Building module and processing method thereof

Abstract

The invention relates to the field of building modules, in particular to a building module and a machining method thereof, and the building module comprises a body block and two frame plates which are flatly embedded into the upper end face and the lower end face of the body block respectively, two connecting plates are fixed between the two frame plates and penetrate through the body block, two inserting holes are formed in one frame plate, and two inserting holes are formed in the other frame plate. The machining method comprises the steps that S1, the two frame plates are attached to the inner walls of the front side plate and the rear side plate of the forming enclosure frame to be inserted into the inner walls of the front side plate and the rear side plate of the forming enclosure frame correspondingly till the two insertion columns are inserted into the two through holes correspondingly; s2, the formed enclosure frame is placed on the two conveying chains; s3, after concrete is poured into the forming enclosure frame, the forming enclosure frame moves backwards, and the concrete in the forming enclosure frame is gradually formed; s4, the multiple forming enclosure frames are sequentially arranged and moved along with the conveying chain; and S5, at the position of the extension frame, the internal module falls off from the interior of the forming enclosure frame. The situation that large space is occupied, and transportation is affected is avoided.

Description

Technical Field

[0001] The present invention relates to the field of building modules, and particularly to a building module and a processing method thereof. Background Art

[0002] Building modules are prefabricated and cast in advance, and later, multiple building modules are combined and spliced to form a modular building. By this way, the traditional on-site casting process is replaced, which can greatly shorten the working hours and meet the urgent use requirements. In order to ensure the strength when building modules are combined and spliced, generally, convex ribs and grooves are provided on one pair of opposite surfaces of the building module. Through the cooperation of the convex ribs and the grooves, adjacent two building modules can be cooperatively clamped, so as to ensure the splicing strength. However, since the convex ribs protrude from the building module, it will occupy a large space during transportation and affect transportation. Summary of the Invention

[0003] The purpose of the present invention is to provide a building module to avoid occupying a large space and affecting transportation, and to provide a building module processing device and a building module processing method for processing the above building module.

[0004] The purpose of the present invention is realized through the following technical solutions:

[0005] A building module includes a main body block and two frame plates respectively and smoothly embedded in the upper and lower end faces of the main body block. Two connecting plates are fixed between the two frame plates, and the two connecting plates penetrate through the main body block. Two insertion holes are provided on one of the frame plates, and two insertion posts penetrate and slide on the other frame plate. The outer ends of the two insertion posts are both hemispherical.

[0006] Two circular tubes are fixed between the two frame plates. The two circular tubes respectively correspond to the two insertion holes, and inner cavity cylinders are provided in the middle of the two circular tubes. Circular plates slide in the two inner cavity cylinders respectively. The two insertion posts are respectively fixedly connected to the two circular plates, and spring I is provided between the two circular plates and the inner cavity cylinders respectively.

[0007] A processing device for processing the building module includes a forming enclosure with hollow upper and lower ends. Two through holes are horizontally provided in the middle of the front side plate of the forming enclosure. During processing, the two frame plates are respectively attached to the inner walls of the front and rear side plates of the forming enclosure, and the two insertion posts are respectively inserted into the two through holes.

[0008] An introduction frame is provided at the upper end of the forming enclosure.

[0009] It further includes a conveying rack I. Conveying rollers I are rotatably arranged at both ends of the conveying rack I. A conveyor belt I is sleeved on the two conveying rollers I. Conveying wheels are fixedly arranged at both ends of the central axis of one of the conveying rollers I through both ends of the conveying rack I. An extension rack is fixedly arranged on the conveying rack I away from this conveying roller I end. Conveying wheels are also rotatably arranged at both ends of the extension rack. A conveying chain is rotatably arranged between the two conveying wheels on the same side. Cross bars are fixedly arranged at the left and right ends of the forming enclosure. Buckle seats are arranged at both ends of the cross bars. The forming enclosure is buckled on the two conveying chains through four buckle seats. At the same time, the conveyor belt I seals the lower end of the forming enclosure.

[0010] A buckle groove is arranged at the lower end of the buckle seat, and an inserting tooth is arranged at the center of the buckle groove.

[0011] A bevel block is arranged on the side surface of the extension rack. When the forming enclosure moves to this position, the bevel block presses the two inserting posts into the forming enclosure.

[0012] A vertical plate is fixedly arranged vertically at the rear end of the extension rack. Two vertical rods are fixedly arranged on the side of the vertical plate away from the conveying rack I. Sliders are sleeved on the two vertical rods. A transverse shaft is rotatably arranged between the two sliders. A sector-shaped frame is coaxially fixedly arranged on the transverse shaft. The front side surface of the sector-shaped frame is attached to the vertical plate, and a connecting seat is fixedly arranged on the front side surface of the sector-shaped frame. The connecting seat penetrates through the convex-shaped hole on the vertical plate. A support plate is fixedly arranged at the front end of the connecting seat. A spring II is arranged between the slider and the lower end of the vertical rod to make the support plate tightly press the upper end of the convex-shaped hole upward.

[0013] A torsion spring is arranged between the transverse shaft and the slider, and the width of the wide-mouth part at the lower part of the convex-shaped hole is greater than the width of the sector-shaped frame.

[0014] The processing method using the said processing equipment includes

[0015] S1. Fit two frame plates into the inner walls of the front and rear side plates of the forming enclosure respectively until the two inserting posts are inserted into the two through holes respectively;

[0016] S2. Place the forming enclosure on the two conveying chains;

[0017] S3. After pouring concrete into the forming enclosure, drive the conveying chain to rotate, drive the forming enclosure to move backward, and during the movement, make the concrete in the forming enclosure gradually take shape;

[0018] S4. Repeat the above steps S1 to S3 to make multiple forming enclosures move in sequence along with the conveying chain;

[0019] S5. When the forming enclosure moves to the extension rack, the internal module is formed and drops from the forming enclosure to form continuous processing of the module. Description of the Drawings

[0020] Figure 1 and Figure 2 are schematic structural diagrams of building modules;

[0021] Figure 3 It is a structural schematic diagram of a frame plate, an insertion tube, an insertion column and an inner cavity cylinder;

[0022] Figure 4 is Figure 3 The sectional structural schematic diagram of;

[0023] Figure 5 and Figure 6 is the structural schematic diagram of the processing equipment of the building module;

[0024] Figure 7 It is a structural schematic diagram of a conveying rack I, an extension rack and a conveying rack II;

[0025] Figure 8 is Figure 7 The partial structural schematic diagram of;

[0026] Figure 9 It is a structural schematic diagram of a bevel block;

[0027] Figure 10 and Figure 11 is the structural schematic diagram of a pallet, a connecting seat and a sector frame;

[0028] Figure 12 It is a structural schematic diagram of a vertical shaft and a star-shaped frame;

[0029] Figure 13 and Figure 14 is the structural schematic diagram of a forming enclosure.

[0030] In the figure:

[0031] Body block 101; connecting plate 102; frame plate 103; round tube 104; insertion column 105; inner cavity cylinder 106; round plate 107; spring I 108;

[0032] Conveying rack I 201; conveying roller I 202; conveying wheel 203; extension rack 204; bevel block 205; conveying rack II 206; vertical plate 207; conveying roller II 208; vertical rod 209; convex hole 210;

[0033] Pallet 301; connecting seat 302; sector frame 303; horizontal shaft 304; slider 305; spring II 306;

[0034] Vertical shaft 401; star-shaped frame 402; rotating pendulum 403;

[0035] Forming enclosure 501; through hole 502; guiding frame 503; cross bar 504; buckle seat 505; insertion tooth 506 Detailed implementation mode

[0036] Such as Figures 1-4As shown in the figure, a detailed description of the building module is as follows:

[0037] A building module includes a main body block 101 and two frame plates 103 respectively and smoothly embedded in the upper and lower end faces of the main body block 101. Two connecting plates 102 are fixed between the two frame plates 103. The two connecting plates 102 penetrate through the main body block 101. Two jacks are provided on one of the frame plates 103, and two plug posts 105 penetrate and slide through the other frame plate 103. The outer ends of the two plug posts 105 are both hemispherical.

[0038] The main body block 101 is formed by concrete solidification. The two frame plates 103, the two connecting plates 102 and the plug posts 105 are made of steel. At the same time, the two frame plates 103 and the two connecting plates 102 form a rectangular steel skeleton. The two frame plates 103 of the skeleton are located on the outer surface of the main body block 101, and the two connecting plates 102 are located inside the main body block 101, forming an internal and external cooperative support of the skeleton for the main body block 101 to ensure the quality of the module. Then, during use, by inserting the plug posts 105 into the jacks on adjacent modules, a cooperative splicing of two modules is formed to ensure the stability of the module splicing. Moreover, by arranging the jacks on the frame plates 103, the quality of the jacks is ensured, and then the splicing quality of the coaxial cooperation between the plug posts 105 and the jacks is ensured, avoiding the dislocation of adjacent two modules after splicing due to the breakage of the cement at the jacks.

[0039] During transportation, the plug posts 105 can be pushed to slide on the frame plates 103 and retracted into the module, so that there are no protruding parts on the outer surface of the module, which is convenient for stacking the modules neatly for transportation. During use, the plug posts 105 are slid out of the module again without affecting the use. At the same time, by setting the outer ends of the plug posts 105 to be hemispherical, it is convenient for the plug posts 105 to be quickly inserted into the jacks during splicing use.

[0040] On the basis of the above embodiments, further:

[0041] Two circular tubes 104 are fixed between the two frame plates 103. The two circular tubes 104 correspond to the two jacks respectively. Inner cavity cylinders 106 are provided in the middle of the two circular tubes 104. Circular plates 107 slide in the two inner cavity cylinders 106. The two plug posts 105 are respectively fixedly connected to the two circular plates 107, and spring I 108 is provided between the two circular plates 107 and the inner cavity cylinders 106.

[0042] By providing the two circular tubes 104, a structure is added inside the rectangular steel skeleton, further ensuring the support of the steel skeleton for the main body block 101 and enhancing the module strength. At the same time, by aligning one end of each of the two circular tubes 104 with the corresponding jacks, the depth of the jacks is extended, and at the same time, during pouring, concrete is prevented from filling into the two jacks, reducing the difficulty of module production. And by sliding the two insertion posts 105 at the other ends of the two circular tubes 104 respectively, the smooth telescopic sliding of the insertion posts 105 is ensured.

[0043] Furthermore, by providing the inner cavity cylinder 106, the internal space of the jack is increased, preventing excessive sand from entering the jack during transportation, which would reduce the length inside the jack and affect the insertion of the insertion post 105. At the same time, it provides an installation space for the circular plate 107 and the spring I 108. Through the elastic force of the spring I 108, the circular plate 107 is pushed to tightly abut one end of the inner cavity cylinder 106, ensuring that the insertion post 105 is in the extended state when not under external force. During transportation, the adjacent module can directly squeeze the insertion post 105, causing the insertion post 105 to retract into the circular tube 104 against the elastic force of the spring I 108. When not under force, the insertion post 105 can automatically slide out again through the elastic force of the spring I 108, ensuring the splicing efficiency and splicing effect.

[0044] As Figures 5-14 shown, the processing equipment for the building module will be described in detail:

[0045] The processing equipment for processing the described building module includes a forming frame 501 with hollow upper and lower ends. As Figures 13-14 shown, two through holes 502 are horizontally provided in the middle of the front side plate of the forming frame 501. During processing, the two frame plates 103 are respectively attached to the inner walls of the front and rear side plates of the forming frame 501, and the two insertion posts 105 are respectively inserted into the two through holes 502.

[0046] The inner space of the forming frame 501 is the same as the volume size of the building module. Thus, by pouring concrete into the forming frame 501, the module can be formed. Among them, by attaching the two frame plates 103 to the inner walls of the front and rear side plates of the forming frame 501 respectively, it can be ensured that the two frame plates 103 are located on the surface of the module, and at the same time, during pouring, concrete is prevented from entering the jacks.

[0047] Moreover, by providing the through holes 502, the installation limit of the skeleton and the forming frame 501 is formed, ensuring that the skeleton does not move inside the forming frame 501 during pouring. When putting the skeleton into the forming frame 501 or taking the module out of the forming frame 501, directly pushing the two insertion posts 105 into the circular tubes 104 can complete the operation, ensuring the processing efficiency.

[0048] Furthermore:

[0049] The upper end of the forming frame 501 is provided with an inlet frame 503, and the side plate of the inlet frame 503 on the same side as the through hole 502 is inclined. At the same time, the side plates at the left and right ends of the inclined side plate are also inclined. Thus, when installing the skeleton into the forming frame 501, the three inclined side plates will guide the skeleton, so that the frame plate 103 with jacks on the skeleton will automatically fit against the fourth side plate of the inlet frame 503. As the skeleton is pressed down, the inclined side plates will guide and squeeze the plug posts 105, causing the plug posts 105 to automatically retract into the round tube 104 until they slide to the through hole 502 and automatically slide out, completing the rapid installation of the skeleton.

[0050] As Figures 5-8 shown:

[0051] It further includes a conveying frame I 201. Conveying rollers I 202 are rotatably arranged at both ends of the conveying frame I 201. A conveyor belt I is sleeved on the two conveying rollers I 202. A conveying wheel 203 is fixedly arranged at both ends of the central axis of one of the conveying rollers I 202 passing through both ends of the conveying frame I 201. An extension frame 204 is fixedly arranged on the conveying frame I 201 away from the end of this conveying roller I 202. Conveying wheels 203 are also rotatably arranged at both ends of the extension frame 204. A conveying chain is rotatably arranged between the two conveying wheels 203 on the same side. Cross bars 504 are fixedly arranged at the left and right ends of the forming frame 501. Buckle seats 505 are arranged at both ends of the cross bars 504. The forming frame 501 is buckled on the two conveying chains through the four buckle seats 505. At the same time, the conveyor belt I forms a seal for the lower end of the forming frame 501.

[0052] By driving one of the conveying rollers I 202 through a first motor installed on the side of the conveying frame I 201, the conveyor belt I can be driven to rotate. At the same time, the two conveying chains are driven to rotate through the two conveying wheels 203. When the forming frame 501 installed with the skeleton is placed on the two conveying chains through the four buckle seats 505, the two conveying chains can drive the forming frame 501 to move along with the conveyor belt I. Moreover, in this state, the lower end of the forming frame 501 presses on the conveyor belt I, forming a seal for the lower end of the forming frame 501. At this time, concrete is poured into the forming frame 501. After the required concrete for the forming frame 501 is poured through the inlet frame 503, the pouring is stopped. The forming frame 501 will carry the concrete and move along with the conveying chain and the conveyor belt I towards the extension frame 204. After the pouring position is vacated, a new forming frame 501 installed with the skeleton is placed on the two conveying chains through the four buckle seats 505, and the pouring is started again, thus forming continuous pouring and processing of the module.

[0053] As the forming frame 501 moves with the concrete towards the extension frame 204, the concrete inside the forming frame 501 gradually solidifies and takes shape. When it moves to the extension frame 204, the lower end disengages from the conveyor belt I. At this time, two inserting posts 105 are pushed into the round tube 104. The module will automatically slide down inside the forming frame 501 due to its own weight, resulting in the automatic separation of the module from the forming frame 501. Then, the forming frame 501 is removed at the rear end of the two conveyor chains for the next processing.

[0054] To ensure that the module can slide down inside the forming frame 501, a release agent can be applied to the inner wall of the forming frame 501 before pouring, such as an oil-based release agent, a water-based release agent, or a silicone-based release agent, etc. The release agent can form an isolation film on the inner wall surface of the forming frame 501, effectively reducing the friction and adhesion between the concrete and the inner wall of the forming frame 501, making it easier for the concrete to be removed from the inner wall of the forming frame 501. Also, when the forming frame 501 moves to the extension frame 204, the module can be manually pressed down to make the module slide off.

[0055] Furthermore:

[0056] To ensure that the conveyor chain can drive the forming frame 501 to move stably, a buckle groove is provided at the lower end of the buckle seat 505, and an inserting tooth 506 is provided at the center of the buckle groove. The buckle groove is buckled on the conveyor chain to prevent the buckle seat 505 from falling off the side of the conveyor chain. At the same time, due to the setting of the inserting tooth 506, it can be inserted into the sprocket tooth groove of the conveyor chain to prevent relative sliding between the two and ensure that the forming frame 501 can be driven to move.

[0057] Furthermore, as Figure 9 shown:

[0058] A bevel block 205 is provided on the side of the extension frame 204. When the forming frame 501 moves to this position, the bevel block 205 presses the two inserting posts 105 into the forming frame 501.

[0059] Due to the setting of the bevel block 205, when the forming frame 501 moves to the extension frame 204 along with the conveyor chain, the two inserting posts 105 will come into contact with the bevel block 205 in sequence and automatically slide into the forming frame 501 under the influence of the slope of the bevel block 205. Since the outer ends of the two inserting posts 105 are both semi-circular heads, after sliding into the forming frame 501, the module can slide down to complete the separation from the forming frame 501.

[0060] As Figure 8 , shown in Figures 10 and 11:

[0061] A vertical plate 207 is fixedly installed at the rear end of the extension frame 204. Two vertical rods 209 are fixedly installed on the side of the vertical plate 207 away from the conveyor frame I 201. Slide blocks 305 are sleeved on both vertical rods 209. A horizontal shaft 304 is rotatably installed between the two slide blocks 305. A sector frame 303 is coaxially fixedly installed on the horizontal shaft 304. The front side of the sector frame 303 is attached to the vertical plate 207. A connecting seat 302 is fixedly installed on the front side of the sector frame 303. The connecting seat 302 passes through a convex hole 210 on the vertical plate 207. A support plate 301 is fixedly installed at the front end of the connecting seat 302. A second spring 306 is arranged between the slide block 305 and the lower end of the vertical rod 209 to make the support plate 301 tightly press against the upper end of the convex hole 210 upwards.

[0062] Among them, the connecting seat 302 is located in the convex hole 210 and is tightly pressed against the upper edge of the convex hole 210 upwards under the elastic force of the second spring 306. At this time, the support plate 301 is located inside the extension frame 204. When the forming frame 501 moves into the extension frame 204 and the two plug posts 105 are pushed into the forming frame 501 by the bevel block 205, the forming frame 501 is directly above the support plate 301, thereby supporting the module. When the module slides down, the support plate 301 will drive the connecting seat 302 to slide down in the convex hole 210, and then drive the two slide blocks 305 to slide down on the vertical rods 209 through the sector frame 303 and the horizontal shaft 304. At the same time, due to the elastic upward pressing of the two second springs 306 on the two slide blocks 305, the support plate 301 will support the module to slowly descend, preventing the module from quickly separating from the forming frame 501 and falling, resulting in damage.

[0063] Furthermore:

[0064] A torsion spring is arranged between the horizontal shaft 304 and the slide block 305. The width of the lower wide part of the convex hole 210 is greater than the width of the sector frame 303.

[0065] When the support plate 301 supports the module to slowly descend, the connecting seat 302 slides down in the convex hole 210, and will slide from the upper narrow hole part of the convex hole 210 to the lower wide hole part. When the side surface of the sector frame 303 corresponds to the lower wide hole part of the convex hole 210, under the influence of the gravity of the module, the support plate 301 will drive the sector frame 303 to rotate around the horizontal shaft 304 on the two slide blocks 302 through the connecting seat 302, so that the horizontal shaft 304 overcomes the elastic force of the torsion spring to make the sector frame 303 rotate into the lower wide hole of the convex hole 210, so that the support plate 301 is changed to an inclined state, and then the module slides down along the inclined plane formed by the support plate 301 until it automatically detaches from the support plate 301;

[0066] After the module is separated from the pallet 301, under the elastic force of the spring II 306 and the torsion spring, while the sector frame 303 presses against the inner edge of the convex hole 210, it automatically rotates around the horizontal axis 304 until the outer edge of the sector frame 303 is separated from the inner edge of the convex hole 210. Then, the connecting seat 302 enters the convex hole 210 again and slides upward under the elastic force of the spring II 306 until the connecting seat 302 presses against the upper end of the convex hole 210 and returns to its original position again, waiting for the arrival of the next formed frame 501.

[0067] Further:

[0068] A conveyor frame II 206 is fixed below the conveyor frame I 201. Conveyor rollers II 208 are rotatably installed at both the front and rear ends of the conveyor frame II 206, and a conveyor belt II is sleeved on the two conveyor rollers II 208.

[0069] Driven by a second motor installed on the side of the conveyor frame II 206, one of the conveyor rollers II 208 is driven, so as to drive the conveyor belt II to move away from the extension frame 204. When the pallet 301 rotates to be inclined, the module slides down onto the conveyor belt II, and with the movement of the conveyor belt II, the module is driven to slide forward and separate from the pallet 301, realizing the automatic conveying of the module, which is convenient for collecting the module at the front end of the equipment.

[0070] Wherein, support plates are arranged inside both the conveyor frame I 201 and the conveyor frame II 206 to support the conveyor belt, preventing the conveyor belt from being unable to carry the module or blocking the lower end of the formed frame 501.

[0071] Further, as Figure 12 shown:

[0072] Vertical shafts 401 are rotatably installed on both sides of the front part of the conveyor frame I 201. Star-shaped frames 402 are fixed to the upper ends of the two vertical shafts 401, and rotary pendulums 403 are rotatably installed on each star-shaped frame 402.

[0073] During pouring, an appropriate amount of concrete is poured into the formed frame 501 at one time through the introduction frame 503. After pouring, it is impossible to ensure that the upper end surface of the concrete in the formed frame 501 is flat. Therefore, through the arrangement of the vertical shafts 401, when the two vertical shafts 401 are driven to rotate, the star-shaped frames 402 will drive a plurality of rotary pendulums 403 to sequentially strike on both sides of the formed frame 501, vibrating the concrete in the formed frame 501, ensuring that the upper end surface of the concrete in the formed frame 501 is flat, thus ensuring the quality of the module. At the same time, through the striking, air bubbles in the concrete are avoided, which affects the quality of the module.

[0074] The processing method of the processing equipment includes

[0075] S1. Insert the two frame plates 103 against the inner walls of the front and rear side plates of the forming enclosure 501 respectively until the two insertion posts 105 are inserted into the two through holes 502 respectively;

[0076] S2. Place the forming enclosure 501 on the two conveyor chains;

[0077] S3. After pouring the concrete into the forming enclosure 501, rotate the driving conveyor chain to drive the forming enclosure 501 to move backward, and during the movement, the concrete in the forming enclosure 501 is gradually formed;

[0078] S4. Repeat the above steps S1 to S3 to make multiple forming enclosures 501 move in sequence along with the conveyor chain;

[0079] S5. When the forming enclosure 501 moves to the extension frame 204, the internal module is formed and drops from the inside of the forming enclosure 501, forming continuous processing of the module.

Claims

1. A building module, characterized in that: It includes a main body block and two frame plates which are respectively flatly embedded in the upper and lower end surfaces of the main body block. Two connecting plates are fixed between the two frame plates. The two connecting plates pass through the main body block. One of the frame plates is provided with two plug holes, and the other frame plate passes through and slides with two plug posts, and the outer ends of the two plug posts are both hemispherical.

2. A building module according to claim 1, characterized in that: Two round tubes are fixed between the two frame plates, the two round tubes correspond to the two sockets respectively, and an inner cavity tube is provided in the middle of the two round tubes, round plates are slid in the two inner cavities, two plug posts are fixedly connected to the two round plates respectively, and a spring I is provided between the two round plates and the inner cavity tube.

3. A processing device for processing the building module according to claim 1 or 2, characterized in that: The equipment includes a forming frame with hollowed-out ends, and two through holes are horizontally arranged in the middle of the front side plate of the forming frame. During processing, the two frame plates are respectively attached to the inner walls of the front and rear side plates of the forming frame, and the two plug posts are respectively inserted into the two through holes.

4. The processing equipment according to claim 3, characterized in that: An introduction frame is arranged at the upper end of the molding surrounding frame.

5. The processing equipment according to claim 4, characterized in that: It also includes a conveying frame I, at both ends of which conveying rollers I are rotated, and conveyor belts I are sleeved on the two conveying rollers I, the central axis of one of the conveying rollers I passes through the conveying frame I, and conveying wheels are fixed at both ends, and an extension frame is fixed on the conveying frame I away from the end of the conveying roller I, and conveying wheels are also rotated at both ends of the extension frame, and a conveying chain rotates between the two conveying wheels on the same side, cross bars are fixed on the left and right ends of the forming frame, and buckle seats are provided at both ends of the cross bar, and the forming frame is buckled on the two conveying chains through four buckle seats, and at the same time, the conveyor belt I forms a blockage on the lower end of the forming frame.

6. The processing equipment according to claim 5, characterized in that: A buckle groove is provided at the lower end of the buckle seat, and an inserting tooth is provided at the center of the buckle groove.

7. The processing equipment according to claim 5, characterized in that: A groove block is provided on the side of the extension frame, and when the forming enclosure frame moves to this position, the groove block presses the two plug posts into the forming enclosure frame.

8. The processing equipment according to claim 7, characterized in that: A vertical plate is vertically fixed to the rear end of the extension frame, and two vertical rods are fixed to the side of the vertical plate away from the conveying frame I. Slide blocks are sleeved on the two vertical rods, and a horizontal axis rotates between the two slide blocks. A fan-shaped frame is coaxially fixed on the horizontal axis. The front side surface of the fan-shaped frame is in contact with the vertical plate, and a connecting seat is fixed on the front side surface of the fan-shaped frame. The connecting seat passes through the convex hole on the vertical plate, and a support plate is fixed to the front end of the connecting seat. A spring II is provided between the slider and the lower end of the vertical rod to make the support plate press upward against the upper end of the convex hole.

9. The processing equipment according to claim 8, characterized in that: A torsion spring is arranged between the transverse axis and the sliding block, and the width of the wide opening at the lower part of the convex hole is greater than the width of the fan-shaped frame.

10. A processing method using the processing equipment according to any one of claims 5 to 9, characterized in that: include S1. Insert the two frame plates onto the inner walls of the front and rear side plates of the molded frame respectively until the two plug posts are respectively inserted into the two through holes; S2, placing the formed enclosure frame on two conveyor chains; S3, after pouring concrete into the forming frame, the transmission conveyor chain rotates to drive the forming frame to move backward, and during the movement, the concrete in the forming frame is gradually formed; S4, repeating the above steps S1 to S3, so that the multiple forming enclosures are arranged and moved in sequence along the conveyor chain; S5. When the molding enclosure moves to the extension frame, the internal module is formed and falls from the molding enclosure, forming a continuous processing of the module.

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