A radiation-proof ceiling plastering construction system and its application method

Abstract

This invention discloses a radiation-proof ceiling plastering construction system. According to a first aspect of the invention, the radiation-proof ceiling plastering construction system includes: a protective layer structure disposed on the inner side of a wall, comprising a radiation-proof plaster layer, a wire mesh, and hook connectors; the radiation-proof plaster layer is made of recrystallized barium sulfate mortar; a hook processing unit; by placing an iron bar between the mold base assembly and the moving punch assembly, the iron bar is pressed into a hook connector using impact force, and the wire mesh is hoisted to the inner side of the wall using the hook connectors to reduce the shedding of the radiation-proof plaster layer; the hook connectors are staggered between layers to reduce radiation leakage at the hook connectors. By using barium sulfate mortar to coat the wire mesh layer to form the radiation-proof plaster layer, the cost is effectively reduced and occupational health hazards and pollution are minimized; it also solves the problem of radiation leakage at vertical through-joints and shrinkage cracks in the plaster layer.

Description

Technical Field

[0001] This invention belongs to the field of radiation protection technology, and more specifically, relates to a radiation protection ceiling plastering construction system and its application method. Background Technology

[0002] Special rooms in buildings such as nuclear reactors, research facilities, and hospitals generate large amounts of X-rays. Prolonged exposure to X-rays can lead to a buildup of radiation dose, damaging white blood cells and reducing their number. This weakens the immune system, making the body more susceptible to infection and disease, especially for infants and young children who are highly sensitive to X-rays. Therefore, radiation protection measures are necessary for these types of rooms.

[0003] To address the aforementioned issues, common radiation leakage prevention solutions during construction include ultra-thick concrete structures and lead plate protection. However, lead plates, as a heavy metal material, are costly, polluting, and harmful to human health. Furthermore, ultra-thick concrete structures are often limited by space constraints. Therefore, both are mostly used in low-level radiation protection construction. However, Chinese invention patent CN109694622A discloses a GR-type waterproof and radiation-proof coating, characterized by the following weight percentage components: 25-35% of the main material of the RG type; 15-25% flake graphite powder; 15-25% acetylene black; 15-25% carbonyl iron powder; 0.25% bactericide; 0.1-0.2% thickener; 0.2-0.4% defoamer; 0.1-0.3% dispersant; and the remainder is water. The main material of the RG type is selected from carboxylated styrene-butadiene latex, butadiene-styrene copolymer emulsion, styrene-acrylic polymer emulsion, or pure acrylic latex. The fillers are barium sulfate, calcium carbonate, and silica powder. Research has shown that barium sulfate, with its low cost, is a relatively good radiation protection material, and its long service life and other advantages have led to its widespread application in many fields.

[0004] Barium sulfate, as a radiation protection material, has many advantages over ultra-thick concrete structures and metal lead plate protection, and has demonstrated excellent performance in practice. However, the following technical problems still exist in the construction process: (1) The density of barium sulfate mortar is generally 2500 kg / m³-3400 kg / m³. As a radiation protection layer, its thickness is also larger than that of conventional plastering layers. Therefore, during the plastering process of the ceiling of the radiation protection space, the mortar is affected by the gravity of the mortar and the weak adhesion between the mortar and the ceiling surface of the building, resulting in a large amount of mortar falling off during the construction process, which leads to material waste; (2) The exothermic and shrinkage reaction of the mortar during the consolidation and drying process can also easily generate cracks in the plastering layer. In addition, the "hollowing" phenomenon caused by the vibration of the building ceiling during use will cause the plastering layer to fall off in pieces, which will bring safety hazards; (3) The construction joints and the gaps formed by the improper use of different materials and construction methods during construction can easily lead to radiation leakage. Summary of the Invention

[0005] To address the aforementioned deficiencies or improvement needs of existing technologies, this invention provides a radiation-proof ceiling plastering construction system. By applying barium sulfate mortar to a wire mesh layer to form a radiation-proof plaster layer, it replaces lead plate radiation protection, effectively reducing costs and minimizing occupational health hazards and pollution. Furthermore, through the assistance of wire mesh and hooks, it achieves multi-layer plastering, layered staggered and interlayered wire mesh hanging structures, and layer-by-layer sealing, solving the problem of radiation leakage at vertical through-joints and shrinkage cracks in the plaster layer. The use of multi-layer wire mesh effectively eliminates the risk of thick layers of recrystallized barium sulfate plaster (2500 kg / m³-3400 kg / m³) falling off under its own weight. In addition, multi-layered staircase construction joints are reserved at the junction of the floor slab and wall before construction, eliminating radiation leakage at corners due to poor overlapping treatment. Simultaneously, the treatment at corners provides an anchoring support for the heavy ceiling, enhancing the overall stability of the wire mesh and plaster layer.

[0006] According to a first aspect of the present invention, a radiation-proof ceiling plastering construction system includes:

[0007] The protective layer structure located on the inner side of the wall includes a radiation-proof plaster layer, a wire mesh for providing adhesion to the radiation-proof plaster layer, and a hook connector for connecting the wire mesh; the radiation-proof plaster layer is made of recrystallized barium sulfate mortar with a density of 2500 kg / m³-3400 kg / m³.

[0008] A hook processing unit for processing hook connectors, comprising a mold base assembly and a moving punch assembly; used to assist in the production of the required hook connectors;

[0009] By placing an iron bar between the mold base assembly and the moving punch assembly, the iron bar is pressed into a hook connector using impact force. The hook connector is then used to hoist the wire mesh to the inside of the wall to reduce the shedding of the radiation-proof plaster layer. The hook connector is installed in a staggered manner between layers to reduce the amount of radiation leakage at the hook connector.

[0010] Preferably, the radiation-shielding plaster layer comprises:

[0011] The wall plaster layer is formed by applying recrystallized barium sulfate mortar to a wire mesh and making direct contact with the inner side of the wall.

[0012] The interconnected plaster layer is formed by applying recrystallized barium sulfate mortar to a wire mesh and placing it on the inner side of the wall plaster layer.

[0013] Preferably, the radiation-shielding plaster layer comprises:

[0014] The wall plastering layer consists of a single plastering layer;

[0015] The network plastering layer consists of a secondary plastering layer and a tertiary plastering layer.

[0016] Preferably, the hook connector includes:

[0017] Wall-connecting hooks are used to connect the wall to the internal wire mesh of the wall plaster layer;

[0018] Steel mesh hooks are used to connect the internal steel wire mesh between radiation-proof plaster layers;

[0019] The wall-mounted hooks and steel mesh hooks are made of lead.

[0020] Preferably, the hook processing unit includes:

[0021] The wall-mounted hook processing unit includes a punching drive unit that provides a processing power source, a punching execution unit for stamping and forming the wall-mounted hook, a cooling fan, a feeding unit for conveying iron bar raw materials, and a cutting execution unit for cutting the iron bar raw materials.

[0022] The stamping execution unit includes: a first motion punch assembly consisting of a first motion punch assembly, a first stepped groove, a first pressure head, a push-pull slide rod for transmitting motion, and a rolling support assembly; and a first mold base assembly consisting of a first stepped protrusion, a first angle hook forming area, a first guide rod for guiding the front end of the iron bar to bend upward, a first pull-back spring for pulling back and prying the first guide rod, and a first stop block.

[0023] Preferably, the hook processing unit includes:

[0024] The wall-mounted hook processing unit includes a punching drive unit that provides a processing power source, a punching execution unit for stamping and forming the wall-mounted hook, a cooling fan, a feeding unit for conveying iron bar raw materials, and a cutting execution unit for cutting the iron bar raw materials.

[0025] The stamping execution unit includes: a second motion punch assembly consisting of a second push-pull slide rod for transmitting motion, a reversing drive gear for changing the horizontal motion direction, a second pressure head, and a second stepped groove; and a second mold base assembly consisting of a second stepped protrusion, a second angle hook forming area, a second guide rod with the front end of the guide bar bent upwards, and a second pull-back spring for pulling back and prying the second guide rod.

[0026] Preferably, the hook processing unit includes:

[0027] The punching drive unit consists of a wheel groove turntable with a cam groove on its surface and a wheel drive assembly;

[0028] The cutting execution unit consists of a slide rod, a cutting blade, and a punching block; the lower end of the slide rod is slidably connected to the wheel groove turntable.

[0029] Preferably, the wheel drive assembly includes:

[0030] The drive motor, a first gear coaxially and fixedly connected to the output shaft of the drive motor, a second gear sequentially connected to the first gear, a torque amplifying drive wheel, a torque amplifying driven wheel, and a wheel groove turntable.

[0031] Preferably, the hook processing unit includes:

[0032] A steel mesh hook processing unit includes a third mold base assembly positioned with the housing and containing a stamping groove, a third moving punch assembly that presses into the stamping groove of the third mold base assembly to form a concave groove in the steel mesh hook, an auxiliary pressing assembly that presses and forms a right-angled shape at the end of the steel mesh hook, and a loading groove.

[0033] The third moving punch assembly includes a punching shank, a punching head located at the left end of the punching shank, a return wing shank for rebounding the punching head, and a return spring; the two ends of the return spring are fixedly connected to the return wing shank and the housing, respectively.

[0034] The auxiliary pressure assembly includes a gear slot located inside the third motion punch assembly, a fixed-axis driven gear positioned on the shaft and housing and meshing with the upper toothed portion of the gear slot, a fixed-axis secondary gear coaxially connected to the fixed-axis driven gear, a rack symmetrically arranged on both sides of the fixed-axis secondary gear, an auxiliary pressure drive block and an upper lifting block fixedly connected to the extended end of the rack via a fixed connecting rod, and an auxiliary pressure block rotatably connected to a rotating shaft positioned on the housing and with its extended end positioned between the auxiliary pressure drive block and the upper lifting block.

[0035] According to a second aspect of the present invention, a method of using a radiation-shielding ceiling plastering construction system is characterized by comprising the following construction steps:

[0036] S100: First, by using a hook processing unit, a sufficient number of wall-connecting hooks and steel mesh hooks are pre-processed for connecting the steel wire mesh during construction;

[0037] S200: At the construction site, the wall-connecting hooks are positioned inside the wall using screws, and the hook connectors are arranged in an array with a spacing of 50-70cm between them. The wire mesh is then attached to the wall-connecting hooks, ensuring effective connection at each connection point.

[0038] S300: Hang the steel mesh hooks onto the steel wire mesh, ensuring that the steel mesh hooks and the wall-connecting hooks are staggered to prevent radiation leakage; then, apply recrystallized barium sulfate mortar with a density of 2500 kg / m³-3400 kg / m³ onto the steel wire mesh and wait for the mortar to set.

[0039] S400: Hang the second layer of steel wire mesh at the lower end of the steel mesh hook, and hang the secondary steel mesh hook on the steel wire mesh. At the same time, ensure that the steel mesh hook and the wall-connecting hook are staggered.

[0040] S500: Repeat the above steps to complete the construction of a highly stable multi-level barium sulfate mortar radiation shielding layer.

[0041] In summary, compared with the prior art, the above-described technical solutions conceived by this invention can achieve the following beneficial effects:

[0042] 1. This invention discloses a radiation-proof ceiling plastering construction system. By using barium sulfate mortar applied to a wire mesh layer to form a radiation-proof plaster layer, it replaces the lead plate radiation protection solution, effectively reducing costs and minimizing occupational health hazards and pollution. Furthermore, through the assistance of wire mesh and hooks, it achieves multi-layer plastering, layered staggered and interlayered wire mesh hanging structure, and layer-by-layer sealing treatment, solving the problem of radiation leakage at vertical through-joints and shrinkage cracks in the plaster layer. The use of multi-layer wire mesh effectively eliminates the risk of thick layers of recrystallized barium sulfate plaster with a density of 2500 kg / m³-3400 kg / m³ falling off under its own weight. In addition, multi-layer staircase construction joints are reserved at the junction of the floor slab and wall before construction, eliminating radiation leakage at corners due to poor overlap treatment. Simultaneously, corner treatment provides an anchoring support for the heavy ceiling, enhancing the overall stability of the wire mesh and plaster layer.

[0043] 2. The radiation-proof ceiling plastering construction system of the present invention uses a punching drive unit to convert driving force into mechanical movement of each module. The first moving punch assembly and the first mold base assembly, which are respectively moving and fixed parts, form a punching force to press the iron strip into shape. Combined with the first guide rod, the free end of the iron strip is controlled to move upward, thereby pressing out the bend at the end of the hook.

[0044] 3. The radiation-proof ceiling plastering construction system of the present invention realizes the transmission of two-way motion by utilizing a cam groove structure. The ingenious structural design simplifies the number of power sources and saves operating costs. In use, by controlling the rotation of the drive motor, the rotation of the first gear, the second gear, the torque amplifying drive wheel, the torque amplifying driven wheel, and the wheel groove turntable are realized in sequence. When the wheel groove turntable rotates, the push-pull slide rod and slide bar, which are slidably connected to the cam groove, can simultaneously realize left-right sliding and up-down sliding, thereby realizing continuous actions of punching and cutting.

[0045] 4. The radiation-proof ceiling plastering construction system of the present invention, through a two-stage gear and rack transmission module, simultaneously realizes the main body stamping and the right-angle stamping of the hook end. In use, by pressing the pressure block, the stamping handle drives the stamping head to move to the left, thereby stamping the iron strip into the stamping groove. At the same time, the rack part above the gear groove meshes with the fixed-axis driven gear, further transmitting power to the gear and rack module composed of the fixed-axis secondary gear and the rack, thereby converting the horizontal reciprocating motion into the vertical reciprocating motion. The opening angle is controlled by using the auxiliary pressure drive block and the lifting stop block to move the auxiliary pressure block, thereby folding the two ends of the iron strip pressed inside the stamping groove inward into a right-angle shape. Attached Figure Description

[0046] Figure 1 This is a schematic diagram of the overall construction structure of a radiation-proof ceiling plastering system according to an embodiment of the present invention;

[0047] Figure 2 This is a schematic diagram of the wire mesh structure of a radiation-proof ceiling plastering construction system according to an embodiment of the present invention;

[0048] Figure 3 This is a schematic diagram of the protective layer structure of a radiation-proof ceiling plastering construction system according to an embodiment of the present invention;

[0049] Figure 4 This is a schematic diagram of the internal structure of a Type II wall-mounted hook processing unit in a radiation-proof ceiling plastering construction system according to an embodiment of the present invention;

[0050] Figure 5 This is a schematic diagram of the internal structure of a Type I wall-mounted hook processing unit of a radiation-proof ceiling plastering construction system according to an embodiment of the present invention;

[0051] Figure 6 This is a partially enlarged schematic diagram of the processing unit of the Type I wall-connecting hook of a radiation-proof ceiling plastering construction system according to an embodiment of the present invention;

[0052] Figure 7 This is a schematic diagram of the internal structure of the steel mesh hook processing unit of a radiation-proof ceiling plastering construction system according to an embodiment of the present invention;

[0053] Figure 8 This is a schematic diagram of a type I wall-mounted hook structure for a radiation-proof ceiling plastering construction system according to an embodiment of the present invention;

[0054] Figure 9 This is a schematic diagram of the steel mesh hook structure of a radiation-proof ceiling plastering construction system according to an embodiment of the present invention;

[0055] Figure 10 This is a flowchart illustrating the overall construction process of a radiation-proof ceiling plastering system according to an embodiment of the present invention.

[0056] In all the accompanying drawings, the same reference numerals denote the same technical features, specifically: 1-wall, 2-protective layer structure, 200-wire mesh, 210-radiation-proof plaster layer, 211-primary plaster layer, 212-secondary plaster layer, 213-tertiary plaster layer, 220-hook connector, 221-wall-connecting hook, 222-wire mesh hook, 3-hook processing unit, 300-wall-connecting hook processing unit, 310-punching drive unit, 311-drive motor, 312-first gear, 313-second gear, 314-torque amplification drive wheel, 3 15-Torque amplification driven wheel, 316-Wheel groove turntable, 320-Cooling fan, 330-Pressing execution unit, 331-First motion punch assembly, 3311-First stepped groove, 3312-First pressure head, 3313-Push-pull slide rod, 3314-Rolling support assembly, 332-First mold base assembly, 3321-First stepped protrusion, 3322-First hook forming area, 3323-First guide rod, 3324-First return spring, 3325-First stop block, 333-Second motion punch assembly, 3331-Second push-pull slide rod, 3 332-Reversing drive gear, 3333-Toothed section, 3334-Guide groove, 3335-Second stepped groove, 3336-Second pressure head, 3337-Balance slider, 334-Second mold base assembly, 3341-Second stepped protrusion, 3342-Second angle hook forming area, 3343-Second guide rod, 3344-Second return spring, 3345-Second stop block, 340-Feeding unit, 350-Cutting execution unit, 351-Slide rod, 352-Cutting blade, 353-Punching stop block, 360-Steel mesh hook processing unit, 36 1-Third mold base assembly, 3611-Stamping groove, 362-Third moving punch assembly, 3621-Stamping head, 3622-Stamping handle, 3623-Reset wing handle, 3624-Reset spring, 363-Auxiliary pressure assembly, 3631-Gear groove, 3632-Fixed-axis driven gear, 3633-Fixed-axis secondary gear, 3634-Rack, 3635-Fixed connecting rod, 3636-Auxiliary pressure drive block, 3637-Lifting stop block, 3638-Auxiliary pressure block, 3639-Rotating shaft, 364-Filling groove, 365-Pressure block, 4-Iron bar. Detailed Implementation

[0057] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the invention. Furthermore, the technical features involved in the various embodiments of this invention described below can be combined with each other as long as they do not conflict with each other.

[0058] According to a first aspect of the invention, such as Figures 1-10 As shown in the embodiment of the present invention, the radiation-proof ceiling plastering construction system includes:

[0059] The protective layer structure located on the inner side of the wall includes a radiation-proof plaster layer 210, a wire mesh 200 for providing adhesion to the radiation-proof plaster layer 210, and a hook connector for connecting the wire mesh; the radiation-proof plaster layer 210 is made of recrystallized barium sulfate mortar with a density of 2500 kg / m³-3400 kg / m³.

[0060] A hook processing unit for processing hook connectors, comprising a mold base assembly and a moving punch assembly; used to assist in the production of the required hook connectors;

[0061] By placing the iron bar 4 between the mold base assembly and the moving punch assembly, the iron bar 4 is pressed into a hook connector by impact force, and the wire mesh 200 is hoisted to the inside of the wall using the hook connector to reduce the shedding of the radiation-proof plaster layer 210; the hook connector is installed in a staggered manner between layers to reduce the amount of radiation leakage at the hook connector.

[0062] like Figure 3 As shown, in this embodiment of the invention, the radiation-shielding plaster layer 210 includes:

[0063] The wall plaster layer is formed by applying recrystallized barium sulfate mortar to a 200-mesh wire mesh and is in direct contact with the inner side of the wall.

[0064] The interconnected plaster layer is formed by applying recrystallized barium sulfate mortar to a steel wire mesh 200 and placing it on the inner side of the interconnected wall plaster layer.

[0065] like Figure 3 As shown, in this embodiment of the invention, the radiation-shielding plaster layer 210 includes:

[0066] The wall plastering layer consists of a primary plastering layer 211;

[0067] The network plaster layer consists of a secondary plaster layer 212 and a tertiary plaster layer 213.

[0068] like Figure 4 As shown, in this embodiment of the invention, the hook connector includes:

[0069] Wall-connecting hook 221 is used to connect the wall to the internal wire mesh of the wall-connecting plaster layer;

[0070] Steel mesh hook 222 is used to connect the internal steel wire mesh between the radiation-proof plaster layers 210;

[0071] The wall-mounted hook 221 and the steel mesh hook 222 are made of lead.

[0072] In this embodiment of the invention, a radiation-shielding plaster layer is formed by applying barium sulfate mortar to a wire mesh layer to replace the lead plate radiation protection solution, effectively reducing construction costs and minimizing occupational health hazards and pollution. Furthermore, the construction method, assisted by the wire mesh and hooks, achieves multi-layer plastering, layered staggered and interlayered wire mesh hanging structure, and layer-by-layer sealing, solving the problem of radiation leakage at vertical through-joints and shrinkage cracks in the plaster layer. The use of multi-layer wire mesh effectively eliminates the risk of thick layers of recrystallized barium sulfate plaster with a density of 2500 kg / m³-3400 kg / m³ falling off under its own weight. In addition, pre-reserving multi-layer staircase construction joints at the junction of the floor slab and wall eliminates radiation leakage at corners due to poor overlapping treatment. Simultaneously, corner treatment provides an anchoring support for the heavy ceiling, enhancing the overall stability of the wire mesh and plaster layer.

[0073] During construction, a sufficient number of wall-connecting hooks and steel mesh hooks are pre-fabricated using a hook processing unit for connecting the wire mesh during construction. Next, on the construction site, the wall-connecting hooks are positioned on the inner side of the wall using screws, with the hook connectors arranged in an array spaced 50-70cm apart. The wire mesh is then attached to the wall-connecting hooks, ensuring effective connection at each point. Finally, the steel mesh hooks are attached to the wire mesh, ensuring proper connection between the steel mesh hooks and the wall-connecting hooks. The wire mesh is staggered to prevent radiation leakage. Next, recrystallized barium sulfate mortar with a density of 2500 kg / m³-3400 kg / m³ is applied to the wire mesh 200 and allowed to set. Then, a second layer of wire mesh is attached to the lower end of the wire mesh hook, and the secondary wire mesh hook is attached to the wire mesh, ensuring that the wire mesh hook and the wall-connecting hook are staggered. Repeating the above steps completes the construction of a highly stable multi-level barium sulfate mortar radiation shielding layer.

[0074] like Figure 4 and Figure 9 As shown, in this embodiment of the invention, the hook processing unit includes:

[0075] The wall-mounted hook processing unit includes a punching drive unit 310 that provides a processing power source, a punching execution unit 330 for stamping and forming the wall-mounted hook 221, a cooling fan 320, a feeding unit 340 for conveying the iron bar 4 raw material, and a cutting execution unit 350 for cutting the iron bar 4 raw material.

[0076] The stamping execution unit 330 includes: a first motion punch assembly 331 consisting of a first motion punch assembly 331, a first stepped groove 3311, a first pressure head 3312, a push-pull slide rod 3313 for transmitting motion, and a rolling support assembly 3314; and a first mold base assembly 332 consisting of a first stepped protrusion 3321, a first angle hook forming area 3322, a first guide rod 3323 with the front end of the guide iron bar 4 bent upward, a first pull-back spring 3324 for pulling back and prying the first guide rod 3323, and a first stop block 3325.

[0077] In this embodiment of the invention, the driving force is converted by the punching drive unit 310 and used to drive the mechanical movement of each module. The first moving punch assembly 331 and the first mold base assembly 332, which are respectively moving and fixed parts, form a punching force to press the iron strip 4 into shape. Combined with the first guide rod 3323, the free end of the iron strip 4 is controlled to move upward, thereby pressing out the bend at the end of the hook.

[0078] like Figure 5 , Figure 6 and Figure 8 As shown, in this embodiment of the invention, the hook processing unit includes:

[0079] The wall-mounted hook processing unit includes a punching drive unit 310 that provides a processing power source, a punching execution unit 330 for stamping and forming the wall-mounted hook 221, a cooling fan 320, a feeding unit 340 for conveying the iron bar 4 raw material, and a cutting execution unit 350 for cutting the iron bar 4 raw material.

[0080] The stamping execution unit 330 includes: a second motion punch assembly consisting of a second push-pull slide rod 3331 for transmitting motion, a reversing drive gear 3332 for changing the horizontal motion direction, a second pressure head 2226, and a second stepped groove 3335; and a second mold base assembly 334 consisting of a second stepped protrusion 3341, a second angle hook forming area 3342, a second guide rod 3343 with the front end of the guide iron bar 4 bent upward, and a second pull-back spring 3344 for pulling back and prying the second guide rod 3343.

[0081] like Figure 4 , Figure 5 As shown, in this embodiment of the invention, the hook processing unit includes:

[0082] The punching drive unit 310 consists of a wheel groove turntable 316 with a cam groove on its surface and a wheel drive assembly.

[0083] The cutting execution unit 350 is composed of a slide rod 351, a cutting blade 352 and a punching block 353; the lower end of the slide rod 351 is slidably connected to the wheel groove turntable 316.

[0084] like Figure 4 , Figure 5 As shown, in this embodiment of the invention, the wheel drive assembly includes:

[0085] The drive motor 311, the first gear 312 which is coaxially and fixedly connected to the output shaft of the drive motor 311, the second gear 313 which is sequentially connected to the first gear 312, the torque amplifying drive wheel 314, the torque amplifying driven wheel 315, and the wheel groove turntable 316.

[0086] In this embodiment of the invention, the transmission of two motion paths is realized by utilizing the cam groove structure. The ingenious structural design simplifies the number of power sources and saves on usage costs. In use, by controlling the rotation of the drive motor 311, the rotation of the first gear 312, the second gear 313, the torque amplifying drive wheel 314, the torque amplifying driven wheel 315, and the wheel groove turntable 316 is realized in sequence. When the wheel groove turntable 316 rotates, the push-pull slide rod and the slide bar 315, which are slidably connected to the cam groove, can simultaneously slide left and right and up and down, respectively, thereby realizing the continuous action of stamping and cutting.

[0087] like Figure 7 and Figure 10 As shown, in this embodiment of the invention, the hook processing unit includes:

[0088] The steel mesh hook processing unit 360 includes a third mold base assembly 361 positioned with the housing and containing a stamping groove 3611, a third moving punch assembly 362 that forms a concave groove of the steel mesh hook by moving and stamping into the stamping groove 3611 of the third mold base assembly 361, an auxiliary pressing assembly 363 that presses and forms a right-angled shape at the end of the steel mesh hook, and a loading groove 364.

[0089] The third moving punch assembly 362 includes a punching handle 3622, a punching head 3621 located at the left end of the punching handle 3622, a return wing handle 3623 for rebounding the punching head 3621, and a return spring 3624; the two ends of the return spring 3624 are fixedly connected to the return wing handle 3623 and the housing, respectively.

[0090] The auxiliary pressure assembly 363 includes a gear groove 3631 located inside the third motion punch assembly 362, a fixed-axis driven gear 3632 whose shaft is positioned with the housing and meshes with the upper toothed portion of the gear groove 3631, a fixed-axis secondary gear 3633 coaxially connected to the fixed-axis driven gear 3632, a rack 3634 symmetrically arranged on both sides of the fixed-axis secondary gear 3633 for transmission, an auxiliary pressure drive block 3636 and an upper lifting block 3637 fixedly connected to the extended end of the rack 3634 via a fixed connecting rod 3135, and an auxiliary pressure block 3638 rotatably connected to a rotating shaft 3639 positioned on the housing and whose extended end is placed between the auxiliary pressure drive block 3636 and the upper lifting block 3637.

[0091] In this embodiment of the invention, a two-stage gear and rack transmission module is used to achieve the stamping of the main body and the right-angle stamping of the hook end. In use, by pressing the pressure block 365, the stamping handle 3622 drives the stamping head 3621 to move to the left, thereby stamping the iron strip 4 into the stamping groove 3611. At the same time, the rack part above the gear groove 3631 meshes with the fixed-axis driven gear 3632 to transmit power, further transmitting power to the gear and rack module composed of the fixed-axis secondary gear 3633 and the rack 3634, thereby converting the horizontal reciprocating motion into the vertical reciprocating motion. The auxiliary pressure drive block 3635 and the lifting stop block 3637 are used to move the auxiliary pressure block 3638 to control the opening angle, thereby folding the two ends of the iron strip 4 pressed inside the stamping groove 3611 inward into a right-angle shape.

[0092] According to a second aspect of the present invention, in an embodiment of the present invention, a method of using the radiation-proof ceiling plastering construction system includes:

[0093] S100: First, by using a hook processing unit, a sufficient number of wall-connecting hooks and steel mesh hooks are pre-processed for connecting the steel wire mesh during construction;

[0094] S200: At the construction site, the wall-connecting hooks are positioned inside the wall using screws, and the hook connectors are arranged in an array with a spacing of 50-70cm between them. The wire mesh is then attached to the wall-connecting hooks, ensuring effective connection at each connection point.

[0095] S300: Hang the steel mesh hooks onto the steel wire mesh, ensuring that the steel mesh hooks and wall-connecting hooks are staggered to prevent radiation leakage; then, apply recrystallized barium sulfate mortar with a density of 2500 kg / m³-3400 kg / m³ onto the steel wire mesh 200 and wait for the mortar to set;

[0096] S400: Hang the second layer of steel wire mesh at the lower end of the steel mesh hook, and hang the secondary steel mesh hook on the steel wire mesh. At the same time, ensure that the steel mesh hook and the wall-connecting hook are staggered.

[0097] S500: Repeat the above steps to complete the construction of a highly stable multi-level barium sulfate mortar radiation shielding layer.

[0098] Those skilled in the art will readily understand that the above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A radiation-proof ceiling plastering construction system, characterized in that, include: The protective layer structure located on the inner side of the wall includes a radiation-proof plaster layer (210), a wire mesh (200) for providing adhesion to the radiation-proof plaster layer (210), and a hook connector for connecting the wire mesh; the radiation-proof plaster layer (210) is made of recrystallized barium sulfate mortar with a density of 2500 kg / m³-3400 kg / m³. A hook processing unit for processing hook connectors, comprising a mold base assembly and a moving punch assembly; used to assist in the production of the required hook connectors; By placing the iron bar (4) between the mold base assembly and the moving punch assembly, the iron bar (4) is pressed into a hook connector by impact force, and the wire mesh (200) is hoisted to the inside of the wall by the hook connector to reduce the fall-off of the radiation-proof plaster layer (210); the hook connector is installed in a staggered manner between layers to reduce the amount of radiation leakage at the hook connector. The hook processing unit includes: a wall-mounted hook processing unit, which includes a punching drive unit (310) for providing processing power source, a punching execution unit (330) for stamping and forming a wall-mounted hook (221), a cooling fan (320), a feeding unit (340) for conveying iron bar (4) raw material, and a cutting execution unit (350) for cutting iron bar (4) raw material. The stamping execution unit (330) includes: a first motion punch assembly (331) consisting of a first motion punch assembly (331), a first stepped groove (3311), a first pressure head (3312), a push-pull slide rod (3313) for transmitting motion, and a rolling support assembly (3314); and a first mold base assembly (332) consisting of a first stepped protrusion (3321), a first angle hook forming area (3322), a first guide rod (3323) with the front end of the guide iron bar (4) bent upward, a first pull spring (3324) for pulling back and prying the first guide rod (3323), and a first stop block (3325).

2. The radiation-proof ceiling plastering construction system according to claim 1, characterized in that, The radiation-shielding plaster layer (210) includes: The wall plaster layer is formed by applying recrystallized barium sulfate mortar to a wire mesh (200) and making direct contact with the inner side of the wall. The interconnected plaster layer is formed by applying recrystallized barium sulfate mortar to a wire mesh (200) and placing it on the inner side of the interconnected wall plaster layer.

3. The radiation-proof ceiling plastering construction system according to claim 2, characterized in that, The radiation-shielding plaster layer (210) includes: The wall plastering layer consists of a primary plastering layer (211); The network plastering layer consists of a secondary plastering layer (212) and a tertiary plastering layer (213).

4. A radiation-proof ceiling plastering construction system according to any one of claims 1 to 3, characterized in that, The hook connector includes: Wall-connecting hook (221) is used to connect the wall to the internal wire mesh of the wall-connecting plaster layer; Steel mesh hooks (222) are used to connect the internal steel wire mesh between the radiation-proof plaster layers (210); The wall-mounted hook (221) and the steel mesh hook (222) are made of lead.

5. The radiation-proof ceiling plastering construction system according to claim 4, characterized in that, The hook processing unit includes: The wall-mounted hook processing unit includes a punching drive unit (310) that provides processing power, a stamping execution unit (330) for stamping and forming the wall-mounted hook (221), a cooling fan (320), a feeding unit (340) for conveying the raw material of the iron bar (4), and a cutting execution unit (350) for cutting the raw material of the iron bar (4). The stamping execution unit (330) includes: a second motion punch assembly consisting of a second push-pull slide rod (3331) for transmitting motion, a reversing drive gear (3332) for changing the direction of horizontal motion, a second pressure head (2226), and a second stepped groove (3335); and a second mold base assembly (334) consisting of a second stepped protrusion (3341), a second angle hook forming area (3342), a second guide rod (3343) with the front end of the guide iron bar (4) bent upward, and a second pull spring (3344) for pulling back and prying the second guide rod (3343).

6. The radiation-proof ceiling plastering construction system according to claim 5, characterized in that, The hook processing unit includes: The punching drive unit (310) consists of a wheel groove turntable (316) with a cam groove on its surface and a wheel drive assembly; The cutting execution unit (350) consists of a slide rod (351), a cutting blade (352), and a punching block (353); the lower end of the slide rod (351) is slidably connected to the wheel groove turntable (316).

7. The radiation-proof ceiling plastering construction system according to claim 6, characterized in that, The aforementioned wheel drive assembly includes: The drive motor (311), the first gear (312) which is coaxially fixedly connected to the output shaft of the drive motor (311), the second gear (313) which is sequentially connected to the first gear (312), the torque amplifying drive wheel (314), the torque amplifying driven wheel (315), and the wheel groove turntable (316).

8. The radiation-proof ceiling plastering construction system according to claim 5, characterized in that, The hook processing unit includes: The steel mesh hook processing unit (360) includes a third mold base assembly (361) positioned with the housing and containing a stamping groove (3611), a third motion punch assembly (362) that presses into the stamping groove (3611) of the third mold base assembly (361) to form a concave groove of the steel mesh hook, an auxiliary pressing assembly (363) that presses into a right-angled shape at the end of the steel mesh hook, and a loading groove (364). The third motion punch assembly (362) includes a punching shank (3622), a punching head (3621) located at the left end of the punching shank (3622), a return wing shank (3623) for rebounding the punching head (3621), and a return spring (3624); the two ends of the return spring (3624) are fixedly connected to the return wing shank (3623) and the housing, respectively; The auxiliary pressure assembly (363) includes a gear groove (3631) located inside the third motion punch assembly (362), a fixed-axis driven gear (3632) whose shaft is positioned with the housing and meshes with the upper toothed portion of the gear groove (3631), a fixed-axis secondary gear (3633) coaxially connected to the fixed-axis driven gear (3632), a rack (3634) symmetrically arranged on both sides of the fixed-axis secondary gear (3633) for transmission, an auxiliary pressure drive block (3636) and an upper lifting block (3637) fixedly connected to the extended end of the rack (3634) via a fixed connecting rod (3135), and an auxiliary pressure block (3638) rotatably connected to a rotating shaft (3639) positioned on the housing and whose extended end is placed between the auxiliary pressure drive block (3636) and the upper lifting block (3637).

9. A method for using a radiation-proof ceiling plastering construction system, characterized in that, The construction steps include the following: S100: First, by using a hook processing unit, a sufficient number of wall-connecting hooks and steel mesh hooks are pre-processed for connecting the steel wire mesh during construction; S200: At the construction site, the wall-connecting hooks are positioned inside the wall using screws, and the wall-connecting hooks are arranged in an array with a spacing of 50-70cm between each other. The wire mesh is then hung on the wall-connecting hooks, and the effective connection of each connection point is ensured. S300: Hang the steel mesh hooks onto the steel wire mesh, ensuring that the steel mesh hooks and the wall-connecting hooks are staggered to prevent radiation leakage; then, apply recrystallized barium sulfate mortar with a density of 2500 kg / m³-3400 kg / m³ onto the steel wire mesh and wait for the mortar to set. S400: Hang the second layer of wire mesh at the lower end of the wire mesh hook, and hang the secondary wire mesh hook on the wire mesh. At the same time, ensure that the wire mesh hook and the wall-connecting hook are staggered. S500: Repeat the above steps to complete the construction of a highly stable multi-level barium sulfate mortar radiation shielding layer.

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