Pouring type plastic uptake mold material, preparation method, use method and preparation equipment

Abstract

The invention relates to the technical field of plastic uptake mold materials, in particular to a pouring type plastic uptake mold material, a preparation method, a using method and preparation device.The plastic uptake mold material is prepared from, by mass, 40%-50% of resin, 45%-53% of putty powder, 4%-6% of silica fume and 1.6%-3% of graphite powder. The method comprises the following steps: adding resin in a corresponding proportion into stirring equipment for stirring; after stirring the resin for a specified time, adding putty powder, micro-silica fume powder and graphite powder according to a corresponding mass ratio; the resin and the added powder are mixed and stirred through the stirring equipment, the stirred and mixed raw materials are guided out, and then the corresponding novel plastic uptake mold material is obtained, so that the new plastic uptake mold material can be generated by adding the corresponding type of raw materials and mixing; the generated new blister material solves the problems of pollution, high energy consumption, short service life and the like of a blister mold material, and is particularly suitable for medium and large enterprises or high-end product production lines with high requirements on precision and environmental protection.

Description

Technical Field

[0001] The present invention relates to the technical field of blister mold materials, and particularly to a pouring type blister mold material, a preparation method, a usage method and a preparation device. Background Art

[0002] Blister mold materials need to meet high temperature tolerance, good processability and surface finish, and at the same time, cost - effectiveness needs to be considered. Common materials include copper molds, gypsum, and ceramics, etc. Among them, for the copper mold of blister mold materials, the electrolytic electroplating process is required during production. This process may produce toxic and harmful substances such as copper - containing wastewater and cyanide. If not properly treated, it is easy to cause heavy metal pollution of water bodies and soil. At the same time, the electroplating process takes up to 72 hours and requires continuous power discharge, and the energy consumption during the production process is relatively high, indirectly exacerbating carbon emissions.

[0003] The gypsum mold of blister mold materials has poor durability. The gypsum mold is fragile and easy to break. It is easy to be damaged after being used for a period of time and cannot meet the needs of mass production. It has insufficient precision, rough surface, low dimensional accuracy (the error can reach 0 - 2mm), poor surface quality, poor transparency of the finished product, and defects such as pockmarks and pores are likely to appear on the surface, affecting the appearance of the product. Its applicability is limited: it is difficult to form products with large depth, complex structure or thick sheet materials. The maintenance cost is high, and it needs to be frequently repaired or replaced. In addition, the processing process requires manual adjustment, increasing time and labor costs. Moreover, although the gypsum mold has a low cost, its comprehensive performance limits its application to only the first - plate proofing.

[0004] The ceramic mold of blister mold materials is brittle. The ceramic material is fragile and has weak impact resistance. During use, it will crack due to external force or temperature change. At the same time, its plasticity is poor. It is difficult to modify the ceramic mold after forming and is not suitable for trial - production scenarios that require frequent adjustment. Its toughness is insufficient. When under complex stress or temperature fluctuation, the ceramic mold is prone to fracture or breakage. Its thermal conductivity is poor, and the heat transfer efficiency during the forming process is low, affecting production efficiency and product uniformity. Summary of the Invention

[0005] The purpose of the present invention is to provide a pouring type blister mold material, a preparation method, a usage method and a preparation device, which can generate a new blister mold material by adding corresponding types of raw materials for mixing. The newly generated blister material solves the pain points such as pollution, high energy consumption, and low service life of blister mold materials, and is especially suitable for medium - large enterprises or high - end product production lines with high precision and environmental protection requirements.

[0006] To achieve the above - mentioned purpose, the present invention provides a pouring type blister mold material, which includes the following components by mass fraction:

[0007] 40 - 50% resin, 45 - 53% putty powder, 4 - 6% microsilica powder and 1.6 - 3% graphite powder.

[0008] Among them, a preparation method of a casting-type plastic suction mold material for preparing the casting-type plastic suction mold material includes the following steps:

[0009] Add the corresponding proportion of resin into a stirring device for stirring.

[0010] After the resin is stirred for a specified time, add putty powder, microsilica powder and graphite powder in corresponding mass proportions.

[0011] Mix and stir the resin and the added powder materials through the stirring device.

[0012] Export the stirred and mixed raw materials to obtain the corresponding new plastic suction mold material.

[0013] Among them, a usage method of a casting-type plastic suction mold material for the casting-type plastic suction mold material includes the following steps:

[0014] Before use, obtain a specified mass of the new plastic suction mold material based on actual needs.

[0015] Add a curing agent to the new plastic suction mold material for curing.

[0016] Add a specified dose of accelerator to the new plastic suction mold material.

[0017] When the new plastic suction mold material is completely cured, it can be directly put into use.

[0018] Among them, a preparation device for a casting-type plastic suction mold material for the casting-type plastic suction mold material preparation method includes a stirring mechanism, a feeding channel, an adding channel, a loading component and an adding component.

[0019] The feeding channel is fixedly installed on the top of the stirring mechanism, the adding channel is fixedly installed on one side of the stirring mechanism, the loading component is connected to the adding channel and is used for accommodating the powder materials to be added subsequently, and the adding component is connected to the adding channel and is used for completing the addition of the subsequent powder materials.

[0020] Among them, the loading component includes a guiding platform, a guiding bracket, a loading box and a discharging component. The guiding platform is fixedly installed on the adding channel; the guiding bracket is fixedly installed on the guiding platform; the loading box is arranged on one side of the guiding platform close to the guiding bracket; the discharging component is connected to the loading box and is used for discharging the powder materials stored in the loading box.

[0021] Among them, the adding component includes a driving bracket, a pushing plug plate, a screw driving mechanism, a blocking bracket, a screw driving mechanism, and a position sensing mechanism. The driving bracket is slidably installed on the adding channel; the pushing plug plate is fixedly installed on the driving bracket, and the pushing plug plate is arranged in the adding channel; the screw driving mechanism is connected to the driving bracket and is used to drive the driving bracket to move; the blocking bracket is slidably installed on one side of the adding channel close to the stirring mechanism; the screw driving mechanism is connected to the blocking bracket and is used to drive the blocking bracket to move; the position sensing mechanism is installed on the adding channel and is used to sense the driving position of the driving bracket, and then control the screw driving mechanism according to the sensing result.

[0022] Among them, the discharging component includes an inner plate, a rotating baffle, a sliding clamping plate, and a spring. The inner plate is slidably installed in the loading box; the rotating baffle is rotatably installed in the loading box; the sliding clamping plate is slidably installed on one side of the loading box close to the rotating baffle; both sides of the spring are respectively connected to the sliding clamping plate and the loading box.

[0023] Among them, the loading component further includes a weighted plate, a supporting chassis, abutting rollers, a downward sliding track, and a feeding component. The weighted plate is fixedly installed on one side of the loading box; the supporting chassis is placed on one side of the stirring mechanism; the abutting rollers are fixedly installed on one side of the supporting chassis close to the loading box; the downward sliding track is fixedly installed on one side of the supporting chassis close to the abutting rollers; the feeding component is connected to the supporting chassis and is used to automatically feed the loading box.

[0024] Among them, the feeding component includes a clamping hole block, a lifting bracket, a screw lifting mechanism, an electric rotating frame, a clamping frame, and a screw pressing mechanism. The clamping hole block is fixedly installed on one side of the loading box; the lifting bracket is slidably installed on the supporting chassis; the screw lifting mechanism is connected to the lifting bracket and is used to drive the lifting bracket to move; the electric rotating frame is installed on the lifting bracket; the clamping frame is slidably installed on one side of the electric rotating frame; the screw pressing mechanism is installed on the electric rotating frame and is used to drive the clamping frame to move.

[0025] A watering type plastic - absorbing mold material, its preparation method, usage method and preparation equipment of the present invention. When in use, the stirring mechanism consists of a box body, a stirring structure and a control system. A corresponding discharge valve is also arranged at the bottom of the box body of the stirring mechanism to facilitate the discharge of the stirred and mixed materials. The feeding channel is arranged at the top of the box body of the stirring mechanism. Through the arranged feeding channel, the raw materials imported from the outside can be guided, so that the corresponding raw materials enter the box body of the stirring mechanism. Then, the control system of the stirring mechanism cooperates with the stirring structure to complete the mixing and stirring of the raw materials inside the box body;

[0026] The adding channel is arranged at the bottom side of the box body of the stirring mechanism. In this solution, the feeding channel is used to import the resin raw materials added at the beginning, and the adding channel is used to import the subsequent powder materials. Since the powder materials will fly and spread when directly imported into the box body for stirring, the added powder materials cannot be fully mixed with the resin raw materials after stirring;

[0027] Adopting the adding channel, cooperating with the loading component and the adding component can make the raw materials be imported from the bottom side of the box body. When adding the resin raw materials into the box body of the stirring mechanism, try to make the height of the resin raw materials higher than the feeding height of the adding channel, so that the imported powder materials can be fully mixed with the stirred resin, and then cooperate with the stirring structure of the stirring mechanism to complete the full mixing of the powder materials and the resin raw materials, making the quality of the finally produced product better. Brief Description of the Drawings

[0028] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art.

[0029] Figure 1 It is a schematic structural diagram of the overall preparation equipment of the watering type plastic - absorbing mold material of the present invention.

[0030] Figure 2 It is a schematic installation structure diagram of the adding channel of the present invention.

[0031] Figure 3 It is a schematic sectional structure diagram of the adding channel of the present invention.

[0032] Figure 4 It is a schematic sectional structure diagram of the loading box and the guiding bracket of the present invention.

[0033] Figure 5 It is of the present invention Figure 4 The enlarged view of part A.

[0034] Figure 6 It is of the present inventionFigure 4 Enlarged view at position B.

[0035] Figure 7 It is a flowchart of the preparation method of the casting type plastic suction mold material of the present invention.

[0036] Figure 8 It is a flowchart of the usage method of the casting type plastic suction mold material of the present invention.

[0037] In the figure: 101 - stirring mechanism, 102 - feeding channel, 103 - adding channel, 201 - guiding platform, 202 - guiding bracket, 203 - loading box, 204 - inner plate, 205 - rotating baffle, 206 - sliding clamping plate, 207 - spring, 301 - driving bracket, 302 - pushing plug plate, 303 - screw driving mechanism, 304 - blocking bracket, 305 - screw driving mechanism, 306 - position sensing mechanism, 401 - side plate, 402 - supporting chassis, 403 - abutting roller, 404 - downward sliding track, 501 - clamping hole block, 502 - lifting bracket, 503 - screw lifting mechanism, 504 - electric rotating frame, 505 - clamping frame, 506 - screw pressing mechanism. Detailed implementation mode

[0038] The embodiments of the present invention will be described in detail below. The examples of the embodiments are shown in the accompanying drawings, where the same or similar reference numerals denote the same or similar elements or elements with the same or similar functions from beginning to end. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to explain the present invention, and should not be construed as a limitation of the present invention.

[0039] In the description of the present invention, it should be understood that the meaning of "a plurality of" is two or more unless otherwise specifically defined.

[0040] Please refer to Figures 1 to 6 , the present invention provides a casting type plastic suction mold material. The plastic suction mold material includes the following components by mass fraction:

[0041] 40 - 50% resin, 45 - 53% putty powder, 4 - 6% microsilica powder, and 1.6 - 3% graphite powder.

[0042] Furthermore, the present invention uses a specific mass fraction ratio of 45.5% resin, 47.5% putty powder, 4.5% microsilica powder, and 2.5% graphite powder to prepare the plastic suction mold material of King Kong No. 1.

[0043] Among them, the traditional copper / aluminum mold: relies on the electroplating process and is prone to generate heavy metal wastewater and VOCs waste gas.

[0044] King Kong No. 1: Does not require electroplating, has zero wastewater discharge, and reduces the compliance risk of enterprises.

[0045] Aluminum mold: High initial cost (3 - 5 days processing cycle), high long-term maintenance cost.

[0046] King Kong No. 1: Rapid prototyping (6-hour development cycle), lifespan up to tens of thousands of times, long-term usage cost is only 10% - 30% of copper / aluminum molds.

[0047] Gypsum mold: Rough surface (error ±1mm), easy to deform, only suitable for simple trial production.

[0048] King Kong No. 1: Dimensional accuracy up to ±0.5mm, high heat distortion temperature, suitable for high-precision electronic and medical product production.

[0049] Ceramic mold: Brittle, cracks easily with slight collision; Gypsum mold: Fragile, lifespan only hundreds of times.

[0050] King Kong No. 1: Strong impact resistance, can withstand vibration and pressure during production, lifespan is more than 50 times that of gypsum molds.

[0051] Copper / aluminum mold: Difficult to process deep cavities, requires high-precision equipment; Gypsum mold: Unable to form thin-walled or special-shaped products.

[0052] King Kong No. 1: Supports deep cavities, thin walls (0.1mm) and special-shaped designs, compatible with integrated cooling systems, improving production efficiency.

[0053] Secondly, King Kong No. 1: Pollution-free; Traditional copper / aluminum mold: Heavy metal wastewater / VOCs; Gypsum mold: Fragile, requires waste treatment.

[0054] King Kong No. 1: Dimensional accuracy ±0.5mm; Traditional copper / aluminum mold: Dimensional accuracy ±1mm; Gypsum mold: Dimensional accuracy ±1mm.

[0055] Through technological breakthroughs in environmental protection, low cost, and precision, King Kong No. 1 solves the pain points of traditional molds such as pollution, high energy consumption, and low lifespan. It is especially suitable for medium and large enterprises or high-end product production lines with high requirements for precision and environmental protection, and is an ideal choice for the upgrade of plastic suction molds.

[0056] Further, please refer to Figure 7 , a preparation method of a casting-type plastic suction mold material for preparing the casting-type plastic suction mold material, including the following steps,

[0057] S11: Add the corresponding proportion of resin into a stirring device for stirring;

[0058] S12: After the resin is stirred for a specified time, add the corresponding mass proportion of putty powder, microsilica powder, and graphite powder;

[0059] S13: Mix and stir the resin and the added powder materials through the stirring device;

[0060] S14: Export the stirred and mixed raw materials to obtain the corresponding new thermoforming mold material.

[0061] Further, please refer to Figure 8 , a method for using a casting-type thermoforming mold material, applied to the casting-type thermoforming mold material, including the following steps:

[0062] S21: Obtain a specified mass of the new thermoforming mold material based on actual needs before use;

[0063] S22: Add a curing agent to the new thermoforming mold material for curing;

[0064] S23: Add a specified dose of accelerator to the new thermoforming mold material;

[0065] S24: When the new thermoforming mold material is completely cured, it can be directly put into use.

[0066] Further, a preparation device for a casting-type thermoforming mold material, applied to the preparation method of the casting-type thermoforming mold material, includes a stirring mechanism 101, a feeding channel 102, an adding channel 103, a loading member, and an adding member;

[0067] The feeding channel 102 is fixedly installed on the top of the stirring mechanism 101, the adding channel 103 is fixedly installed on one side of the stirring mechanism 101, the loading member is connected to the adding channel 103 and is used to accommodate the powder to be added subsequently, and the adding member is connected to the adding channel 103 and is used to complete the addition of the subsequent powder.

[0068] Specifically, the stirring mechanism 101 is composed of a box body, a stirring structure, and a control system. A corresponding discharge valve is also provided at the bottom of the box body of the stirring mechanism 101 to facilitate the discharge of the stirred and mixed materials. The feeding channel 102 is arranged on the top of the box body of the stirring mechanism 101. Through the provided feeding channel 102, the raw materials introduced from the outside can be guided, so that the corresponding raw materials enter the box body of the stirring mechanism 101, and then the control system of the stirring mechanism 101 cooperates with the stirring structure to complete the mixing and stirring of the raw materials inside the box body;

[0069] The adding channel 103 is arranged at the bottom side of the box body of the stirring mechanism 101. In this solution, the feeding channel 102 is used to introduce the initially added resin raw materials, and the adding channel 103 is used to introduce the subsequent powder. Since the powder will fly and spread when directly introduced into the box body for stirring, the added powder cannot be completely mixed with the resin raw materials after stirring;

[0070] By using the addition channel 103 in cooperation with the loading member and the adding member, the raw materials can be introduced from the lower side of the box body. When adding resin raw materials into the box body of the stirring mechanism 101, the height of the resin raw materials is made as high as possible above the feeding height of the addition channel 103, so that the introduced powder can be fully mixed with the stirred resin, and then the stirring structure provided by the stirring mechanism 101 is used to complete the full mixing of the powder and the resin raw materials, making the quality of the finally produced product better.

[0071] Furthermore, the introduction table 201 is fixedly installed on the addition channel 103; the guiding bracket 202 is fixedly installed on the introduction table 201; the loading box 203 is arranged on one side of the introduction table 201 close to the guiding bracket 202; the discharging component is connected to the loading box 203 and is used for discharging the powder stored in the loading box 203.

[0072] Furthermore, the inner plate 204 is slidably installed in the loading box 203; the rotating baffle 205 is rotatably installed in the loading box 203; the sliding clamping plate 206 is slidably installed on one side of the loading box 203 close to the rotating baffle 205; both sides of the spring 207 are connected to the sliding clamping plate 206 and the loading box 203 respectively.

[0073] When this embodiment is in use, the introduction table 201 is arranged at the end of the addition channel 103, the guiding bracket 202 is fixedly arranged on the top of the introduction table 201, and the slot formed by the guiding bracket 202 and the introduction table 201 is adapted to the discharge port at the bottom of the loading box 203;

[0074] The rotating baffle 205 is rotatably installed at the discharge port of the loading box 203, the sliding clamping plate 206 is slidably installed on one side of the discharge port of the loading box 203 close to the rotating baffle 205, the spring 207 is arranged in the guide groove formed by the sliding clamping plate 206 and the loading box 203, and at the same time, the inner plate 204 is also arranged in the loading box 203. The inner plate 204 is adapted to the loading space inside the loading box 203, and a corresponding inclined table is arranged on the top of the introduction table 201 for cooperating with the inclined table at the bottom of the sliding clamping plate 206;

[0075] During actual use, the loading box 203 loaded with corresponding material distribution is inverted on the introduction table 201. When the loading box 203 is flipped, the rotating baffle 205 will block the discharge port of the loading box 203 through cooperation with the sliding clamping plate 206. When the bottom discharge port of the flipped loading box 203 cooperates with the introduction table 201, the sliding clamping plate 206 will shift laterally through cooperation with the inclined table of the introduction table 201, thereby squeezing the spring 207 to deform. When the sliding clamping plate 206 shifts laterally, the rotating baffle 205 will rotate downward due to losing the clamping position of the sliding clamping plate 206, thereby opening the discharge port at the bottom of the loading box 203 and discharging the powder loaded inside the loading box 203;

[0076] When the powder inside the loading box 203 is discharged, the inner plate 204 will slide down inside the loading box 203 due to the continuous discharge of the powder, so as to accelerate the discharge of the powder inside the loading box 203 through the gravity of the inner plate 204 itself and the cooperation with the inner side wall of the loading box 203. At the same time, it can also scrape off the powder adhering to the inner wall of the loading box 203 through the cooperation between the inner plate 204 and the inner wall of the loading box 203, making the discharge of the entire powder more thorough and fast.

[0077] Furthermore, the driving support 301 is slidably installed on the adding channel 103; the pushing plug plate 302 is fixedly installed on the driving support 301, and the pushing plug plate 302 is arranged inside the adding channel 103; the screw driving mechanism 303 is connected to the driving support 301 for driving the driving support 301 to move; the blocking support 304 is slidably installed on one side of the adding channel 103 close to the stirring mechanism 101; the screw driving mechanism 305 is connected to the blocking support 304 for driving the blocking support 304 to move; the position sensing mechanism 306 is installed on the adding channel 103 for sensing the driving position of the driving support 301, and then controlling the screw driving mechanism 305 according to the sensing result.

[0078] When this embodiment is in use, the driving support 301 is slidably arranged on the adding channel 103, and the pushing plug plate 302 is fixed at the end of the driving support 301. The shape and size of the pushing plug plate 302 match those of the export inner groove inside the adding channel 103. After the driving support 301 pushes the pushing plug plate 302 a certain distance, the driving support 301 can block the inlet of the introduction table 201;

[0079] The plugging bracket 304 is arranged at the connection between the adding channel 103 and the mixing box of the mixing mechanism 101. The haloxylon ammodendron plugging bracket 304 and the driving bracket 301 are respectively driven by the screw driving mechanism 305 and the screw driving mechanism 303. Both the screw driving mechanism 305 and the screw driving mechanism 303 are composed of a screw and a motor for driving the screw to rotate, so as to drive the corresponding plate through the motor driving the screw to rotate;

[0080] The movement of the driving bracket 301 can drive the pushing plug plate 302 to move in the adding channel 103, so as to push and feed the powder entering the adding channel 103. The movement of the plugging bracket 304 can cut off the connection between the adding channel 103 and the mixing box body, so that when the driving bracket 301 moves back, the materials in the mixing box body will not be sucked into the adding channel 103 due to the backward movement of the driving bracket 301 and the pushing plug plate 302. At the same time, when the driving bracket 301 drives the pushing plug plate 302 to move back, a negative pressure will be generated in the adding channel 103. When the driving bracket 301 and the pushing plug plate 302 move to the top of the adding channel 103, the loading box 203 cooperating with the guiding platform 201 will quickly suck the powder into the adding channel 103 due to the negative pressure generated in the adding channel 103, so that the powder can complete the feeding more thoroughly and quickly;

[0081] The position sensing mechanism 306 senses the actual position of the driving bracket 301 through the infrared emitting device and the receiving device in cooperation with the light blocking plate arranged at the bottom of the driving bracket 301, and then controls the movement of the plugging bracket 304 through the sensing structure. In this scheme, a total of three sensing points are set, namely the topmost, bottommost and middle positions of the movement of the driving bracket 301;

[0082] When the loading box 203 is reversely matched with the guiding platform 201, the driving bracket 301 is at the lowest sensing position at this time, and the plugging bracket 304 is in the plugging state. As the driving bracket 301 moves obliquely upward, the driving bracket 301 will successively pass through the middle and topmost sensing positions. When the driving bracket 301 is at the topmost sensing position, the driving bracket 301 will move obliquely downward. At this time, due to the negative pressure generated in the adding channel 103, the powder in the loading box 203 will quickly enter the adding channel 103;

[0083] As the driving bracket 301 continuously moves obliquely downward, the driving bracket 301 will pass through the moderate-end sensing point. At this time, the blocking bracket 304 will open. As the driving bracket 301 continuously advances obliquely downward, the powder in the adding channel 103 can be continuously pushed into the mixing box body, thereby realizing the full feeding of the powder. When the driving bracket 301 moves to the bottommost sensing position again, the blocking bracket 304 will block again, and then the above operations are repeated. It can be seen from the above description that when the driving bracket 301 moves to the lowermost sensing position, the blocking bracket 304 will block, and when the driving bracket 301 passes through the uppermost sensing position and then through the moderate-end sensing position, the blocking bracket 304 will open. Therefore, a corresponding control system can be designed according to the above logical relationship to complete the automatic control of the screw driving mechanism 303 and the screw driving mechanism 305.

[0084] Preferably, the loading member provided by the present invention further includes a side-weight plate 401, a support chassis 402, abutting rollers 403, a downward sliding track 404, and a feeding component. The feeding component includes a clamping hole block 501, a lifting bracket 502, a screw lifting mechanism 503, an electric rotating bracket 504, a clamping bracket 505, and a screw pressing mechanism 506.

[0085] Further, the side-weight plate 401 is fixedly installed on one side of the loading box 203; the support chassis 402 is placed on one side of the mixing mechanism 101; the abutting rollers 403 are fixedly installed on the side of the support chassis 402 close to the loading box 203; the downward sliding track 404 is fixedly installed on the side of the support chassis 402 close to the abutting rollers 403; the feeding component is connected to the support chassis 402 and is used for automatically feeding the loading box 203.

[0086] Further, the clamping hole block 501 is fixedly installed on one side of the loading box 203; the lifting bracket 502 is slidably installed on the support chassis 402; the screw lifting mechanism 503 is connected to the lifting bracket 502 and is used for driving the lifting bracket 502 to move; the electric rotating bracket 504 is installed on the lifting bracket 502; the clamping bracket 505 is slidably installed on one side of the electric rotating bracket 504; the screw pressing mechanism 506 is installed on the electric rotating bracket 504 and is used for driving the clamping bracket 505 to move.

[0087] During the use of this embodiment, the side-weight plate 401 is arranged at the bottom side of the loading box 203. Through the side-weight plate 401, the overall center of gravity of the loading box 203 can shift towards the side where the side-weight plate 401 is provided after the loading box 203 is turned over;

[0088] The abutting rollers 403 and the downward sliding rails 404 are respectively arranged on the supporting chassis 402. By means of the arranged abutting rollers 403, the corresponding side of the loading box 203 after being reversely loaded can be resisted, and by means of the downward sliding rails 404, the loading box 203 after feeding can be guided to fall, so that the loading box 203 can quickly discharge materials;

[0089] Clamping hole blocks 501 are fixed to the sides of the loading box 203. Corresponding loading holes are arranged in the clamping hole blocks 501. The clamping columns arranged on the clamping frame 505 are matched with the loading holes of the clamping hole blocks 501. The clamping frame 505 is slidably arranged on the electric rotating frame 504. The electric rotating frame 504 is composed of a rotating bracket and a motor for driving the bracket 301 to rotate. The rotating bracket and the motor of the electric rotating frame 504 are both installed on the lifting bracket 502, so that the electric rotating frame 504 can drive the corresponding bracket to rotate on the lifting bracket 502 through the arranged motor, and the clamping frame 505 is slidably arranged on the bracket arranged on the electric rotating frame 504;

[0090] The clamping frame 505 is driven by the screw pressing mechanism 506, and the lifting bracket 502 is driven by the screw lifting mechanism 503. The components and driving principles of the screw pressing mechanism 506 and the screw lifting mechanism 503 are the same as those of the screw driving mechanism 303. A dragging boss for cooperating with the clamping hole block 501 is further arranged on the side of the rotating bracket of the electric rotating frame 504, so that the clamping hole block 501 arranged on the side of the loading box 203 can be preliminarily positioned by means of the dragging boss, so as to facilitate the subsequent downward movement of the clamping frame 505 to complete the cooperation with the clamping hole block 501;

[0091] During actual operation, the loading box 203 loaded with the corresponding powder materials can be transported to the corresponding feeding station through the corresponding transmission equipment. Then, the dragging boss on the upper bracket of the electric rotating frame 504 will cooperate with the clamping hole block 501 arranged on the side of the loading box 203. After that, the clamping frame 505 cooperates with the dragging boss to clamp the clamping hole block 501 under the drive of the screw pressing mechanism 506;

[0092] After completing the clamping cooperation with the clamping hole block 501, the lifting bracket 502 will drive the clamped loading box 203 to move upward under the drive of the screw lifting mechanism 503. When the loading box 203 moves upward to the designated position, the electric rotating bracket 504 will drive the bracket 301 to flip on the lifting bracket 502 through the arranged motor, thereby realizing the flipping of the loading box 203. Finally, by moving the lifting bracket 502 downward, the loading box 203 can be inverted on the guiding table 201 to complete the subsequent powder feeding.

[0093] When the powder inside the loading box 203 is completely exported, the clamping frame 505 will move upward under the drive of the screw pressing mechanism 506, so that the clamping frame 505 is disengaged from the clamping hole block 501. When the clamping frame 505 moves to the uppermost end, the lifting bracket 502 can move upward under the drive of the screw lifting mechanism 503. At this time, the clamping hole block 501 will drive the loading box 203 to move upward due to the lifting of the lifting bracket 502, so that the bottom of the loading box 203 is gradually disengaged from the guiding table 201. When the loading box 203 is completely disengaged from the guiding table 201, due to the side plate 401, the center of gravity of the inverted loading box 203 is shifted, so the loading box 203 will have a side guide in the corresponding direction. Then, through the cooperation with the abutting roller 403, it enters the sliding track 404, and finally slides down to the corresponding recycling position through the sliding track 404 to realize the automatic recycling of the loading box 203.

[0094] The above-disclosed are only one or more preferred embodiments of the present application, and the scope of rights of the present application cannot be limited thereby. Those of ordinary skill in the art can understand all or part of the processes of implementing the above embodiments, and the equivalent changes made according to the claims of the present application still fall within the scope covered by the present application.

Claims

1. A kind of injection molding die material for irrigation, characterized in that, The plastic thermoforming die material comprises the following components by mass fraction: 40 - 50% resin, 45 - 53% putty powder, 4 - 6% microsilica powder, and 1.6 - 3% graphite powder.

2. A preparation method of a casting type plastic suction mould material for preparing the casting type plastic suction mould material as described in claim 1, characterized in that, It includes the following steps: Add the corresponding proportion of resin into a stirring device for stirring; After the resin is stirred for a specified time, add the putty powder, microsilica powder, and graphite powder in corresponding mass proportions; Mix and stir the resin and the added powder materials through the stirring device; Export the stirred and mixed raw materials to obtain the corresponding new plastic thermoforming die material.

3. A method for using a casting-type blister mold material, which is applied to the casting-type blister mold material as described in claim 1, characterized in that, It includes the following steps: Before use, obtain a specified mass of the new plastic thermoforming die material based on actual requirements; Add a curing agent to the new plastic thermoforming die material for curing; Add a specified dosage of accelerator to the new plastic thermoforming die material; When the new plastic thermoforming die material is completely cured, it can be directly put into use.

4. A preparation device for the injection molding die material of the watering type, which is applied to the preparation method of the injection molding die material of the watering type as described in claim 2, and is characterized in that, It includes a stirring mechanism, a feeding channel, an adding channel, a loading member, and an adding member; The feeding channel is fixedly installed on the top of the stirring mechanism, the adding channel is fixedly installed on one side of the stirring mechanism, the loading member is connected to the adding channel and is used for accommodating the powder materials to be added subsequently, and the adding member is connected to the adding channel and is used to complete the addition of the subsequent powder materials.

5. The pouring type plastic thermoforming die material, preparation method, usage method, and preparation equipment as described in claim 4, characterized in that: The loading member includes a guiding platform, a guiding bracket, a loading box, and a discharging component. The guiding platform is fixedly installed on the adding channel; the guiding bracket is fixedly installed on the guiding platform; the loading box is arranged on one side of the guiding platform close to the guiding bracket; the discharging component is connected to the loading box and is used to discharge the powder materials stored in the loading box.

6. The pouring type plastic thermoforming die material, preparation method, usage method, and preparation equipment as described in claim 4, characterized in that: The adding member includes a driving bracket, a pushing plug plate, a screw driving mechanism, a blocking bracket, a screw driving mechanism, and a position sensing mechanism. The driving bracket is slidably installed on the adding channel; the pushing plug plate is fixedly installed on the driving bracket, and the pushing plug plate is arranged inside the adding channel; the screw driving mechanism is connected to the driving bracket and is used to drive the driving bracket to move; the blocking bracket is slidably installed on one side of the adding channel close to the stirring mechanism; the screw driving mechanism is connected to the blocking bracket and is used to drive the blocking bracket to move; the position sensing mechanism is installed on the adding channel and is used to sense the driving position of the driving bracket, and then control the screw driving mechanism according to the sensing result.

7. The pouring type plastic thermoforming die material, preparation method, usage method, and preparation equipment as described in claim 5, characterized in that: The discharging component includes an inner plate, a rotating baffle, a sliding clamping plate and a spring. The inner plate is slidably installed in the loading box; the rotating baffle is rotatably installed in the loading box; the sliding clamping plate is slidably installed on one side of the loading box close to the rotating baffle; and both sides of the spring are connected to the sliding clamping plate and the loading box respectively.

8. The pouring type plastic suction mold material, preparation method, usage method and preparation equipment according to claim 5, characterized in that The loading member further includes a side plate, a supporting chassis, abutting rollers, a downward sliding track and a feeding component. The side plate is fixedly installed on one side of the loading box; the supporting chassis is placed on one side of the stirring mechanism; the abutting rollers are fixedly installed on one side of the supporting chassis close to the loading box; the downward sliding track is fixedly installed on one side of the supporting chassis close to the abutting rollers; and the feeding component is connected to the supporting chassis and is used for automatically feeding the loading box.

9. The pouring type plastic suction mold material, preparation method, usage method and preparation equipment according to claim 8, characterized in that The feeding component includes a clamping hole block, a lifting bracket, a screw rod lifting mechanism, an electric rotating frame, a clamping frame and a screw rod pressing mechanism. The clamping hole block is fixedly installed on one side of the loading box; the lifting bracket is slidably installed on the supporting chassis; the screw rod lifting mechanism is connected to the lifting bracket and is used for driving the lifting bracket to move; the electric rotating frame is installed on the lifting bracket; The clamping frame is slidably installed on one side of the electric rotating frame; and the screw rod pressing mechanism is installed on the electric rotating frame and is used for driving the clamping frame to move.

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