guide assembly. Detailed implementation mode

[0045] In the following description, numerous specific details are set forth in order to provide a more thorough understanding of the present application. However, it will be apparent to one of ordinary skill in the art that the present application may be practiced without one or more of these specific details. In other instances, well-known features have not been described in order to avoid obscuring the present application.

[0046] In order to thoroughly understand the present application, detailed parts will be presented in the following description to illustrate the present application. Obviously, the implementation of the present application is not limited to the specific details familiar to those skilled in the art of this technology. The preferred embodiments of the present application are described in detail below. However, in addition to these detailed descriptions, the present application may have other embodiments and should not be construed as limited to the embodiments presented herein.

[0047] It should be understood that the purpose of the terms used herein is only to describe specific embodiments and is not a limitation of the present application. The singular forms "a", "an", and "the" are also intended to include the plural forms unless the context clearly indicates otherwise. When the terms "comprise" and / or "include" are used in this specification, they specify the presence of the stated features, integers, steps, operations, elements, and / or components, but do not preclude the presence or addition of one or more other features, integers, steps, operations, elements, components, and / or combinations thereof. The terms "upper", "lower", "front", "rear", "left", "right", and similar expressions used in the present application are for illustrative purposes only and are not limiting.

[0048] The ordinal numbers such as "first" and "second" cited in the present application are merely identifiers and do not have any other meanings, such as a specific order, etc. In the present application, unless otherwise clearly specified and limited, the first feature being "on" or "under" the second feature may include the first and second features being in direct contact, or may include the first and second features not being in direct contact but being in contact through other features therebetween. Moreover, the first feature being "above", "over", and "on top of" the second feature includes the first feature being directly above and obliquely above the second feature, or merely indicating that the first feature has a higher horizontal height than the second feature. The first feature being "under", "below", and "beneath" the second feature includes the first feature being directly below and obliquely below the second feature, or merely indicating that the first feature has a lower horizontal height than the second feature.

[0049] Hereinafter, specific embodiments of the present application will be described in more detail with reference to the accompanying drawings, which show representative embodiments of the present application and do not limit the present application.

[0050] As Figure 1As shown, the present application provides a connecting device 1 for connecting building components. The connecting device 1 can enhance the connection strength between building components, form a seal at the connection part of the building components, and provide elastic buffering between the building components, so that the stress distribution is balanced. The connecting device 1 has a high tensile strength and can flexibly adjust the tension, enhancing the stability and adaptability of the connection. It can also solve the deficiencies of traditional building connection methods in terms of tensile performance, deformation adaptability, and connection stability adjustment, meeting the requirements for reliable connection of building components under complex working conditions.

[0051] As an alternative embodiment, the connecting device 1 can connect two adjacent building components. The connecting device 1 is located between two adjacent building components. One end of the connecting device 1 is connected to one building component, and the other end of the connecting device 1 is connected to another building component. The two building components are connected by the connecting device 1. When the two building components deform, they move away from each other. The connecting device 1 can enhance the connection strength between the building components, form a seal at the connection part of the building components, and provide elastic buffering between the building components, compensating for the movement amount between the two building components and improving the stability and load-bearing capacity of the entire structure.

[0052] As another alternative embodiment, the connecting device 1 can be connected to a building component. When a building component deforms, the building component moves away from the connecting device 1. The connecting device 1 can compensate for the movement amount of the building component, provide elastic buffering, form a seal with the connection part of the building component, improve the structural strength, and reduce the damage of the building component.

[0053] The connecting device 1 is simple and convenient to disassemble and install, can quickly connect the building components, and improves the construction efficiency. When a building component is damaged and needs to be repaired or replaced, the connecting device 1 is separated from the building component without affecting the stability of the overall structure. After the building component is repaired or replaced, the connecting device 1 is reconnected to the building component to restore the integrity of the structure, improving the construction convenience.

[0054] Specifically, the connecting device 1 includes an adjusting component 30, and the adjusting component 30 is connected to the building component. The adjusting component 30 can compensate for the changing movement amount of the building component, thereby improving the integrity of the structure. The adjusting component 30 can compensate for the movement distance between two adjacent building components, keeping the two building components in a connected state and preventing fractures between the building components.

[0055] The adjusting member 30 includes a hinged assembly 32 and a driving assembly 34. The driving assembly 34 includes a driving member 341. The hinged assembly includes a transmission member. The driving member 341 is connected to the transmission member. The transmission member is sleeved outside the driving member 341. The axial direction of the driving member 341 is parallel to the axial direction of the transmission member. The axial direction of the driving member 341 is parallel to the first direction D1.

[0056] The driving member 341 can rotate to drive the transmission member to move. The driving member 341 can rotate. The driving member 341 can rotate about the axial direction of the driving member 341. The driving member 341 can rotate about the first direction D1 to drive the transmission member to move along the first direction D1. In this way, the rotation of the driving member 341 can make the transmission member move linearly.

[0057] The driving member 341 can rotate in two directions, so that the transmission member moves in two directions. When the driving member 341 rotates in one direction, the transmission member can move in one direction. When the driving member 341 rotates in the other direction, the transmission member can move in the other direction.

[0058] Exemplarily, the driving member 341 can rotate forward or backward. When the driving member 341 rotates forward, the transmission member moves upward along the first direction D1. When the driving member 341 rotates backward, the transmission member moves downward along the first direction D1. In this embodiment, "up" refers to the direction towards the top of the driving member 341, and "down" refers to the direction towards the bottom of the driving member 341.

[0059] The rotation of the driving member 341 can make the transmission member move along the first direction D1. Thus, the rotational motion of the driving member 341 is converted into the linear motion of the transmission member. In this way, the rotation speed and number of turns of the driving member 341 can control the moving distance of the hinged assembly 32.

[0060] The adjusting member 30 further includes an adjusting assembly 31. One end of the adjusting assembly 31 is hinged to the transmission member. The transmission member can drive one end of the adjusting assembly 31 to move. The transmission member drives one end of the adjusting assembly 31 to move along the first direction D1. One end of the adjusting assembly 31 drives the other end of the adjusting assembly 31 to move. The moving direction of one end of the adjusting assembly 31 can be different from the moving direction of the other end of the adjusting assembly 31. The other end of the adjusting assembly 31 can move along the second direction D2. Preferably, the adjusting assembly 31 is configured as a connecting rod. In this way, the two ends of the adjusting assembly 31 can move towards different directions respectively.

[0061] The other end of the adjusting component 31 is used for being hinged to a building component. The other end of the adjusting component 31 can move along the second direction D2. The other end of the adjusting component 31 can move in the direction approaching the building component. The other end of the adjusting component 31 can also move in the direction away from the building component. In this way, the movement of the hinged component 32 drives the movement of the adjusting component 31 to adjust the spacing between the building components.

[0062] The rotation of the driving component 341 can drive the transmission component to move along the first direction D1, so as to drive the other end of the adjusting component 31 to drive the building component to move along the second direction D2. Specifically, the rotation of the driving component 341 enables the transmission component to move along the first direction D1, thereby driving the movement of the adjusting component 31, and further driving the building component to move along the second direction D2. In this way, the operation is simple and convenient, which can ensure the tightness and stability of the connection of the building components, keep the building components in a connected state, and thus adapt to complex structures or various scenarios with high requirements for connection performance.

[0063] The deformation of the adjusting component 31 can also absorb and disperse the impact force to resist the movement and deformation of the building component under the action of external force, can better adapt to the complex and changeable environment, enable the building component to maintain the integrity and stability of the structure under the action of earthquake, reduce the damage of the building component, and thus improve the seismic performance of the building component. The deformation of the adjusting component 31 reduces the probability of maintenance and replacement of the building component and increases the service life of the building component.

[0064] The connecting device 1 connects the building components. The disassembly and installation are simple and convenient. It can quickly connect the building components, improve the construction efficiency, reduce the construction procedures added by using traditional connection methods, save the construction time for maintenance or replacement, speed up the construction progress, and improve the construction convenience.

[0065] The connecting device 1 according to the present application is used for connecting building components. The connecting device 1 includes an adjusting component 30. The adjusting component 30 includes a driving assembly 34, a hinged assembly 32 and an adjusting component 31. The driving assembly 34 includes a driving component 341. The hinged assembly 32 includes a transmission component. One end of the adjusting component 31 is hinged to the transmission component. The other end of the adjusting component 31 is used for being hinged to a building component. Wherein, the rotation of the driving component 341 can drive the transmission component to move along the first direction D1, so as to drive the other end of the adjusting component 31 to drive the building component to move along the second direction D2, and the first direction D1 and the second direction D2 intersect. In this way, the rotation of the driving assembly 34 can enable the hinged assembly 32 to drive the adjusting component 31 to move. The adjusting component 31 moves to compensate for the deformation displacement of the building component, has a high tensile strength, and can flexibly adjust the tension, prevent the deformation at the connection of the building component from being too large and causing fracture, enhance the integrity and reliability of the structure, improve the earthquake resistance ability and construction convenience, and can adapt to complex connection situations.

[0066] The adjusting assembly 31 includes a rotating member and an adjusting member, and the rotating member is connected to the adjusting member. The movement of the adjusting member can drive the movement of the rotating member. Optionally, the rotating member and the adjusting member can be integrally formed to enhance the structural stability and improve the transmission efficiency.

[0067] Both ends of the adjusting member along the length direction of the adjusting member are respectively connected to the rotating member and the transmission member. One end of the adjusting member is connected to the transmission member, and the movement of the transmission member can drive one end of the adjusting member to linearly move along the first direction D1. The adjusting member and the transmission member are rotatably connected together. The adjusting member can rotate relative to the transmission member, so that the movement directions of the two ends of the adjusting member are different. The adjusting member can rotate around the axial direction of the transmission member. The other end of the adjusting member can move along the second direction D2.

[0068] The other end of the adjusting member is provided with a rotating member. The movement of the other end of the adjusting member can drive the movement of the rotating member. The other end of the adjusting member drives the rotating member to move along the second direction D2. The rotating member is used for hinging with the building member. The movement of the rotating member can adjust the distance between the rotating member and the building member. The rotating member can move towards the direction close to the building member. The rotating member can also move towards the direction away from the building member. In this way, the adjusting assembly 31 can adjust the distance between the rotating member and the building member by moving, ensuring the tightness and stability of the connection of the building member.

[0069] Preferably, the adjusting assembly 31 includes at least two rotating members and at least two adjusting members, and the at least two rotating members are respectively connected to the at least two adjusting members. Two of the at least two adjusting members are connected to each other. Preferably, two of the at least two adjusting members are hinged to each other. The two adjusting members can be symmetrical along the first direction D1. The other two adjusting members can also be symmetrical along the second direction D2.

[0070] Two of the at least two rotating members can rotate relative to each other. Two of the at least two rotating members can mesh with each other. In this way, all of the at least two adjusting members can transmit the same force and torque to the at least two rotating members, so that the moving distances of the at least two rotating members are the same.

[0071] Specifically, in combination with Figure 3As shown, the adjusting assembly 31 includes a first rotating member 315 and a second rotating member 316. The first rotating member 315 and the second rotating member 316 are each connected to at least two adjusting members. The movement of at least two adjusting members can drive the first rotating member 315 and the second rotating member 316 to move respectively. The moving directions of the first rotating member 315 and the second rotating member 316 are the same. The first rotating member 315 and the second rotating member 316 both move linearly along the second direction D2.

[0072] The first rotating member 315 and the second rotating member 316 are engaged with each other. The first rotating member 315 and the second rotating member 316 are rotatably connected together. Preferably, the first rotating member 315 and the second rotating member 316 include a plurality of teeth, and the teeth of the first rotating member 315 and the teeth of the second rotating member 316 are engaged with each other. The outer surface of the first rotating member 315 along the radial direction of the first rotating member 315 is provided with a plurality of first teeth. The outer surface of the second rotating member 316 along the radial direction of the second rotating member 316 is provided with a plurality of second teeth. The plurality of first teeth and the plurality of second teeth are engaged with each other. Thus, the synchronization of the movement is ensured.

[0073] Preferably, the first rotating member 315 and the second rotating member 316 are symmetrical with respect to the first direction D1. The plurality of first teeth and the plurality of second teeth are rotatably engaged together, so that the first rotating member 315 and the second rotating member 316 can not only rotate but also move. The first rotating member 315 and the second rotating member 316 rotate to maintain a linear movement along the second direction D2. The first rotating member 315 and the second rotating member 316 can move synchronously along the second direction D2. The present application does not limit the structures of the first rotating member 315 and the second rotating member 316. The first rotating member 315 and the second rotating member 316 can rotate relative to each other, and the first rotating member 315 and the second rotating member 316 can also move synchronously. In this way, the synchronization of the movement is ensured, and the adjustment deviation caused by inconsistent movement is avoided.

[0074] Both the first rotating member 315 and the second rotating member 316 are used for being hinged to the same building member. The first rotating member 315 and the second rotating member 316 can move towards the direction close to the same building member. The first rotating member 315 and the second rotating member 316 can also move away from the same building member. In this way, the first rotating member 315 and the second rotating member 316 can compensate for the deformation displacement of the building member by moving.

[0075] For example, when both the first rotating member 315 and the second rotating member 316 move towards the direction close to the same building member, the distance between the first rotating member 315 and the same building member is shortened, and the distance between the second rotating member 316 and the same building member is shortened. For another example, when both the first rotating member 315 and the second rotating member 316 move away from the same building member, the distance between the first rotating member 315 and the same building member is increased, and the distance between the second rotating member 316 and the same building member is increased.

[0076] At least two adjusting members can respectively drive the first rotating member 315 and the second rotating member 316 to move synchronously, so as to adjust the distances between the first rotating member 315 and the second rotating member 316 and the same building member. The adjustment process is stable and reliable, improving the accuracy and stability of the adjustment, and ensuring the tightness and stability of the connection between the connecting device 1 and the building member.

[0077] The adjusting assembly 31 further includes a third rotating member 317 and a fourth rotating member 318. Both the third rotating member 317 and the fourth rotating member 318 are respectively connected to the other two adjusting members. The movement of the other two adjusting members can respectively drive the third rotating member 317 and the fourth rotating member 318 to move. The moving directions of the third rotating member 317 and the fourth rotating member 318 are the same. The third rotating member 317 and the fourth rotating member 318 both move linearly along the second direction D2.

[0078] The third rotating member 317 and the fourth rotating member 318 are engaged with each other. The third rotating member 317 and the fourth rotating member 318 are rotatably connected together. Preferably, the third rotating member 317 and the fourth rotating member 318 include a plurality of teeth, and the teeth of the third rotating member 317 and the teeth of the fourth rotating member 318 are engaged with each other. The outer surface of the third rotating member 317 along the radial direction of the third rotating member 317 is provided with a plurality of third teeth. The outer surface of the fourth rotating member 318 along the radial direction of the fourth rotating member 318 is provided with a plurality of fourth teeth. The plurality of third teeth and the plurality of fourth teeth are engaged with each other. Thus, the synchronism of the movement is ensured.

[0079] Preferably, the third rotating member 317 and the fourth rotating member 318 are symmetric with respect to the first direction D1. A plurality of third teeth and a plurality of fourth teeth are rotatably engaged together such that the third rotating member 317 and the fourth rotating member 318 can not only rotate but also move. The third rotating member 317 and the fourth rotating member 318 rotate so as to maintain a linear movement along the second direction D2. The present application does not limit the structures of the third rotating member 317 and the fourth rotating member 318, as long as the third rotating member 317 and the fourth rotating member 318 can rotate relative to each other and can also move synchronously. In this way, the synchronism of the movement is ensured, and the adjustment deviation caused by inconsistent movement is avoided.

[0080] Both the third rotating member 317 and the fourth rotating member 318 are used for being hinged to another building component. The third rotating member 317 and the fourth rotating member 318 can move in a direction approaching another building component. The third rotating member 317 and the fourth rotating member 318 can also move in a direction away from another building component. In this way, the third rotating member 317 and the fourth rotating member 318 can compensate for the deformation displacement of the building component by moving.

[0081] For example, when both the third rotating member 317 and the fourth rotating member 318 move in a direction approaching another building component, the distance between the third rotating member 317 and another building component is shortened, and the distance between the fourth rotating member 318 and another building component is shortened. For another example, when both the third rotating member 317 and the fourth rotating member 318 move in a direction away from another building component, the distance between the third rotating member 317 and another building component is increased, and the distance between the fourth rotating member 318 and another building component is increased.

[0082] The other two adjusting members can respectively drive the third rotating member 317 and the fourth rotating member 318 to move synchronously, so as to adjust the distances between the third rotating member 317 and the fourth rotating member 318 and another building component respectively. The adjustment process is stable and reliable, the adjustment accuracy and stability are improved, and the tightness and stability of the connection between the connecting device 1 and another building component are ensured.

[0083] The first rotating member 315 and the third rotating member 317 are symmetric with respect to the second direction D2. The moving direction of the first rotating member 315 is opposite to that of the third rotating member 317. The moving direction of the first rotating member 315 is opposite to that of the third rotating member 317 along the second direction D2. Preferably, the distance that the first rotating member 315 moves is the same as the distance that the third rotating member 317 moves. The first rotating member 315 and the same building component will not break or separate due to excessive force. The third rotating member 317 and another building component will not break or separate due to excessive force.

[0084] The second rotating member 316 and the fourth rotating member 318 are symmetric with respect to the second direction D2. The moving direction of the second rotating member 316 is opposite to that of the fourth rotating member 318. The moving direction of the second rotating member 316 is opposite to that of the fourth rotating member 318 along the second direction D2. Preferably, the distance that the second rotating member 316 moves is the same as the distance that the fourth rotating member 318 moves. The second rotating member 316 and the same building component will not break or separate due to excessive force. The fourth rotating member 318 and another building component will not break or separate due to excessive force.

[0085] The meshing transmission between the first rotating member 315 and the second rotating member 316, and the meshing transmission between the third rotating member 317 and the fourth rotating member 318 can ensure the synchronization of the movements of the four adjusting members, avoid adjustment deviations caused by inconsistent movements, make the adjustment process more stable and reliable, and thus help to solve the problems of adjustment accuracy and stability during the adjustment process of the adjusting component 30 due to the asynchronous movements of the adjusting members, improving the overall performance of the connecting device 1.

[0086] The adjusting assembly 31 can evenly adjust the distances between the two ends of the adjusting assembly 31 and two building components respectively through the four rotating members, so that the acting forces between the adjusting assembly 31 and the building components can be evenly distributed, avoiding stress concentration, enabling the adjusting assembly 31 to move smoothly and accurately, thus making the adjustment process more controllable, improving the overall structural strength and impact resistance of the connecting device 1, and being able to cope with complex structures or scenarios with high connection performance requirements.

[0087] The hinged assembly 32 includes at least two transmission members, and the at least two transmission members are spaced apart along the first direction D1. The at least two transmission members are respectively sleeved on the top or bottom of the driving member 341 along the axial direction of the driving member 341. The rotation of the driving member 341 can cause the at least two transmission members to move respectively.

[0088] At least two transmission members can approach each other along the first direction D1, such that the at least two transmission members approach each other along the first direction D1. The at least two transmission members can also move away from each other along the first direction D1, such that the at least two transmission members move away from each other along the first direction D1.

[0089] Specifically, the hinge assembly 32 includes a first transmission member 322 and a second transmission member 325. The first transmission member 322 and the second transmission member 325 are disposed opposite to each other along the first direction D1 and have opposite moving directions. The first transmission member 322 is located on one side of the driving member 341 along the first direction D1. The second transmission member 325 is located on the other side of the driving member 341 along the first direction D1. Exemplarily, the first transmission member 322 is located on top of the driving member 341. The second transmission member 325 is located at the bottom of the driving member 341. The driving member 341 penetrates through the first transmission member 322 and the second transmission member 325 along the first direction D1. When the driving member 341 rotates, the moving direction of the first transmission member 322 is opposite to the moving direction of the second transmission member 325, so that the first transmission member 322 and the second transmission member 325 approach or move away from each other.

[0090] For example, when the driving member 341 rotates forward, the first transmission member 322 moves upward along the first direction D1, and the second transmission member 325 moves downward along the first direction D1. The distance between the first transmission member 322 and the second transmission member 325 increases. The first transmission member 322 and the second transmission member 325 move away from each other. The first transmission member 322 moves upward along the first direction D1. The second transmission member 325 moves downward along the first direction D1. The distance between the first transmission member 322 and the second transmission member 325 increases. The first transmission member 322 and the second transmission member 325 move away from each other.

[0091] For another example, when the driving member 341 rotates reversely, when the first transmission member 322 moves downward along the first direction D1, the second transmission member 325 moves upward along the first direction D1. The distance between the first transmission member 322 and the second transmission member 325 decreases. The first transmission member 322 and the second transmission member 325 approach each other. The first transmission member 322 moves downward along the first direction D1. The second transmission member 325 moves upward along the first direction D1. The distance between the first transmission member 322 and the second transmission member 325 decreases. The first transmission member 322 and the second transmission member 325 approach each other.

[0092] Exemplarily, an external thread is provided on the outer surface of the driving member 341 along the radial direction of the driving member 341. An internal thread is provided on the inner surface of the transmission member along the radial direction of the transmission member. The external thread of the driving member 341 meshes with the internal thread of the transmission member. For example, the driving member 341 is configured as a threaded rod, and the transmission member is configured as a shaft provided with a threaded hole. The shaft is sleeved on the threaded rod. Rotating the threaded rod can cause the shaft to move along the axial direction of the threaded rod. The way the driving member 341 of the present application drives the transmission member to move is similar to the existing way of a threaded rod driving a nut, and this embodiment will not be elaborated further. Of course, the driving member 341 can also be configured as a gear, and the transmission member can also be configured as a rack. The gear and the rack mesh, and rotating the gear can drive the rack to move along the length direction of the rack. This embodiment does not limit this.

[0093] As an alternative embodiment, the driving member 341 includes at least two external threads, and the at least two external threads are spaced apart along a first direction. The thread directions of adjacent external threads are opposite. The driving member 341 can be configured as a double-acting threaded rod to simultaneously drive the first transmission member 322 and the second transmission member 325 to move relatively during rotation. The two external threads are both arranged on the outer surface of the driving member 341 along the radial direction of the driving member 341. Exemplarily, one external thread spirals clockwise on the outer surface of the driving member 341, and the other external thread spirals counterclockwise on the outer surface of the driving member 341. The at least two external threads respectively mesh with at least two transmission members, one external thread meshes with the first transmission member 322, and the other external thread meshes with the second transmission member 325. The first transmission member 322 and the second transmission member 325 can move in opposite directions.

[0094] Of course, the driving member 341 includes more external threads, such as three, four or more. The more external threads are arranged in sequence along the axial direction of the driving member 341, and the thread directions of adjacent external threads are opposite. This embodiment does not limit the number of external threads. The hinge assembly includes more transmission members, such as three, four or more. The more external threads and the more transmission members are respectively connected, and rotating the more external threads can respectively drive the more transmission members to move.

[0095] The adjusting assembly 31 includes at least two adjusting members, and two of the at least two adjusting members are both hinged to a transmission member. One transmission member can be connected to two of the at least two adjusting members.

[0096] Specifically, the adjusting assembly 31 includes a first adjusting member 311 and a second adjusting member 312, and the first adjusting member 311 and the second adjusting member 312 are connected. One end of the first adjusting member 311 and one end of the second adjusting member 312 are both connected to the first transmission member 322. One end of the first adjusting member 311 is hinged to the first transmission member 322. One end of the second adjusting member 312 is hinged to the first transmission member 322. Optionally, the first transmission member 322 is configured as a shaft, a hole is provided at one end of the first adjusting member 311, a hole is provided at one end of the second adjusting member 312, and the shaft can rotate in the holes.

[0097] The first adjusting member 311 and the second adjusting member 312 are rotatably connected through the first transmission member 322. When the first transmission member 322 moves, it can drive one end of the first adjusting member 311 and one end of the second adjusting member 312 to move in the same direction. One end of the first adjusting member 311 and one end of the second adjusting member 312 both move synchronously in the first direction D1.

[0098] When one end of the first adjusting member 311 moves in the first direction D1, the other end of the first adjusting member 311 moves in the second direction D2. The other end of the first adjusting member 311 is connected to the first rotating member 315. Optionally, the first adjusting member 311 and the first rotating member 315 can be integrally formed. The other end of the first adjusting member 311 drives the first rotating member 315 to move in the second direction D2. In this way, when the first transmission member 322 moves in the first direction D1, the first rotating member 315 moves in the second direction D2, thereby compensating for the deformation amount of a building component.

[0099] When one end of the second adjusting member 312 moves in the first direction D1, the other end of the second adjusting member 312 moves in the second direction D2. The other end of the second adjusting member 312 is connected to the third rotating member 317. Optionally, the second adjusting member 312 and the third rotating member 317 can be integrally formed. The other end of the second adjusting member 312 drives the third rotating member 317 to move in the second direction D2. In this way, when the first transmission member 322 moves in the first direction D1, the third rotating member 317 moves in the second direction D2, thereby compensating for the deformation amount of another building component.

[0100] The first transmission member 322 can drive the first rotating member 315 to move through the first adjusting member 311. The first transmission member 322 can also drive the third rotating member 317 to move through the second adjusting member 312. The moving directions of the first rotating member 315 and the third rotating member 317 are opposite. The movement of the first transmission member 322 can cause the first rotating member 315 and the third rotating member 317 to approach or separate from each other. For example, when the first transmission member 322 moves downward along the first direction D1, the first rotating member 315 and the third rotating member 317 separate from each other. For another example, when the first transmission member 322 moves upward along the first direction D1, the first rotating member 315 and the third rotating member 317 approach each other.

[0101] The other two of the at least two adjusting members are each hinged to another transmission member, and the other transmission member can enable the other two of the at least two adjusting members to be rotatably connected.

[0102] Specifically, the adjusting assembly 31 includes a third adjusting member 313 and a fourth adjusting member 314, and the third adjusting member 313 and the fourth adjusting member 314 are connected. One end of the third adjusting member 313 and one end of the fourth adjusting member 314 are respectively connected to the second transmission member 325. One end of the third adjusting member 313 is hinged to the second transmission member 325. Optionally, the second transmission member 325 is configured as a shaft, one end of the third adjusting member 313 is provided with a hole, one end of the fourth adjusting member is provided with a hole, and the shaft rotates in the hole. Preferably, the first adjusting member 311, the second adjusting member 312, the third adjusting member 313, and the fourth adjusting member 314 have equal lengths. The first adjusting member 311 and the third adjusting member 313 are parallel to each other. The second adjusting member 312 and the fourth adjusting member 314 are parallel to each other.

[0103] The third adjusting member 313 and the fourth adjusting member 314 are rotatably connected through the second transmission member 325. The movement of the second transmission member 325 can drive one end of the third adjusting member 313 and one end of the fourth adjusting member 314 to move in the same direction. One end of the third adjusting member 313 and one end of the fourth adjusting member 314 move synchronously along the first direction D1.

[0104] When one end of the third adjusting member 313 moves along the first direction D1, the other end of the third adjusting member 313 moves along the second direction D2. The other end of the third adjusting member 313 is connected to the fourth rotating member 318. Optionally, the third adjusting member 313 and the fourth rotating member 318 may be integrally formed. The other end of the third adjusting member 313 drives the fourth rotating member 318 to move along the second direction D2. The other end of the third adjusting member 313 drives the fourth rotating member 318 to move synchronously along the second direction D2. In this way, the second transmission member 325 moves along the first direction D1, causing the fourth rotating member 318 to move along the second direction D2, thereby compensating for the deformation of a building member.

[0105] When one end of the fourth adjusting member 314 moves along the first direction D1, the other end of the fourth adjusting member 314 moves along the second direction D2. The other end of the fourth adjusting member 314 is connected to the second rotating member 316. Optionally, the fourth adjusting member 314 and the second rotating member 316 may be integrally formed. The other end of the fourth adjusting member 314 drives the second rotating member 316 to move along the second direction D2. The other end of the fourth adjusting member 314 drives the second rotating member 316 to move synchronously along the second direction D2. In this way, the second transmission member 325 moves along the first direction D1, causing the second rotating member 316 to move along the second direction D2, thereby compensating for the deformation of another building member.

[0106] The second transmission member 325 can drive the fourth rotating member 318 to move through the third adjusting member 313. The second transmission member 325 can also drive the second rotating member 316 to move through the fourth adjusting member 314. The moving directions of the second rotating member 316 and the fourth rotating member 318 are opposite. The movement of the second transmission member 325 can cause the second rotating member 316 and the fourth rotating member 318 to approach or move away from each other. For example, when the second transmission member 325 moves downward along the first direction D1, the second rotating member 316 and the fourth rotating member 318 approach each other. For another example, when the second transmission member 325 moves upward along the first direction D1, the second rotating member 316 and the fourth rotating member 318 move away from each other.

[0107] The first rotating member 315 meshes with the second rotating member 316, enabling the first adjusting member 311 and the fourth adjusting member 314 to be rotatably connected together. The other ends of the first adjusting member 311 and the fourth adjusting member 314 respectively drive the first rotating member 315 and the second rotating member 316 to move linearly in the same direction. The first rotating member 315 and the second rotating member 316 move along the second direction D2. In this way, when the first transmission member 322 and the second transmission member 325 move, the first rotating member 315 and the second rotating member 316 can move synchronously.

[0108] The third rotating member 317 meshes with the fourth rotating member 318, so that the second adjusting member 312 and the third adjusting member 313 are rotatably connected together. The other ends of the second adjusting member 312 and the third adjusting member 313 respectively drive the third rotating member 317 and the fourth rotating member 318 to linearly move in the same direction. The third rotating member 317 and the fourth rotating member 318 move along the second direction D2. In this way, when the first transmission member 322 and the second transmission member 325 move, the third rotating member 317 and the fourth rotating member 318 can move synchronously.

[0109] Preferably, the moving directions of the first transmission member 322 and the second transmission member 325 are opposite. The moving directions of the first rotating member 315 and the third rotating member 317 are opposite. The moving directions of the second rotating member 316 and the fourth rotating member 318 are opposite.

[0110] The distance between the first transmission member 322 and the second transmission member 325 changes, and the distance between the first rotating member 315 and the third rotating member 317 changes. The distance between the second rotating member 316 and the fourth rotating member 318 changes. Thus, both the first rotating member 315 and the second rotating member 316 can compensate for the deformation amount of a building component, and both the third rotating member 317 and the fourth rotating member 318 can compensate for the deformation amount of another building component.

[0111] The hinge assembly 32 further includes a hinge member, and the hinge member is hinged to the adjusting member. The adjusting member is used to be hinged to the building component through the hinge member. The adjusting member can rotate relative to the building component through the hinge member. Thus, it can be ensured that the other end of the adjusting member can linearly move along the second direction D2.

[0112] The hinge member and the transmission member are respectively arranged at both ends of the adjusting member. The transmission member is located at one end of the adjusting member. The transmission member drives one end of the adjusting member to linearly move along the first direction D1, so that the other end of the adjusting member moves along the second direction D2. The hinge member is located at the other end of the adjusting member. The hinge member can enable the other end of the adjusting member to keep moving along the second direction D2, so that there is no interference between the building component and the other end of the adjusting member.

[0113] The hinge assembly 32 further includes at least two hinge members, and the at least two hinge members are respectively hinged to at least two adjusting members. The hinge assembly 32 includes a first hinge member 321 and a fourth hinge member 326, and the first hinge member 321 and the fourth hinge member 326 are arranged at intervals. The axes of the first rotating member 315, the second rotating member 316, the third rotating member 317 and the fourth rotating member 318 are all parallel to the first hinge member 321.

[0114] The first hinge member 321 is provided at the other end of the first adjustment member 311. The first hinge member 321 is disposed close to the first rotating member 315. Preferably, the central axis direction of the first hinge member 321 coincides with the central member direction of the first rotating member 315. In this way, the first rotating member 315 can directly and evenly transmit power to the first hinge member 321, eliminating the angular error and avoiding vibrations caused by uneven power transmission during the transmission process.

[0115] The fourth hinge member 326 is provided at the other end of the fourth adjustment member 314. The fourth hinge member 326 is disposed close to the second rotating member 316. Preferably, the central axis direction of the fourth hinge member 326 coincides with the central member direction of the second rotating member 316. In this way, the second rotating member 316 can directly and evenly transmit power to the fourth hinge member 326, eliminating the angular error and avoiding vibrations caused by uneven power transmission during the transmission process.

[0116] The adjustment component 30 further includes a connection assembly 35, and the connection assembly 35 is hinged to the adjustment assembly 31. The connection assembly 35 is used to connect the building component and the adjustment assembly 31. The connection assembly 35 can be connected to the adjustment assembly 31 through the hinge assembly 32. The adjustment assembly 31 can drive the connection assembly 35 to move through the hinge assembly 32, thereby adjusting the deformation amount of the building component. The connection assembly 35 can move along the second direction D2.

[0117] Preferably, the connection assembly is hinged to at least two hinge members. The connection assembly 35 includes a first connection member 351 and a second connection member 352, and the first connection member 351 and the second connection member 352 are spaced apart along the second direction D2. Both the first connection member 351 and the second connection member 352 can move along the second direction D2. The moving directions of the first connection member 351 and the second connection member 352 are opposite, so that the first connection member 351 and the second connection member 352 can approach or move away from each other, thereby adjusting the distance between the two building components. Preferably, the first connection member 351 and the second connection member 352 are symmetric with respect to the second direction D2.

[0118] One end of the first connection member 351 along the second direction D2 is used to connect to a building component. The load transmitted by the first connection member 351 can be evenly distributed to a building component, avoiding the fracture of a building component caused by uneven stress, and improving the connection stability and structural strength. One end of the second connection member 352 along the second direction D2 is used to connect to another building component. The load transmitted by the second connection member 352 can be evenly distributed to another building component, avoiding the fracture of another building component caused by uneven stress, and improving the connection stability and structural strength.

[0119] The first hinge member 321 and the fourth hinge member 326 are both connected to the first connecting member 351. The first hinge member 321 is hinged to the first connecting member 351. The first connecting member 351 is connected to the first adjusting member 311 through the first hinge member 321. For example, the first hinge member 321 is configured as a shaft, the first connecting member 351 is provided with a hole, the first adjusting member 311 is provided with a hole, and the shaft passes through the holes. Thus, the first adjusting member 311 can rotate relative to the first connecting member 351. The first adjusting member 311 drives the first connecting member 351 to move through the first hinge member 321.

[0120] The first connecting member 351 is hinged to the fourth hinge member 326. The first connecting member 351 is connected to the fourth adjusting member 314 through the fourth hinge member 326. For example, the fourth adjusting member 314 is configured as a shaft, the first connecting member 351 is provided with a hole, the fourth adjusting member 314 is provided with a hole, and the shaft passes through the holes. Thus, the fourth adjusting member 314 can rotate relative to the first connecting member 351. The fourth adjusting member 314 drives the first connecting member 351 to move through the fourth hinge member 326.

[0121] In this way, the movement of the first adjusting member 311 and the fourth adjusting member 314 drives the movement of the first hinge member 321 and the fourth hinge member 326, thereby driving the movement of the first connecting member 351. The first connecting member 351 moves linearly along the second direction D2. Further, the number of turns of rotation of the driving member 341 is adjusted to adjust the movement amount of one end of the first adjusting member 311 and the fourth adjusting member 314 along the first direction D1, so as to adjust the movement amount of the other end of the first adjusting member 311 and the fourth adjusting member 314 along the second direction D2, and further adjust the movement distance of the first connecting member 351, and adjust the deformation amount of a building member.

[0122] The hinge assembly 32 further includes a second hinge member 323 and a third hinge member 324, and the second hinge member 323 and the third hinge member 324 are arranged at intervals. The second hinge member 323 is provided at the other end of the second adjusting member 312. The second hinge member 323 is disposed close to the third rotating member 317. Preferably, the central axis direction of the second hinge member 323 coincides with the central member direction of the third rotating member 317. In this way, the third rotating member 317 can directly transmit power to the second hinge member 323 evenly, eliminating angular errors and avoiding vibrations caused by uneven power transmission during the transmission process.

[0123] The third hinge member 324 is provided at the other end of the third adjusting member 313. The third hinge member 324 is disposed close to the fourth rotating member 318. Preferably, the central axis direction of the third hinge member 324 coincides with the central member direction of the fourth rotating member 318. In this way, the fourth rotating member 318 can directly and evenly transmit power to the third hinge member 324, eliminating angular errors and avoiding vibrations caused by uneven power transmission during the transmission process.

[0124] The second connecting member 352 is hinged to the third hinge member 324. The second connecting member 352 is connected to the third adjusting member 313 through the third hinge member 324. For example, the third hinge member 324 is configured as a shaft, the second connecting member 352 is provided with a hole, the third adjusting member 313 is provided with a hole, and the shaft passes through the holes. Thus, the third adjusting member 313 can rotate relative to the second connecting member 352. The third adjusting member 313 drives the second connecting member 352 to move through the third hinge member 324.

[0125] In this way, the second adjusting member 312 and the third adjusting member 313 move to drive the second hinge member 323 and the third hinge member 324 to move, thereby driving the second connecting member 352 to move. The second connecting member 352 moves linearly along the second direction D2. Further, the number of turns of rotation of the driving member 341 is adjusted to adjust the amount of movement of one end of the second adjusting member 312 and the third adjusting member 313 along the first direction D1, so as to adjust the amount of movement of the other end of the second adjusting member 312 and the third adjusting member 313 along the second direction D2, and further adjust the moving distance of the second connecting member 352 to adjust the deformation amount of another building member.

[0126] The first hinge member 321 and the second hinge member 323 correspond to each other. The moving directions of the first rotating member 315 and the third rotating member 317 are opposite, so that the moving directions of the first hinge member 321 and the second hinge member 323 are opposite. The third hinge member 324 and the fourth hinge member 326 correspond to each other. The moving directions of the second rotating member 316 and the fourth rotating member 318 are opposite, so that the moving directions of the third hinge member 324 and the fourth hinge member 326 are opposite. Thus, the first connecting member 351 and the second connecting member 352 can be moved closer to or away from each other.

[0127] For example, when the first rotating member 315 and the third rotating member 317 approach each other, the second rotating member 316 and the fourth rotating member 318 approach each other. The first hinge member 321 and the second hinge member 323 approach each other, and the third hinge member 324 and the fourth hinge member 326 approach each other, thereby driving the first connecting member 351 and the second connecting member 352 to approach each other.

[0128] For another example, when the first rotating member 315 and the third rotating member 317 move away from each other, the second rotating member 316 and the fourth rotating member 318 move away from each other. The first hinged member 321 and the second hinged member 323 move away from each other, and the third hinged member 324 and the fourth hinged member 326 move away from each other, thereby driving the first connecting member 351 and the second connecting member 352 to move away from each other.

[0129] The moving directions of the first connecting member 351 and the second connecting member 352 are opposite to each other, so as to be able to change the distances between the first connecting member 351 and the second connecting member 352 and two building components respectively, thereby adjusting the deformation amount between the first connecting member 351 and one building component, and adjusting the deformation amount between the second connecting member 352 and the other building component.

[0130] In the embodiments of the present disclosure, the adjusting member 30 can achieve smooth and precise tension adjustment through the parallelogram structure of the adjusting assembly 31, making the adjustment process more controllable, improving the accuracy and stability of the adjustment of the connecting device 1, thereby facilitating the solution of the problems of unsmooth adjustment and insufficient precision that may occur when solely relying on the connecting assembly 35 to adjust the tension, and ensuring that the connecting device 1 can be accurately adjusted to an appropriate tension state under different working conditions.

[0131] As Figure 1 shown, the connecting device 1 further includes a tensioning member 10 and a sealing member 20. The sealing member 20 wraps the tensioning member 10 along the radial direction of the tensioning member 10. The tensioning member 10 is made of tensile fiber. The length direction of the tensile fiber is parallel to the second direction D2. The tensile fiber is used to connect the building components to be connected to ensure that the connection between the building components has sufficient connection strength. Of course, the material of the tensioning member 10 in this application is not limited, as long as it has high strength and high elastic modulus. The sealing member 20 is configured as an elastic connection layer. The sealing member 20 is made of an elastic material. The tensile fiber ensures the connection strength between the building components. The sealing member 20 can not only protect the tensile fiber, but also form a seal at the connection part of the building components, provide elastic buffering for the building components, and make the stress distribution in the tensile fiber more balanced.

[0132] In this application, the tensioning force of the tensile fiber can be adjusted by the first connecting member 351 and the second connecting member 352 moving closer to or away from each other. The above structures cooperate together, enabling the connecting device to have high tensile strength, be able to adapt to a certain degree of deformation through the elastic connection layer, and at the same time be able to flexibly adjust the tension, enhancing the stability and adaptability of the connection, and also being able to solve the deficiencies in the tensile performance, deformation adaptability, and connection stability adjustment of traditional building connection methods, meeting the requirements for reliable connection of building components under complex working conditions.

[0133] Both the tension member 10 and the sealing member 20 can undergo elastic deformation under an external force. The elastic modulus of the tension member 10 is greater than that of the sealing member 20. The tension member 10 is used to connect the adjusting member 30 and the building component. The tension member 10 connects the building component and the adjusting member 30 along the second direction D2. The tension member 10 has certain mechanical properties and tensile properties, which can enhance the connection strength between the building component and the adjusting member 30, improve the load-bearing capacity and anti-deformation ability of the structure, and thus improve the integrity of the structure.

[0134] One end of the tension member 10 is connected to the adjusting member 30, and the other end of the tension member 10 is used to connect to the building component. Both ends of the adjusting member 30 can move to change the tension degree of the tension member 10. In this way, the adjusting member 30 can adjust the tension degree of the tension member 10 to prevent the tension member 10 from breaking, thereby ensuring the connection of the building component.

[0135] The tension member 10 is connected to the adjusting component 31 through the connecting component 35. The connecting component 35 can also be connected to the adjusting component 31 through the hinge component 32. In this way, the adjusting component 31 can drive the connecting component 35 to move through the hinge component 32, thereby adjusting the tension degree of the tension member 10.

[0136] The loads borne by at least two rotating members can be kept consistent to prevent structural deformation caused by excessive local loads. The adjusting member 30 forms a four-bar linkage structure, which can achieve stable and precise tension adjustment, making the adjustment process more controllable, improving the accuracy and stability of the connection device adjustment, thus facilitating the solution of problems such as uneven adjustment and insufficient precision, and ensuring that the connection device can be accurately adjusted to the appropriate tension state under different working conditions.

[0137] Specifically, as Figure 2 and Figure 3 shown, the tension member 10 includes a first tension component 101 and a second tension component 102, and the first tension component 101 and the second tension component 102 are spaced apart along the second direction D2. An adjusting member 30 is provided between the first tension component 101 and the second tension component 102. The first tension component 101 and the second tension component 102 are respectively located at both ends of the adjusting member 30 along the second direction D2. The first rotating member 315 and the second rotating member 316 are connected to the same building component through the first tension component 101. When the first rotating member 315 and the second rotating member 316 move, the tension degree of the first tension component 101 can be adjusted.

[0138] Preferably, the first tensioning assembly 101 and the second tensioning assembly 102 are symmetrical relative to the first direction D1. The acting force by which the adjusting member 30 is connected to the building member can be evenly distributed between the first tensioning assembly 101 and the second tensioning assembly 102, such that the amounts of elastic deformation of the first tensioning assembly 101 and the second tensioning assembly 102 are the same, preventing the first tensioning assembly 101 and / or the second tensioning assembly 102 from breaking due to stress concentration.

[0139] One end of the first tensioning assembly 101 is connected to the first connecting member 351 along the second direction D2, and the other end is connected to a building member along the second direction D2. The first connecting member 351 can enable a plurality of tensioning members to be evenly arranged on one side of the first connecting member 351. In this way, the load transmitted by the first connecting member 351 can be evenly distributed to the first tensioning assembly 101, preventing the first tensioning assembly 101 from breaking due to uneven stress and improving the connection stability and structural strength.

[0140] One end of the second tensioning assembly 102 is connected to the second connecting member 352 along the second direction D2, and the other end is connected to another building member along the second direction D2. The second connecting member 352 can enable a plurality of tensioning members to be evenly arranged on one side of the second connecting member 352. In this way, the load transmitted by the second connecting member 352 can be evenly distributed to the second tensioning assembly 102, preventing the second tensioning assembly 102 from breaking due to uneven stress and improving the connection stability and structural strength.

[0141] The first connecting member 351 and the second connecting member 352 are arranged at intervals along the length direction of the tensile fiber. The first tensioning assembly 101 and the second tensioning assembly 102 are arranged along the length direction of the tensile fiber. The first hinge member 321, the first transmission member 322, the second hinge member 323, the third hinge member 324, the second transmission member 325, and the fourth hinge member 326 are all parallel to the length direction of the tensile fiber.

[0142] When the driving member 341 is rotated, due to the screw fit, the first transmission member 322 and the second transmission member 325 approach or move away from each other along the first direction D1, thereby driving the adjusting assembly to move, achieving the adjustment of the distance between the first connecting member and the second connecting member, and finally adjusting the tension degree of the tensile fiber. The operation is simple and the adjustment accuracy is high.

[0143] Both the first connecting member 351 and the second connecting member 352 can move along the second direction D2. The moving directions of the first connecting member 351 and the second connecting member 352 are opposite, so that the first connecting member 351 and the second connecting member 352 can approach or move away from each other, thereby adjusting the tension degrees of the first tensioning assembly 101 and the second tensioning assembly 102. Preferably, the first connecting member 351 and the second connecting member 352 are symmetrical relative to the second direction D2.

[0144] When both the first rotating member 315 and the second rotating member 316 move towards the direction close to a building member, the distance between the first rotating member 315 and the said building member decreases, the distance between the second rotating member 316 and the said building member decreases, the connection force borne by the first tensioning assembly 101 decreases, and the elastic deformation of the first tensioning assembly 101 decreases.

[0145] The third rotating member 317 and the fourth rotating member 318 are connected to another building member through the second tensioning assembly 102. The movement of the third rotating member 317 and the fourth rotating member 318 can adjust the tension degree of the second tensioning assembly 102. In this embodiment, the way that the third rotating member 317 and the fourth rotating member 318 adjust the tension degree of the second tensioning assembly 102 is similar to the above way, and will not be elaborated here.

[0146] Thus, when the four-bar linkage mechanism moves, through the meshing transmission of multiple teeth, the synchronism of the movement of each adjusting member can be ensured, the adjustment deviation caused by the inconsistent movement of each adjusting member can be avoided, and the whole tension degree adjustment process is more stable and reliable. Therefore, it is beneficial to solve the problem that in the adjustment process of the four-bar linkage mechanism, the movement of each adjusting member is not synchronous, which affects the adjustment accuracy and stability of the tension degree, and improves the overall performance of the connection assembly.

[0147] Both the first tensioning assembly 101 and the second tensioning assembly 102 include a plurality of tensioning members, and the plurality of tensioning members are arranged at intervals along the first direction D1. The tensioning members are made of tensile fibers. The plurality of tensioning members are evenly arranged between the building member and the adjusting member 30 to enhance the connection strength between the adjusting member 30 and the building member. The length direction of the tensioning members is parallel to the first direction D1. The plurality of tensioning members can directly bear the acting force of the connection between the adjusting member and the building member, so that the acting force can be evenly distributed among the plurality of tensioning members, avoiding local fracture caused by stress concentration.

[0148] As another alternative embodiment, at least two tensioning members are arranged in a cross manner. At least two tensioning members are arranged in a cross manner to form a tensioning assembly. At least two tensioning members can bear the acting forces in at least two directions simultaneously, improving the connection strength and impact resistance of the tensioning assembly, and enhancing the integrity and stability of the structure.

[0149] The tensioning member 10 can be combined with the sealing member 20, so that the connecting device 1 not only has a high connection strength, but also can adapt to a certain degree of deformation through the sealing member 20. At the same time, the tension degree can be flexibly adjusted, enhancing the stability and adaptability of the connection, and also improving the deficiencies of the traditional building connection method in terms of connection strength, deformation adaptability, and connection stability, meeting the requirements of reliable connection of building members under complex working conditions.

[0150] The sealing member 20 is used to be filled between the adjusting member 30 and the building member. The sealing member 20 can seal the gap between the adjusting member 30 and the building member. The sealing member 20 is in close contact with the adjusting member 30 and the building member respectively, making the connection between the adjusting member 30 and the building member tighter. The sealing member 20 is coated on the outer periphery of the tensile fiber, and the sealing member 20 is used to connect the building members to be connected. The sealing member 20 has a low elastic modulus and can, to a certain extent, adapt to the movement or deformation of the adjusting member 30 or the building member, and timely adjust the stress distribution of the structure to meet the deformation requirements of the structure under different working conditions. The elastic modulus of the sealing member 20 is lower than that of the tensile fiber.

[0151] When external vibrations occur, the sealing member 20 can also provide elastic buffering for the building member, reduce the vibration and impact energy generated during the operation of the structure, thereby reducing the damage to the structure and improving the stability and safety of the structure. The sealing member 20 is made of polyurethane material. Of course, the material of the sealing member 20 in this application is not limited, as long as it has a low elastic modulus and a certain strength and can wrap the tension member 10.

[0152] As Figure 1 and Figure 2 shown, the connecting device 1 further includes a receiving member 40, and the adjusting member 30 is arranged in the receiving member 40. The receiving member 40 is configured as a box. At least a part of the adjusting member 30 is located inside the receiving member 40. The receiving member 40 can protect the adjusting member 30, avoid the adjusting member 30 inside the receiving member 40 from being interfered by external factors, make the adjustment process more stable and reliable, ensure a reasonable spatial layout between the components, make the connecting component structure more compact, and work more stably.

[0153] Preferably, the sealing member 20 wraps the receiving member 40. The sealing member 20 can protect the receiving member 40 and also can position the position of the receiving member 40, avoiding the change of the stress condition inside the receiving member 40 caused by the shaking or displacement of the receiving member 40, thereby ensuring the stability and accuracy of the tension adjustment of the tension member 10.

[0154] As an alternative implementation, a part of the driving member 341 protrudes from the sealing member 20 in the first direction D1. A part of the driving member 341 protrudes from the receiving member 40 in the first direction D1. The top or bottom of the driving member 341 protrudes from the sealing member 20 so that the sealing member 20 can both position the driving member 341 and not interfere with the rotation of the driving member 341.

[0155] The driving member 341 is provided with a driving hole for connecting a driving device. The driving device can be configured as a tool such as a motor. The depth direction of the driving hole is perpendicular to the axial direction of the driving member 341. The driving device can convert electrical energy into mechanical energy so that at least a part of the driving device rotates. The driving device includes a driving shaft. The driving shaft can rotate. The driving shaft can be inserted into the driving hole so that the driving member 341 rotates. Preferably, the driving shaft engages with the driving hole so that the driving device can transmit power to the driving member 341 through the driving shaft. The driving shaft drives the driving member 341 to rotate. The driving hole provides a direct and effective operating force point for the operator, greatly improving the convenience of rotating the driving member 341, further simplifying the adjustment process, and improving the construction efficiency.

[0156] The accommodating member 40 further includes at least two mounting holes located at both ends of the accommodating member 40 along the first direction D1 respectively. The at least two mounting holes can both penetrate the wall surface of the accommodating member 40. The at least two mounting holes can both correspond to the size and shape of the driving member 341. The driving member 341 can be inserted into the at least two mounting holes. The driving member 341 can penetrate the accommodating member 40 to drive the adjusting member 30 inside the accommodating member 40 to move. The driving hole of the driving member 341 is located outside the accommodating member 40 to facilitate the tool to drive the driving member 341 to rotate.

[0157] The driving member 341 can rotate relative to the at least two mounting holes. In this way, the at least two mounting holes can both avoid the sealing member 20 from entering the inside of the accommodating member 40 through the at least two mounting holes without interfering with the rotation of the driving member 341, so that the adjusting member 30 inside the accommodating member 40 is prevented from being interfered by the outside, improving the adjustment accuracy. And the at least two mounting holes can make the spatial layout of each component of the adjusting member 30 reasonable, make the structure of the adjusting member 30 more compact, improve the integrity of the structure, and improve the stability of the adjustment process.

[0158] The driving shaft can rotate clockwise or counterclockwise so that the driving member 341 can rotate forward or backward. In this way, by controlling the rotation speed and number of turns of the driving device, the rotation speed and number of turns of the driving member 341 can be controlled, thereby adjusting the moving speed and distance of the hinge assembly 32 and the adjusting assembly 31, and further adjusting the tension of the first tensioning assembly 101 and the second tensioning assembly 102 to ensure that the connecting device 1 and the building member can be tightly connected.

[0159] The operator can directly insert the driving shaft into the driving hole to make the driving member 341 rotate. The operation is simple and convenient. The driving hole provides a direct and effective operating force point for the operator, greatly improving the convenience of rotating the driving member 341, further simplifying the adjustment process, and improving the construction efficiency.

[0160] The adjusting assembly 31 and the hinge assembly 32 are both located inside the accommodating member 40. The accommodating member 40 can protect the adjusting assembly 31 and the hinge assembly 32, so that the adjusting assembly 31 and the hinge assembly 32 are both spaced apart from the sealing member 20, thereby preventing the sealing member 20 from interfering with the movement of the hinge assembly 32 and the adjusting assembly 31.

[0161] The connecting assembly 35 is located inside the accommodating member 40. The first connecting member 351 and the second connecting member 352 are both located inside the accommodating member 40. The first tensioning assembly 101 and the second tensioning assembly 102 can both be inserted into the accommodating member 40. The accommodating member 40 further includes a first avoidance hole and a second avoidance hole, and the first avoidance hole and the second avoidance hole are respectively located at both ends of the accommodating member 40 along the first direction D1. The first avoidance hole and the second avoidance hole can both penetrate the wall surface of the accommodating member 40.

[0162] The first avoidance hole corresponds to the size and shape of the first tensioning assembly 101. The first tensioning assembly 101 can be inserted into the first avoidance hole to be connected to the first connecting member 351. The first tensioning assembly 101 can move in the first avoidance hole. The second avoidance hole corresponds to the size and shape of the second tensioning assembly 102. The second tensioning assembly 102 can be inserted into the second avoidance hole to be connected to the second connecting member 352. The second tensioning assembly 102 can move in the second avoidance hole. In this way, both the first avoidance hole and the second avoidance hole can prevent the sealing member 20 from entering the inside of the accommodating member 40 through the first avoidance hole and the second avoidance hole without interfering with the movement of the tensioning member 10, so that the adjusting member 30 inside the accommodating member 40 is prevented from being interfered by the outside, improving the adjustment accuracy. The spatial layout of each component of the adjusting member 30 is reasonable, making the structure of the adjusting member 30 more compact, improving the integrity of the structure, and improving the stability of the adjustment process.

[0163] The accommodating member 40 is further provided with a guiding assembly 41, and the guiding assembly 41 is located on the inner wall of the accommodating member 40. The length direction of the guiding assembly 41 is parallel to the second direction D2. Optionally, the guiding assembly 41 can be configured as a guiding groove. The guiding assembly 41 is recessed in the axial direction of the hinge assembly 32 away from the adjusting member 30.

[0164] The guiding component 41 corresponds to the connecting component 35. The connecting component 35 is movably connected to the guiding component 41 along the second direction D2. The guiding component 41 guides the connecting component 35 to move linearly along the second direction D2, making the movement of the connecting component 35 smoother and the moving distance more accurately controllable. Thereby, the stability and accuracy of the movement of the adjusting component 30 are enhanced, offset or shaking during the movement of the connecting component 35 are avoided, the relative positions of the components during the adjustment of the adjusting component 30 are ensured to be accurate, and thereby the stability and accuracy of the tension adjustment of the tensioning component are guaranteed, making the tension adjustment of the tensioning component more reliable and improving the overall performance of the connecting device 1.

[0165] In an embodiment of the present disclosure, the guiding component 41 is provided with at least two guiding members, and the at least two guiding members are arranged at intervals along the first direction. The length directions of the at least two guiding members are all parallel to the second direction D2. One guiding member corresponds to both the first hinged member 321 and the second hinged member 323, and the other guiding member corresponds to both the third hinged member 324 and the fourth hinged member 326. The first hinged member 321 and the second hinged member 323 can move linearly along the length direction of one guiding member. The third hinged member 324 and the fourth hinged member 326 can move linearly along the length direction of the other guiding member.

[0166] Optionally, both the first hinged member 321 and the second hinged member 323 are slidably adapted to the same guiding member. The first hinged member 321 and the second hinged member 323 can be inserted into the same guiding member so that the first hinged member 321 and the second hinged member 323 move linearly along the second direction D2. At least a part of the first hinged member 321 and the second hinged member 323 moves linearly along the second direction D2 in the same guiding member. The same guiding member makes the movement of the first hinged member 321 and the second hinged member 323 smoother and more accurate, avoiding offset or shaking during the movement of the first hinged member 321 and the second hinged member 323.

[0167] Both the third hinged member 324 and the fourth hinged member 326 are slidably adapted to the other guiding member. The third hinged member 324 and the fourth hinged member 326 can be inserted into the other guiding member so that the third hinged member 324 and the fourth hinged member 326 move linearly along the second direction D2. The third hinged member 324 and the fourth hinged member 326 move linearly along the second direction D2 in the other guiding member. The other guiding member makes the movement of the third hinged member 324 and the fourth hinged member 326 smoother and more accurate, avoiding offset or shaking during the movement of the third hinged member 324 and the fourth hinged member 326.

[0168] Further, both the first connecting member 351 and the second connecting member 352 are capable of linearly moving along the second direction D2. The two guiding members are respectively slidably adapted to the first connecting member 351 and the second connecting member 352. At least two guiding members can also guide the movement of the first connecting member 351 and the second connecting member 352, making the movement of the first connecting member 351 and the second connecting member 352 smoother and more accurate, avoiding offset or wobbling during the movement of the first connecting member 351 and the second connecting member 352, thereby ensuring the stability and accuracy of the tension adjustment of the first tensioning assembly 101 and the second tensioning assembly 102.

[0169] The connecting assembly 35 further includes an elastic member 353, and the elastic member 353 is located between the first connecting member 351 and the second connecting member 352. The two ends of the elastic member 353 along the second direction D2 are respectively connected to the first connecting member 351 and the second connecting member 352. The elastic member 353 can generate elastic deformation. The elastic member 353 can apply a pre-tightening force to the first connecting member 351, and the elastic member 353 can also apply a pre-tightening force to the second connecting member 352. The elastic member 353 is configured to have a pre-tightening force that makes the first connecting member 351 and the second connecting member 352 approach each other. When adjusting the tension, working together with the driving member 341 and the like, the pre-tightening force of the elastic member 353 helps to maintain the tension state of the tensile fiber, plays a buffering and assisting role during the adjustment process, makes the adjustment process smoother, reduces the tension fluctuation caused by too fast adjustment or external force impact, and improves the stability of the connecting assembly. Optionally, the structure of the elastic member 353 can be a tension spring. The elastic telescopic direction of the tension spring is parallel to the length direction of the tensile fiber. The present application does not specifically limit the structure of the elastic member 353, as long as the elastic member 353 has elastic performance.

[0170] The connecting device 1 of the present application includes a tensioning member 10, a sealing member 20, and an adjusting member 30. The tensioning member 10 is used to connect the adjusting member 30 and the building member. By adjusting the adjusting member 30, the tension of the tensioning member 10 can be controlled to ensure the connection of the building member. The sealing member 20 is used to fill between the adjusting member 30 and the building member to position the adjusting member 30 and the tensioning member 10, avoiding interference from external environmental factors during the adjustment process of the adjusting member 30, and improving the adjustment accuracy and the stability of the structure.

[0171] The adjusting member 30 includes a driving assembly 34, a hinged assembly 32, and an adjusting assembly 31. The driving assembly 34 includes a driving member 341 and a transmission member. When the driving member 341 rotates, it can drive the two transmission members to move relative to each other along the first direction D1, so that the two transmission members approach or move away from each other. The linear movement of the transmission member can make the hinged assembly 32 and the adjusting assembly 31 move, thereby adjusting the tension of the tensioning assembly.

[0172] Rotating the driving member 341 can cause the transmission members to approach each other, and the first transmission member 322 and the second transmission member 325 approach each other along the first direction D1. The first hinge member 321, the first rotating member 315, the fourth hinge member 326, and the second rotating member 316 drive the first connecting member 351 to move synchronously along the second direction D2. The second hinge member 323, the third rotating member 317, the third hinge member 324, and the fourth rotating member 318 drive the second connecting member 352 to move synchronously along the second direction D2. The distance between the first connecting member 351 and the second connecting member 352 increases. The first connecting member 351 and the second connecting member 352 move away from each other along the second direction D2, so that the distances between the first connecting member 351 and the second connecting member 352 and the two building components are reduced respectively, thereby reducing the tension of the first tensioning assembly 101 and the second tensioning assembly 102.

[0173] Rotating the driving member 341 can cause the transmission members to move away from each other, and the first transmission member 322 and the second transmission member 325 move away from each other along the first direction D1. The first hinge member 321, the first rotating member 315, the fourth hinge member 326, and the second rotating member 316 drive the first connecting member 351 to move synchronously along the second direction D2. The second hinge member 323, the third rotating member 317, the third hinge member 324, and the fourth rotating member 318 drive the second connecting member 352 to move synchronously along the second direction D2. The adjusting assembly 31 deforms, and the distance between the first connecting member 351 and the second connecting member 352 decreases. The first connecting member 351 and the second connecting member 352 approach each other along the second direction D2, so that the distances between the first connecting member 351 and the second connecting member 352 and the two building components are increased respectively, thereby increasing the tension of the first tensioning assembly 101 and the second tensioning assembly 102.

[0174] In this way, rotating the driving member 341 can cause the hinge assembly 32 to drive the adjusting assembly 31 to move, and the adjusting member 30 deforms to adjust the distance between the connecting assembly 35 and the building component, enhancing the integrity and reliability of the structure, improving the earthquake resistance and construction convenience, and thus adapting to complex connection conditions. By rotating the driving member 341, the movement of the hinge assembly 32, the adjusting assembly 31, and the connecting assembly can be accurately controlled, so as to flexibly adjust the tension of the tensioning assembly, with simple operation and high adjustment accuracy.

[0175] The present application also provides a construction device, the construction device includes building components and the above-mentioned connecting device 1, and the connecting device 1 connects the building components. Multiple connecting devices 1 can be arranged between two adjacent building components.

[0176] A construction device according to the present application, the construction device includes a construction member and the above-mentioned connecting device 1, and the connecting device 1 connects the construction member. The connecting device 1 includes an adjusting member 30, the adjusting member 30 includes a driving assembly 34, a hinged assembly 32 and an adjusting assembly 31. The driving assembly 34 includes a driving member 341, the hinged assembly 32 includes a transmission member, one end of the adjusting assembly 31 is hinged to the transmission member, and the other end of the adjusting assembly 31 is used for hinging to the construction member. Wherein, the rotation of the driving member 341 can drive the transmission member to move along the first direction D1, so as to drive the other end of the adjusting assembly 31 to drive the construction member to move along the second direction D2, and the first direction D1 and the second direction D2 intersect. In this way, the rotation of the driving assembly 34 can cause the hinged assembly 32 to drive the adjusting assembly 31 to move, and the adjusting assembly 31 moves to compensate for the deformation displacement of the construction member, has a high tensile strength, and can flexibly adjust the tension, preventing the connection of the construction member from deforming too much and breaking, enhancing the integrity and reliability of the structure, improving the earthquake resistance ability and construction convenience, and can adapt to complex connection situations.

[0177] Unless otherwise defined, the technical and scientific terms used herein have the same meanings as those commonly understood by those skilled in the technical field of the present application. The terms used herein are only for the purpose of describing specific implementation purposes and are not intended to limit the present application. Terms such as "part" and "component" that appear herein can represent both a single part and a combination of multiple parts. Terms such as "installation" and "setting" that appear herein can represent both a component being directly attached to another component and a component being attached to another component through an intermediate component. Features described in one embodiment herein can be applied to another embodiment alone or in combination with other features, unless the feature is not applicable or otherwise stated in the other embodiment.

[0178] The present application has been described through the above embodiments, but it should be understood that the above embodiments are only for the purpose of illustration and example, and are not intended to limit the present application to the scope of the described embodiments. In addition, those skilled in the art can understand that the present application is not limited to the above embodiments, and more variations and modifications can be made according to the teachings of the present application, and these variations and modifications all fall within the scope claimed by the present application. The protection scope of the present application is defined by the appended claims and their equivalent scope.

Claims

1. A connecting device for connecting building components, characterized in that, The connecting device includes an adjusting component, and the adjusting component includes: a driving assembly, and the driving assembly includes a driving member; a hinged assembly, and the hinged assembly includes a transmission member; and an adjusting assembly, one end of the adjusting assembly is hinged to the transmission member, and the other end of the adjusting assembly is used for hinging with the building component, wherein, the rotation of the driving member can drive the transmission member to move in a first direction, so as to drive the other end of the adjusting assembly to drive the building component to move in a second direction, and the first direction and the second direction intersect.

2. The connecting device according to claim 1, characterized in that The adjusting assembly includes a rotating member and an adjusting member, one end of the adjusting member is hinged to the transmission member, and the rotating member is arranged at the other end of the adjusting member, and the rotating member is used for hinging with the building component.

3. The connecting device according to claim 2, characterized in that, The adjusting assembly includes a first rotating member and a second rotating member, the first rotating member and the second rotating member are meshed with each other, and the first rotating member and the second rotating member are both used for hinging with the same building component.

4. The connecting device according to claim 3, wherein, The adjusting assembly further includes a third rotating member and a fourth rotating member, the third rotating member and the fourth rotating member are meshed with each other, and the third rotating member and the fourth rotating member are both used for hinging with another building component.

5. The connecting device according to claim 4, characterized in that The moving direction of the third rotating member is opposite to the moving direction of the first rotating member, and the moving direction of the fourth rotating member is opposite to the moving direction of the second rotating member.

6. The connecting device according to claim 1, characterized in that, The hinged assembly includes at least two transmission members, and the two transmission members are arranged opposite to each other in the first direction and have opposite moving directions.

7. The connecting device according to claim 6, characterized in that, The adjusting assembly includes at least two adjusting members, two of the at least two adjusting members are both hinged to one transmission member, and the other two of the at least two adjusting members are both hinged to another transmission member.

8. The connecting device according to claim 7, wherein, The hinged assembly further includes at least two hinged members, and the at least two hinged members are respectively hinged to at least two adjusting members.

9. The connecting device according to claim 8, wherein, The hinged member and the transmission member are respectively arranged at two ends of the adjusting member.

10. The connecting device according to claim 8, wherein The adjusting component further includes a connecting assembly, and the connecting assembly is hinged to at least two of the hinged members.

11. The connecting device according to claim 10, characterized in that, The connecting assembly includes a connecting member, two of the at least two hinged members are both hinged to one connecting member, and the other two of the at least two hinged members are both hinged to another connecting member.

12. The connecting device according to claim 6, characterized in that, The driving member includes at least two external threads, and the at least two external threads are respectively meshed with at least two of the transmission members, the at least two external threads are arranged at intervals in the first direction, and the thread directions of adjacent external threads are opposite.

13. The connecting device according to claim 1, characterized in that, The connecting device further includes a tensioning component and a sealing component, the tensioning component is used for connecting the adjusting component and the building component, and the sealing component is used for filling between the adjusting component and the building component.

14. The connecting device according to claim 1, wherein The connecting device further includes a receiving component, the adjusting component is arranged in the receiving component, the adjusting component further includes a connecting assembly, the receiving component is provided with a guiding assembly, and the connecting assembly is movably connected with the guiding assembly in the second direction.

15. A construction device, characterized in that, The construction equipment includes construction components and the connecting device according to any one of claims 1-14, and the connecting device connects the construction components.

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