Automatic titration forming machine for explosive bead colloid and titration forming method thereof

Abstract

The present invention relates to the technical field of popping bead production, in particular to an automatic titration molding machine for popping bead colloid and a titration molding method thereof, comprising: an outer shell, a cooling tank is arranged inside the outer shell; a diameter-changing component is arranged on the outer shell, and the diameter-changing component can adjust the diameter of the colloid dripped into the cooling tank; a liquid inlet, two groups of which are arranged and symmetrically installed on the cooling tank, and the liquid inlet is for cooling liquid to enter the cooling tank; a guide component is arranged in the cooling tank, and the guide component can make the cooling liquid flow obliquely upward after entering the cooling tank; an elastic trigger component is connected to the diameter-changing component and the guide component, and when the diameter-changing component is actuated to increase the diameter of the dripping colloid, the elastic trigger component can drive the guide component to actuate, and increase the inclination of the flow direction of the cooling liquid after entering the cooling tank, so that when the particle size of the popping bead changes, the popping bead can always be well cooled.

Description

Technical Field

[0001] The invention relates to the technical field of popping bead production, in particular to a popping bead colloid automatic titration molding machine and a titration molding method thereof. Background Art

[0002] "Exploding beads" refer to small plastic beads embedded in the tobacco filter. They are composed of different types of spices. Smokers can pinch them to explode during the smoking process to make the cigarette taste richer and more fragrant, giving smokers a more comfortable experience.

[0003] For cigarettes of different specifications, the diameter of the bursting beads used is also different. For example, the bursting beads used in thick cigarettes are relatively large, the bursting beads used in medium cigarettes are relatively small, and the bursting beads used in slim cigarettes are the smallest.

[0004] In the existing popping bead production equipment, if you want to produce popping beads of different diameters, you need to replace the dripper, which is cumbersome. At the same time, in order to ensure that the popping beads in the maximum diameter state can be effectively cooled and formed, the length of the cooling device is generally longer, which makes the height of the entire equipment higher, bringing greater load to the raw material pumping device and the coolant circulation device, and also makes the device occupy more space. Summary of the invention

[0005] The object of the present invention is to provide an automatic titration molding machine for explosive bead colloid and a titration molding method thereof, so as to solve the problems raised in the above-mentioned background technology.

[0006] To achieve the above object, the present invention provides the following technical solutions:

[0007] Automatic titration forming machine for explosive beads, including:

[0008] A housing, wherein a cooling tank is disposed in the housing;

[0009] A diameter-changing component is arranged on the housing, and the diameter-changing component can adjust the diameter of the colloid dripped into the cooling tank;

[0010] Two groups of liquid inlets are provided and symmetrically mounted on the cooling tank, and the liquid inlets are used for coolant to enter the cooling tank;

[0011] A guide assembly is arranged in the cooling tank, and the guide assembly can make the coolant flow obliquely upward after entering the cooling tank;

[0012] The elastic trigger component connects the variable diameter component and the guide component. When the variable diameter component is actuated to increase the diameter of the dripping colloid, the elastic trigger component can drive the guide component to actuate, thereby increasing the inclination of the flow direction of the coolant after it enters the cooling tank.

[0013] As a further solution of the present invention: a connector is installed in the housing;

[0014] The variable diameter assembly includes a connecting seat detachably connected to the connecting head, an adjusting disk is sealingly and rotatably mounted on the connecting seat, the adjusting disk is connected to the elastic trigger assembly, and a plurality of groups of dripper groups are arranged on the adjusting disk, and discharge ports equidistantly arranged on the connecting seat are adapted to the dripper groups.

[0015] As a further solution of the present invention: the dripper group includes a plurality of drippers distributed equidistantly around a circle, and the radii of the plurality of drippers gradually increase or decrease.

[0016] As a further solution of the present invention: the guide assembly includes a guide frame rotatably mounted in the cooling tank, a traction rod rotatably mounted on the guide frame, an end of the traction rod away from the guide frame is connected to a lifting plate, and the lifting plate is slidably connected to a guide member arranged in the cooling tank.

[0017] As a further solution of the present invention: a plurality of stabilizing tubes coaxial with the discharge port are arranged in the cooling tank;

[0018] The elastic trigger assembly includes a connecting plate connected to the lifting plate, the connecting plate is slidably connected to the vertical shaft connected to the stabilizing tube, a cylindrical spring is sleeved on the vertical shaft, one end of the cylindrical spring is connected to the end of the vertical shaft, and the other end is connected to the connecting plate;

[0019] The elastic trigger assembly also includes a convex shaft connected to the lifting plate and a follower detachably connected to the adjusting disk, a driving part is formed on the follower, and the driving part is adapted to the convex shaft.

[0020] As a further solution of the present invention: the driving part is provided with a plurality of stepped surfaces, and a positioning groove surface is formed between two adjacent stepped surfaces, and the height of the positioning groove surface increases or decreases gradually;

[0021] The step surface includes a first inclined surface and a second inclined surface.

[0022] As a further solution of the present invention: it also includes:

[0023] A liquid storage tank, disposed on the housing and connected to the connector;

[0024] A driving motor is arranged above the liquid storage tank, and an output shaft of the driving motor passes through the liquid storage tank and is connected to a transmission shaft;

[0025] Deflection plates, multiple groups of which are arranged along the vertical direction of the space and connected to the transmission shaft;

[0026] The buoyancy locking assembly is connected to the transmission shaft and the deflection plate. The buoyancy locking assembly can adjust the number of the deflection plates that follow the rotation when the transmission shaft rotates according to the height of the colloid in the liquid storage tank.

[0027] As a further solution of the present invention: the buoyancy lock assembly comprises a plurality of annular grooves formed on the transmission shaft, a collar is slidably sleeved in the annular groove, the collar is connected to the deflection plate, and a floating ball is arranged at one end of the deflection plate away from the collar;

[0028] A locking ring is also provided on the sleeve ring, and a locking block provided on the transmission shaft is adapted to the locking ring.

[0029] A method for performing bursting bead colloid titration molding using the bursting bead colloid automatic titration molding machine comprises the following steps:

[0030] Step 1: Pipeline connection, including the connection between the colloid supply device and the liquid storage tank and the connection between the coolant circulation device and the liquid inlet;

[0031] Step 2: Adjust the temperature, and adjust the heating temperature of the colloid through the control panel;

[0032] Step 3: Adjust the diameter of the colloid drop, and align the dripper of the corresponding diameter with the discharge port by rotating the adjustment disk. When the adjustment disk is rotated, the elastic trigger component will drive the guide component to move, thereby changing the inclination of the flow direction of the coolant after entering the cooling tank;

[0033] Step 4: Start titration and start the drive motor to stir and pressurize the colloid in the liquid storage tank;

[0034] Step 5: After the titration is completed, the burst beads are removed for subsequent processing.

[0035] Compared with the prior art, the present invention has the following beneficial effects:

[0036] By setting the variable diameter component, the corresponding dripper can be connected with the discharge port when the adjustment disk is rotated. At this time, the mass of the dripping beads can be changed due to the change in the diameter of the dripper, thereby realizing the control of the mass of the titrated beads;

[0037] By setting the guide assembly, when titrating bursting beads of different masses, by changing the inclination of the guide frame, the vertical movement speed of the coolant in the cooling tube can be changed, and a predetermined impact force is given to the bursting beads when impacting the bursting beads, ensuring that bursting beads of different masses can obtain a better cooling effect;

[0038] By setting up the elastic trigger component, on the one hand, a certain positioning effect is achieved when switching the diameter of the dripper, thereby avoiding the misalignment between the adjusted dripper and the discharge port. On the other hand, the mass of the bursting beads after titration is linked to the inclination of the guide frame, thereby ensuring that when titrating large-mass bursting beads, the coolant can have a greater vertical speed when entering the cooling tank, so that when colliding with the bursting beads, its falling speed can be slowed down, thereby increasing its retention time in the coolant, ensuring the cooling and molding effect while reducing the difficulty of operating the device. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] Figure 1 The present invention is a structural schematic diagram of an embodiment of an automatic titration forming machine for explosive beads colloid.

[0040] Figure 2 This is a schematic diagram of the structure of an embodiment of the automatic titration molding machine for explosive beads colloid after the outer shell is removed.

[0041] Figure 3 This is a schematic diagram of the internal structure of a liquid storage tank in one embodiment of a colloid automatic titration molding machine for explosive beads.

[0042] Figure 4 An exploded view of a buoyancy locking assembly in one embodiment of an automatic titration molding machine for explosive beads colloids.

[0043] Figure 5 The exploded view of the variable diameter component in one embodiment of the automatic titration forming machine for explosive beads colloid.

[0044] Figure 6 This is a schematic diagram of the internal structure of a cooling tank in one embodiment of a colloid automatic titration molding machine for explosive beads.

[0045] Figure 7 This is a schematic diagram of the structure of a guide component in one embodiment of a bursting bead colloid automatic titration molding machine.

[0046] Figure 8 It is a schematic diagram of the structure of a follower in one embodiment of an automatic titration forming machine for explosive beads colloid.

[0047] In the figure: 1. shell; 2. driving motor; 3. liquid discharge tank; 4. transmission shaft; 401. annular groove; 5. collar; 501. deflection plate; 502. float; 6. locking block; 7. locking ring; 8. connector; 9. connector seat; 901. discharge port; 10. adjusting plate; 11. dripper; 12. cooling tank; 1201. liquid inlet; 13. guide frame; 14. traction rod; 15. lifting plate; 1501. cam; 16. guide member; 17. connecting plate; 18. vertical shaft; 19. cylindrical spring; 20. stabilizing tube; 21. follower; 22. driving part; 2201. inclined surface No. 1; 2202. inclined surface No. 2; 2203. positioning groove surface. DETAILED DESCRIPTION

[0048] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0049] In addition, when an element in the present invention is referred to as being "fixed to" or "disposed on" another element, it may be directly on the other element or there may be a central element. When an element is considered to be "connected to" another element, it may be directly connected to the other element or there may be a central element at the same time. The terms "vertical", "horizontal", "left", "right" and similar expressions used herein are for illustrative purposes only and are not intended to be the only embodiment.

[0050] See also Figure 1 to Figure 8 In an embodiment of the present invention, the automatic titration molding machine for the colloid of the bursting beads includes: a shell 1, a diameter reducing component, a liquid inlet 1201, a guide component and an elastic trigger component, so that the mass of the bursting beads after titration is linked with the inclination degree of the guide frame 13, and it is ensured that when the bursting beads with a larger mass are titrated, the coolant can have a greater vertical speed when entering the cooling tank 12, so that when it collides with the bursting beads, its falling speed can be slowed down, and its retention time in the coolant is increased, thereby ensuring the cooling and molding effect while reducing the difficulty of operating the device.

[0051] The details are as follows: a cooling tank 12 is arranged in the housing 1;

[0052] The diameter reducing component is arranged on the housing 1, and the diameter reducing component can adjust the diameter of the colloid dripped into the cooling tank 12. Specifically, a connector 8 is installed in the housing 1;

[0053] The variable diameter assembly includes a connecting seat 9 detachably connected to the connecting head 8, an adjusting disk 10 is sealed and rotatably mounted on the connecting seat 9, the adjusting disk 10 is connected to the elastic trigger assembly, and a plurality of groups of dripper groups are arranged on the adjusting disk 10, and discharge ports 901 equidistantly arranged on the connecting seat 9 are adapted to the dripper groups. In detail, the dripper group includes a plurality of drippers 11 equidistantly distributed on the circumference, and the radius of the plurality of drippers 11 gradually increases or decreases.

[0054] When in use, the dripper 11 can be driven to make a circular motion by rotating the adjustment disk 10, so that the drippers 11 of different diameters can be connected to the discharge port 901. At this time, the bursting bead colloid can enter the connecting seat 9 through the connecting head 8, and enter the dripper 11 from the discharge port 901, and then drip naturally.

[0055] Among them, it was confirmed through experiments:

[0056] The mass of the bursting beads titrated by the dripper 11 with an inner diameter of 3.2 mm and an outer diameter of 4.2 mm is about 50 mg; the mass of the bursting beads titrated by the dripper 11 with an inner diameter of 3.5 mm and an outer diameter of 4.5 mm is about 60 mg; the masses of the bursting beads titrated by other drippers can be deduced in the same way, that is, the mass of the bursting beads titrated is proportional to the cube of the inner diameter of the dripper 11;

[0057] The smaller the outer diameter of the dripper 11 is and the closer it is to the inner diameter, the smaller the difference in pill weight will be. It is best if the inner and outer diameters of the dripper 11 are the same size and as sharp as a knife edge, so there is almost no difference in the quality of the burst beads. However, it is easy to damage the dripper 11 during the cleaning process. By keeping the inner and outer diameters of the dripper 11 at a difference of 1 mm, the weight difference of 50 mg burst beads can be controlled within 5 mg.

[0058] Based on this, the quality of the popping beads can be adjusted by controlling the inner diameter of the dripper 11 connected to the discharge port 901.

[0059] Through the above arrangement, the corresponding dripper 11 can be connected to the discharge port 901 when the adjustment disk 10 is rotated. At this time, since the diameter of the dripper 11 changes, the mass of the dripping beads can be changed, thereby achieving control of the mass of the titrated beads.

[0060] It should also be noted that during titration, the titration speed of the bursting bead colloid needs to be strictly controlled, mainly because when the titration speed changes, it will affect the titration speed of the bursting bead colloid. Specifically, when the titration speed of the bursting bead colloid increases, the quality of the bursting beads will increase. In detail, only about 60% of the bursting bead colloid on the dripper 11 drips down, and 40% of the bursting bead colloid remains on the dripper 11 and does not drip down. The faster the titration speed, the less residual amount of the bursting bead colloid on the dripper 11 will be, while the quality of the bursting beads after titration will be increased.

[0061] See also Figure 6~Figure 7 The liquid inlet 1201 is provided with two groups and is symmetrically installed on the cooling tank 12. The liquid inlet 1201 is used for the coolant to enter the cooling tank 12. The upper part of the cooling tank 12 is also provided with a coolant reflux port. The height of the confluence port is lower than the height of the stabilizing tube 20.

[0062] The guide assembly is disposed in the cooling tank 12, and the guide assembly enables the coolant to flow obliquely upward after entering the cooling tank 12;

[0063] The guide assembly includes a guide frame 13 rotatably mounted in the cooling tank 12, a traction rod 14 rotatably mounted on the guide frame 13, a lifting plate 15 is connected to one end of the traction rod 14 away from the guide frame 13, and the lifting plate 15 is slidably connected to a guide member 16 disposed in the cooling tank 12;

[0064] Among them, a plurality of stabilizing tubes 20 coaxial with the discharge port 901 are arranged in the cooling tank 12. The stabilizing tubes 20 are arranged to allow a certain amount of time for the surface of the just-titrated popping beads to cool and form. Since the coolant in the stabilizing tubes 20 is relatively stable, the titrated popping beads can be pre-formed after passing through the stabilizing tubes 20, thereby preventing the just-titrated popping beads from losing their roundness due to the impact of the coolant.

[0065] When the bead colloid is titrated, the coolant circulation device can pump the coolant into the cooling tank 12 through the liquid inlet 1201, and then return it to the coolant circulation device through the confluence port. That is, in this process, the coolant in the cooling tank 12 has a downward movement state. The advantages of this arrangement are:

[0066] 1. Compared with the cooling liquid moving from top to bottom, after the titrated popping bead colloid enters the cooling tank 12, it will collide and contact with the cooling liquid moving from bottom to top to exchange heat, so that the cooling and forming speed of the titrated popping bead is faster;

[0067] Second, the coolant moves from bottom to top, which will counteract the titrated burst beads, slowing down the falling speed of the burst beads, making them stay longer in the coolant and improving their cooling degree.

[0068] In the initial state, the guide frame 13 is in a slightly inclined state (inclined upward), so that when the coolant enters the cooling tank 12 from the liquid inlet 1201, it can impact on the guide frame 13, and under the guidance of the guide 13, the coolant can tend to move obliquely upward in the cooling tank 12, thereby reducing the turbulence in the cooling tank 12 and preventing the turbulence from causing the bursting beads to hit the side wall of the cooling tank 12 and cause rupture.

[0069] Furthermore, the coolant enters the cooling tank 12 from two symmetrical liquid inlets 1201, and at the same time moves obliquely upward under the guidance of two sets of guide frames 13, that is, there are two "eight"-shaped coolant flows, which converge in the middle position of the cooling tank 12, further reducing the generation of turbulence.

[0070] When producing beads of different masses, due to the different masses of the beads, the falling speed of the beads after titration is also different. At this time, the beads with larger mass fall faster, and under the same density, the beads with larger mass tend to have a larger radius. At this time, due to their accelerated falling speed, their interior often cannot be cooled, which affects their cooling and molding. In the embodiment, when producing beads with larger mass, the guide frame 13 will be further deflected to increase the degree of upward movement of the coolant, thereby increasing the speed of the coolant in the vertical direction, and impacting the beads under this mass condition to reduce the falling speed of the beads, and by increasing the residence time of the beads in the coolant, ensure that the beads with larger mass and larger diameter can be fully cooled to ensure the molding effect.

[0071] Through the above arrangement, when titrating bursting beads of different masses, by changing the inclination of the guide frame 13, the vertical movement speed of the coolant in the cooling tube 12 can be changed, and a predetermined impact force can be given to the bursting beads when impacting the bursting beads, ensuring that bursting beads of different masses can obtain a better cooling effect.

[0072] See also Figure 6~Figure 8 The elastic trigger component is connected to the diameter-changing component and the guide component. When the diameter-changing component is actuated to increase the diameter of the dripping colloid, the elastic trigger component can drive the guide component to actuate, thereby increasing the inclination of the flow direction of the coolant after it enters the cooling tank 12;

[0073] The elastic trigger assembly includes a connecting plate 17 connected to the lifting plate 15, the connecting plate 17 is slidably connected to a vertical shaft 18 connected to the stabilizing tube 20, a cylindrical spring 19 is sleeved on the vertical shaft 18, one end of the cylindrical spring 19 is connected to the end of the vertical shaft 18, and the other end is connected to the connecting plate 17;

[0074] The elastic trigger assembly further includes a convex shaft 1501 connected to the lifting plate 15 and a follower 21 detachably connected to the adjusting disk 10, a driving portion 22 is formed on the follower 21, the driving portion 22 is adapted to the convex shaft 1501, a plurality of stepped surfaces are arranged on the driving portion 22, and a positioning groove surface 2203 is formed between two adjacent stepped surfaces, and the height of the positioning groove surface 2203 increases or decreases gradually;

[0075] The step surface includes a first inclined surface 2201 and a second inclined surface 2202 .

[0076] When adjusting the aperture of the dripper 11, it is necessary to rotate the adjusting disk 10. At this time, the follower 21 connected to the adjusting disk 10 will rotate accordingly so that the step surface can make a circular motion. When the step surface makes a circular motion, the convex shaft 1501 will move along the No. 1 inclined surface 2201 and the No. 2 inclined surface 2202. In detail, in the initial state, the cylindrical spring 19 is in a compressed state. When the step surface rotates, the convex shaft 1501 will first move along the No. 1 inclined surface 2201. At this time, the lifting plate 15 will move upward under the cooperation of the No. 1 inclined surface 2201 and the convex shaft 1501, and pull the guide frame 13 upward through the traction rod 14, while further compressing the cylindrical spring 19, and when the convex shaft 1501 moves to the No. 1 inclined surface After the protrusion is formed between the inclined surface 2201 and the second inclined surface 2202, the cylindrical spring 19 will release its elastic potential energy and, under the action of the convex shaft 1501 and the second inclined surface 2202, actively drive the follower 21 to rotate, and at the same time the lifting rod 15 moves downward. At this time, the convex shaft 1501 will stop moving when it moves to the positioning groove surface 2203. In this state, the dripper 11 with an aperture adjacent to the original aperture dripper 11 will switch to be coaxial with the discharge port 901, and have a certain positioning effect, avoiding the misalignment between the adjusted dripper 11 and the discharge port 901. At the same time, since the height of the positioning groove surface 2203 gradually increases or decreases, the inclination of the guide frame 13 will also change accordingly in this state.

[0077] Specifically, when the dripper 11 with a larger diameter is overlapped with the discharge port 901, the convex shaft 1501 is adapted to the positioning groove surface 2203 with the highest height. At this time, the mass of the dripped beads is the largest, and the inclination of the guide frame 13 is the largest, which enables the coolant to have a greater vertical speed when entering the cooling tank 12, so that the larger mass beads can remain in the coolant longer.

[0078] Through the above-mentioned arrangement, the mass of the bursting beads after titration is linked to the inclination degree of the guide frame 13, so as to ensure that when titrating bursting beads of larger mass, the coolant can have a greater vertical speed when entering the cooling tank 12, so as to slow down its falling speed when colliding with the bursting beads, thereby increasing its retention time in the coolant, ensuring the cooling and molding effect while reducing the difficulty of operating the device.

[0079] See also Figure 1~Figure 4 The automatic titration forming machine for explosive bead colloid also includes: a liquid storage tank 3, a driving motor 2, a deflection plate 501 and a buoyancy locking component.

[0080] The liquid storage tank 3 is arranged on the housing 1 and is connected to the connector 8;

[0081] The driving motor 2 is arranged above the liquid storage tank 3, and the output shaft of the driving motor 2 passes through the liquid storage tank 3 and is connected to the transmission shaft 4;

[0082] The deflection plates 501 are arranged in multiple groups along the vertical direction of the space and are connected to the transmission shaft 4;

[0083] The buoyancy locking assembly is connected to the transmission shaft 4 and the deflection plate 501. The buoyancy locking assembly can adjust the number of the deflection plates 501 that rotate with the transmission shaft 4 according to the height of the colloid in the liquid storage tank 3.

[0084] The buoyancy lock assembly comprises a plurality of annular grooves 401 formed on the transmission shaft 4, a collar 5 is slidably sleeved in the annular groove 401, the collar 5 is connected to the deflection plate 501, and a floating ball 502 is arranged at one end of the deflection plate 501 away from the collar 5;

[0085] A locking ring 7 is also provided on the collar 5 , and a locking block 6 provided on the transmission shaft 4 is adapted to the locking ring 7 .

[0086] In the whole production process of popping beads, quality control of raw materials is also very important. In the prior art, the raw materials for popping beads need to be stirred by a stirring device first, and then poured into a colloid supply device, and then transported to the liquid storage tank 3 by the colloid supply device. At this time, the stirred raw materials for popping beads are also left to stand for a certain period of time in the colloid supply device, and precipitation may occur at this time. For this phenomenon, considering that the raw materials enter the liquid storage tank 3 and the titration process, they can flow relatively and be automatically stirred and mixed, but this mixing method is not effective, which makes the components in the raw materials uneven and affects the quality of the popping beads.

[0087] In the present embodiment, when the driving motor 2 is working, it can drive the transmission shaft 4 to rotate, and make the deflection plate 501 to make a circular motion. On the one hand, it can mix the raw materials in the liquid storage tank 3 to make the components in the raw materials more uniform. On the other hand, the circular motion of the deflection plate 501 can exert a certain downward pressure on the raw materials, and the titration of the raw materials can be smoother.

[0088] It should be noted that when the height of the colloid temporarily stored in the liquid storage tank 3 changes, the float in the colloid will move upward due to the existence of buoyancy, thereby driving the ring 5 to move upward, and when the locking block 6 is inserted into the locking ring 7, the ring 5 can rotate accordingly, that is, the deflection plate 501 below the colloid can make a circular motion, and when the deflection plate 501 makes a circular motion, the downward pressure applied to the colloid will act in the opposite direction on the deflection plate 501, so that the ring 5 has a tendency to move upward, thereby enabling the locking block 6 to maintain a closer plug-in relationship with the locking ring 7.

[0089] The floating ball above the colloid is subjected to buoyancy. At this time, the locking block 6 and the locking ring 7 are in a separated state, and the collar 5 can rotate relative to the transmission shaft 4, thereby effectively reducing the output load of the driving motor 4.

[0090] Through the above arrangement, on the one hand, when the deflection plate 5 rotates, the raw materials can be stirred for the second time, thereby improving the uniformity between the components in the raw materials and ensuring the quality of the popping beads. On the other hand, the deflection plate 5 above the colloid is in a state of relative rotation with the transmission shaft 4, which can reduce the load of the drive motor 2.

[0091] A method for performing bursting bead colloid titration molding using the bursting bead colloid automatic titration molding machine comprises the following steps:

[0092] Step 1: Pipeline connection, including connection between the colloid supply device and the liquid storage tank 3 and connection between the coolant circulation device and the liquid inlet 1201;

[0093] Step 2: Adjust the temperature, and adjust the heating temperature of the colloid through the control panel;

[0094] Step 3: Adjust the diameter of the colloid drop, by rotating the adjustment disk 10, so that the dripper 11 of the corresponding diameter is aligned with the discharge port 901, and when the adjustment disk 10 is rotated, the elastic trigger component will drive the guide component to move, thereby changing the inclination of the flow direction of the coolant after entering the cooling tank 12;

[0095] Step 4: Start titration and start the drive motor 2 to stir and pressurize the colloid in the liquid storage tank 3;

[0096] Step 5: After the titration is completed, the burst beads are removed for subsequent processing.

[0097] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

[0098] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. Automatic titration forming machine for explosive beads, characterized by: include: An outer shell (1), wherein a cooling tank (12) is arranged inside the outer shell (1); A diameter-changing component, arranged on the housing (1), the diameter-changing component being capable of adjusting the diameter of the colloid dripped into the cooling tank (12); Two groups of liquid inlets (1201) are provided and symmetrically mounted on the cooling tank (12), and the liquid inlets (1201) are used for cooling liquid to enter the cooling tank (12); A guide component is arranged in the cooling tank (12), and the guide component can make the coolant flow obliquely upward after entering the cooling tank (12); An elastic trigger component is connected to the diameter-changing component and the guide component, and when the diameter-changing component is actuated to increase the diameter of the dripping colloid, the elastic trigger component can drive the guide component to actuate, thereby increasing the inclination of the flow direction of the coolant after it enters the cooling tank (12); A connector (8) is installed in the housing (1); The reducer assembly comprises a connection seat (9) detachably connected to the connection head (8), an adjustment disk (10) being sealingly rotatably mounted on the connection seat (9), the adjustment disk (10) being connected to the elastic trigger assembly, and a plurality of groups of dripper groups being arranged on the adjustment disk (10), and discharge ports (901) equidistantly arranged on the connection seat (9) being adapted to the dripper groups; The dripper group comprises a plurality of drippers (11) distributed equidistantly around a circle, and the radii of the plurality of drippers (11) gradually increase or decrease; The guide assembly comprises a guide frame (13) rotatably mounted in the cooling tank (12), a traction rod (14) rotatably mounted on the guide frame (13), an end of the traction rod (14) away from the guide frame (13) being connected to a lifting plate (15), and the lifting plate (15) being slidably connected to a guide member (16) disposed in the cooling tank (12).

2. The automatic titration forming machine for explosive beads according to claim 1, characterized in that: A plurality of stabilizing tubes (20) coaxial with the discharge port (901) are arranged in the cooling tank (12); The elastic trigger assembly comprises a connecting plate (17) connected to the lifting plate (15), the connecting plate (17) being slidably connected to a vertical shaft (18) connected to the stabilizing tube (20), a columnar spring (19) being sleeved on the vertical shaft (18), one end of the columnar spring (19) being connected to an end of the vertical shaft (18), and the other end being connected to the connecting plate (17); The elastic trigger assembly further comprises a convex shaft (1501) connected to the lifting plate (15) and a follower (21) detachably connected to the adjustment disk (10), wherein a driving portion (22) is formed on the follower (21), and the driving portion (22) is adapted to fit the convex shaft (1501).

3. The automatic titration forming machine for explosive beads according to claim 2, characterized in that: The driving portion (22) is provided with a plurality of groups of stepped surfaces, and a positioning groove surface (2203) is formed between two adjacent stepped surfaces, and the height of the positioning groove surface (2203) increases or decreases gradually; The step surface comprises a first inclined surface (2201) and a second inclined surface (2202).

4. The automatic titration forming machine for explosive beads colloid according to claim 1, characterized in that: Also includes: A liquid storage tank (3), arranged on the housing (1) and connected to the connector (8); A drive motor (2) is arranged above the liquid storage tank (3), wherein an output shaft of the drive motor (2) passes through the liquid storage tank (3) and is connected to a transmission shaft (4); The deflection plates (501) are arranged in multiple groups along the vertical direction of the space and are connected to the transmission shaft (4); A buoyancy locking component is connected to the transmission shaft (4) and the deflection plate (501), and the buoyancy locking component can adjust the number of the deflection plates (501) that follow the rotation when the transmission shaft (4) rotates according to the height of the colloid in the liquid storage tank (3).

5. The automatic titration forming machine for explosive beads colloid according to claim 4, characterized in that: The buoyancy locking assembly comprises a plurality of annular grooves (401) formed on the transmission shaft (4), a collar (5) being slidably sleeved in the annular groove (401), the collar (5) being connected to the deflection plate (501), and a floating ball (502) being arranged at one end of the deflection plate (501) away from the collar (5); A locking ring (7) is also provided on the collar (5), and a locking block (6) provided on the transmission shaft (4) is adapted to fit the locking ring (7).

6. A method for performing explosive bead colloid titration molding using the explosive bead colloid automatic titration molding machine as described in any one of claims 1 to 5, characterized in that: The following steps are involved: Step 1: Pipeline connection, including connection between the colloid supply device and the liquid storage tank (3) and connection between the coolant circulation device and the liquid inlet (1201); Step 2: Adjust the temperature, and adjust the heating temperature of the colloid through the control panel; Step 3: adjusting the diameter of the colloid droplets by rotating the adjusting disk (10) so that the dripper (11) of the corresponding diameter is aligned with the discharge port (901), and when the adjusting disk (10) is rotated, the elastic trigger component will drive the guide component to move, thereby changing the inclination of the flow direction of the coolant after entering the cooling tank (12); Step 4: Start titration and start the drive motor (2) to stir and pressurize the colloid in the liquid storage tank (3); Step 5: After the titration is completed, the burst beads are removed for subsequent processing.

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