An assembled integral grouting sleeve grouting saturation detection device

Abstract

The present application relates to an assembled integral grouting sleeve grouting saturation detection device, the sleeve is located in a wall, the sleeve is integrally formed with a slurry inlet and a slurry outlet, the slurry outlet is located above the slurry inlet, a through hole is opened at a position corresponding to the slurry outlet on the wall, the grouting saturation detection device includes a plug-in tube plugged into the slurry inlet and a storage tube fixedly connected to the plug-in tube, the storage tube is located above the plug-in tube, a floating plate is provided in the storage tube, a guide rod is fixedly connected to the upper end surface of the floating plate, the guide rod is slidably plugged into the upper end surface of the storage tube, a fixed ring is sleeved on the plug-in tube, a plurality of mounting plates are fixedly connected to the end surface of the fixed ring close to the storage tube, the mounting plate is located between the wall and the storage tube, and a reinforcement component for pushing the plug-in tube to move into the slurry inlet is provided on the mounting plate. The present application has the effect of reducing the adverse effects on the grouting saturation detection of the grouting sleeve.

Description

Technical Field

[0001] The present application relates to the field of devices for assembled buildings, and in particular to a grouting saturation detection device for an assembled integral grouting sleeve. Background Art

[0002] The grouting sleeve is a combination of a sleeve, matching grouting material and steel bars. When connecting the steel bars, the fast-hardening non-shrinkage grouting material is injected, and the steel bars and sleeves are connected by the bonding and biting action between the materials. The grouting sleeve connection technology is suitable for reinforced concrete structural engineering. There is a grouting inlet and a grouting outlet on the sleeve. The grouting inlet is located below the grouting outlet. Since the sleeve is located inside the wall, in order to observe the grouting condition of the sleeve, the operator will use a grouting saturation detection device for detection. The grouting saturation detection device is installed at the grouting outlet.

[0003] A common grouting saturation detection device includes a storage tube and a plug-in tube, which is plugged into the slurry inlet, the axes of the storage tube and the plug-in tube are perpendicular to each other, and the ends of the storage tube and the plug-in tube that are close to each other are fixedly connected, and the end of the storage tube away from the plug-in tube is blocked, and a floating plate is provided in the storage tube, and a guide rod is vertically fixedly connected to the upper end surface of the floating plate, and the guide rod passes through the end surface of the storage tube away from the plug-in tube, and a plurality of air holes begin to appear on the end surface of the storage tube away from the plug-in tube; when the slurry in the sleeve reaches the slurry outlet, the slurry will enter the plug-in tube, and as the slurry continues to be poured into the sleeve, the slurry enters the storage tube and pushes the floating plate to move, and the operator can determine the grouting height in the sleeve by observing the position of the floating plate.

[0004] Since the plug-in tube of the grouting saturation detection device is plugged into the slurry outlet, when the slurry enters the plug-in tube from the slurry outlet, it may push the plug-in tube to move out of the slurry outlet, which may cause the grouting saturation detection device to detach from the sleeve, thereby adversely affecting the grouting saturation detection of the grouting sleeve. Summary of the invention

[0005] In order to reduce the adverse effects on the grouting saturation detection of the grouting sleeve, the present application provides an assembled integral grouting sleeve grouting saturation detection device.

[0006] The present application provides an assembled integral grouting sleeve grouting saturation detection device adopts the following technical solution:

[0007] A grouting saturation detection device with an assembled integral grouting sleeve, the sleeve is located in a wall, a slurry inlet and a slurry outlet are integrally formed on the sleeve, the slurry outlet is located above the slurry inlet, a through hole is opened on the wall at a position corresponding to the slurry outlet, the grouting saturation detection device includes a plug-in tube plugged into the slurry inlet and a storage tube fixedly connected to the plug-in tube, the storage tube is located above the plug-in tube, a floating plate is provided in the storage tube, a guide rod is fixedly connected to the upper end surface of the floating plate, the guide rod is slidably plugged into the upper end surface of the storage tube, a fixing ring is sleeved on the plug-in tube, a plurality of mounting plates are fixedly connected to the end surface of the fixing ring close to the storage tube, the mounting plate is located between the wall and the storage tube, and a reinforcement component for pushing the plug-in tube to move toward the slurry inlet is provided on the mounting plate.

[0008] By adopting the above technical scheme, when the operator needs to pour slurry into the sleeve, the operator first plugs the plug-in tube into the slurry outlet, and then pushes the fixing ring into the through hole so that the fixing ring is plugged into the through hole. The fixing ring cooperates with the through hole to fix the mounting plate. Then the operator pours slurry into the sleeve through the slurry inlet. When the slurry enters the plug-in tube and the storage tube from the slurry outlet, the slurry pushes the float to move upward. The movement of the float provides driving force for the reinforcement component, thereby making the reinforcement component work. The work of the reinforcement component pushes the plug-in tube to move toward the slurry outlet, so that the plug-in tube can be better plugged into the slurry outlet, reducing the possibility of the plug-in tube and the sleeve being released, and reducing the adverse effects on the grouting saturation detection of the grouting sleeve.

[0009] Optionally, the reinforcement assembly includes a driving disk, which is slidably plugged into the storage tube, and a plurality of fixed rods are fixedly connected to the driving disk, one end of the fixed rod is fixedly connected to the guide rod, a driving rod is hinged on the mounting plate corresponding to the driving disk, and a guide block is hinged on the end of the driving rod away from the mounting plate, the guide block is slidably connected to the lower surface of the driving disk, and the guide block slides along the direction of the connection between the mounting plate and the driving disk, a sleeve is fixedly connected to the driving rod, the opening of the sleeve faces the plug-in tube, a push rod is slidably plugged in the sleeve, and the lower end of the push rod is connected to the plug-in tube.

[0010] By adopting the above technical solution, when the floating plate moves upward, the floating plate moves to compress the reset spring, and the floating plate moves to drive the driving plate upward. The movement of the driving plate pulls the end of the driving rod close to the driving plate to move upward. At the same time, the end of the driving rod close to the driving plate rotates toward the direction close to the wall. The movement of the driving rod drives the sleeve and the push rod to move, so that the push rod pushes the plug-in tube to move, so that the plug-in tube can be better plugged into the slurry outlet.

[0011] Optionally, a vibrating assembly for impacting the sleeve is provided on the mounting plate.

[0012] By adopting the above technical solution, the driving rod rotates to drive the vibration assembly to work, and the vibration assembly impacts the sleeve, causing the side wall of the sleeve to vibrate, thereby causing the slurry in the sleeve to collapse, reducing the time required to wait for the slurry in the sleeve to collapse, and shortening the time required for the slurry in the storage pipe to fill the sleeve.

[0013] Optionally, the vibrating assembly includes a first cam rotatably connected to a mounting plate connected to a driving rod, the driving rod is fixedly connected to the first cam, a support plate is vertically fixedly connected to the mounting plate, the support plate is located above the first cam, a connecting rod is slidably inserted on the support plate, the moving direction of the connecting rod is set along the height direction of the wall, a second cam is fixedly connected to the lower end of the connecting rod, the second cam is located above the first cam, and the side wall of the second cam contacts the side wall of the first cam, and a protrusion is fixedly connected to the mounting plate, and the protrusion is located on one side of the second cam.

[0014] By adopting the above technical solution, when the operator installs the fixing ring, the operator makes the mounting plate contact with the wall. When there is no slurry in the storage tube, the first cam and the second cam are placed with the longest radius side facing downward. When the driving rod rotates, the driving rod rotates to drive the first cam to rotate, so that the longest radius side of the first cam gradually rotates upward. The rotation of the first cam pushes the second cam and the connecting rod to move upward. When the second cam moves to contact with the protrusion, as the driving rod continues to drive the first cam to rotate, the first cam pushes the second cam to impact the protrusion. The protrusion transmits the force to the sleeve through the mounting plate and the wall, thereby causing the sleeve to vibrate. The vibration of the sleeve causes the slurry in the sleeve to collapse quickly. At this time, the reset spring recovers its deformation and pushes the floating plate to move downward. The floating plate moves to push the slurry in the storage tube and the plug-in tube into the sleeve. The slurry entering the sleeve fills the sleeve, shortening the time required to wait for the slurry in the sleeve to collapse.

[0015] Optionally, the inner diameter of the middle portion of the material storage tube is larger than the inner diameter of the plug tube, a material storage cavity is formed in the middle portion of the material storage tube, and the floating plate is located in the material storage cavity.

[0016] By adopting the above technical solution, since the inner diameter of the middle part of the storage tube is larger than the inner diameter of the plug tube, the volume of the storage cavity is increased, and more slurry can be stored in the storage cavity, thereby reducing the situation where the slurry in the storage tube is insufficient to fill the sleeve.

[0017] Optionally, a guide groove corresponding to the guide block is opened on the lower end surface of the driving disk, and the guide block is slidably inserted in the guide groove. The guide block is fixedly connected to a side wall of the wall close to a positioning spring, and the end of the positioning spring away from the guide block is fixedly connected to the groove wall of the guide groove close to one end of the wall.

[0018] By adopting the above technical solution, when there is no slurry in the storage tube, the positioning spring positions the guide block, so that the upper end of the driving rod is tilted in the direction away from the wall. When the driving disk moves upward, the driving disk moves to drive the guide block and the driving rod to move. The driving rod rotates while moving. The rotation of the driving rod drives the guide block to move in the direction close to the wall. The movement of the guide block compresses the positioning spring.

[0019] Optionally, a connecting spring is sleeved on the connecting rod, the upper end of the connecting spring abuts against the support plate, and the lower end of the connecting spring abuts against the side wall of the second cam.

[0020] By adopting the above technical solution, when the driving disk moves upward, the second cam moves upward and compresses the connecting spring; when the slurry in the storage tube and the plug-in tube flows back into the sleeve, the slurry height in the storage tube drops, and at this time the reset spring recovers its deformation and pushes the floating plate and the driving disk to move downward. The movement of the driving disk drives the driving rod and the first cam to rotate. At this time, the rotation direction of the driving rod is opposite to the rotation direction of the driving rod when the driving disk moves upward, and the rotation direction of the first cam is also opposite to the rotation direction of the first cam when the driving disk moves upward. The side with the longest radius of the first cam gradually rotates in the direction away from the second cam, and at the same time the connecting spring recovers its deformation and pushes the second cam to move downward, so that the second cam gradually disengages from the bump.

[0021] As the operator continues to pour slurry into the sleeve, the slurry flows into the plug-in tube and the storage tube, and the slurry pushes the floating plate and the driving plate to rise. At this time, the driving rod drives the first cam to rotate again, causing the second cam to knock the bump again, so that the sleeve is impacted multiple times, further reducing the situation where some positions in the sleeve are not filled.

[0022] Optionally, the outer diameter of the fixing ring is larger than the aperture of the through hole, the fixing ring is made of rubber, the end surface of the fixing ring away from the storage tube is inclined, and the lower side of the fixing ring is inclined toward the side away from the storage tube.

[0023] By adopting the above technical solution, when the operator pushes the mounting plate toward the wall, the mounting plate moves and pushes the fixing ring into the through hole. When the fixing ring is away from the end face of the storage tube and contacts the through hole, as the fixing ring continues to move into the through hole, the hole wall of the through hole squeezes the fixing ring, causing the fixing ring to deform. The side wall of the fixing ring abuts against the bottom of the through hole, thereby improving the fixing effect of the fixing tube and the through hole, thereby better fixing the mounting plate to the wall.

[0024] In summary, the present application includes at least one of the following beneficial technical effects:

[0025] 1. By setting the wall, sleeve, slurry inlet, slurry outlet, floating plate, guide rod, reset spring, fixing ring, mounting plate and reinforcement components, the plug-in tube can be better plugged into the slurry outlet, reducing the situation of the plug-in tube and the sleeve being unmatched, and reducing the adverse effects on the grouting sleeve grouting saturation detection;

[0026] 2. By setting a driving disk, a fixing rod, a driving rod, a guide block, a sleeve and a push rod, the movement of the driving rod drives the sleeve and the push rod to move, so that the push rod pushes the plug-in tube to move, so that the plug-in tube can be better plugged into the pulp outlet;

[0027] 3. By setting the first cam, the second cam, the connecting rod and the support plate, the floating plate moves to push the slurry in the storage tube and the plug tube into the sleeve, and the slurry entering the sleeve fills the sleeve, shortening the time required to wait for the slurry in the sleeve to collapse. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is a schematic diagram of the connection relationship between the grouting saturation detection device and the sleeve according to an embodiment of the present application.

[0029] Figure 2 It is a cross-sectional view of the overall structure of the grouting saturation detection device according to an embodiment of the present application.

[0030] Figure 3 It is a cross-sectional view of a partial structure of a grouting saturation detection device according to an embodiment of the present application.

[0031] Explanation of the reference numerals in the accompanying drawings: 1. sleeve; 11. slurry inlet; 12. slurry outlet; 2. wall; 21. through hole; 3. plug-in tube; 4. material storage tube; 41. material storage chamber; 42. air hole; 43. floating plate; 44. guide rod; 45. reset spring; 5. fixing ring; 6. mounting plate; 61. mounting groove; 7. reinforcement assembly; 71. drive plate; 711. guide groove; 72. fixing rod; 721. cross rod; 722. vertical rod; 73. matching ring plate; 731. matching groove; 74. drive rod; 741. guide block; 742. positioning spring; 75. sleeve; 76. push rod; 8. vibrating assembly; 81. support rod; 82. first cam; 83. support plate; 84. connecting rod; 85. second cam; 86. connecting spring; 87. bump. DETAILED DESCRIPTION

[0032] The following is combined with Figure 1-3 This application is described in further detail.

[0033] The present application embodiment discloses a grouting saturation detection device for an assembled integral grouting sleeve. Figure 1 and Figure 2The grouting saturation detection device is used on a sleeve 1, and the sleeve 1 is located in a wall 2. A slurry inlet 11 and a slurry outlet 12 are integrally formed on the side wall of the sleeve 1. The slurry inlet 11 is located below the slurry outlet 12, and a through hole 21 corresponding to the slurry outlet 12 is opened on the wall 2; the grouting saturation detection device includes a storage pipe 4 and a plug-in pipe 3, the axes of the plug-in pipe 3 and the storage pipe 4 are perpendicular to each other, and the plug-in pipe 3 is fixedly connected to the storage pipe 4 at one end close to each other, the plug-in pipe 3 is plugged into the through hole 21, and the end of the plug-in pipe 3 away from the storage pipe 4 is plugged into the slurry outlet 12.

[0034] Reference Figure 2 and Figure 3 The axis of the plug-in tube 3 is perpendicular to the axis of the sleeve 1, the axial direction of the storage tube 4 is arranged along the axial direction of the sleeve 1, the storage tube 4 is located above the plug-in tube 3, the end of the storage tube 4 away from the plug-in tube 3 is blocked, the inner diameter of the end of the storage tube 4 away from the plug-in tube 3 is the same as the inner diameter of the plug-in tube 3, the inner diameter of the middle part of the storage tube 4 is larger than the inner diameter of the end of the storage tube 4, and the space in the middle part of the storage tube 4 is a storage cavity 41; a floating plate 43 is slidably inserted in the storage cavity 41, the floating plate 43 is coaxially arranged with the storage tube 4, and the side wall of the floating plate 43 contacts the side cavity wall of the storage cavity 41.

[0035] A guide rod 44 is vertically fixedly connected to the upper end surface of the floating plate 43, and the guide rod 44 is coaxially arranged with the floating plate 43. The guide rod 44 passes through the upper end surface of the storage tube 4, and the guide rod 44 is slidably inserted on the upper end surface of the storage tube 4. A plurality of air holes 42 connected with the storage tube 4 are opened on the upper end surface of the storage tube 4; a return spring 45 is sleeved on the guide rod 44, one end of the return spring 45 abuts against the upper end surface of the floating plate 43, and the other end of the return spring 45 abuts against the inner top surface of the storage tube 4. When the lower end surface of the floating plate 43 contacts the lower cavity wall of the storage cavity 41, the return spring 45 is in a compressed state.

[0036] A fixing ring 5 is sleeved on the plug-in tube 3, and the fixing ring 5 is coaxially arranged with the plug-in tube 3. The outer diameter of the fixing ring 5 is larger than the diameter of the through hole 21, and the fixing ring 5 is made of rubber; two mounting plates 6 are fixedly connected to the end surface of the fixing ring 5 close to the storage tube 4, and the plug-in tube 3 is located between the two mounting plates 6, and the positions of the two mounting plates 6 close to the fixing ring 5 both protrude toward the direction close to the storage tube 4 to form a mounting groove 61; the fixing ring 5 is inserted into the through hole 21, the wall 2 is inserted into the mounting groove 61, and the mounting plate 6 fits with the hole wall of the through hole 21 and the side wall of the wall 2; in order to make it easier for the operator to insert the fixing ring 5 into the through hole 21, the end surface of the fixing ring 5 away from the storage tube 4 is inclined, and the lower side of the end surface of the fixing ring 5 away from the storage tube 4 is inclined toward the direction away from the storage tube 4, and the upper side of the end surface of the fixing ring 5 away from the storage tube 4 is inclined toward the direction close to the storage tube 4.

[0037] The mounting plate 6 is provided with a reinforcing assembly 7 which enables the plug-in tube 3 to be better plugged into the slurry outlet 12. The reinforcing assembly 7 includes a driving disk 71 which is sleeved on the storage tube 4. The driving disk 71 is slidably plugged into the storage tube 4. A plurality of fixing rods 72 are fixedly connected to the upper end surface of the guide rod 44. The plurality of fixing rods 72 are distributed along the circumference of the guide rod 44. The fixing rod 72 includes a cross bar 721 and a vertical rod 722. The cross bar 721 is fixedly connected to the guide rod 44. The cross bar 721 and the guide rod 44 are perpendicular to each other. The length direction of the vertical rod 722 is arranged along the axial direction of the storage tube 4. The end of the vertical rod 722 away from the cross bar 721 is fixedly connected to the upper end surface of the driving disk 71. When the lower end surface of the floating plate 43 contacts the lower cavity wall of the storage cavity 41, there is a gap between the lower end surface of the driving disk 71 and the outer side wall of the plug-in tube 3.

[0038] A matching ring plate 73 is sleeved on the plug-in tube 3, and the matching ring plate 73 is coaxially arranged with the plug-in tube 3. The matching ring plate 73 is located between the fixing ring 5 and the storage tube 4, and the matching ring plate 73 is fixedly connected to the plug-in tube 3. There is a gap between the matching ring plate 73 and the driving disk 71; a driving rod 74 is hingedly connected to the side wall of the mounting plate 6 corresponding to the driving disk 71, which is away from the wall 2, and a guide block 741 is hingedly connected to the end of the driving rod 74 away from the mounting plate 6. A guide groove 711 corresponding to the guide block 741 is provided on the lower surface of the driving disk 71. The guide groove 711 is located between the mounting plate 6 and the storage tube 4, and the length direction of the guide groove 711 is arranged along the radial direction of the mounting plate 6. The guide block 741 is slidably inserted in the guide groove 711, and a positioning spring 742 is fixedly connected to the side wall of the guide block 741 close to the wall 2, and the end of the positioning spring 742 away from the guide block 741 is fixedly connected to the groove wall of the guide groove 711 close to the wall 2.

[0039] A sleeve 75 is fixed on the driving rod 74. The sleeve 75 is located on the side close to the storage tube 4. The opening of the sleeve 75 faces the matching ring plate 73. A push rod 76 is slidably inserted in the sleeve 75. The lower end of the push rod 76 is located outside the sleeve 75. A matching groove 731 is opened on the outer wall of the matching ring plate 73. The matching groove 731 is located below the push rod 76. The matching groove 731 is annular. The matching groove 731 and the matching ring plate 73 are coaxially arranged. The lower end of the push rod 76 is slidably inserted in the matching groove 731. The axes of the sleeve 75, the push rod 76 and the storage tube 4 are parallel to each other. When the lower end surface of the floating plate 43 contacts the lower cavity wall of the storage cavity 41, the positioning spring 742 is in a natural state, the side wall of the guide block 741 away from the wall 2 contacts the cavity wall of the guide groove 711 away from the wall 2, and the driving rod 74 is inclined, with the lower end of the driving rod 74 inclined toward the side close to the wall 2 and the upper end of the driving rod 74 inclined toward the side close to the driving plate 71.

[0040] When the operator pours slurry into the sleeve 1, he first inserts the end of the plug-in tube 3 away from the storage tube 4 into the slurry outlet 12, and pushes the mounting plate 6. The mounting plate 6 moves and pushes the fixing ring 5 to move into the through hole 21. When the inclined end face of the fixing ring 5 contacts the hole wall of the through hole 21, as the mounting plate 6 continues to move, the hole wall of the through hole 21 squeezes the fixing ring 5, causing the fixing ring 5 to deform; when the wall 2 is clamped in the mounting groove 61, the mounting plate 6 fits against the side wall of the wall 2. At this time, the fixing ring 5 is inserted in the through hole 21, and the operator can pour slurry into the sleeve 1 through the slurry inlet 11.

[0041] When the slurry enters the storage tube 4 from the insertion tube 3, the slurry enters the storage chamber 41. As the slurry entering the storage chamber 41 gradually increases, the slurry pushes the floating plate 43 and the guide rod 44 to move upward. The movement of the floating plate 43 drives the guide rod 44, the fixed rod 72 and the driving plate 71 to move upward. When the floating plate 43 moves, the reset spring 45 is compressed. The movement of the driving plate 71 drives the guide block 741 to move. The movement of the guide block 741 drives the driving rod 74 to move upward at one end close to the driving plate 71.

[0042] The guide block 741 moves to compress the positioning spring 742, and the driving rod 74 rotates while moving, so that the driving rod 74 drives the sleeve 75 to move upward, and at the same time, the driving rod 74 also drives the sleeve 75 and the push rod 76 to move in the direction close to the wall 2; the push rod 76 moves to push the matching ring plate 73 and the plug-in tube 3 to move, so that the plug-in tube 3 can be better inserted into the slurry outlet 12, thereby reducing the situation where the plug-in tube 3 is separated from the slurry outlet 12, thereby reducing the adverse effect on the grouting saturation detection of the grouting sleeve.

[0043] The slurry is stored in the storage chamber 41. After waiting for a period of time, the slurry in the sleeve 1 collapses and fills the part of the sleeve 1 that is not filled with the slurry. At this time, the reset spring 45 recovers its deformation and pushes the float 43 to move downward. The float 43 moves to press the slurry in the storage chamber 41 and the plug-in tube 3 into the sleeve 1, thereby filling the inside of the sleeve 1; since the diameter of the storage chamber 41 is larger than the diameter of the plug-in tube 3, the storage chamber 41 can store more slurry, reducing the situation where the slurry stored in the plug-in tube 3 and the storage tube 4 is insufficient to fill the sleeve 1.

[0044] In order to shorten the time required for the slurry in the plug-in tube 3 and the storage tube 4 to fill the sleeve 1, a vibrating assembly 8 is also provided on the mounting plate 6. When the reinforcement assembly 7 is working, the reinforcement assembly 7 drives the vibrating assembly 8 to work, and the operation of the vibrating assembly 8 accelerates the collapse speed of the slurry in the sleeve 1; the vibrating assembly 8 includes a support rod 81 vertically fixedly connected to the mounting plate 6, the support rod 81 and the driving rod 74 are located on the same mounting plate 6, and the end of the support rod 81 is rotatably connected to a first cam 82, the axial direction of the first cam 82 is perpendicular to the axial direction of the storage tube 4, and one of the side walls of the driving rod 74 is fixedly connected to one of the end faces of the first cam 82.

[0045] A support plate 83 is vertically fixedly connected to the mounting plate 6 fixedly connected to the first cam 82, and the support plate 83 is located above the first cam 82. A connecting rod 84 is slidably inserted on the support plate 83, and the axial direction of the connecting rod 84 is arranged along the axial direction of the storage tube 4. A second cam 85 is fixedly connected to the lower end of the connecting rod 84, and the second cam 85 is located above the first cam 82, and the side wall of the second cam 85 abuts against the side wall of the first cam 82; a connecting spring 86 is sleeved on the connecting rod 84, and the upper end of the connecting spring 86 contacts the lower surface of the support plate 83, and the lower end of the connecting spring 86 contacts the side wall of the second cam 85. A protrusion 87 is vertically fixedly connected to the mounting plate 6, and the protrusion 87 is located between the support plate 83 and the first cam 82, and the protrusion 87 is located on one side of the second cam 85.

[0046] In the initial state, the lower end surface of the floating plate 43 contacts the lower cavity wall of the storage cavity 41, and the positioning spring 742 is in a natural state. At this time, the side wall of the first cam 82 on the side with the smallest radius is set upward, the second cam 85 is located on one side of the protrusion 87, and there is a gap between the second cam 85 and the protrusion 87, and the connecting spring 86 is in compression filling.

[0047] When the driving disc 71 moves upward and drives the driving rod 74 to rotate, the driving rod 74 rotates and drives the first cam 82 to rotate, so that the side of the longest radius of the first cam 82 gradually rotates upward, and the first cam 82 rotates to push the second cam 85 and the connecting rod 84 to move upward, and the second cam 85 moves to compress the connecting spring 86; when the second cam 85 moves to contact with the protrusion 87, as the first cam 82 continues to rotate, the first cam 82 pushes the second cam 85 to move, so that the second cam 85 abuts against the protrusion 87, so that the second cam 85 knocks the protrusion 87, and the protrusion 87 transmits the force to the sleeve 1 through the mounting plate 6 and the wall 2, so that the side wall of the sleeve 1 is impacted by the external force and vibrates, and the vibration of the side wall of the sleeve 1 makes the slurry in the sleeve 1 vibrate while the slurry is poured, thereby reducing the situation where some positions in the sleeve 1 are not filled with slurry.

[0048] During the process of the second cam 85 hitting the bump 87, the slurry in the plug-in tube 3 and the storage tube 4 flows back into the sleeve 1, and the slurry height in the storage tube 4 drops. At the same time, the reset spring 45 recovers its deformation and pushes the floating plate 43 and the driving plate 71 to move downward. The driving plate 71 moves downward and drives the driving rod 74 to rotate. At this time, the rotation direction of the driving rod 74 is opposite to the rotation direction of the driving rod 74 when the driving plate 71 moves upward. The rotation of the driving rod 74 drives the side of the smallest radius of the first cam 82 to rotate upward, and the connecting spring 86 recovers its deformation and pushes the second cam 85 to move downward. The second cam 85 moves so that the second cam 85 gradually disengages from the bump 87.

[0049] As the slurry continues to be poured into the sleeve 1, the slurry enters the plug tube 3 and the storage tube 4, and the slurry pushes the floating plate 43 and the driving plate 71 to move upward. The movement of the driving plate 71 drives the driving rod 74 and the first cam 82 to rotate. The rotation of the first cam 82 again pushes the second cam 85 to move upward, causing the second cam 85 to knock the protrusion 87 again, so that the side wall of the sleeve 1 is impacted multiple times, further reducing the situation where some positions in the sleeve 1 are not filled.

[0050] The implementation principle of the grouting saturation detection device of an assembled integral grouting sleeve in the embodiment of the present application is as follows: when the operator needs to pour grout into the sleeve 1, first plug the plug-in tube 3 into the slurry inlet 11, then push the mounting plate 6 to make the fixing ring 5 plug into the through hole 21, and the mounting plate 6 fits against the side wall of the wall 2; at this time, the operator pours slurry into the sleeve 1 from the slurry inlet 11; when the slurry enters the plug-in tube 3 and the storage tube 4 from the slurry outlet 12, the slurry pushes the floating plate 43 and the driving plate 71 to move upward, the movement of the driving plate 71 drives the driving rod 74 to rotate, the rotation of the driving rod 74 drives the sleeve 75 and the push rod 76 to push the matching ring plate 73 to move, and the movement of the matching ring plate 73 makes the plug-in tube 3 further plugged into the slurry inlet 11.

[0051] When the driving rod 74 rotates, it also drives the first cam 82 to rotate. The rotation of the first cam 82 drives the second cam 85 to move upward. The second cam 85 moves to knock the protrusion 87. The force on the protrusion 87 is transmitted to the sleeve 1 through the mounting plate 6 and the wall 2, causing the sleeve 1 to vibrate. The vibration of the sleeve 1 causes the slurry in the sleeve 1 to collapse. The collapse of the slurry causes the height of the slurry in the storage tube 4 to drop. The reset spring 45 recovers its deformation and pushes the floating plate 43 and the driving plate 71 to move downward. The movement of the driving plate 71 drives the driving rod 74 to rotate. The rotation of the driving rod 74 causes the first cam 82 to rotate. At the same time, the connecting spring 86 recovers its deformation and pushes the second cam 85 to move downward. The second cam 85 gradually separates from the protrusion 87 while moving. As the operator continues to pour slurry into the sleeve 1, the floating plate 43 and the driving plate 71 move upward again, so that the driving rod 74 drives the first cam 82 to rotate, and the second cam 85 knocks the protrusion 87 again. Repeat the above operation many times, so that the sleeve 1 is impacted many times.

[0052] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. An assembled integral grouting sleeve grouting saturation detection device, the sleeve (1) being located in a wall (2), the sleeve (1) being integrally formed with a grout inlet (11) and a grout outlet (12), the grout outlet (12) being located above the grout inlet (11), a through hole (21) being provided at a position on the wall (2) corresponding to the grout outlet (12), the grouting saturation detection device comprising a plug-in tube (3) plugged into the grout inlet (11) and a material storage pipe (4) fixedly connected to the plug-in tube (3), the material storage pipe (4) being located above the plug-in tube (3), a floating plate (43) being fixedly connected to an upper end surface of the floating plate (43), the guide rod (44) being slidably plugged into the upper end surface of the material storage pipe (4), characterized in that: The plug-in tube (3) is provided with a fixing ring (5), and a plurality of mounting plates (6) are fixedly connected to the end surface of the fixing ring (5) close to the material storage tube (4). The mounting plates (6) are located between the wall (2) and the material storage tube (4), and a reinforcing component (7) is provided on the mounting plates (6) for pushing the plug-in tube (3) to move toward the pulp inlet (11). The reinforcement assembly (7) comprises a driving disk (71), the driving disk (71) being slidably plugged into the material storage tube (4), a plurality of fixed rods (72) being fixedly connected to the driving disk (71), one end of the fixed rod (72) being fixedly connected to the guide rod (44), a driving rod (74) being hingedly connected to the mounting plate (6) corresponding to the driving disk (71), a guide block (741) being hingedly connected to the end of the driving rod (74) away from the mounting plate (6), the guide block (741) being slidably connected to the lower surface of the driving disk (71), the guide block (741) sliding along the connecting line direction between the mounting plate (6) and the driving disk (71), a sleeve (75) being fixedly connected to the driving rod (74), the opening of the sleeve (75) facing the plug-in tube (3), a push rod (76) being slidably plugged into the sleeve (75), the lower end of the push rod (76) being connected to the plug-in tube (3), The mounting plate (6) is provided with a vibrating assembly (8) for impacting the sleeve (1). The vibrating assembly (8) comprises a first cam (82) rotatably connected to a mounting plate (6) connected to a driving rod (74), the driving rod (74) being fixedly connected to the first cam (82), a support plate (83) being vertically fixedly connected to the mounting plate (6), the support plate (83) being located above the first cam (82), a connecting rod (84) being slidably plugged into the support plate (83), the moving direction of the connecting rod (84) being arranged along the height direction of the wall (2), a second cam (85) being fixedly connected to the lower end of the connecting rod (84), the second cam (85) being located above the first cam (82), and a side wall of the second cam (85) being in contact with a side wall of the first cam (82), and a protrusion (87) being fixedly connected to the mounting plate (6), the protrusion (87) being located on one side of the second cam (85).

2. The grouting saturation detection device of the assembled integral grouting sleeve according to claim 1, characterized in that: The inner diameter of the middle portion of the material storage tube (4) is greater than the inner diameter of the plug-in tube (3); the middle portion of the material storage tube (4) forms a material storage cavity (41), and the floating plate (43) is located in the material storage cavity (41).

3. The grouting saturation detection device of an assembled integral grouting sleeve according to claim 1, characterized in that: A guide groove (711) corresponding to the guide block (741) is formed on the lower end surface of the driving disk (71), and the guide block (741) is slidably inserted in the guide groove (711). A positioning spring (742) is fixedly connected to the side wall of the guide block (741) close to the wall (2), and one end of the positioning spring (742) away from the guide block (741) is fixedly connected to the groove wall of the guide groove (711) close to the wall (2).

4. The grouting saturation detection device of an assembled integral grouting sleeve according to claim 1, characterized in that: A connecting spring (86) is sleeved on the connecting rod (84), the upper end of the connecting spring (86) abuts against the support plate (83), and the lower end of the connecting spring (86) abuts against the side wall of the second cam (85).

5. The grouting saturation detection device of an assembled integral grouting sleeve according to claim 1, characterized in that: The outer diameter of the fixing ring (5) is greater than the aperture of the through hole (21); the fixing ring (5) is made of rubber; the end surface of the fixing ring (5) away from the material storage tube (4) is inclined; and the lower side of the fixing ring (5) is inclined toward the side away from the material storage tube (4).

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