Material cleaning device for mold part machining

Abstract

The utility model relates to the technical field of mold part machining, and discloses a material cleaning device for mold part machining, which comprises a machine body arranged on the ground, a feeding assembly, a collecting assembly, a cleaning table, a material conveying mechanism, a material conveying mechanism, a material conveying mechanism, a material conveying mechanism, a material conveying mechanism and a material conveying mechanism, and is characterized in that the feeding assembly is arranged near the feeding end of the machine body, and the collecting assembly is arranged near the discharging end of the machine body; the base is used for placing mold part materials; the feeding assembly is arranged on the machine body and located between the feeding assembly and the cleaning table, and the feeding assembly is matched with the feeding assembly to be used for placing the mold part materials on the cleaning table. And the movable mechanical arm is arranged on the machine body. According to the material cleaning device for mold part machining, efficient, stable and flexible cleaning of mold part materials is achieved through the innovative design and the advanced technology, the advanced cleaning technology is adopted in the device, various pollutants on the surfaces of the mold part materials can be thoroughly removed, and the stability of the cleaning quality is guaranteed.

Description

Technical Field

[0001] The utility model relates to the technical field of mold part processing, and particularly relates to a material cleaning device for mold part processing. Background Technique

[0002] In the mold part processing industry, the cleaning work of mold part materials is an indispensable link. It not only directly determines the basic quality of the part materials, but also is the cornerstone for the smooth progress of subsequent processing procedures and the compliance of the finished product quality. The cleaning work can thoroughly remove impurities such as dust and oil stains on the material surface, restore its original performance, and provide high-quality raw materials for subsequent processing. Only by ensuring the purity and smoothness of the material surface can the friction and resistance during the processing be reduced, the processing efficiency be improved, and at the same time, the quality and precision of the finished product be guaranteed. Therefore, thorough cleaning of mold part materials is the primary prerequisite for ensuring the processing efficiency and quality of mold parts, and is of crucial significance for improving the quality and efficiency of the entire processing process.

[0003] In the mold part processing industry, cleaning work is crucial for ensuring product quality and production efficiency. However, traditional methods for cleaning mold part materials are unable to meet the strict requirements of the modern mold processing industry for high efficiency and high quality standards. Although traditional mechanical cleaning methods have improved the cleaning efficiency to a certain extent, they have obvious defects in terms of cleaning quality stability, adaptability, and operation simplicity. Mechanical cleaning equipment often fails to ensure thorough cleaning of the surface of mold part materials due to performance limitations or improper operation, affecting the quality of subsequent processing procedures and the final finished product. At the same time, its fixed design makes it difficult for the equipment to adapt to different types and shapes of mold part materials, limiting its flexibility and wide applicability in practical applications. In addition, the operation of mechanical cleaning equipment is complex and difficult to maintain, which not only increases the labor intensity of workers but also may cause equipment damage or a decline in cleaning quality due to improper operation. Manual cleaning methods, although intuitive, are inefficient, with uneven cleaning quality, high labor intensity, and are prone to work-related injury accidents. Content of the Utility Model

[0004] (1) Technical Problems to be Solved

[0005] The purpose of the utility model is to achieve efficient, stable, and flexible cleaning of mold part materials through innovative design and advanced technology. The device adopts advanced cleaning technology, can thoroughly remove various pollutants on the surface of mold part materials, and ensure the stability of cleaning quality. A material cleaning device for mold part processing is proposed.

[0006] (2) Technical Solutions

[0007] The technical solutions for the utility model to solve the above technical problems are as follows:

[0008] A material cleaning device for machining die parts, comprising a machine body placed on the ground, a feeding component, and a collecting component, wherein the feeding component is arranged near the feeding end of the machine body, and the collecting component is arranged near the discharging end of the machine body.

[0009] A cleaning table is arranged on the machine body and is used for placing die part materials.

[0010] A feeding component is arranged on the machine body and is located between the feeding component and the cleaning table, and it cooperates with the feeding component to place the die part materials on the cleaning table.

[0011] A movable robotic arm is arranged on the machine body and is used for fixing and adjusting the position of the die part materials on the cleaning table.

[0012] A cleaning component is arranged on the machine body and is used for cleaning the whole die part materials under the drive of the movable robotic arm.

[0013] A drying component is arranged on the machine body, and the die part materials can be transferred into the drying component by the movable robotic arm to perform drying treatment on the die part materials.

[0014] A discharging component is arranged on the machine body and is located between the drying component and the collecting component, and it is used for placing the die part materials after drying into the collecting component to complete the storage of the die part materials.

[0015] Furthermore, a notch is machined at one end of the machine body away from the feeding component, and a cleaning table is arranged in the notch. The cleaning table includes: a fixed seat fixedly installed on the machine body and located inside the notch, and it is arranged vertically as a whole; a screw rod rotatably arranged on the fixed seat and capable of rotating axially relative to the fixed seat; a driving member arranged on the fixed seat and connected with the screw rod, and it is used for driving the screw rod to rotate; a guide post fixedly installed on the fixed seat and arranged parallel to the screw rod, wherein both the screw rod and the guide post are arranged vertically; and a placing seat arranged on the screw rod and connected with the guide post, and it can move along the length direction of the guide post under the drive of the screw rod. Under the adjustment of the placing seat, it can adapt to objects of different sizes and shapes and keep an appropriate distance from the cleaning component.

[0016] Furthermore, a sliding sleeve is fixedly installed on the placing seat, and the sliding sleeve is located outside the guide post. The sliding sleeve can slide along the length direction of the guide post. A convex rib is arranged on the surface of the placing seat close to the cleaning component. The number of convex ribs is not less than four, and the four convex ribs are fixedly connected end to end. The four convex ribs are used to enclose a cleaning area on the surface of the placing seat, and the die part materials can be placed in the cleaning area.

[0017] Further, the loading component includes: a first cross slide, fixedly installed on the surface of the machine body; a first mounting seat, arranged at the output end of the first cross slide, which can be displaced longitudinally and vertically under the drive of the first cross slide; and a first transfer member, arranged on the first mounting seat, which can move synchronously with the displacement of the first mounting seat to load the die component materials in the feeding component onto the placing seat.

[0018] Further, the cleaning component includes: a single-axis slide, fixedly installed on the surface of the machine body;

[0019] a limit seat, arranged at the output end of the single-axis slide, which can be displaced horizontally under the drive of the single-axis slide; a cleaning member, arranged on the limit seat, which can move synchronously with the displacement of the limit seat to wash each position of the die component materials; and a pump body, fixedly installed on the surface of the machine body, with a three-way joint arranged at its water inlet end, one of the joints being connected to a water inlet pipe, and the water outlet end of the pump body is interconnected with the cleaning member through a water outlet hose.

[0020] Further, the cleaning member includes: a main pipeline, fixedly installed on the limit seat, which is perpendicular to the limit seat, and the end of the water outlet hose away from the pump body is interconnected with the main pipeline; a shunt pipeline, fixedly installed on the main pipeline and interconnected with the main pipeline, the number of which is not less than three and all are parallel to the placing seat; and cleaning nozzles, fixedly installed on the shunt pipeline and interconnected with the shunt pipeline, the number of which is several and are all distributed on each shunt pipeline.

[0021] Further, the drying component includes: a housing, fixedly installed on the machine body, with an inlet and an outlet arranged on its surface; a transmission roller path, fixedly installed on the machine body and penetrating through the machine body, wherein the transmission roller path is located at the inlet and outlet of the housing; electric heating rods, arranged inside the housing, the number of which is several and equally divided into two groups, and the two groups of electric heating rods are respectively located on the upper and lower sides of the transmission roller path; and fans, arranged inside the housing, the number of which is several and equally divided into two groups, and the two groups of fans are located on the upper and lower sides of the two groups of electric heating rods.

[0022] Further, the unloading component includes: a second cross slide, fixedly installed on the surface of the machine body; a second mounting seat, arranged at the output end of the second cross slide, which can be displaced longitudinally and vertically under the drive of the second cross slide; and a second transfer member, arranged on the second mounting seat, which can move synchronously with the displacement of the second mounting seat to transfer the die component materials in the transmission roller path into the collection component to complete the collection of the die component materials.

[0023] Furthermore, the movable robotic arm is a six-axis robotic arm, and a clamping and fixing member adapted to the material of the mold parts is provided at the movable end of the movable robotic arm.

[0024] Furthermore, a recycling component is also provided at the notch of the machine body. The recycling component includes: a mobile trolley placed on the ground and located at the notch of the machine body, with four moving wheels provided on the side close to the ground; a collection box fixedly installed on the mobile trolley, with one end close to the placement seat being open; a boss fixedly installed on the inner wall of the collection box, with the number of bosses being no less than two and being symmetrically arranged; an activated carbon filter screen placed on the boss; a stainless steel filter screen placed on the activated carbon filter screen; and a recycling hose, one end of which penetrates and extends to the inside of the collection box, and the other end is interconnected with the three-way joint of the pump body through a quick-release joint.

[0025] (III) Beneficial effects

[0026] Compared with the prior art, the technical solution of the present application has the following beneficial technical effects:

[0027] The material cleaning device for mold part processing of the present utility model, through adopting a modular design, integrates advanced technical means such as a feeding component, a cleaning table, a loading component, a movable robotic arm, a cleaning component, a drying component, and a discharging component, comprehensively solves the problems of the existing cleaning device in terms of cleaning quality, adaptability, operation and maintenance, labor intensity, and production efficiency. This device can not only achieve high-efficiency and stable cleaning quality, and through the coordinated action of the movable robotic arm and the cleaning component, conduct all-round cleaning on the material of the mold parts to ensure that the pollutants on the material surface are completely removed; but also has wide adaptability. The flexible adjustment of the movable robotic arm can adapt to different types and shapes of mold part materials, improving the flexibility and application range of the device. In addition, the modular design makes the operation and maintenance of the device simple, reduces the labor intensity of workers, and also improves the safety and stability of the cleaning process. Most importantly, the overall automated cleaning process greatly improves the production efficiency. The material of the mold parts can quickly complete steps such as cleaning, drying, and storage, shortening the production cycle. In summary, the material cleaning device for mold part processing of the present utility model, with its advantages of high-efficiency and stable cleaning quality, wide adaptability, simple operation and maintenance, reduced labor intensity, improved safety, and improved production efficiency, provides a high-quality cleaning solution for the mold part processing industry. Description of the drawings

[0028] Figure 1 It is a schematic diagram of the overall connection structure of the present utility model;

[0029] Figure 2 It is a schematic diagram of the connection structure of the cleaning table of the present utility model;

[0030] Figure 3 Schematic diagram of the connection structure of the cleaning table of the present utility model from another perspective;

[0031] Figure 4 Schematic diagram of the connection structure of the cleaning table of the present utility model from another perspective;

[0032] Figure 5 Schematic diagram of the connection structure of the feeding component of the present utility model;

[0033] Figure 6 Schematic diagram of the connection structure of part of the cleaning components of the present utility model;

[0034] Figure 7 Schematic diagram of the connection structure between the body and the pump body of the present utility model;

[0035] Figure 8 For the present utility model Figure 7 Enlarged view of part A in;

[0036] Figure 9 Schematic diagram of the connection structure of part of the drying components of the present utility model;

[0037] Figure 10 Exploded connection structure diagram of the electric heating rod and the fan of the present utility model;

[0038] Figure 11 Schematic diagram of the connection structure of the blanking component of the present utility model;

[0039] Figure 12 Exploded connection structure diagram of the recycling component of the present utility model.

[0040] In the figure: 1, body; 2, feeding component; 3, collecting component; 4, cleaning table; 41, fixed seat; 42, screw; 43, driving member; 44, guide post; 45, placing seat; 5, feeding component; 51, first cross slide; 52, first mounting seat; 53, first transfer member; 6, movable robotic arm; 7, cleaning component; 71, single-axis slide; 72, limit seat; 73, cleaning member; 731, main pipeline; 732, shunt pipeline; 733, cleaning nozzle; 74, pump body; 75, water inlet pipe; 76, water outlet hose; 8, drying component; 81, housing; 82, transmission roller path; 83, electric heating rod; 84, fan; 9, blanking component; 91, second cross slide; 92, second mounting seat; 93, second transfer member; 10, recycling component; 101, mobile trolley; 102, collection box; 103, convex platform; 104, activated carbon filter screen; 105, stainless steel filter screen; 106, recycling hose. Detailed implementation manners

[0041] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all the embodiments. Based on the embodiments in the present utility model, all other embodiments obtained by those of ordinary skill in the art without making creative efforts shall fall within the protection scope of the present utility model.

[0042] Embodiment 1. In combination with Figures 1 - 11 As shown, a material cleaning device for processing mold parts of the present utility model includes a machine body 1 placed on the ground, a feeding component 2, and a collecting component 3. The feeding component 2 is arranged near the feeding end of the machine body 1, and the collecting component 3 is arranged near the discharging end of the machine body 1. A cleaning table 4 is arranged on the machine body 1 and is used to place the mold part materials; a feeding component 5 is arranged on the machine body 1 and is located between the feeding component 2 and the cleaning table 4, and it cooperates with the feeding component 2 to place the mold part materials on the cleaning table 4; a movable robotic arm 6 is arranged on the machine body 1 and is used to fix and adjust the position of the mold part materials on the cleaning table 4; a cleaning component 7 is arranged on the machine body 1 and is used to clean the whole mold part materials under the drive of the movable robotic arm 6; a drying component 8 is arranged on the machine body 1, and the mold part materials can be transferred into the drying component 8 through the movable robotic arm 6 to dry the mold part materials; a discharging component 9 is arranged on the machine body 1 and is located between the drying component 8 and the collecting component 3, and it is used to place the dried mold part materials into the collecting component 3 to complete the storage of the mold part materials.

[0043] The device first supplies the die component materials through the feeding component 2 placed near the feeding end of the body 1. The feeding component 2 conveys the die component materials to be cleaned to the position of the feeding component 5. The feeding component 5 is located between the feeding component 2 and the cleaning table 4. It receives the die component materials from the feeding component 2 and accurately places these materials on the cleaning table 4. Once the die component materials are placed on the cleaning table 4, the movable robotic arm 6 starts to function. The movable robotic arm 6 is responsible for fixing the die component materials and making necessary position adjustments to ensure that the die component materials remain stable and easy to clean during the cleaning process. Next, the cleaning component 7 starts to work. The cleaning component 7 is arranged on the body 1 and, under the drive of the movable robotic arm 6, conducts a comprehensive cleaning of the die component materials. Through appropriate cleaning techniques and methods, the cleaning component 7 can thoroughly remove the contaminants on the surface of the die component materials and ensure the stability of the cleaning quality. After the cleaning is completed, the movable robotic arm 6 functions again to transfer the die component materials into the drying component 8. The drying component 8 is responsible for quickly removing the moisture on the surface of the die component materials to ensure that the die component materials will not be affected by the residual moisture during the subsequent processing. Finally, when the die component materials are completed with the drying treatment, the discharging component 9 starts to work. The discharging component 9 is arranged on the body 1 and is located between the drying component 8 and the collecting component 3. It is responsible for taking out the dried die component materials from the drying component 8 and accurately placing them in the collecting component 3 to complete the storage of the die component materials. During the whole process, each component cooperates with each other to realize the automatic processing of the die component materials from feeding to cleaning, drying and then to collecting, improve the efficiency and quality of the cleaning work, reduce the labor intensity of workers, and ensure the quality of the die component materials during the subsequent processing.

[0044] In a preferred embodiment of the present utility model, it can be further configured as follows: As Figures 1 to 4As shown; a notch is machined at one end of the machine body 1 away from the feeding component 2, and a cleaning table 4 is arranged in the notch. The cleaning table 4 includes: a fixed seat 41, fixedly installed on the machine body 1 and located inside the notch, and is vertically distributed as a whole; a screw 42, rotatably arranged on the fixed seat 41, and can rotate axially relative to the fixed seat 41; a driving member 43, arranged on the fixed seat 41 and connected to the screw 42, and is used to drive the screw 42 to rotate; a guiding column 44, fixedly installed on the fixed seat 41 and arranged parallel to the screw 42, and both the screw 42 and the guiding column 44 are vertically distributed; and a placing seat 45, arranged on the screw 42 and connected to the guiding column 44, and can be displaced along the length direction of the guiding column 44 under the drive of the screw 42. Under the adjustment of the placing seat 45, it can adapt to objects of different sizes and shapes and keep an appropriate distance from the cleaning component 7. Moreover, a number of water leakage holes are arranged on the placing seat 45. The cleaning table 4 is designed with an adjustable placing structure to adapt to mold part materials of different sizes and shapes and ensure an appropriate distance from the cleaning component 7. A notch is machined at one end of the machine body 1 away from the feeding component 2, and the cleaning table 4 is arranged in this notch. The cleaning table 4 mainly includes a fixed seat 41, a screw 42, a driving member 43, a guiding column 44 and a placing seat 45. The fixed seat 41 is fixedly installed on the machine body 1 and located inside the notch, and is vertically distributed as a whole, providing a stable foundation for the entire cleaning table. The screw 42 is rotatably arranged on the fixed seat 41 and can rotate axially relative to the fixed seat 41. This rotational arrangement enables the screw 42 to perform a rotational movement along its axis. The driving member 43 is arranged on the fixed seat 41 and connected to the screw 42. The driving member 43 can drive the screw 42 to rotate. When it is necessary to adjust the height or position of the placing seat 45, the driving member 43 is operated to drive the screw 42 to rotate. The guiding column 44 is fixedly installed on the fixed seat 41 and arranged parallel to the screw 42. The guiding column 44 provides stable guidance for the displacement of the placing seat 45 to ensure that it moves in a straight line when moving up and down. The placing seat 45 is arranged on the screw 42 and connected to the guiding column 44. This connection enables the placing seat 45 to be displaced along the length direction of the guiding column 44 under the drive of the screw 42. When the screw 42 rotates, due to the effect of the thread, the placing seat 45 will move up and down along the guiding column 44, thereby adjusting the distance between it and the cleaning component 7.

[0045] It should also be noted that the driving member 43 is composed of a driving motor, a first sprocket, a second sprocket and a transmission chain. The driving motor is fixedly installed on the fixed seat 41. The output end of the driving motor is fixedly installed with the first sprocket. The end of the screw rod 42 is fixedly installed with the second sprocket. The first sprocket and the second sprocket are driven by the transmission chain. Driven by the driving motor and in cooperation with the first sprocket, the second sprocket and the transmission chain, the screw rod 42 can be effectively driven to rotate.

[0046] In a preferred embodiment of the present invention, it can be further configured as follows: As Figures 1 to 4 shown; a sliding sleeve is fixedly installed on the placement seat 45. The sliding sleeve is located outside the guide post 44. The sliding sleeve can slide along the length direction of the guide post 44. On the surface of the placement seat 45 close to the cleaning component 7, there are convex ridges. The number of the convex ridges is not less than four. The four convex ridges are fixedly connected end to end. The four convex ridges are used to enclose the surface of the placement seat 45 into a cleaning area. The mold part materials can be placed in the cleaning area. The placement seat 45 is the core part of the cleaning table 4. A sliding sleeve is fixedly installed thereon. This sliding sleeve is located outside the guide post 44. Its design enables the sliding sleeve to slide smoothly along the length direction of the guide post 44. When the screw rod 42 rotates under the drive of the driving member 43, the placement seat 45 moves up and down along the guide post 44 under the thread action of the screw rod 42, and the sliding sleeve ensures the stable sliding of the placement seat 45, avoiding its deviation or shaking. In addition, on the surface of the placement seat 45 close to the cleaning component 7, there are convex ridges. The number of these convex ridges is not less than four, and the four convex ridges are fixedly connected end to end to form an enclosed structure. The area enclosed by the convex ridges is designed as a cleaning area. The purpose is to provide a clear and defined space to place the mold part materials. The mold part materials can be placed in this cleaning area, so as to ensure the stability of their positions and the accuracy of cleaning during the cleaning process, and the water during the cleaning process will not spill outwards, ensuring the cleanliness of the entire site. In summary, through the cooperation of the sliding sleeve and the guide post 44, and the cleaning area formed by the convex ridges, the placement seat 45 can not only flexibly adjust its height and position under the drive of the screw rod 42 to adapt to mold part materials of different sizes and shapes, but also ensure the stable position and cleanliness of the mold part materials during the cleaning process. This design greatly improves the adaptability and cleaning effect of the cleaning device.

[0047] In a preferred embodiment of the present invention, it can be further configured as follows: As Figure 1 、 Figure 5As shown in the figure; the feeding component 5 includes: a first cross slide 51, fixedly installed on the surface of the machine body 1; a first mounting seat 52, arranged at the output end of the first cross slide 51, which can be displaced longitudinally and vertically under the drive of the first cross slide 51; and a first transfer member 53, arranged on the first mounting seat 52, which can move synchronously with the displacement of the first mounting seat 52 to feed the die component materials in the feeding component 2 onto the placing seat 45. The feeding component 5, as a key part connecting the feeding component 2 and the cleaning table 4, mainly includes the first cross slide 51, the first mounting seat 52 and the first transfer member 53. The first cross slide 51 is fixedly installed on the surface of the machine body 1, and its design enables the output end to perform precise displacement in two mutually perpendicular directions, usually longitudinally and horizontally. This design ensures that the feeding component 5 can cover a large working range to adapt to the feeding component 2 and the placing seat 45 at different positions. The first mounting seat 52 is arranged at the output end of the first cross slide 51. Under the drive of the first cross slide 51, the first mounting seat 52 can displace longitudinally and vertically along a preset track. The accuracy of this displacement ensures that the first transfer member 53 can accurately locate above the feeding component 2 and the placing seat 45. The first transfer member 53 is arranged on the first mounting seat 52 and can move synchronously with the displacement of the first mounting seat 52. The first transfer member 53 is usually designed as a mechanism with clamping or adsorption function to grab the die component materials from the feeding component 2 and accurately place them in the cleaning area on the placing seat 45. In summary, through the precise displacement control of the first cross slide 51 and the coordinated work of the first mounting seat 52 and the first transfer member 53, the feeding component 5 realizes the automatic feeding process from the feeding component 2 to the placing seat 45. This design not only improves work efficiency but also ensures the stability and accuracy of the die component materials during the feeding process.

[0048] In a preferred embodiment of the present utility model, it can be further configured as: As shown in Figure 1 , Figure 6 , Figure 7 and Figure 8As shown in the figure; the cleaning component 7 includes: a single-axis slide 71, fixedly installed on the surface of the machine body 1; a limit seat 72, arranged at the output end of the single-axis slide 71, which can be horizontally displaced under the drive of the single-axis slide 71; a cleaning member 73, arranged on the limit seat 72, which can move synchronously with the displacement of the limit seat 72 to flush each position of the die component material; and a pump body 74, fixedly installed on the surface of the machine body 1, with a three-way joint at its water inlet end, one of the joints is connected to a water inlet pipe 75, and the water outlet end of the pump body 74 is interconnected with the cleaning member 73 through a water outlet hose 76. The water inlet pipe 75 is interconnected with the water outlet end of the external cleaning liquid. As the core part in the cleaning process of the die component material, the cleaning component 7 is designed to ensure that each position of the die component material can be thoroughly flushed. This component mainly includes a single-axis slide 71, a limit seat 72, a cleaning member 73 and a pump body 74. The single-axis slide 71 is fixedly installed on the surface of the machine body 1, and a limit seat 72 is arranged at its output end. Under the drive of the single-axis slide 71, the limit seat 72 can make precise displacement along the horizontal direction. The accuracy of this displacement ensures that the cleaning member 73 can cover each position of the die component material to achieve comprehensive flushing. The cleaning member 73 is arranged on the limit seat 72 and can move synchronously with the displacement of the limit seat 72. The cleaning member 73 usually includes nozzles or other flushing devices for spraying cleaning liquid to flush the die component material. As the limit seat 72 moves, the cleaning member 73 can accurately adjust its position to ensure that every corner of the die component material can be effectively flushed. The pump body 74, as the power source of the cleaning liquid, is fixedly installed on the surface of the machine body 1, with a three-way joint at its water inlet end. One of the joints is connected to an external water source through the water inlet pipe 75 to provide cleaning liquid for the pump body 74. The water outlet end of the pump body 74 is interconnected with the cleaning member 73 through the water outlet hose 76 to form a complete cleaning liquid circulation path. Under the action of the pump body 74, the cleaning liquid enters the pump body 74 from the water inlet pipe 75, and then is transported to the cleaning member 73 through the water outlet hose 76 and finally sprayed out to flush the die component material. In summary, the cleaning component 7 realizes the comprehensive and efficient flushing of the die component material through the horizontal displacement control of the single-axis slide 71, the precise positioning of the limit seat 72, the flushing effect of the cleaning member 73 and the water supply function of the pump body 74. This design ensures that the die component material can be thoroughly cleaned during the cleaning process, providing a reliable guarantee for the subsequent processing process.

[0049] In a preferred embodiment of the present utility model, it can be further configured as: As Figure 1 , Figure 6As shown in the figure; the cleaning component 73 includes: a main pipeline 731, fixedly installed on the limit seat 72, which is perpendicular to the limit seat 72. One end of the water outlet hose 76 far from the pump body 74 is communicated with the main pipeline 731; a shunt pipeline 732, fixedly installed on the main pipeline 731 and communicated with the main pipeline 731. The number of the shunt pipelines 732 is not less than three and they are all parallel to the storage seat 45; and cleaning nozzles 733, fixedly installed on the shunt pipeline 732 and communicated with the shunt pipeline 732. The number of the cleaning nozzles 733 is several, and they are all distributed on each shunt pipeline 732. The cleaning component 73 is a key part of the cleaning assembly 7, and its design aims to ensure that all positions of the die component materials can be evenly and thoroughly rinsed. The cleaning component 73 mainly includes the main pipeline 731, the shunt pipeline 732 and the cleaning nozzles 733. The main pipeline 731 is fixedly installed on the limit seat 72 and is perpendicular to the limit seat 72. This perpendicular setting is beneficial for the main pipeline 731 to receive the cleaning liquid from the pump body 74 and evenly distribute the cleaning liquid to each shunt pipeline 732 through the internal flow channel. The shunt pipeline 732 is fixedly installed on the main pipeline 731 and is communicated with the main pipeline 731. The number of the shunt pipelines 732 is not less than three, and they are all parallel to the storage seat 45. This parallel setting ensures that the shunt pipeline 732 can cover a wide area above the storage seat 45, so as to realize the comprehensive rinsing of the die component materials. The cleaning nozzles 733 are fixedly installed on the shunt pipeline 732 and are communicated with the shunt pipeline 732. The number of the cleaning nozzles 733 is several and they are evenly distributed on each shunt pipeline 732. When the cleaning liquid flows from the pump body 74 through the water outlet hose 76 into the main pipeline 731, the cleaning liquid will be further distributed to each shunt pipeline 732 and sprayed out in the form of fine and uniform water mist or water flow through the cleaning nozzles 733, directly acting on the die component materials. As the limit seat 72 moves horizontally under the drive of the single-axis slide 71, the cleaning component 73 will also move accordingly, so as to ensure that all positions of the die component materials can be covered by the cleaning liquid sprayed out by the cleaning nozzles 733. This design ensures that the die component materials can be comprehensively and evenly rinsed during the cleaning process, improving the cleaning effect and efficiency.

[0050] In a preferred embodiment of the present invention, it can be further configured as: as Figure 1 、 Figure 9 and Figure 10As shown in the figure; the drying assembly 8 includes: a housing 81 fixedly installed on the machine body 1, with an inlet and an outlet provided on its surface; a conveying roller path 82 fixedly installed on the machine body 1 and penetrating through the machine body 1, where the conveying roller path 82 is located at the inlet and outlet of the housing 81; electric heating rods 83 arranged inside the housing 81, with a number of them equally divided into two groups, and the two groups of electric heating rods 83 are respectively located on the upper and lower sides of the conveying roller path 82; and fans 84 arranged inside the housing 81, with a number of them equally divided into two groups, and the two groups of fans 84 are located on the upper and lower sides of the two groups of electric heating rods 83. The drying assembly 8, as a key treatment step after cleaning the mold part materials, is designed to ensure that the moisture on the surface of the mold part materials is quickly and evenly dried. The drying assembly 8 mainly includes a housing 81, a conveying roller path 82, electric heating rods 83 and fans 84. The housing 81 is fixedly installed on the machine body 1, and an inlet and an outlet are provided on its surface, providing a passage for the entry and exit of the mold part materials. The conveying roller path 82 is fixedly installed on the machine body 1 and penetrates through the machine body 1, located at the inlet and outlet of the housing 81. In this way, the mold part materials can enter and leave the drying assembly 8 through the conveying roller path 82 to achieve continuous drying treatment. The electric heating rods 83 are arranged inside the housing 81, with a number of them, and are equally divided into two groups. The two groups of electric heating rods 83 are respectively located on the upper and lower sides of the conveying roller path 82, generating heat through heating to provide the necessary heat energy for the drying process. This symmetrical layout up and down ensures that the mold part materials can be evenly heated during the conveying process, thereby accelerating the drying speed and improving the drying effect. The fans 84 are also arranged inside the housing 81, with a number of them, and are equally divided into two groups. The two groups of fans 84 are located on the upper and lower sides of the two groups of electric heating rods 83, generating airflows through rotation to evenly blow the heat generated by the electric heating rods 83 onto the surface of the mold part materials. This layout not only enhances the heat transfer efficiency but also helps to form a circulating airflow, further improving the drying effect. During the drying process, the mold part materials enter the housing 81 through the conveying roller path 82. Under the heating of the electric heating rods 83 and the airflow of the fans 84, the moisture on the surface quickly evaporates and is carried away. After a period of drying treatment, the surface of the mold part materials becomes dry, and then leaves the drying assembly 8 through the conveying roller path 82 to complete the entire drying process. This design ensures that the mold part materials can be promptly and effectively dried after cleaning, providing a guarantee for subsequent use.

[0051] In a preferred embodiment of the present invention, it can be further configured as: as Figure 1 、 Figure 11As shown in the figure; the blanking assembly 9 includes: a second cross slide 91, fixedly installed on the surface of the machine body 1; a second mounting seat 92, arranged on the output end of the second cross slide 91, which can be displaced longitudinally and vertically under the drive of the second cross slide 91; and a second transfer member 93, arranged on the second mounting seat 92, which can move synchronously with the displacement of the second mounting seat 92 to transfer the die component materials in the transfer roller path 82 into the collection assembly 3 to complete the collection of the die component materials. As the last link in the die component material processing process, the blanking assembly 9 is mainly responsible for transferring the dried die component materials from the transfer roller path 82 into the collection assembly 3 to complete the entire collection process. This assembly includes a second cross slide 91, a second mounting seat 92 and a second transfer member 93. The second cross slide 91 is fixedly installed on the surface of the machine body 1, and its design allows the output end to perform precise displacement in both the longitudinal and vertical directions. This design ensures that the blanking assembly 9 can cover a wide area from the transfer roller path 82 to the collection assembly 3 to adapt to the transfer requirements of die component materials at different positions. The second mounting seat 92 is arranged on the output end of the second cross slide 91. Under the drive of the second cross slide 91, the second mounting seat 92 can displace longitudinally and vertically along a preset trajectory. The accuracy of this displacement ensures that the second transfer member 93 can accurately position above the transfer roller path 82 and inside the collection assembly 3. The second transfer member 93 is arranged on the second mounting seat 92 and can move synchronously with the displacement of the second mounting seat 92. The second transfer member 93 is usually designed as a mechanism with clamping or adsorption functions to grab the die component materials from the transfer roller path 82 and accurately place them in the collection assembly 3. During the transfer process, the second cross slide 91 first drives the second mounting seat 92 and the second transfer member 93 to move above the transfer roller path 82. Subsequently, the second transfer member 93 performs the clamping or adsorption operation to remove the die component materials from the transfer roller path 82. Then, the second cross slide 91 drives the second mounting seat 92 and the second transfer member 93 to move above the collection assembly 3 again, and the second transfer member 93 releases the die component materials and places them in the collection assembly 3. Through the above work process, the blanking assembly 9 realizes the automatic transfer and collection of the die component materials, improving the efficiency and accuracy of the entire processing process.

[0052] In a preferred embodiment of the present utility model, it can be further configured as: As Figure 1As shown in the figure; the movable robotic arm 6 is a six-axis robotic arm. A clamping and fixing part adapted to the material of the mold part is provided at the movable end of the movable robotic arm 6. As a key component in the mold part material processing system, the movable robotic arm 6 adopts a six-axis robotic arm design. This design endows the movable robotic arm 6 with extremely high flexibility and precision, enabling it to perform complex movements in three-dimensional space. At the movable end of the movable robotic arm 6, a clamping and fixing part adapted to the material of the mold part is provided. This clamping and fixing part is specially designed according to the shape, size, material and other characteristics of the mold part material to ensure that it can firmly clamp the mold part material and keep it stable during the transfer process. When the system receives the instruction to transfer the mold part material, the movable robotic arm 6 starts to work. First, the movable end of the movable robotic arm 6 precisely locates above the mold part material to be transferred through the coordinated movement of its six axes. Then, under the control of the robotic arm, the clamping and fixing part precisely clamps the mold part material. At this time, the adaptability between the clamping and fixing part and the mold part material plays a key role, ensuring that the clamping process is both stable and does not damage the material. Once the mold part material is clamped and fixed, the movable robotic arm 6 begins to perform the transfer operation. Through the precise control of the six axes, the movable robotic arm 6 transfers the mold part material from the current position to the designated target position, such as the cleaning component 7, the drying component 8 or the collection component 3, etc. During the entire transfer process, the clamping and fixing part always maintains a firm grip on the mold part material to ensure its safety and stability. Through the above working principle, the movable robotic arm 6 realizes the precise clamping and transfer of the mold part material, greatly improving the automation level and working efficiency of the entire processing system.

[0053] Embodiment 2. On the basis of Embodiment 1, there is also provided as Figure 7 、 Figure 12 shown in the figure; Further, a recycling component 10 is also provided at the notch of the body 1, and the recycling component 10 includes:

[0054] A mobile trolley 101 is placed on the ground and located at the notch of the machine body 1, and is provided with four mobile wheels on one side close to the ground; a collection box 102 is fixedly mounted on the mobile trolley 101, and is provided with an opening at one end close to the storage seat 45; bosses 103 are fixedly mounted on the inner wall of the collection box 102, and the number of bosses 103 is not less than two and is symmetrically arranged; an activated carbon filter 104 is placed on the bosses 103; a stainless steel filter 105 is placed on the activated carbon filter 104; and a recovery hose 106, one end of which penetrates and extends to the inner side of the collection box 102, and the other end is connected to the three-way joint of the pump body 74 through a quick-release joint. In the material cleaning device for mold parts processing, the setting of the recycling component 10 is intended to realize the recycling of cleaning liquid to reduce resource waste and environmental pollution. The component mainly includes a mobile cart 101, a collection box 102, a boss 103, an activated carbon filter 104, a stainless steel filter 105 and a recovery hose 106. During the cleaning process, the cleaning liquid is sprayed onto the mold parts material through the pump body 74 and the cleaning component 73. The cleaned liquid and impurities drip into the collection area under the body 1. At this time, the mobile cart 101 is pushed to the notch of the body 1, and the collection box 102 thereon is located at the cleaning The best position for liquid droplets to fall, one end of the collection box 102 is open, which is convenient for collecting cleaning liquid. After the cleaning liquid enters the collection box 102, it is first filtered through the stainless steel filter 105 to remove larger impurities and particles. Then, the liquid flows through the activated carbon filter 104. The activated carbon filter 104 can remove grease, pigments and other organic pollutants in the liquid by virtue of its strong adsorption performance, thereby obtaining a relatively pure cleaning liquid. The cleaning liquid after double-layer filtration accumulates at the bottom of the collection box 102. In order to realize the recycling of the cleaning liquid, one end of the recovery hose 106 penetrates and extends to the inner side of the collection box 102, and the other end of the recovery hose 106 passes through and extends to the inner side of the collection box 102. One end is connected to the three-way joint of the pump body 74 through a quick-release joint. When the cleaning liquid needs to be used again, the pump body 74 only needs to be started, and the cleaning liquid is re-sucked into the pump body 74 through the recovery hose 106, and is again transported to the cleaning component 73 through the water inlet pipe 75 and the water outlet hose 76 to form a cycle. This recycling design not only saves the cost of using the cleaning liquid, but also reduces the discharge of waste water, which is of positive significance to environmental protection. At the same time, through the flexible movement of the mobile cart 101, the collection box 102 can be easily moved away from the bottom of the body 1 to replace or clean the cleaning liquid, thereby improving the convenience and practicality of the equipment.

Claims

1. A material cleaning device for mold part processing, comprising a body (1), a feeding assembly (2), and a collecting assembly (3) placed on the ground, wherein the feeding assembly (2) is arranged near the feeding end of the body (1), and the collecting assembly (3) is arranged near the unloading end of the body (1), characterized in that: A cleaning table (4) is arranged on the machine body (1) and is used to place mold component materials; A loading assembly (5) is arranged on the machine body (1) and is located between the feeding assembly (2) and the cleaning table (4), and cooperates with the feeding assembly (2) to place the mold component material on the cleaning table (4); A movable mechanical arm (6) is arranged on the machine body (1) and is used to fix the mold component materials on the cleaning table (4) and adjust the position; A cleaning component (7) is arranged on the machine body (1) and is used to clean the entire material of the mold parts under the drive of the movable mechanical arm (6); A drying component (8) is arranged on the machine body (1), wherein the mold component material can be transferred to the drying component (8) by a movable mechanical arm (6) to dry the mold component material; The material discharge assembly (9) is arranged on the machine body (1) and located between the drying assembly (8) and the collecting assembly (3), and is used to place the mold component materials after drying into the collecting assembly (3) to complete the storage of the mold component materials.

2. A material cleaning device for mold parts processing according to claim 1, characterized in that: A notch is machined on one end of the machine body (1) away from the feeding assembly (2), wherein a cleaning table (4) is arranged in the notch, and the cleaning table (4) comprises: A fixing seat (41) is fixedly mounted on the machine body (1) and is located inside the notch, and is arranged vertically as a whole; A screw (42) is rotatably mounted on the fixing seat (41) and can rotate relative to the fixing seat (41) in the axial direction. A driving member (43) is disposed on the fixing seat (41) and is connected to the screw rod (42) for driving the screw rod (42) to rotate; A guide column (44) is fixedly mounted on the fixing seat (41) and is arranged parallel to the screw rod (42), wherein the screw rod (42) and the guide column (44) are both arranged vertically; and The storage seat (45) is arranged on the screw (42) and is connected to the guide column (44). The storage seat (45) can be displaced along the length direction of the guide column (44) under the drive of the screw (42). The storage seat (45) can be adjusted to accommodate objects of different sizes and shapes and keep a proper distance from the cleaning component (7).

3. A material cleaning device for mold parts processing according to claim 2, characterized in that: A sliding sleeve is fixedly mounted on the storage seat (45), and the sliding sleeve is located on the outer side of the guide column (44). The sliding sleeve can slide along the length direction of the guide column (44). A convex ridge is arranged on the surface of one side of the storage seat (45) close to the cleaning component (7), wherein the number of the convex ridges is not less than four, and the four convex ridges are fixedly connected to each other end to end. The four convex ridges are used to enclose the surface of the storage seat (45) into a cleaning area, and the mold component material can be placed in the cleaning area.

4. A material cleaning device for mold parts processing according to claim 2, characterized in that: The feeding assembly (5) comprises: A first cross slide (51) is fixedly mounted on the surface of the machine body (1); A first mounting seat (52) is disposed on the output end of the first cross slide (51) and can be displaced longitudinally and vertically under the drive of the first cross slide (51); and The first transfer member (53) is arranged on the first mounting seat (52) and can move synchronously with the displacement of the first mounting seat (52) to load the mold component material in the feeding assembly (2) onto the storage seat (45).

5. A material cleaning device for mold parts processing according to claim 2, characterized in that: The cleaning component (7) comprises: A single-axis slide table (71) is fixedly mounted on the surface of the machine body (1); A limit seat (72) is arranged on the output end of the single-axis slide (71) and can be laterally displaced under the drive of the single-axis slide (71); A cleaning component (73) is disposed on the limiting seat (72) and can move synchronously with the displacement of the limiting seat (72) to flush various positions of the mold component material; and The pump body (74) is fixedly mounted on the surface of the machine body (1), and a three-way joint is provided at its water inlet end, one of the joints is connected to a water inlet pipe (75), and the water outlet end of the pump body (74) and the cleaning component (73) are connected to each other via a water outlet hose (76).

6. A material cleaning device for mold parts processing according to claim 5, characterized in that: The cleaning component (73) comprises: The main pipeline (731) is fixedly mounted on the limiting seat (72) and is arranged perpendicular to the limiting seat (72), wherein one end of the water outlet hose (76) away from the pump body (74) is in communication with the main pipeline (731); The branch pipes (732) are fixedly mounted on the main pipe (731) and are interconnected with the main pipe (731). The number of the branch pipes (732) is not less than three and they are all arranged parallel to the storage seat (45); and The cleaning nozzle (733) is fixedly mounted on the diversion pipe (732) and is interconnected with the diversion pipe (732). There are a plurality of cleaning nozzles (733) which are distributed on each diversion pipe (732).

7. A material cleaning device for mold parts processing according to claim 1, characterized in that: The drying component (8) comprises: A housing (81) is fixedly mounted on the machine body (1) and has an inlet and outlet disposed on its surface; A transmission roller (82) is fixedly mounted on the machine body (1) and is disposed through the machine body (1), wherein the transmission roller (82) is located at the inlet and outlet of the shell (81); The electric heating rods (83) are arranged inside the housing (81), and the number of the electric heating rods (83) is equal and divided into two groups. The two groups of electric heating rods (83) are respectively located on the upper and lower sides of the transmission roller (82); and The fans (84) are arranged on the inner side of the housing (81), and are arranged in a number equal to two groups. The two groups of fans (84) are located on the upper and lower sides of the two groups of electric heating rods (83).

8. A material cleaning device for mold parts processing according to claim 7, characterized in that: The blanking assembly (9) comprises: A second cross slide (91) is fixedly mounted on the surface of the machine body (1); A second mounting seat (92) is disposed on the output end of the second cross slide (91) and can be displaced longitudinally and vertically under the drive of the second cross slide (91); and The second transfer member (93) is arranged on the second mounting seat (92) and can move synchronously with the displacement of the second mounting seat (92) to transfer the mold component materials in the transmission roller (82) to the collection component (3) to complete the collection of the mold component materials.

9. A material cleaning device for mold parts processing according to claim 1, characterized in that: The movable mechanical arm (6) is a six-axis mechanical arm, wherein the movable end of the movable mechanical arm (6) is provided with a clamping fixture that is compatible with the material of the mold parts.

10. A material cleaning device for mold parts processing according to claim 5, characterized in that: A recycling component (10) is also provided at the notch of the machine body (1), wherein the recycling component (10) comprises: A movable trolley (101) is placed on the ground and located at the notch of the machine body (1), and is provided with four movable wheels on one side close to the ground; The collection box (102) is fixedly mounted on the mobile trolley (101), and one end of the collection box close to the storage seat (45) is open; The bosses (103) are fixedly mounted on the inner wall of the collection box (102), and the number of the bosses is not less than two and they are symmetrically arranged; An activated carbon filter (104) is placed on the boss (103); A stainless steel filter (105) is placed on the activated carbon filter (104); and The recovery hose (106) has one end that penetrates and extends to the inner side of the collection box (102), and the other end that is connected to the three-way joint of the pump body (74) through a quick-release joint.

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