Low-carbon integrated inorganic light-weight high-strength self-insulation block production line and process

Abstract

The application discloses a low-carbon integrated inorganic light-weight high-strength self-thermal insulation block production line and process, which detects the pressure of four corners of a forming mold trolley through four pressure sensors, and adjusts the phase by setting eccentric blocks in the internal vibration device as an angle-adjustable structure. The application compares the pressure by setting pressure sensing devices at the four corners of the forming mold trolley, so as to obtain the ratio of the pressure difference and the pressure average value, and convert the ratio into the angle to be adjusted of the two sets of eccentric blocks in the two sets of vibration devices. Then, the phase is adjusted on the basis of the preset 90-degree included angle, so that the exciting force is adjusted, the exciting force is adaptively increased on the side with more slurry, and the exciting force is adaptively reduced on the side with less slurry, and finally the purpose of improving the efficiency and effect of vibration is achieved.

Description

Technical Field

[0001] This invention relates to a production line and process for thermal insulation blocks, and more particularly to a production line and process for low-carbon integrated inorganic lightweight high-strength self-insulating blocks. Background Technology

[0002] Insulating blocks, also known as aerated bricks, insulating bricks, or lightweight bricks, are a type of brick made primarily from lime, cement, and fly ash. They are produced through processes such as mixing and high-pressure steam curing with the addition of regulators and gas-generating agents. They are a type of non-sintered brick and are characterized by their lightweight, porous nature, good thermal insulation performance, and strong earthquake resistance.

[0003] During the production of thermal insulation blocks, the mixed materials contain numerous pores and a loose granular structure. Vibration compaction rearranges these particles, reducing gaps and making the blocks more compact. For example, just as gently shaking loose sand into a bottle makes it more compact, occupying more space and reducing internal porosity, this helps improve the overall structural strength of the aerated concrete blocks, allowing them to withstand greater pressure during use without easily breaking.

[0004] Patent application number 202420602615.0 discloses a grouting and compaction device for aerated concrete block production. Its compaction mechanism includes a hanger connected to a gantry frame for lifting. Multiple vibrating rods are arranged in an array on the outer side of the hanger corresponding to the grouting mechanism. The vibrating rods are inserted into the grout for compaction by driving the hanger to lift and lower it. However, during the pouring process, the grout distribution within the mold is uneven due to the position of the pouring port. Therefore, ordinary vibrating rods cannot adjust the excitation force. Using the same excitation force for different locations will affect the compaction effect and efficiency. For example, the excitation force should be increased in areas with more and thicker grout, and decreased in areas with less and thinner grout. After compaction until the distribution is relatively uniform, the same excitation force should be used for a period of time to ensure uniform grout compaction and improve compaction efficiency. Summary of the Invention

[0005] Based on the shortcomings of existing technology, which uses a vibrator with an unadjustable phase during the compaction process of thermal insulation blocks after pouring, and cannot be adjusted according to the distribution of the grout, resulting in insufficient compaction effect and efficiency, this invention provides a low-carbon integrated inorganic lightweight high-strength self-insulating block production line and process.

[0006] The technical solution adopted by the present invention to solve the above-mentioned technical problems is as follows:

[0007] The low-carbon integrated inorganic lightweight high-strength self-insulating block production line includes:

[0008] A conveying device used to transport materials;

[0009] Ball mills are used to grind large particles of material into smaller pieces.

[0010] A mixing and stirring device is used to mix and stir finely ground materials, other materials and water to form a slurry;

[0011] A casting device, used to receive materials at the mixing device and cast the slurry;

[0012] The track includes two parallel track frames, support wheels rotatably mounted on the track frames, and a first drive motor mounted on the track frames, with some of the support wheels rotating via the motor.

[0013] The molding mold trolley includes a casting chamber with a rectangular cross-section and a mold cavity, support columns set at the four corners of the mold chamber, and support seats set on support wheels. The support seats are rectangular frames with insertion slots at the four corners of the rectangular frames. Pressure sensors are set at the bottom of the insertion slots. The support columns are inserted into the pressure insertion slots and supported by the pressure sensors. When the trolley travels to the bottom of the casting device, the casting device pours slurry into the mold cavity.

[0014] The compaction device includes a lifting drive device, a lifting frame driven by the lifting drive device, and a tamping device set on the lifting frame. The tamping device has two eccentric blocks with adjustable phase difference. The tamping device is arranged in two rows with two or three blocks at equal intervals in each row. During vibration, the pressure value of four pressure sensors is compared with the arithmetic average of the four pressure values ​​to obtain the difference comparison. The phase difference of the four tamping devices at the four corners is adjusted according to the pressure applied to the material.

[0015] A cutting device used to cut compacted and pre-formed billets into blocks;

[0016] An autoclave is used to steam-cur cut billets at high temperature and pressure.

[0017] Preferably, the tamping device includes...

[0018] upper body;

[0019] The second drive motor is powered by a lithium battery power supply located on the upper body or by an external power line. It is located inside the upper body to provide power, and its output end is equipped with a pulley with a belt sleeved on the pulley.

[0020] The lower seat is movably connected to the upper seat via a vibration damping device;

[0021] The vibrating component, located within the lower housing, includes:

[0022] The main shaft is rotatably mounted in the lower body, and its end is provided with a pulley and rotated by a belt. Two semi-circular first eccentric blocks are fixedly sleeved on its outer wall, and drive gears are provided on them.

[0023] The secondary shaft is rotatably mounted in the lower housing, and has a driven gear on it. The driven gear meshes with the drive gear, and has two semi-circular second eccentric blocks with adjustable angles on it.

[0024] A vibrating rod, which is located at the bottom of the lower body, is used to transmit vibration.

[0025] Preferably, the secondary shaft is a hollow cylindrical body with a swing hole along its circumferential direction. A mounting seat is provided inside the secondary shaft, and an L-shaped swing rod is provided on the second eccentric block, with the inner end of the swing rod hinged to the mounting seat. A pushing mechanism for pushing the swing rod to swing is provided in the lower seat, and the pushing mechanism is in rotational cooperation with the secondary shaft.

[0026] As preferred, the promoting organizations include:

[0027] The telescopic device is fixed in the lower body and its output end extends into the interior of the secondary shaft;

[0028] The rotating cylinder is rotatably engaged with the output end of the telescopic device. Its side wall is provided with a spiral adjustment hole, through which the swing rod passes. Its outer wall and the inner wall of the secondary shaft are slidably connected by a straight-tooth spline structure.

[0029] Preferably, the second eccentric block includes an outer fan-shaped portion and an inner annular mounting seat. The annular mounting seat includes a first seat body integral with the fan-shaped portion and a separate second seat body. The first seat body and the second seat body are detachably connected by fasteners, and after they are connected, they form a circular opening with a small gap fitted onto the surface of the secondary shaft. The width of the first seat body and the second seat body is greater than the width of the swing hole.

[0030] Preferably, the rotating cylinder has a notch that communicates with the adjustment hole.

[0031] As a preferred embodiment, the driving mechanism is symmetrically equipped with two sets of second eccentric blocks on the left and right sides for adjusting their angles.

[0032] Preferably, the telescopic device is a hydraulic cylinder, and the two inlet ends and two outlet ends of the two hydraulic cylinders are combined into one main inlet end and one main outlet end through a tee.

[0033] Preferably, the vibration damping device includes four guide posts and springs sleeved on the guide posts. The two ends of the guide posts pass through the upper and lower seats and are limited by nuts. The two ends of the springs abut against the upper and lower seats respectively.

[0034] The production process for low-carbon integrated inorganic lightweight high-strength self-insulating blocks, carried out on the aforementioned low-carbon integrated inorganic lightweight high-strength self-insulating block production line, includes the following steps:

[0035] S1, Ball mill: Large particles are fed into the ball mill and ground into finer particles;

[0036] S2, Mixing and Stirring: Finely ground siliceous materials, cement, lime, gypsum, aluminum powder, quartz sand, additives, and water are added to the storage tank according to a preset ratio and mixed.

[0037] S3, Casting: The mixed material is poured into the molding mold trolley;

[0038] S4, Compaction: The molding mold trolley moves along the track to the compaction station, and the compaction equipment descends and extends into the molding mold trolley to compact the slurry;

[0039] S5, Pre-curing and Cutting: The compacted blank is pre-cured under set temperature and humidity conditions to obtain sufficient strength. Then, the forming mold carriage is flipped over to demold. After demolding, it is cut into the required size and shape using a cutting device.

[0040] S6, autoclaving; The cut blanks are sent into an autoclave for high-temperature and high-pressure autoclaving;

[0041] In step S4, the excitation force is adjusted by the following steps: obtaining the values ​​from four pressure sensors and recording them as F1-F4, and calculating the arithmetic mean of the four pressure values. and with The difference between the pressure values ​​at four locations and the standard value is used to obtain four ΔF values. The initial included angle of the eccentric block is set to 90 degrees. The included angle after adjustment of the eccentric block is θ = 90 - (ΔF / )˙90,F_total=2F˙cos(θ / 2 ), When using four tamping devices, adjust the excitation force of each device using the above method. When using six tamping devices, adjust the excitation force of the four tamping devices at the four corners using the above method, and operate the remaining two devices at an initial angle of 90 degrees. During vibration, set a time period and perform the above calculation to adjust the angle of the eccentric block for each time period until the difference between the four pressure values ​​and the standard value is within the threshold range. Then, stop adjusting the angle of the eccentric block. The total vibration time needs to reach the preset value. If ΔF is within the set threshold before vibration starts, the eccentric block can vibrate at a 90-degree angle for the preset total time.

[0042] Compared with the prior art, the advantages of this invention are as follows: This application sets pressure sensing devices at the four corners of the molding mold carriage to compare pressure, thereby obtaining the ratio of pressure difference to average pressure. This ratio is then converted into the angle to be adjusted for the two sets of eccentric blocks in the two sets of vibration compaction devices. The phase is then adjusted based on the preset 90-degree angle, so that the excitation force is adjusted. The excitation force is adaptively increased on the side with more slurry and adaptively decreased on the side with less slurry, ultimately achieving the purpose of improving the efficiency and effect of vibration compaction. Attached Figure Description

[0043] The present invention will be further described in detail below with reference to the accompanying drawings and preferred embodiments. However, those skilled in the art will understand that these drawings are drawn only for the purpose of explaining the preferred embodiments and therefore should not be construed as limiting the scope of the invention. Furthermore, unless specifically indicated, the drawings are only schematic representations of the composition or structure of the described objects and may contain exaggerated depictions, and the drawings are not necessarily drawn to scale.

[0044] Figure 1 This is a perspective view of the present application;

[0045] Figure 2 This is an exploded view of the pressure sensor at the track frame in this application;

[0046] Figure 3 This is the front view of this application;

[0047] Figure 4 This is a side view of this application;

[0048] Figure 5 This is a perspective view of the present application;

[0049] Figure 6 This is the front view of this application;

[0050] Figure 7 This is a three-dimensional view of the internal parts of the upper and lower seats;

[0051] Figure 8 An exploded view of the secondary shaft and its internal structure;

[0052] Figure 9 This is a front view of the secondary shaft and its internal structure.

[0053] Figure 10 To promote the three-dimensional diagram of the organization;

[0054] Figure 11 This is a side view of the secondary axis;

[0055] Figure 12 for Figure 11 AA view;

[0056] Figure 13 This is a 3D view of the second eccentric block;

[0057] In the diagram: 01. Mixing and blending device; 02. Traveling track; 03. Translation platform; 04. Auxiliary track; 05. Pouring trolley; 06. Frame; 07. Lifting drive device; 08. Holding column; 09. Tamping device; 010. Track frame; 011. Support wheel; 012. Pressure sensor; 013. Molding mold trolley; 014. Support column; 015. Support base; 016. Insertion slot; 017. Lifting frame; 10. Upper body; 20. Lower body; 30. Vibrator; 40. Guide column; 401. Spring; 50. 501. Pushing mechanism; 502. Hydraulic cylinder; 502. Rotating cylinder; 5021. Adjusting hole; 5022, 800. Straight tooth spline structure; 600. Lithium battery power supply; 601. Drive motor; 602. Belt; 70. Main shaft; 701. First eccentric block; 702. Drive gear; 80. Countershaft; 801. Second eccentric block; 8011. Swing rod; 80110. Circular collar; 80111. First rod body; 80112. Second rod body; 8012. Mounting base; 802. Swing hole; 803. Driven gear. Detailed Implementation

[0058] Preferred embodiments of the present invention will now be described in detail with reference to the accompanying drawings. Those skilled in the art will appreciate that these descriptions are merely descriptive and exemplary and should not be construed as limiting the scope of protection of the present invention.

[0059] It should be noted that similar labels in the following figures indicate similar items; therefore, once an item is defined in one figure, it may not be further defined and explained in subsequent figures.

[0060] This embodiment mainly describes the title of the low-carbon integrated inorganic lightweight high-strength self-insulating block production line, as follows:

[0061] Low-carbon integrated inorganic lightweight high-strength self-insulating block production line, such as Figure 1-13 As shown, it includes:

[0062] A conveying device used to transport materials;

[0063] Ball mills are used to grind large particles of material into smaller pieces.

[0064] The mixing and stirring device 01 is used to mix and stir the finely ground materials, other materials and water to form a slurry. It includes two or four mixing tanks.

[0065] A pouring device is used to receive materials at the mixing device 01 and pour slurry. It includes a traveling track 02, a translation platform 03, two sets of auxiliary tracks 04 set on the translation platform 03, and a pouring trolley 05 set on the traveling track 02. When the translation platform 03 moves left and right, the auxiliary tracks 04 alternately connect with the traveling track 02. When one set of auxiliary tracks 04 connects with the traveling track 02, the pouring trolley 05 on the other auxiliary track 04 is located below the mixing tank to receive materials. When two pouring trolleys 05 are set, they can alternately receive materials at two mixing tanks. When there are four mixing tanks, two sets of pouring trolleys 05 can be set, with two in each set receiving materials on one side. Alternatively, two pouring trolleys 05 can be set to alternately receive materials at four mixing tanks to ensure that there is no situation where materials are received but waiting for mixing. The translation platform 03 is driven by a cylinder to move left and right and has two position degrees.

[0066] The track includes two parallel track frames 010, support wheels 011 rotatably mounted on the track frames 010, and a first drive motor 601 mounted on the track frames 010. Part of the support wheels 011 are driven to rotate by the motor.

[0067] The molding mold trolley 013 includes a casting chamber with a rectangular cross-section and a mold cavity, support columns 014 set at the four corners of the mold chamber, and support seats 015 set on support wheels 011. The support seats 015 are rectangular frames with insertion slots 016 at the four corners of the rectangular frames. Pressure sensors 012 are set at the bottom of the insertion slots 016. The support columns 014 are inserted into the pressure insertion slots 016 and supported by the pressure sensors 012. When the trolley travels to the bottom of the casting device, the casting device pours slurry into the mold cavity.

[0068] The compaction device is mounted on the frame 06 and includes a lifting drive device 07, a lifting frame 017 driven by the lifting drive device 07, and a tamping device 09 mounted on the lifting frame 017. The lifting drive device 07 passes through the frame 06 and is connected to the lifting frame 017. The lifting frame 017 is provided with a retaining column 08 that passes through the frame 06 and slides with the frame 06. The tamping device 09 is arranged in two rows, with two or three devices evenly spaced in each row.

[0069] A cutting device used to cut compacted and pre-formed billets into blocks;

[0070] An autoclave is used to steam-cur cut billets at high temperature and pressure.

[0071] Preferably, the tamping device 09 includes...

[0072] Upper body 10;

[0073] The second drive motor 601 is powered by a lithium battery power supply 600 installed on the upper body 10 or by an external power line. It is installed inside the upper body 10 to provide power. Its output end is provided with a belt 602 pulley and a belt 602 is sleeved on the belt 602 pulley.

[0074] The lower seat 20 is movably connected to the upper seat 10 via a vibration damping device;

[0075] The vibrating component, which is disposed within the lower seat 20, includes:

[0076] The main shaft 70 is rotatably mounted inside the lower body 20. Its end is provided with a belt 602 pulley and is driven to rotate by the belt 602. Two semi-circular first eccentric blocks 701 are fixedly sleeved on its outer wall, and drive gears 702 are provided on them.

[0077] The secondary shaft 80 is rotatably mounted in the lower seat 20. It is provided with a driven gear 803, which meshes with the drive gear 702. It is also provided with two semi-circular second eccentric blocks 801 with adjustable angles.

[0078] The vibrating rod 30 is located at the bottom of the lower seat 20 and is used to transmit vibration.

[0079] Preferably, the secondary shaft 80 is a hollow cylindrical body with a swing hole 802 along its circumferential direction. A mounting seat is provided inside the secondary shaft 80. An L-shaped swing rod 8011 is provided on the second eccentric block 801, and the inner end of the swing rod 8011 is hinged to the mounting seat. A pushing mechanism 50 is provided inside the lower seat 20 to push the swing rod 8011 to swing. The pushing mechanism 50 is rotatably engaged with the secondary shaft 80.

[0080] As a preferred option, the driving mechanism 50 includes:

[0081] The telescopic device is fixed inside the lower seat 20 and its output end extends into the interior of the secondary shaft 80;

[0082] The rotating cylinder 502 is rotatably engaged with the output end of the telescopic device. Its side wall is provided with a spiral adjustment hole 5021. The swing rod 8011 passes through the adjustment hole 5021. Its outer wall and the inner wall of the secondary shaft 80 are slidably connected by a straight tooth spline structure 5022, 800.

[0083] Preferably, the second eccentric block 801 includes an outer fan-shaped portion and an inner annular mounting seat. The annular mounting seat includes a first seat body integral with the fan-shaped portion and a separate second seat body. The first seat body and the second seat body are detachably connected by fasteners and, after being connected, form a circular opening with a small gap fitted onto the surface of the secondary shaft 80. The width of the first seat body and the second seat body is greater than the width of the swing hole 802.

[0084] Preferably, the rotating cylinder 502 has a notch that communicates with the adjustment hole 5021.

[0085] Preferably, the driving mechanism 50 is symmetrically provided with two sets for adjusting the angles of the left and right second eccentric blocks 801.

[0086] Preferably, the telescopic device is a hydraulic cylinder 501, and the two inlet ends and two outlet ends of the two hydraulic cylinders 501 are combined into a main inlet end and a main outlet end through a tee.

[0087] Preferably, the vibration damping device includes four guide posts 40 and springs sleeved on the guide posts 40. The two ends of the guide posts 40 pass through the upper seat 10 and the lower seat 20 and are limited by nuts. The two ends of the springs abut against the upper seat 10 and the lower seat 20 respectively.

[0088] The production process for low-carbon integrated inorganic lightweight high-strength self-insulating blocks, carried out on the low-carbon integrated inorganic lightweight high-strength self-insulating block production line described in Example 1, includes the following steps.

[0089] S1, Ball mill: Large particles are fed into the ball mill and ground into finer particles;

[0090] S2, Mixing and Stirring: Finely ground siliceous materials, cement, lime, gypsum, aluminum powder, quartz sand, additives, and water are added to the storage tank according to a preset ratio and mixed.

[0091] S3, Casting: The mixed material is poured into the molding mold trolley;

[0092] S4, Compaction: The molding mold trolley moves along the track to the compaction station, and the compaction equipment descends and extends into the molding mold trolley to compact the slurry;

[0093] S5, Pre-curing and Cutting: The compacted blank is pre-cured under set temperature and humidity conditions to obtain sufficient strength. Then, the forming mold carriage is flipped over to demold. After demolding, it is cut into the required size and shape using a cutting device.

[0094] S6, autoclaving; The cut blanks are sent into an autoclave for high-temperature and high-pressure autoclaving;

[0095] In step S4, the excitation force is adjusted by the following steps: obtaining the values ​​from four pressure sensors and recording them as F1-F4, and calculating the arithmetic mean of the four pressure values. and with To obtain four ΔF values, the differences between the pressure values ​​at four locations and the standard value are calculated. The initial included angle of the eccentric block is set to 90 degrees. The adjusted included angle θ = 90 - (ΔF / ... )˙90,F_total = 2F˙cos(θ / 2 ), When using four tamping devices, adjust the excitation force of each device using the method described above. When using six tamping devices, adjust the excitation force of the four corner devices using the method described above, while the remaining two operate at an initial angle of 90 degrees. During vibration, set a time period and adjust the eccentric block angle for each period as described above until the difference between the four pressure values ​​and the standard value is within the threshold range. Then, stop adjusting the eccentric block angle. The total compaction time needs to reach a preset value. If ΔF is within the set threshold before compaction begins, the eccentric blocks can compact at a 90-degree angle for the preset total time. Where (ΔF / 90° is the required adjustment angle. 90° represents 90 degrees and serves as the base for angle adjustment, defining the adjustment range. ΔF = F1 / F2 / F3 / F4 It can be a negative number.

[0096] The foregoing has provided a detailed description of the titles provided in this invention. Specific examples have been used to illustrate the principles and implementation methods of this invention. The descriptions of the above embodiments are only for the purpose of helping to understand this invention and its core ideas. It should be noted that for those skilled in the art, several improvements and modifications can be made to this invention without departing from the principles of this invention, and these improvements and modifications also fall within the protection scope of the claims of this invention.

Claims

1. A low-carbon integrated inorganic lightweight high-strength self-insulating block production line, characterized in that, include: A conveying device used to transport materials; Ball mills are used to grind large particles of material into smaller pieces. A mixing and stirring device is used to mix and stir finely ground materials, other materials and water to form a slurry; A casting device, used to receive materials at the mixing device and cast the slurry; The track includes two parallel track frames, support wheels rotatably mounted on the track frames, and a first drive motor mounted on the track frames, with some of the support wheels rotating via the motor. The molding mold trolley includes a casting chamber with a rectangular cross-section and a mold cavity, support columns set at the four corners of the mold chamber, and support seats set on support wheels. The support seats are rectangular frames with insertion slots at the four corners of the rectangular frames. Pressure sensors are set at the bottom of the insertion slots. The support columns are inserted into the pressure insertion slots and supported by the pressure sensors. When the trolley travels to the bottom of the casting device, the casting device pours slurry into the mold cavity. The compaction device includes a lifting drive device, a lifting frame driven by the lifting drive device, and tamping devices mounted on the lifting frame. The tamping devices are arranged in two rows, with two or three devices evenly spaced in each row. Each tamping device includes a secondary shaft with an adjustable second eccentric block. The excitation force of the four tamping devices at the four corners is adjusted using the following steps: The values ​​from four pressure sensors are acquired and recorded as F1-F4; the arithmetic mean of the four pressure values ​​is calculated. All and The differences between the pressure values ​​at four locations and the standard values ​​are used to obtain four ΔF values. The initial included angle of the second eccentric block is set to 90 degrees. The included angle after adjustment of the second eccentric block is θ = 90 - (ΔF / )˙90,F_total=2F˙cos(θ / 2 ), ; A cutting device used to cut compacted and pre-formed billets into blocks; An autoclave is used to steam-cur cut billets at high temperature and pressure.

2. The low-carbon integrated inorganic lightweight high-strength self-insulating block production line according to claim 1, characterized in that, The tamping device includes, upper body; The second drive motor is powered by a lithium battery power supply located on the upper body or by an external power line. It is located inside the upper body to provide power, and its output end is equipped with a pulley with a belt sleeved on the pulley. The lower seat is movably connected to the upper seat via a vibration damping device; The vibrating component, located within the lower housing, includes: The main shaft is rotatably mounted in the lower body, and its end is provided with a pulley and rotated by a belt. Two semi-circular first eccentric blocks are fixedly sleeved on its outer wall, and drive gears are provided on them. The secondary shaft is rotatably mounted in the lower housing, on which a driven gear is mounted, and the driven gear meshes with the drive gear; A vibrating rod, which is located at the bottom of the lower body, is used to transmit vibration.

3. The low-carbon integrated inorganic lightweight high-strength self-insulating block production line according to claim 2, characterized in that, The secondary shaft is a hollow cylindrical body with a swing hole along its circumferential direction. A mounting seat is provided inside the secondary shaft. An L-shaped swing rod is provided on the second eccentric block, and the inner end of the swing rod is hinged to the mounting seat. A pushing mechanism for pushing the swing rod to swing is provided in the lower seat body. The pushing mechanism is in rotational cooperation with the secondary shaft.

4. The low-carbon integrated inorganic lightweight high-strength self-insulating block production line according to claim 3, characterized in that, The driving organizations include: The telescopic device is fixed in the lower body and its output end extends into the interior of the secondary shaft; The rotating cylinder is rotatably engaged with the output end of the telescopic device. Its side wall is provided with a spiral adjustment hole, through which the swing rod passes. Its outer wall and the inner wall of the secondary shaft are slidably connected by a straight-tooth spline structure.

5. The low-carbon integrated inorganic lightweight high-strength self-insulating block production line according to claim 4, characterized in that, The second eccentric block includes an outer fan-shaped portion and an inner annular mounting seat. The annular mounting seat includes a first seat body integral with the fan-shaped portion and a separate second seat body. The first seat body and the second seat body are detachably connected by fasteners, and after they are connected, they form a circular opening with a small gap fitted onto the surface of the secondary shaft. The width of the first seat body and the second seat body is greater than the width of the swing hole.

6. The low-carbon integrated inorganic lightweight high-strength self-insulating block production line according to claim 4, characterized in that, The rotating cylinder has a notch that communicates with the adjustment hole.

7. The low-carbon integrated inorganic lightweight high-strength self-insulating block production line according to claim 4, characterized in that, The driving mechanism is symmetrically equipped with two sets of second eccentric blocks on the left and right sides for adjusting their angles.

8. The low-carbon integrated inorganic lightweight high-strength self-insulating block production line according to claim 7, characterized in that, The telescopic device is a hydraulic cylinder. The two inlet ends and two outlet ends of the two hydraulic cylinders are combined into one main inlet end and one main outlet end through a tee.

9. The low-carbon integrated inorganic lightweight high-strength self-insulating block production line according to claim 2, characterized in that, The vibration damping device includes four guide pillars and springs sleeved on the guide pillars. The two ends of the guide pillars pass through the upper and lower seats and are limited by nuts. The two ends of the springs abut against the upper and lower seats respectively.

10. A low-carbon integrated inorganic lightweight high-strength self-insulating block production process, characterized in that: Production is carried out on the low-carbon integrated inorganic lightweight high-strength self-insulating block production line according to any one of claims 1-9. Includes the following steps, S1, Ball mill: Large particles are fed into the ball mill and ground into finer particles; S2, Mixing and Stirring: Finely ground siliceous materials, cement, lime, gypsum, aluminum powder, quartz sand, additives, and water are added to the storage tank according to a preset ratio and mixed. S3, Casting: The mixed material is poured into the molding mold trolley; S4, Compaction: The molding mold trolley moves along the track to the compaction station, and the compaction equipment descends and extends into the molding mold trolley to compact the slurry; S5, Pre-curing and Cutting: The compacted blank is pre-cured under set temperature and humidity conditions to obtain sufficient strength. Then, the forming mold carriage is flipped over to demold. After demolding, it is cut into the required size and shape using a cutting device. S6, autoclaving; The cut blanks are sent into an autoclave for high-temperature and high-pressure autoclaving; In step S4, when using four tamping devices, the excitation force is adjusted by each device according to the above steps for adjusting the excitation force. When using six tamping devices, the excitation force of the four tamping devices at the four corners is adjusted by each device according to the steps for adjusting the excitation force, and the remaining two devices operate at an initial angle of 90 degrees. During vibration, a time period is set, and the angle of the eccentric block is calculated and adjusted for each time period until the difference between the four pressure values ​​and the standard values ​​is within the threshold range. At this point, the angle of the eccentric block is no longer adjusted, but the total vibration time needs to reach the preset value. If ΔF is within the set threshold before vibration starts, the eccentric block can vibrate at a 90-degree angle for the set total time.

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