Manure leakage plate compression molding production equipment and waste collection structure

Abstract

The application discloses a manure leakage plate compression molding production equipment and waste collecting structure, and the setting component comprises a setting mold, a cooling bin is arranged at the lower part of the setting mold, a plurality of windward openings are formed in the two side faces of the cooling bin, an impeller is rotatably arranged in each windward opening, air inlet bins are arranged at the two sides of the cooling bin, air bags are arranged on the upper ends of the air inlet bins and are connected with the cavities, waste recycling boxes are arranged between the air inlet bins and the cooling bin, a plurality of air inlets and a plurality of air outlets are formed in the inner wall of the air inlet bin, the air outlets are formed on the end face of the air inlet bin close to the waste recycling box, an air inlet component and an air outlet component are correspondingly arranged on each air inlet and air outlet, a guide rail is continuously arranged along the length of the air inlet bin, a sliding block is slidably arranged in the guide rail, a connecting rod is arranged on the sliding block, the other end of the connecting rod is pivotally arranged on the side wall of the top pressing block, and a scraper is arranged between the two sliding blocks and is attached to the upper surface of the setting mold.

Description

Technical Field

[0001] This invention relates to the field of compression molding production equipment technology, specifically to a manure slat compression molding production equipment and a waste collection structure. Background Technology

[0002] Slatted floors are specialized flooring equipment used in modern animal husbandry, primarily for pigsties, poultry farms, and cattle and sheep farms. They are made of cement, plastic, reinforced concrete, or BMC composite materials, possessing high strength and corrosion resistance, with a single panel capable of supporting up to 1000 kg. The equipment achieves efficient manure leakage through a trapezoidal perforation design, with smooth edges to avoid damaging animal hooves. It reduces flushing water and manual cleaning costs. Some products have built-in heating devices to regulate temperature and humidity in the pigsty. Plastic materials are lightweight, easy to install, and have a smooth surface for easy cleaning.

[0003] Slatted floor panels are typically produced using compression molding equipment. Weighed wet plastic granules are placed into a mold, and the molding process is carried out using the top pressure device of the compression molding equipment. During the weighing process, in order to ensure production efficiency, weighers typically weigh a certain weight range of raw materials and then place them into the mold. Due to the different amounts of raw materials added, even when producing complete slatted floor panels, excess scrap material will overflow after compression molding. This scrap material needs to be manually scraped off and collected for recycling, which is time-consuming and labor-intensive.

[0004] To address the aforementioned issues, prior art patent application number 201420209305.9 discloses a cutting device on a compression molding machine. This device employs a cutting blade on the pressing mechanism to cut along the outer edge of the mold during the pressing process, removing excess waste material and allowing it to fall naturally into a recycling bin. However, due to the plasticity of the raw material, thermoforming is commonly used in the production process. Excess plastic after compression molding has an irregular structure under thermoforming, and the remaining material, before fully cooling, retains the adhesive properties of heated plastic. During the fall, it not only adheres to the recycling bin inlet but also, due to excessive adhesion and its irregular structure, blocks the inlet, preventing material from being discharged and increasing cleaning work. Therefore, the existing technology still presents technical problems. Summary of the Invention

[0005] To address the shortcomings of existing technologies, this invention provides a slatted floor compression molding production equipment and a waste collection structure, which solves the technical problems mentioned in the background section.

[0006] The technical solution of this invention is as follows: To achieve the above objectives, the present invention is implemented through the following technical solution: A slatted floor compression molding production equipment and waste collection structure includes a compression molding machine body. The machine body includes upper and lower corresponding die-casting components and a shaping component. The die-casting component includes a top pressure block and a cylinder at its upper end for driving. The shaping component includes a shaping mold. A cooling chamber is provided at the lower part of the shaping mold. Multiple air inlets are opened on both sides of the cooling chamber. An impeller is rotatably installed in each air inlet. Air inlets are provided on both sides of the cooling chamber. An air bladder is connected to the upper end of each air inlet cavity. The top of the air bladder is fixed to the top pressure block. The air inlet chamber and the cooling chamber are connected, and a waste recycling box is sandwiched between them. The inner wall of the air inlet chamber has multiple air inlets and multiple air outlets. The air outlets are located on the end face of the air inlet chamber near the waste recycling box. Each air inlet and air outlet is equipped with an air inlet component and an air outlet component. A guide rail is continuously laid along the length of the air inlet chamber. A slider is slidably arranged in the guide rail. The slider has a connecting rod. The other end of the connecting rod is axially connected to the side wall of the top pressure block. A scraper is connected between the two sliders, spanning and attached to the upper surface of the forming mold.

[0007] Preferably, the cooling chamber is a hollow rectangular cavity structure. Multiple air inlets are opened on both sides of the cooling chamber near the array. A drive shaft mounted inside the cooling chamber is rotatably installed on the inner side of the air inlet. Each section of the drive shaft corresponding to the air inlet is provided with an impeller. Blades are arranged around the impeller and can protrude through the air inlet.

[0008] Preferably, the cooling chamber is further provided with a first filter screen covering the outside of the drive shaft, and the cooling chamber is provided with openings at both the front and rear ends, with a second filter screen covering the openings at both ends.

[0009] Preferably, the airbag is further provided with support members that are vertically arranged on the upper surface of the air inlet chamber on both sides. The support member is a telescopic rod and a spring is arranged around the outside of the telescopic rod. A pressure plate is continuously laid on the upper part of the airbag along the length of the airbag, and the pressure plate extends to the upper end of the support member on both sides and is fixedly connected to the support member.

[0010] Preferably, a fixing block is connected in parallel between the ends of the pressure plates on both sides in the same direction. The fixing block is fixedly connected to the end of the top pressure block. The lifting and lowering action of the top pressure block controls the lifting and lowering of the pressure plates to compress the airbag.

[0011] Preferably, multiple air inlets are arranged in a continuous array along the bottom end face of the air inlet chamber, and each air inlet port is provided with a one-way cover that can be opened and closed axially. The one-way cover is a one-way opening and closing cover that opens into the air inlet chamber in one direction.

[0012] Preferably, multiple air outlets are arranged in a continuous array along one end face of the air inlet chamber near the waste recycling box, and each air outlet is set corresponding to the windward opening. The air inlet is covered with a sealing cover on the outer end port of the air inlet chamber. The sealing cover is a raised circular cylindrical structure. A first sealing port with a circular opening is opened in the middle of the top of the sealing cover. Four second sealing ports with arc-shaped structures are equidistantly opened on the periphery of the sealing cover. A slide rail is provided on the inner wall of the sealing cover corresponding to the four second sealing ports. A sealing element is slidably arranged in the slide rail. The top of the sealing element is provided with an arc-shaped structure that is the same as the structure of the second sealing port.

[0013] Preferably, the air outlet is located at the port of the air inlet chamber and is provided with an air outlet pipe extending into the air inlet chamber. An air inlet pipe extending from one of its inner ends into the middle of its pipe is embedded in the air outlet pipe. A sliding shaft is slidably embedded in the air inlet pipe. A blocking block is provided at both ends of the sliding shaft. The blocking blocks at both ends are respectively embedded at the port of the air inlet pipe and the first sealing port. The blocking block at the end of the sliding shaft near the port of the air inlet pipe can drive the sliding shaft to slide back and forth along the length of the air inlet pipe. The range of movement of the blocking block is the length of the air inlet pipe cavity. Air holes are opened around the outside of the air inlet pipe.

[0014] Preferably, the sliding shaft is provided with four bearing seats around the circumference of the air outlet section, and each bearing seat is axially connected to a connecting rod. The other end of the connecting rod is axially connected to a corresponding seal. The connecting rod moves through the sliding shaft to control the opening and closing of the four seals.

[0015] Preferably, the scraper has a rhomboid structure.

[0016] Beneficial effects This invention provides a molding production equipment for manure slatted floors and a waste collection structure, which has the following beneficial effects: (1) A connecting rod is provided on both sides of the top pressure block. The top pressure block drives the connecting rod to control the slider to slide in the guide rail through the lifting action during the compression molding process. A diamond-shaped scraper is provided between the two sliders. Through the lifting and lowering action of the top pressure block, the scraper moves back and forth on the surface of the compression molding plate to scrape off the excess material. The scraper is a diamond structure that is wide in the middle and narrow at both ends. The excess material moves towards the waste recycling box with the angle of the scraper structure.

[0017] (2) By setting up an airbag connected to the top pressure block, the airbag expands and compresses due to the lifting and lowering action of the top pressure block, attracting air and using the air to blow the air outlet assembly to clean the residual material adhering to the inner wall of the waste recycling box. The airbag rises and expands, and air is introduced through the one-way opening air inlet. During the process of introducing air, the block at one end of the sliding shaft blocks the air inlet port, preventing air from being introduced. The airbag descends and compresses, and the air is compressed downwards. The one-way cover is one-way opening and closing, so the air cannot be released from here. The compressed air pushes the airbag to the bottom. The blockage causes the sliding shaft to move in the direction of the waste recycling box. One end of the sliding shaft is restricted to moving within the air inlet pipe, but the other end of the blockage can be pushed out through the first sealing port. During the movement, the sliding shaft drives the connecting rod to push the seal out of the second sealing port. Through the pushing out of the blockage and the seal, the residual material adhering to its inner wall is scraped off, and the compressed air enters the air outlet pipe through the air hole and is released through the opened first and second sealing ports, blowing the residual material in the waste recycling box to disperse and destroy its blocking structure, thus reducing its density.

[0018] (3) The air released through the first sealing port and the second sealing port can be blown towards the corresponding impeller. The impeller rotates and drives the blades to push the blocked residual material down and recover quickly. While preventing blockage, it accelerates the recovery of waste material. Furthermore, the air blows the blades, and the blades introduce air to circulate in the cooling chamber, which accelerates the rapid cooling and forming of the manure leakage plate in the molding die. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic diagram of the collection structure of the present invention; Figure 3 For this Figure 2 A partial structural diagram of A in the middle; Figure 4 Structural cross-sectional views were collected for this invention; Figure 5 for Figure 4 A schematic diagram of the partial structure of B in the diagram; Figure 6 This is a schematic diagram of a one-way cover structure; Figure 7 This is a schematic diagram of the sealing cap structure; Figure 8 This is a schematic diagram of the sliding shaft structure.

[0020] In the picture: 1. Cylinder; 101. Top pressure block; 2. Shaping mold; 3. Cooling chamber; 301. Air inlet; 302. Drive shaft; 303. Impeller; 304. Blade; 305. First filter screen; 306. Second filter screen; 4. Waste recycling box; 5. Air inlet chamber; 501. Air inlet; 502. One-way cover; 503. Air outlet; 504. Sealing cover; 505. First sealing port; 506. Second sealing port; 507. Slide rail; 508. Seal; 509. Air outlet pipe; 510. Air inlet pipe; 511. Air hole; 512. Sliding shaft; 513. Block; 514. Shaft seat; 515. Connecting rod; 6. Airbag; 601. Pressure plate; 602. Support component; 603. Fixing block; 7. Guide rail; 8. Connecting rod; 801. Slider; 9. Scraper. Detailed Implementation

[0021] The technical solutions in the embodiments of the present invention will be clearly and completely described below. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0022] To make the above-mentioned objects, features, and advantages of the present invention more apparent and understandable, specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings. Many specific details are set forth in the following description to provide a thorough understanding of the present invention. However, the present invention can be practiced in many other ways different from those described herein, and those skilled in the art can make similar modifications without departing from the spirit of the present invention. Therefore, the present invention is not limited to the specific embodiments disclosed below.

[0023] In the description of this invention, it should be understood that the terms "upper," "lower," "front," "rear," "left," "right," "top," "bottom," "inner," and "outer," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this invention.

[0024] Example 1 Combination Figure 1 , 2This embodiment discloses a specific assembly structure of a slatted floor compression molding production equipment and a waste collection structure. The main body of the equipment includes a compression molding machine body, which is composed of a die-casting component and a shaping component arranged vertically. The die-casting component includes a top pressure block 101 and a drive cylinder 1 located on the upper end of the top pressure block 101. The drive cylinder 1 provides power for the vertical lifting and lowering action of the top pressure block 101 to realize the hot compression molding operation of the slatted floor material. The shaping component is used for shaping the material and includes a shaping mold 2 for carrying the material and completing the shaping of the slatted floor.

[0025] Combination Figure 1 , 2 The lower part of the shaping mold 2 is fixedly equipped with a cooling chamber 3. The cooling chamber 3 adopts a hollow rectangular cavity structure to provide cavity space for cooling air circulation and waste material auxiliary unloading. Multiple rectangular air inlets 301 are arrayed on both the left and right side walls of the cooling chamber 3. A drive shaft 302 is horizontally mounted on the inner side of the air inlet 301. The drive shaft 302 can rotate freely relative to the cooling chamber 3. An impeller 303 is fixedly installed on the section of the drive shaft 302 corresponding to each air inlet 301. Multiple sets of arc-shaped blades 304 are evenly arranged around the outer circumference of the impeller 303. The outer ends of the blades 304 can be exposed to the outside of the cooling chamber 3 through the air inlet 301 and can receive lateral airflow to drive rotation. To achieve impurity filtration and prevent waste debris from entering the cooling chamber 3 and causing structural jamming, the outer side of the drive shaft 302 is covered with a first filter screen 305, which is fixed to the inner wall of the cooling chamber 3. At the same time, the front and rear ends of the cooling chamber 3 are through-open structures, and the openings at both ends are sealed with second filters screens 306 for air to dissipate and complete the circulation.

[0026] Combination Figure 3 , 4The cooling chamber 3 has symmetrically arranged air inlets 5 on its left and right sides. The air inlets 5 are vertical hollow chamber structures. The upper cavity of the air inlets 5 is connected to the cavity of the airbag 6. The top end face of the airbag 6 is fixedly connected to the bottom of the pressure block 101 of the die-casting assembly. It can move vertically and synchronously with the pressure block 101 to realize the expansion and compression deformation of the airbag 6. In order to ensure the stability of the airbag 6 during lifting and lowering and to avoid the airbag 6 from shifting or deforming under pressure, the airbag 6 has symmetrically arranged support members 602 that are vertically fixed to the upper end face of the air inlets 5 on its left and right sides. The support members 602 adopt a telescopic rod structure, and the support members 602 are surrounded by buffer springs. The elastic buffering effect of the springs is used to offset the lateral stress during the lifting and lowering of the airbag 6. An integrated pressure plate 601 is laid on the upper end of the airbag 6 along its length. The pressure plate 601 extends to the upper end of the two side support members 602 on both sides and is fixedly connected to the top of the support members 602. A fixing block 603 is fixedly connected between the ends of the two side pressure plates 601 in the same direction. The fixing block 603 is fixed to the end of the top pressure block 101 as a whole, so that the lifting and lowering action of the top pressure block 101 can drive the support member 602 to extend and retract and the airbag 6 to be squeezed and deformed synchronously through the fixing block 603 and the pressure plate 601, realizing mechanical linkage transmission.

[0027] Combination Figure 1 , 2 3, 6, 7, 8. A waste recycling box 4 is detachably embedded in the interlayer space between the air inlet chamber 5 and the cooling chamber 3. The waste recycling box 4 is an open-top storage box used to collect plastic scraps generated during the compression molding process, achieving centralized collection of waste. Multiple sets of air inlets 501 and air outlets 503 are respectively provided on the inner wall of the air inlet chamber 5. The air inlets 501 and air outlets 503 are respectively equipped with air intake components and air outlet components to achieve directional airflow introduction and directional blowing. Multiple air inlets 501 are evenly arrayed along the bottom end face of the air inlet chamber 5. Each air inlet 501 is hinged to an openable one-way cover 502. The one-way cover 502 can only be opened in one direction into the air inlet chamber 5, achieving a one-way ventilation effect of air intake conduction and air outlet blockage, preventing airflow from leaking outwards.

[0028] Combination Figure 4Multiple air outlets 503 are evenly arrayed along the end face of the air inlet chamber 5 near the waste recycling box 4, and each air outlet 503 is aligned with the corresponding air inlet 301 on the side of the cooling chamber 3 to ensure precise airflow guidance to the impeller 303. A sealing cover 504 is installed at the port of the air outlet 503 outside the air inlet chamber 5. The sealing cover 504 is a raised circular cylindrical structure with a circular first sealing port 505 at the center of its top. Four arc-shaped second sealing ports 506 are equidistantly arranged on the periphery of the cylindrical structure of the sealing cover 504. Slide rails 507 are fixedly installed on the inner wall of the sealing cover 504 at positions corresponding to the four second sealing ports 506. Matching sealing elements 508 are slidably fitted inside the slide rails 507. The sealing elements 508 adopt an arc-shaped structure adapted to the second sealing ports 506 and can slide back and forth along the slide rails 507 to achieve the sealing and opening of the second sealing ports 506.

[0029] An air outlet 503 is fixedly connected to an air outlet pipe 509 extending into the cavity of the air inlet chamber 5 at its port inside the air inlet chamber 5. An air inlet pipe 510 is coaxially embedded inside the air outlet pipe 509, with the length of the air inlet pipe 510 being shorter than that of the air outlet pipe 509. A cylindrical sliding shaft 512 is slidably embedded inside the air inlet pipe 510. Circular plugs 513 are fixedly fitted at both ends of the sliding shaft 512. One plug 513 corresponds to and matches the first sealing port 505 of the sealing cover 504, and the other plug 513 corresponds to and matches the lower port of the air inlet pipe 510. One plug 513 can slide back and forth along the length of the air inlet pipe 510 cavity, and the sliding stroke is limited within the air inlet pipe 510 to prevent detachment. Multiple vent holes 511 are evenly distributed around the outer circumference of the air inlet pipe 510 for airflow guidance. The sliding shaft 512 is located inside the air outlet duct 509 and has four shaft seats 514 fixed circumferentially on the rod section. Each shaft seat 514 is axially connected to an inclined connecting rod 515. The other end of the connecting rod 515 is hinged to the inner side of the seal 508 at the corresponding second sealing port 506. Through the reciprocating sliding of the sliding shaft 512, the connecting rod 515 can be driven to push and pull the seal 508, so as to realize the synchronous opening and closing of the four seals 508, and complete the opening and closing control of the second sealing port 506.

[0030] Linear guide rails 7 are laid along the length of the inner sides of the air inlets 5 on both sides. Matching sliders 801 are slidably mounted inside the guide rails 7. Vertical connecting rods 8 are fixedly connected to the outer side of the sliders 801. The top of the connecting rods 8 is axially mounted on the side wall of the top pressure block 101 and can rotate slightly relative to the top pressure block 101 to adapt to the position. A scraper 9 spanning the upper surface of the shaping mold 2 is fixedly connected between the sliders 801 on the left and right sides. The bottom of the scraper 9 is attached to the upper end surface of the shaping mold 2. The scraper 9 adopts a diamond-shaped structure that is wide in the middle and narrow at both ends. The streamlined design can guide the waste material to slide and gather towards the waste collection boxes 4 on both sides, improving scraping efficiency.

[0031] Example 2 During use, in the initial state, the top pressure block 101 is in the raised standby position, the airbag 6 is naturally inflated, the support member 602 is in an extended state under the action of the spring, the slider 801 is in the initial position of the guide rail 7, and the scraper 9 is resting on the initial end of the upper surface of the shaping mold 2. The sealing member 508 closes to block the second sealing port 506, the lower end block 513 of the sliding shaft 512 blocks the lower port of the air inlet pipe 510, and the upper end block 513 blocks the first sealing port 505. The one-way cover 502 of the air inlet 501 is in a closed state. The operator puts the weighed plastic or other manure-slatted board raw materials into the shaping mold 2 to complete the feeding preparation.

[0032] When the equipment is started, cylinder 1 drives the top pressure block 101 to move vertically downward, hot-pressing and molding the raw material inside the molding die 2 to complete the pressing and molding of the manure slatted board. During the descent of the top pressure block 101, it simultaneously drives the connecting rod 8 connected to the side wall shaft to press down, pushing the slider 801 to slide forward along the guide rail 7, which in turn drives the diamond-shaped scraper 9 to slide smoothly back and forth along the upper surface of the molding die 2. During the compression molding process, the excess plastic scraps overflowing from the edge of the die are hot and sticky. The scraper 9 scrapes away the irregular scraps through its diamond-shaped streamline structure and guides the scraps to slide and fall towards the waste recycling boxes 4 on both sides using its own structural angle. This achieves simultaneous compression molding and scraping operations, replacing the traditional manual scraping method and greatly improving work efficiency.

[0033] After the top pressure block 101 is pressed down to the lowest compression position, it begins to rise vertically to reset. During the lifting process of the top pressure block 101, the fixed block 603 and the pressure plate 601 simultaneously pull the airbag 6 upward to expand, creating a negative pressure state inside the air inlet chamber 5. Under the action of negative pressure, the one-way cover 502 at the air inlet 501 opens inward, and outside air is quickly introduced into the air inlet chamber 5 and the airbag 6 through the air inlet 501, completing the air intake and energy storage. During this stage, the lower end of the sliding shaft 512, the blocking block 513, tightly seals the port of the air inlet pipe 510, preventing air from escaping through the air outlet pipe 509. All the air is stored inside the airbag 6 and the air inlet chamber 5, reserving air pressure for subsequent air blowing and unblocking operations. At the same time, the lifting of the top pressure block 101 drives the slider 801 and the scraper 9 to reset, completing a single scraping cycle.

[0034] When the top pressure block 101 presses down again for the next round of compression molding, the pressure plate 601 moves down with the top pressure block 101 to squeeze the air bladder 6. The air bladder 6 quickly contracts and compresses the internal air, causing a sudden increase in air pressure inside the air inlet chamber 5. At this time, the one-way cover 502 of the air inlet 501 is blocked and closed by the internal air pressure, preventing air from flowing back out of the air inlet 501. The high-pressure air acts concentrated inside the air inlet pipe 510, pushing the sliding shaft 512 to slide upward along the air inlet pipe 510. During the upward movement of the sliding shaft 512, the lower end block 513 disengages from the port of the air inlet pipe 510, exposing the vent 511, and the upper end block 513 disengages from the first sealing port 505. At the same time, the sliding shaft 512 pulls the four sealing elements 508 outward along the slide rail 507 through the outer peripheral connecting rod 515, so that the second sealing port 506 is fully opened.

[0035] High-pressure air enters the outlet pipe 509 through the air inlet 511 of the inlet pipe 510, and is finally ejected at high speed from the opened first sealing port 505 and second sealing port 506. The high-speed airflow is directly sprayed onto the inner wall of the waste recycling box 4 and the sticky waste accumulated inside the box. On the one hand, the mechanical ejection action of the sliding shaft 512 and the seal 508 can directly scrape off the sticky residue stuck to the sealing port and the inlet of the recycling box; on the other hand, the high-speed airflow can blow away the clumps and sticky irregular waste, destroy the waste accumulation and blockage structure, and make the sticky waste quickly fall off to the bottom of the recycling box, completely solving the problems of high-temperature plastic residue sticking, blockage, and inability to automatically discharge in traditional equipment.

[0036] The high-speed airflow ejected from the first sealing port 505 and the second sealing port 506 is precisely aimed at the air inlets 301 on both sides of the cooling chamber 3. The airflow penetrates the air inlets 301 and impacts the blades 304 of the impeller 303, driving the drive shaft 302 and the impeller 303 to rotate at high speed. During the rotation of the impeller 303, the mechanical action of the blades 304 disturbs the residual waste that falls onto the air inlets 301 and above the recycling box, further preventing waste from getting stuck and accelerating the complete fall of waste into the recycling box, thus improving the thoroughness of waste recycling. At the same time, the rotation of the impeller 303 drives ambient air from outside to continuously enter the cooling chamber 3, forming a circulating cold air inside the cooling chamber 3. The cold air evenly covers the bottom and side walls of the molding mold 2, quickly removing the high temperature heat of the manure-slatted plate after compression molding, accelerating the cooling and shaping of the manure-slatted plate, shortening the product molding cycle, and improving production efficiency. The first filter 305 and the second filter 306 filter waste debris in the airflow throughout the process, preventing debris from entering the cooling chamber 3 and causing impeller 303 to jam or structural wear, thus ensuring long-term stable operation of the equipment.

[0037] After a single compression molding, scraping, unblocking, and cooling operation is completed, the equipment resets and enters the next work cycle to continuously produce slatted floors in batches. During the operation, all scrap materials are automatically collected inside the waste recycling box 4. Workers only need to periodically disassemble the waste recycling box 4 to centrally recycle and reuse the collected plastic scraps, significantly reducing the labor costs of manual cleaning and scrap collection.

[0038] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A molding production equipment for slatted floor panels and a waste collection structure, comprising a molding machine body, the molding machine body comprising upper and lower corresponding die-casting components and a shaping component, the die-casting component comprising a top pressure block (101) and a cylinder (1) at its upper end for driving, the shaping component comprising a shaping mold (2), characterized in that: The lower part of the shaping mold (2) is provided with a cooling chamber (3). Multiple air inlets (301) are opened on both sides of the cooling chamber (3). An impeller (303) is rotatably installed in each air inlet (301). Air inlets (5) are provided on both sides of the cooling chamber (3). An air bladder (6) is connected to the upper end of the air inlet (5) in the same cavity. The top of the air bladder (6) is fixedly connected to the top pressure block (101). A waste recycling box (4) is sandwiched between the air inlet (5) and the cooling chamber (3). Multiple air inlets (501) and multiple air outlets (503) are opened on the inner wall of the air inlet (5). The air outlet (503) is located on one end face of the air inlet (5) near the waste recycling box (4). Each air inlet (501) and air outlet (503) is equipped with an air inlet component and an air outlet component. A guide rail (7) is continuously laid along the length of the air inlet (5). A slider (801) is slidably arranged in the guide rail (7). The slider (801) has a connecting rod (8). The other end of the connecting rod (8) is axially connected to the side wall of the top pressure block (101). A scraper (9) is connected between the two sliders (801) and is attached to the upper surface of the shaping mold (2).

2. The slatted floor molding production equipment and waste collection structure according to claim 1, characterized in that: The cooling chamber (3) is a rectangular cavity structure with a hollow interior. Multiple air inlets (301) are opened on both sides of the cooling chamber (3) near the array. A drive shaft (302) mounted inside the cooling chamber (3) is rotatably installed on the inside of the air inlet (301). Each section of the drive shaft (302) corresponding to the air inlet (301) is provided with an impeller (303). Blades (304) are arranged around the impeller (303). The blades (304) can protrude through the air inlet (301).

3. The slatted floor molding production equipment and waste collection structure according to claim 2, characterized in that: The cooling chamber (3) is also provided with a first filter screen (305) covering the outside of the drive shaft (302). The cooling chamber (3) has openings at both the front and rear ends, and a second filter screen (306) is provided on the openings at both the front and rear ends.

4. The slatted floor molding production equipment and waste collection structure according to claim 1, characterized in that: The airbag (6) is also provided with support members (602) vertically arranged on the upper surface of the air inlet chamber (5) on both sides. The support member (602) is a telescopic rod and a spring is arranged around the outside of the telescopic rod. A pressure plate (601) is continuously laid on the upper part of the airbag (6) along the length of the airbag (6). The pressure plate (601) extends to the upper end of the support member (602) on both sides and is fixedly connected to the support member (602).

5. The slatted floor molding production equipment and waste collection structure according to claim 4, characterized in that: A fixing block (603) is connected in parallel between the ends of the pressure plates (601) on both sides. The fixing block (603) is fixedly connected to the end of the top pressure block (101). The lifting and lowering action of the top pressure block (101) controls the lifting and lowering of the pressure plate (601) to compress the airbag (6).

6. The slatted floor molding production equipment and waste collection structure according to claim 1, characterized in that: Multiple air inlets (501) are continuously arrayed along the bottom end face of the air inlet chamber (5). Each air inlet (501) is provided with a one-way cover (502) that can be opened and closed at the port. The one-way cover (502) is a one-way opening and closing cover that opens into the air inlet chamber (5).

7. The slatted floor molding production equipment and waste collection structure according to claim 1, characterized in that: Multiple air outlets (503) are continuously arrayed along one end face of the air inlet chamber (5) near the waste recycling box (4). Each air outlet (503) is set with a corresponding air inlet (301). The air inlet (501) is covered with a sealing cover (504) on the outer end port of the air inlet chamber (5). The sealing cover (504) is a raised circular cylindrical structure. A first sealing port (505) with a circular opening is opened in the middle of the top of the sealing cover (504). Four second sealing ports (506) with arc-shaped structures are equidistantly opened on the periphery of the sealing cover (504). A slide rail (507) is set on the inner wall of the sealing cover (504) corresponding to the four second sealing ports (506). A sealing element (508) is slidably set in the slide rail (507). The top of the sealing element (508) is set with an arc-shaped structure with the same structure as the second sealing port (506).

8. The slatted floor molding production equipment and waste collection structure according to claim 7, characterized in that: The air outlet (503) is located at the port of the air inlet chamber (5) and is provided with an air outlet pipe (509) extending into the air inlet chamber (5). An air inlet pipe (510) extending from one end of its inner side to the middle of its inner side is embedded in the air outlet pipe (509). A sliding shaft (512) is slidably embedded in the air inlet pipe (510). A block (513) is provided at both ends of the sliding shaft (512). The block (513) at both ends is respectively embedded at the port of the air inlet pipe (510) and the first sealing port (505). The block (513) provided at the end of the sliding shaft (512) near the port of the air inlet pipe (510) can drive the sliding shaft (512) to slide back and forth along the length of the air inlet pipe (510). The range of movement of the block (513) is the length of the air inlet pipe (510). An air hole (511) is opened around the outside of the air inlet pipe (510).

9. The slatted floor molding production equipment and waste collection structure according to claim 8, characterized in that: The sliding shaft (512) is located on the section of the air outlet pipe (509) and four bearing seats (514) are arranged around it. Each bearing seat (514) is connected to a connecting rod (515). The other end of the connecting rod (515) is connected to the corresponding seal (508). The connecting rod (515) controls the opening and closing of the four seals (508) by moving through the sliding shaft (512).

10. The slatted floor molding production equipment and waste collection structure according to claim 1, characterized in that: The scraper (9) has a rhomboid structure.

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