Vibration mixing tank for cleaning agent production

Abstract

The invention discloses a vibration mixing tank for cleaning agent production, and relates to the technical field of cleaning agent production, the vibration mixing tank comprises a frame body, a mixing tank assembly and a cover body assembly, a vibration motor is arranged at the top end of the bottom of the frame body, and the mixing tank assembly is arranged on the inner side of the frame body; the mixing tank assembly comprises a first supporting frame, an annular frame, a first reset spring, a connecting seat, a tank body and a pushing plate, and the outer end of the supporting frame is connected with the annular frame. When a vibration motor works to vibrate a tank body, the tank body can longitudinally move due to limiting of a cover body, a positioning seat and an annular frame, in the displacement process of the tank body, a first reset spring is extruded through a connecting seat, and due to the fact that the contraction degree of the first reset spring is fixed, when vibration force is too large, the tank body can be moved out of the tank body. The first reset spring can absorb the vibration force, so that the displacement stroke in the vibration process of the tank body is fixed, and the vibration uniformity of the tank body can be improved through the stilling force of the first reset spring and the fixed displacement stroke.

Description

Technical Field

[0001] The invention relates to the technical field of detergent raw material production, in particular to a vibration mixing tank for detergent production. Background Art

[0002] The mixing tank used in the production of detergents is a device used for mixing, dissolving and evenly dispersing raw materials in the production process of detergents. It is widely used in the production process of household detergents, industrial detergents and chemical products. The main function of the mixing tank used in the production of detergents is to evenly mix different materials such as liquid and liquid, liquid and solid, to ensure the stability of the detergent ingredients and the product quality. Nowadays, the common mixing tanks on the market often use high-frequency vibration for mixing to improve the mixing efficiency.

[0003] The vibration uniformity of the common detergent raw material vibrating mixing tank on the market is difficult to control during use. If the vibration uniformity of the vibrating mixing tank is poor, it is easy to have problems such as poor mixing quality, damage to the equipment life due to uneven vibration, and increased energy consumption due to uneven vibration.

[0004] Therefore, in view of this, the existing structure and defects are studied and improved, and a vibrating mixing tank for detergent production is proposed. Summary of the invention

[0005] The object of the present invention is to provide a vibrating mixing tank for detergent production to solve the problems raised in the above background technology.

[0006] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: a vibrating mixing tank for the production of cleaning agents, comprising a frame, a mixing tank assembly and a cover assembly, a vibration motor is arranged at the bottom top of the frame, and a mixing tank assembly is arranged on the inner side of the frame, the mixing tank assembly comprises a first support frame, an annular frame, a first return spring, a connecting seat, a tank body and a push plate, the outer end of the support frame is connected to the annular frame, and first return springs are arranged on both sides of the inner part of the annular frame, and the first return spring is connected to the connecting seat on the side away from the annular frame, the inner side of the connecting seat is connected to the tank body, and push plates are connected on both sides of the inner part of the tank body, the inner side of the frame is connected to the second support frame, and the outer end of the second support frame is connected to the positioning seat, an electric push rod is arranged at the top bottom end of the frame, and the output end of the electric push rod is connected to the cover assembly.

[0007] Furthermore, the annular frame is sleeve-connected to the tank body, and the annular frame is elastically connected to the tank body via a first return spring and a connecting seat.

[0008] Furthermore, the vibration motor is fitted with the lower surface of the tank body, and the outer surface of the tank body is fitted with the inner surface of the positioning seat.

[0009] Furthermore, the cover body assembly includes a cover body, a servo motor, a rotating shaft, a stirring paddle, a second return spring and an I-shaped extrusion block, a servo motor is arranged on the outer side of the top of the cover body, and the output end of the servo motor is connected to the rotating shaft, the stirring paddles are connected to the outer sides of the rotating shaft, the second return springs are arranged on the inner sides of the cover body, and the outer ends of the second return springs are connected to the I-shaped extrusion blocks.

[0010] Furthermore, the servo motor drives the stirring paddle to rotate via the rotating shaft, and the stirring paddle is located inside the tank body.

[0011] Furthermore, the inner contour size of the cover body is consistent with the outer contour size of the tank body, and the cover body rises and falls with the electric push rod.

[0012] Furthermore, the second return spring is elastically connected to the I-shaped extrusion block, and the position of the I-shaped extrusion block corresponds one-to-one to the position of the push plate.

[0013] Furthermore, an airbag assembly is provided at the top end of the I-type extrusion block, and the airbag assembly includes an extrusion airbag, a first exhaust pipe, a first electrically controlled exhaust valve, a first air inlet pipe and a first electrically controlled air inlet valve. The outer end of the extrusion airbag is connected to the first exhaust pipe, and the outer end of the first exhaust pipe is connected to the first electrically controlled exhaust valve. The outer end of the extrusion airbag is connected to the first air inlet pipe, and the outer end of the first air inlet pipe is provided with a first electrically controlled air inlet valve.

[0014] Furthermore, the airbag assembly also includes a second exhaust pipe, a second electrically-controlled exhaust valve, a second air inlet pipe and a second electrically-controlled air inlet valve. The outer end of the extrusion airbag is connected to the second exhaust pipe, and the outer end of the second exhaust pipe is connected to the second electrically-controlled exhaust valve. The outer end of the extrusion airbag is connected to the second air inlet pipe, and the outer end of the second air inlet pipe is connected to the second electrically-controlled air inlet valve.

[0015] Furthermore, the extrusion airbag is fitted with the I-shaped extrusion block, and the extrusion airbag is connected with the first exhaust pipe, the first air inlet pipe, the second exhaust pipe, and the second air inlet pipe.

[0016] The present invention provides a vibrating mixing tank for detergent production, which has the following beneficial effects:

[0017] 1. The present invention limits the position of the cover body, the positioning seat and the annular frame. When the vibration motor works to make the tank vibrate, the tank body will be longitudinally displaced due to the limit of the cover body, the positioning seat and the annular frame. During the displacement, the tank body will squeeze the first return spring through the connecting seat. Since the contraction degree of the first return spring is fixed, when the vibration force is too large, the first return spring can absorb the vibration force, which makes the displacement stroke of the tank body fixed during the vibration process. The force elimination of the first return spring and the fixed displacement stroke can improve the vibration uniformity of the tank body. Since the vibration mixing tank mixes materials by vibration, if the vibration force is uneven, it will cause insufficient mixing of some areas of the detergent raw materials, affecting the mixing quality. However, uniform vibration can ensure that the entire container is The material is fully stirred. In addition, uneven vibration will cause the local area of ​​the vibrating mixing tank to bear greater stress, accelerating equipment wear. By maintaining uniform vibration, the stress distribution can be more balanced, thereby extending the service life of the equipment. In addition, uneven vibration of the detergent raw materials takes longer to achieve the ideal mixing effect, thereby increasing energy consumption. Uniform vibration can improve mixing efficiency, shorten working time, and reduce energy consumption. In addition, the detergent raw materials are very prone to agglomeration or stratification when they are stationary or vibrate insufficiently. Maintaining uniform vibration can effectively avoid this situation. In summary, by ensuring the vibration direction and vibration uniformity of the tank body, the mixing quality of the equipment can be improved, the equipment life can be extended, energy consumption can be saved, and the stability of product quality can be guaranteed.

[0018] 2. The present invention works through a servo motor, which can drive the rotating shaft and the stirring paddle to rotate. During the rotation of the stirring paddle, the vibrated and mixed detergent raw materials can be stirred. Since the vibration direction of the tank body is longitudinal and the rotation direction of the stirring paddle is transverse, the mixing effect of the detergent raw materials can be greatly improved by stirring and mixing in different directions. In addition, since the servo motor, the rotating shaft and the stirring paddle are fixed to the cover body, the operation of the servo motor and the rotation of the rotating shaft and the stirring paddle are not affected by the vibration force, which can effectively ensure the stability of the equipment operation.

[0019] 3. During the stirring process of the cleaning agent raw materials of the present invention, the equipment controls the first electrically controlled exhaust valve and the second electrically controlled exhaust valve to be closed, and the first electrically controlled air inlet valve and the second electrically controlled air inlet valve to be opened. Because the tank body will move up and down during the vibration process, the tank body can make the push plate push the I-shaped extrusion block to move back and forth during the up-and-down displacement. During the upward movement of the I-shaped extrusion block, it can squeeze the second return spring and shrink the extrusion airbag. When the extrusion airbag shrinks, the first electrically controlled exhaust valve and the second electrically controlled exhaust valve are controlled to be closed, and the first electrically controlled air inlet valve and the second electrically controlled air inlet valve are opened, so that the air in the extrusion airbag can enter the interior of the tank body through the second electrically controlled air inlet valve. During the downward movement of the I-shaped extrusion block, the extrusion airbag will lose the extrusion force and be reset. During the resetting of the extrusion airbag, the external gas will be sucked into it through the first electrically controlled air inlet valve. Through this design, The device continuously inputs gas into the tank body, which increases the air pressure in the tank body. In addition, the tank body will repeatedly rub against the positioning seat during the process of vibrating up and down displacement, which increases the temperature in the tank body. The high temperature and high pressure combined with the stirring paddle and vibration mixing can further enhance the mixing effect of the detergent raw materials. After the detergent raw materials are mixed, the device controls the first electrically controlled exhaust valve and the second electrically controlled exhaust valve to open, and the first electrically controlled air inlet valve and the second electrically controlled air inlet valve to close. At this time, when the I-type extrusion block moves back and forth to extrude the extrusion airbag, the extrusion airbag gradually discharges the air in the tank body through the first electrically controlled exhaust valve and the second electrically controlled exhaust valve, which forms a vacuum in the tank body. The vacuum environment can effectively defoam the detergent raw materials. The above pressurization and depressurization operations are all achieved by the vibration force of the tank body, which can avoid adding a suction machine and a booster to the equipment, thereby reducing the preparation cost of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 This is a schematic diagram of the three-dimensional overall structure of a vibrating mixing tank for detergent production according to the present invention;

[0021] Figure 2 This is a schematic diagram of the overall cross-sectional structure of a vibrating mixing tank for detergent production according to the present invention;

[0022] Figure 3 A schematic cross-sectional view of a cover assembly of a vibrating mixing tank for detergent production according to the present invention;

[0023] Figure 4 This is a schematic diagram of the structure of an airbag assembly of a vibrating mixing tank for detergent production according to the present invention;

[0024] Figure 5 It is a schematic diagram of the three-dimensional structure of a cover assembly of a vibrating mixing tank for detergent production according to the present invention;

[0025] Figure 6The present invention is a schematic diagram of the three-dimensional structure of a mixing tank assembly of a vibrating mixing tank for detergent production.

[0026] In the figure: 1, frame; 2, vibration motor; 3, mixing tank assembly; 301, first support frame; 302, annular frame; 303, first return spring; 304, connecting seat; 305, tank body; 306, push plate; 4, second support frame; 5, positioning seat; 6, electric push rod; 7, cover assembly; 701, cover body; 702, servo motor; 703, rotating shaft; 704, stirring paddle; 705, second return spring; 706, I-type extrusion block; 8, airbag assembly; 801, extrusion airbag; 802, first exhaust pipe; 803, first electrically controlled exhaust valve; 804, first air inlet pipe; 805, first electrically controlled air inlet valve; 806, second exhaust pipe; 807, second electrically controlled exhaust valve; 808, second air inlet pipe; 809, second electrically controlled air inlet valve. DETAILED DESCRIPTION

[0027] See also Figures 1 to 6 The present invention provides a technical solution: a vibrating mixing tank for detergent production, comprising a frame 1, a mixing tank assembly 3 and a cover assembly 7, a vibration motor 2 is arranged at the bottom top of the frame 1, and a mixing tank assembly 3 is arranged on the inner side of the frame 1, the mixing tank assembly 3 comprises a first support frame 301, an annular frame 302, a first return spring 303, a connecting seat 304, a tank body 305 and a pushing plate 306, the outer end of the first support frame 301 is connected to the annular frame 302, and the first return spring 303 is arranged on both sides of the inner part of the annular frame 302, and the first return spring 303 is connected to the connecting seat 304 away from the side of the annular frame 302, the inner side of the connecting seat 304 is connected to the tank body 305, and the pushing plates 306 are connected on both sides of the inner part of the tank body 305, the inner side of the frame 1 is connected to the second support frame 4, and the outer end of the second support frame 4 is connected to the positioning seat 5, the top bottom end of the frame 1 is arranged with an electric push rod 6, and the output end of the electric push rod 6 is connected to the cover assembly 7.

[0028] The specific operation is as follows: the electric push rod 6 works to drive the cover body 701 to move up and separate from the tank body 305, so that the tank body 305 can be opened. After the staff puts the cleaning agent raw materials into the tank body 305 in proportion, the electric push rod 6 works again to make the cover body 701 and the tank body 305 buckle together. At this time, the vibration motor 2 works, and the equipment can achieve mixing of the cleaning agent raw materials.

[0029] See also Figures 1 to 6The annular frame 302 is sleeve-connected with the tank body 305, and the annular frame 302 is elastically connected with the tank body 305 through the first return spring 303 and the connecting seat 304. The vibration motor 2 fits the lower surface of the tank body 305, and the outer surface of the tank body 305 fits the inner surface of the positioning seat 5. The cover assembly 7 includes a cover body 701, a servo motor 702, a rotating shaft 703, a stirring paddle 704, a second return spring 705 and an I-shaped extrusion block 706. The servo motor 702 is arranged on the outer side of the top of the cover body 701, and the output end of the servo motor 702 is connected to the rotating shaft 703. The outer sides of the shaft 703 are connected with stirring paddles 704, the inner sides of the cover body 701 are provided with second return springs 705, and the outer ends of the second return springs 705 are connected with the type extrusion blocks 706, the servo motor 702 drives the stirring paddle 704 to rotate through the rotating shaft 703, and the stirring paddle 704 is located inside the tank body 305, the inner contour size of the cover body 701 is consistent with the outer contour size of the tank body 305, and the cover body 701 rises and falls with the electric push rod 6, the second return spring 705 is elastically connected to the type extrusion block 706, and the position of the type extrusion block 706 is consistent with the position of the push plate 306 The positions correspond one to one. An airbag assembly 8 is arranged at the top of the I-type extrusion block 706. The airbag assembly 8 includes an extrusion airbag 801, a first exhaust pipe 802, a first electrically-controlled exhaust valve 803, a first air inlet pipe 804 and a first electrically-controlled air inlet valve 805. The outer end of the extrusion airbag 801 is connected to the first exhaust pipe 802, and the outer end of the first exhaust pipe 802 is connected to the first electrically-controlled exhaust valve 803. The outer end of the extrusion airbag 801 is connected to the first air inlet pipe 804, and the outer end of the first air inlet pipe 804 is provided with the first electrically-controlled air inlet valve 805. The airbag assembly 8 also includes a second exhaust pipe 806, A second electrically controlled exhaust valve 807, a second air inlet pipe 808 and a second electrically controlled air inlet valve 809, the outer end of the extrusion airbag 801 is connected to the second exhaust pipe 806, and the outer end of the second exhaust pipe 806 is connected to the second electrically controlled exhaust valve 807, the outer end of the extrusion airbag 801 is connected to the second air inlet pipe 808, and the outer end of the second air inlet pipe 808 is connected to the second electrically controlled air inlet valve 809, the extrusion airbag 801 fits with the I-type extrusion block 706, and the extrusion airbag 801 is connected to the first exhaust pipe 802, the first air inlet pipe 804, the second exhaust pipe 806, and the second air inlet pipe 808;

[0030] The specific operation is as follows: because the inner contour size of the cover body 701 matches the outer contour size of the tank body 305, and the positioning seat 5 and the annular frame 302 are sleeved on the outer end of the tank body 305, through the limit of the cover body 701, the positioning seat 5 and the annular frame 302, when the vibration motor 2 works to make the tank body 305 vibrate, the tank body 305 will be longitudinally displaced due to the limit of the cover body 701, the positioning seat 5 and the annular frame 302, and during the displacement process, the tank body 305 will squeeze the first return spring 303 through the connecting seat 304. Because the contraction degree of the first return spring 303 is fixed, when the vibration force is too large, the first return spring 303 can absorb the vibration force, which makes the displacement stroke of the tank body 305 fixed during the vibration process. The force elimination and fixed displacement stroke of the position spring 303 can improve the vibration uniformity of the tank body 305. Because the vibrating mixing tank mixes materials by vibration, if the vibration force is uneven, it will lead to insufficient mixing of some areas of the detergent raw materials, affecting the mixing quality. Uniform vibration can ensure that the materials in the entire container are fully stirred. In addition, uneven vibration will cause the local area of ​​the vibrating mixing tank to bear greater stress, accelerating equipment wear. By maintaining uniform vibration, the stress distribution can be more balanced, thereby extending the service life of the equipment. In addition, uneven vibration of the detergent raw materials requires a longer time to achieve the ideal mixing effect, thereby increasing energy consumption. Uniform vibration can improve mixing efficiency, shorten working time, and reduce energy consumption. In addition, the detergent raw materials are stationary. In the case of insufficient vibration, agglomeration or stratification is very likely to occur. This can be effectively avoided by maintaining uniform vibration. In summary, by ensuring the vibration direction and vibration uniformity of the tank body 305, the mixing quality of the equipment can be improved, the equipment life can be extended, energy consumption can be saved, and the stability of product quality can be ensured. The servo motor 702 can drive the rotating shaft 703 and the stirring paddle 704 to rotate. The stirring paddle 704 can stir the vibrated and mixed detergent raw materials during the rotation. Because the vibration direction of the tank body 305 is longitudinal, and the rotation direction of the stirring paddle 704 is transverse, the mixing effect of the detergent raw materials can be greatly improved by stirring and mixing in different directions. In addition, because the servo motor 702, the rotating shaft 703 and The stirring paddle 704 is fixed to the cover body 701, so that the operation of the servo motor 702 and the rotation of the rotating shaft 703 and the stirring paddle 704 are not affected by the vibration force, which can effectively ensure the stability of the equipment. During the stirring of the detergent raw materials, the equipment controls the first electrically controlled exhaust valve 803 and the second electrically controlled exhaust valve 807 to close, and the first electrically controlled air inlet valve 805 and the second electrically controlled air inlet valve 809 to open. Because the tank body 305 will move up and down during the vibration process, the tank body 305 can make the push plate 306 push the type extrusion block 706 to move back and forth during the up and down displacement. The type extrusion block 706 can squeeze the second return spring 705 during the upward movement, and can shrink the extrusion airbag 801.When the extrusion airbag 801 is contracted, the first electrically controlled exhaust valve 803 and the second electrically controlled exhaust valve 807 are closed, and the first electrically controlled air inlet valve 805 and the second electrically controlled air inlet valve 809 are opened, so that the air in the extrusion airbag 801 can enter the interior of the tank body 305 through the second electrically controlled air inlet valve 809. During the downward movement of the I-type extrusion block 706, the extrusion airbag 801 will lose the extrusion force and reset. During the resetting process of the extrusion airbag 801, the external gas will be sucked into it through the first electrically controlled air inlet valve 805. The design enables the device to continuously input gas into the tank body 305, which makes the air pressure in the tank body 305 rise. By increasing the air pressure, the contact efficiency of the raw materials can be improved. Under the action of pressure, the molecular distance between the liquid and the gas will be shortened, which may make different raw materials contact more closely, thereby accelerating the mixing process. At the same time, increasing the air pressure can enhance the solubility of the raw materials. High pressure can make solids and gases participate in the mixing. Applying pressure may increase the solubility between the raw materials and promote uniform mixing. In addition, high pressure can reduce the influence of bubbles and gaps. High pressure can reduce the formation of bubbles and eliminate the gaps in the mixture, especially when mixing high-viscosity liquids, thereby improving the mixing efficiency. In addition, during the process of vibrating up and down displacement, the tank body 305 will repeatedly rub against the positioning seat 5, which makes the temperature in the tank body 305 rise. Through high temperature and high pressure combined with the stirring paddle 704 and vibration mixing, the mixing effect of the detergent raw materials can be further improved. After the detergent raw materials are mixed, the device controls the first electrically controlled exhaust valve 803 and the second electrically controlled exhaust valve 807 to open, and the first electrically controlled air inlet valve 808 is opened. 05 and the second electrically controlled air inlet valve 809 are closed. At this time, when the I-type extrusion block 706 moves back and forth to squeeze the extrusion airbag 801, the extrusion airbag 801 gradually discharges the air in the tank body 305 through the first electrically controlled exhaust valve 803 and the second electrically controlled exhaust valve 807, so that a vacuum can be formed in the tank body 305. The vacuum environment can effectively defoam the detergent raw materials. The above pressurization and depressurization operations are all achieved by the vibration force of the tank body 305, which can avoid adding a suction machine and a supercharger to the equipment, thereby reducing the preparation cost of the equipment.

[0031] In summary, when the vibrating mixing tank for detergent production is used, the electric push rod 6 first works to drive the cover 701 to move up and separate from the tank body 305, so that the tank body 305 can be opened. After the staff puts the detergent raw materials into the tank body 305 in proportion, the electric push rod 6 works again to make the cover 701 and the tank body 305 buckle together. At this time, the vibration motor 2 works, and the equipment can achieve mixing of the detergent raw materials.

[0032] Then, through the limitation of the cover body 701, the positioning seat 5 and the annular frame 302, when the vibration motor 2 works to make the tank body 305 vibrate, the tank body 305 will be longitudinally displaced due to the limitation of the cover body 701, the positioning seat 5 and the annular frame 302, and during the displacement process, the tank body 305 will squeeze the first return spring 303 through the connecting seat 304. Because the contraction degree of the first return spring 303 is fixed, when the vibration force is too large, the first return spring 303 can absorb the vibration force, which makes the displacement stroke of the tank body 305 fixed during the vibration process. The force elimination and fixed displacement stroke of the first return spring 303 can improve the vibration uniformity of the tank body 305. Because the vibration mixing tank mixes materials by vibration, if the vibration force is uneven, it will cause insufficient mixing of some areas of the detergent raw materials, affecting the mixing The uniform vibration can ensure that the materials in the entire container are fully stirred. In addition, uneven vibration will cause the local area of ​​the vibrating mixing tank to bear greater stress, accelerating equipment wear. By maintaining uniform vibration, the stress distribution can be more balanced, thereby extending the service life of the equipment. In addition, uneven vibration of the detergent raw materials requires a longer time to achieve the ideal mixing effect, thereby increasing energy consumption. Uniform vibration can improve mixing efficiency, shorten working time, and reduce energy consumption. In addition, the detergent raw materials are very likely to agglomerate or stratify when they are stationary or vibrate insufficiently. By maintaining uniform vibration, this situation can be effectively avoided. In summary, by ensuring the vibration direction and vibration uniformity of the tank body 305, the mixing quality of the equipment can be improved, the equipment life can be extended, energy consumption can be saved, and the stability of product quality can be ensured;

[0033] Then, the servo motor 702 works to drive the rotating shaft 703 and the stirring paddle 704 to rotate. The stirring paddle 704 can stir the vibrated and mixed detergent raw materials during the rotation. Since the vibration direction of the tank body 305 is longitudinal, and the rotation direction of the stirring paddle 704 is transverse, the mixing effect of the detergent raw materials can be greatly improved by stirring and mixing in different directions. In addition, since the servo motor 702, the rotating shaft 703 and the stirring paddle 704 are fixed to the cover body 701, the operation of the servo motor 702 and the rotation of the rotating shaft 703 and the stirring paddle 704 are not affected by the vibration force, which can effectively ensure the stability of the equipment operation. During the stirring of the detergent raw materials;

[0034] Subsequently, the device controls the first electrically controlled exhaust valve 803 and the second electrically controlled exhaust valve 807 to be closed, and the first electrically controlled air inlet valve 805 and the second electrically controlled air inlet valve 809 to be opened. Because the tank body 305 will move up and down during the vibration process, the tank body 305 can make the push plate 306 push the type extrusion block 706 to move back and forth during the up and down displacement. The type extrusion block 706 can squeeze the second return spring 705 during the upward movement, and can shrink the extrusion airbag 801. When the extrusion airbag 801 shrinks, the first electrically controlled exhaust valve 803 and the second electrically controlled exhaust valve 807 are controlled to be closed, and the first electrically controlled air inlet valve 805 and the second electrically controlled air inlet valve 809 are opened, which makes the extrusion airbag 801 shrink. The air in the airbag 801 can enter the interior of the tank body 305 through the second electrically controlled air inlet valve 809, and when the I-shaped extrusion block 706 moves downward, the extrusion airbag 801 loses its extrusion force and resets. During the resetting process of the extrusion airbag 801, the external gas will be sucked into it through the first electrically controlled air inlet valve 805. Through this design, the device can continuously input gas into the tank body 305, which can increase the air pressure in the tank body 305. In addition, during the process of the tank body 305 vibrating up and down, it will repeatedly rub against the positioning seat 5, which can increase the temperature in the tank body 305. Through high temperature and high pressure combined with the stirring paddle 704 and vibration mixing, the mixing effect of the detergent raw materials can be further improved.

[0035] After the cleaning agent raw materials are finally mixed, the equipment controls the first electrically controlled exhaust valve 803 and the second electrically controlled exhaust valve 807 to open, and the first electrically controlled air inlet valve 805 and the second electrically controlled air inlet valve 809 to close. At this time, when the I-type extrusion block 706 moves back and forth to extrude the extrusion airbag 801, the extrusion airbag 801 gradually discharges the air in the tank body 305 through the first electrically controlled exhaust valve 803 and the second electrically controlled exhaust valve 807, which allows a vacuum to be formed in the tank body 305. The vacuum environment can effectively defoam the cleaning agent raw materials, and the above pressurization and depressurization operations are all achieved by the vibration force of the tank body 305, which can avoid adding a suction machine and a booster to the equipment, thereby reducing the preparation cost of the equipment.

[0036] The embodiments of the present invention are given for the purpose of illustration and description, and are not intended to be exhaustive or to limit the invention to the disclosed forms. Many modifications and variations will be apparent to those of ordinary skill in the art. The embodiments are selected and described in order to better illustrate the principles and practical applications of the present invention and to enable those of ordinary skill in the art to understand the present invention and thereby design various embodiments with various modifications suitable for specific uses.

Claims

1. A vibrating mixing tank for detergent production, characterized in that: The invention comprises a frame (1), a mixing tank assembly (3) and a cover assembly (7); a vibration motor (2) is arranged at the top of the bottom of the frame (1), and a mixing tank assembly (3) is arranged on the inner side of the frame (1); the mixing tank assembly (3) comprises a first support frame (301), an annular frame (302), a first return spring (303), a connecting seat (304), a tank body (305) and a push plate (306); the outer end of the first support frame (301) is connected to the annular frame (302), and the inner sides of the annular frame (302) are provided with A first return spring (303) is provided, and a connecting seat (304) is connected to the side of the first return spring (303) away from the annular frame (302); a tank body (305) is connected to the inner side of the connecting seat (304); and push plates (306) are connected to the inner sides of the tank body (305); a second support frame (4) is connected to the inner side of the frame body (1); and a positioning seat (5) is connected to the outer end of the second support frame (4); an electric push rod (6) is arranged at the top and bottom ends of the frame body (1), and the output end of the electric push rod (6) is connected to a cover assembly (7).

2. A vibrating mixing tank for detergent production according to claim 1, characterized in that: The annular frame (302) is sleeve-connected with the tank body (305), and the annular frame (302) is elastically connected with the tank body (305) via a first return spring (303) and a connection seat (304).

3. A vibrating mixing tank for detergent production according to claim 1, characterized in that: The vibration motor (2) fits the lower surface of the tank body (305), and the outer surface of the tank body (305) fits the inner surface of the positioning seat (5).

4. A vibrating mixing tank for detergent production according to claim 1, characterized in that: The cover assembly (7) comprises a cover (701), a servo motor (702), a rotating shaft (703), a stirring paddle (704), a second return spring (705) and an I-shaped extrusion block (706); the servo motor (702) is arranged on the outer side of the top of the cover (701), and the output end of the servo motor (702) is connected to the rotating shaft (703); the stirring paddles (704) are connected to the outer sides of the rotating shaft (703); the second return springs (705) are arranged on the inner sides of the cover (701), and the outer ends of the second return springs (705) are connected to the I-shaped extrusion block (706).

5. A vibrating mixing tank for detergent production according to claim 4, characterized in that: The servo motor (702) drives the stirring paddle (704) to rotate via the rotating shaft (703), and the stirring paddle (704) is located inside the tank body (305).

6. A vibrating mixing tank for detergent production according to claim 4, characterized in that: The inner contour size of the cover body (701) is consistent with the outer contour size of the tank body (305), and the cover body (701) rises and falls along with the electric push rod (6).

7. A vibrating mixing tank for detergent production according to claim 4, characterized in that: The second return spring (705) is elastically connected to the I-shaped extrusion block (706), and the position of the I-shaped extrusion block (706) corresponds one-to-one to the position of the push plate (306).

8. A vibrating mixing tank for detergent production according to claim 4, characterized in that: An airbag assembly (8) is arranged at the top end of the I-shaped extrusion block (706), and the airbag assembly (8) comprises an extrusion airbag (801), a first exhaust pipe (802), a first electrically controlled exhaust valve (803), a first air inlet pipe (804) and a first electrically controlled air inlet valve (805). The outer end of the extrusion airbag (801) is connected to the first exhaust pipe (802), and the outer end of the first exhaust pipe (802) is connected to the first electrically controlled exhaust valve (803). The outer end of the extrusion airbag (801) is connected to the first air inlet pipe (804), and the outer end of the first air inlet pipe (804) is arranged with the first electrically controlled air inlet valve (805).

9. A vibrating mixing tank for detergent production according to claim 8, characterized in that: The airbag assembly (8) further comprises a second exhaust pipe (806), a second electrically controlled exhaust valve (807), a second air inlet pipe (808) and a second electrically controlled air inlet valve (809); the outer end of the extrusion airbag (801) is connected to the second exhaust pipe (806), and the outer end of the second exhaust pipe (806) is connected to the second electrically controlled exhaust valve (807); the outer end of the extrusion airbag (801) is connected to the second air inlet pipe (808), and the outer end of the second air inlet pipe (808) is connected to the second electrically controlled air inlet valve (809).

10. A vibrating mixing tank for detergent production according to claim 9, characterized in that: The extrusion airbag (801) is fitted with the I-shaped extrusion block (706), and the extrusion airbag (801) is connected to the first exhaust pipe (802), the first air inlet pipe (804), the second exhaust pipe (806), and the second air inlet pipe (808).

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