A probiotic microcapsule embedding device

Abstract

The present invention discloses a probiotic microcapsule embedding device, which relates to the field of mixing technology, including a cylinder and a stirring assembly, wherein the cylinder is arranged horizontally, and the cylinder can rotate circumferentially around its central axis, a mixing chamber is formed in the cylinder, and a plane passing through the central axis of the cylinder is used as a setting plane, the mixing chamber includes a transition chamber located at one end of the cylinder, and a sliding chamber symmetrically arranged on both sides of the setting plane, wherein the sliding chamber extends obliquely toward the central axis from one end of the cylinder away from the transition chamber and is connected to the transition chamber; the stirring assembly includes a rotating shaft arranged in the center of the sliding chamber and rotating along the axial direction of the sliding chamber, stirring blades are evenly arranged on the rotating shaft located in the sliding chamber, and the rotating shaft passes through the cylinder at one end away from the transition chamber and is connected to a driving source, and a feeding pipe is arranged on the side of the transition chamber away from the sliding chamber. The present invention further improves the stirring and mixing effect of probiotic seeds and sodium alginate micro-embedded wall materials under the same stirring time, so that the microcapsule embedding probiotics has a better effect and a higher rate.

Description

Technical Field

[0001] The invention relates to the technical field of mixing, in particular to the mixing of probiotic seeds and sodium alginate micro-embedding wall materials, in particular to a probiotic microcapsule embedding device. Background Art

[0002] In the production process of microcapsule-embedded probiotics, when the probiotics are embedded, the prior art usually adds a cover plate, a motor, a mounting shaft and multiple stirring rods, the cover plate is adapted to the cylinder, the motor is mounted on the cover plate, the output end of the motor passes through the cover plate and is fixedly connected to the mounting shaft, and the multiple stirring rods are fixedly connected to the mounting shaft. When embedding is required, the fermented probiotic seeds and sodium alginate as micro-embedded wall materials are poured into the cylinder, the motor is turned on, and the output end of the motor drives the multiple stirring rods through the mounting shaft to stir and mix the probiotic seeds and the sodium alginate micro-embedded wall materials, thereby embedding. However, in the above method, the stirring and mixing effect of the probiotic seeds and the sodium alginate micro-embedded wall materials is not good.

[0003] Patent CN116272545A disclosed a probiotic microcapsule embedding device, which includes a cylinder, a cover plate, a rotating motor and a stirring rod, wherein the cover plate is rotatably connected to the cylinder, the rotating motor is mounted on the cover plate, and the stirring rod is fixedly connected to the rotating output end of the rotating motor. The device is characterized in that it also includes a rotating device; the rotating device includes a bottom plate, a fixed seat, a fixed ring and a rotating drive assembly, the bottom plate is mounted on the lower end of the cylinder, the fixed seat is fixedly connected to the bottom plate and is located at the top of the bottom plate, the fixed ring is fixedly connected to the fixed seat and is located at the upper end of the fixed seat, and the rotating drive assembly is connected to the cylinder and drives the cylinder to rotate.

[0004] This patent drives the cylinder to rotate relative to the fixed ring through the rotating drive assembly, the support rod and the mounting plate fix the cover plate and the rotating motor, and the rotating motor drives the stirring rod to rotate. The stirring rod and the cylinder have different rotation frequencies and opposite rotation directions, so that the comprehensive carbonate and bicarbonate are more fully stirred and mixed with the probiotic seeds, so that the microcapsule encapsulation of probiotics is better and the rate is higher. Although the above patent can improve the stirring effect compared with the prior art, its stirring and the stirring in the prior art only act on the same part of the material in the radial direction of the cylinder, and the material in the axial direction of the cylinder cannot be mixed quickly, which leads to inconsistent mixing degree of the materials in the axial direction of the cylinder. Although it can also be solved by increasing the stirring time, it will affect the overall mixing efficiency. Summary of the invention

[0005] The purpose of the present invention is to provide a probiotic microcapsule embedding device to solve the problems raised in the above background technology.

[0006] In order to achieve the above-mentioned invention object, the present invention adopts the following technical scheme:

[0007] A probiotic microcapsule embedding device provided by the present invention comprises a barrel and a stirring assembly, wherein the barrel is horizontally arranged and can rotate circumferentially around its central axis, a mixing chamber is formed in the barrel, and a plane passing through the central axis of the barrel is used as a setting plane, the mixing chamber comprises a transition chamber located at one end of the barrel, and sliding chambers symmetrically arranged on both sides of the setting plane, the sliding chamber extending obliquely toward the central axis from the end of the barrel away from the transition chamber and communicating with the transition chamber; the stirring assembly comprises a rotating shaft arranged in the center of the sliding chamber and rotating along the axial direction of the sliding chamber, stirring blades are evenly arranged on the rotating shaft located in the sliding chamber, and the rotating shaft at the end away from the transition chamber passes through the barrel and is connected to a driving source, a feeding pipe is arranged on the side of the transition chamber away from the sliding chamber, the feeding pipe comprises a horizontal section horizontally passing through the transition chamber from the center of the barrel, and a discharge pipe communicating with the corresponding sliding chamber is arranged on the barrel at one end of the sliding chamber away from the transition chamber, and a valve is arranged on the discharge pipe.

[0008] Furthermore, the probiotic microcapsule embedding device also includes a bracket and a driving device for driving the cylinder to rotate circumferentially; the cylinder is rotatably assembled on the bracket, and a first positioning shaft and a second positioning shaft are respectively arranged at the center positions of both ends of the cylinder, and the first positioning shaft and the second positioning shaft are both rotatably connected to the bracket, and an axial channel for the horizontal section to pass through is arranged inside the first positioning shaft, and the driving device includes a driving motor fixedly assembled on the bracket, and the output end of the driving motor is fixedly connected to the second positioning shaft.

[0009] Furthermore, the feed pipe is L-shaped, and also includes a vertical section connected to the horizontal section away from the side of the cylinder, and a positioning plate is provided on the vertical section, and the positioning plate is detachably mounted on the bracket.

[0010] Furthermore, the cylinder comprises a truncated cone-shaped enclosure, and a left end plate and a right end plate detachably connected to both ends of the enclosure; a dividing plate member extending in the axial direction thereof is arranged at the center position of the cylinder, the length of the dividing plate member is less than the height of the cylinder, and one end of the dividing plate member is fixedly connected to the right end plate, the two side edges of the dividing plate member in the width direction are adapted to and closely attached to the inner wall of the enclosure, the two side surfaces of the dividing plate member in the thickness direction are symmetrical about the set plane, and the thickness of the dividing plate member decreases continuously from the right end plate to the left end plate;

[0011] The two side surfaces in the thickness direction of the dividing plate component are first sliding surfaces, the inner wall of the enclosure opposite to the first sliding surface is a second sliding surface, the first sliding surface and the corresponding second sliding surface together form a sliding chamber, and the end of the enclosure close to the left end plate forms a transition chamber.

[0012] Furthermore, the stirring blades on the rotating shaft have two groups, namely a first group of stirring blades and a second group of stirring blades. The first group of stirring blades and the second group of stirring blades are respectively arranged on both sides of the rotating shaft. The first group of stirring blades includes a number of first stirring blade monomers equidistantly distributed along the axial direction of the rotating shaft, and a number of first stirring blade monomers are inclined. The second group of stirring blades includes a number of second stirring blade monomers equidistantly distributed along the axial direction of the rotating shaft, and a number of second stirring blade monomers are inclined, and the first stirring blade monomers and the corresponding second stirring blade monomers cross each other.

[0013] Furthermore, the first sliding surface is symmetrical to the second sliding surface, so that the sliding chamber has a cavity with a decreasing distance from the middle to both sides.

[0014] Furthermore, a first bearing seat adapted to the end of the rotating shaft is provided on the left end plate, and a second bearing seat adapted to the rotating shaft is provided on the right end plate. The driving source includes a helical gear assembled on the rotating shaft away from the first bearing seat, and a helical gear ring fixed on the bracket and meshing with the two helical gears.

[0015] Furthermore, an observation window is provided on the enclosure corresponding to the sliding chamber.

[0016] Furthermore, the interior of the partition plate component is hollow to form a cavity.

[0017] Compared with the prior art, one or more of the above technical solutions have the following beneficial effects:

[0018] The present invention further improves the stirring and mixing effect of the probiotic seeds and the sodium alginate micro-embedding wall material under the same stirring time, so that the microcapsule embedding probiotics has a better effect and a higher rate.

[0019] It is to be understood that the foregoing general description and the following detailed description are exemplary and explanatory only and are not restrictive of the invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] The accompanying drawings in the specification, which constitute a part of the present invention, are used to provide a further understanding of the present invention. The exemplary embodiments of the present invention and their descriptions are used to explain the present invention and do not constitute improper limitations on the present invention.

[0021] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0022] Figure 2 It is a schematic diagram of the top view of the structure of the present invention;

[0023] Figure 3 yes Figure 2 AA structural diagram;

[0024] Figure 4 It is a schematic diagram of the internal structure of the mixing chamber after the enclosure of the present invention is half-cut;

[0025] Figure 5 It is a schematic diagram of the rotating shaft structure of the present invention;

[0026] Figure 6 It is a schematic diagram of the split structure of the present invention;

[0027] Figure 7 It is a simplified schematic diagram of the first state of material movement in the mixing chamber of the present invention;

[0028] Figure 8 It is a simplified schematic diagram of the second state of material movement in the mixing chamber of the present invention.

[0029] In the figure:

[0030] 100, cylinder; 110, enclosure; 120, left end plate; 130, right end plate; 140, first positioning shaft; 141, axial channel; 150, second positioning shaft;

[0031] 200, mixing chamber; 210, transition chamber; 220, sliding chamber; 221, sliding chamber A; 222, sliding chamber B;

[0032] 300, rotating shaft; 310, first group of stirring blades; 311, first stirring blade monomer; 320, second group of stirring blades; 321, second stirring blade monomer;

[0033] 400, feed pipe; 410, horizontal section; 420, vertical section;

[0034] 500, discharge pipe; 510, valve;

[0035] 600, support; 700, driving device;

[0036] 800, a partition plate member; 810, a first sliding surface; 820, a second sliding surface; 830, a cavity;

[0037] 910, helical gear; 920, helical gear ring. DETAILED DESCRIPTION

[0038] In order to enable those skilled in the art to better understand the solution of the present application, the technical solution in the embodiments of the present application will be clearly and completely described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, not all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without creative work should fall within the scope of protection of the present application.

[0039] See also Figure 1-Figure 8 As shown, the present invention provides a probiotic microcapsule embedding device, including a barrel 100 and a stirring assembly, wherein the barrel 100 is horizontally arranged and can rotate circumferentially around its axis, and a mixing chamber 200 is formed in the barrel 100, and the stirring assembly is used to stir the materials (comprehensive carbonate and bicarbonate and probiotic seeds) in the mixing chamber 200 to mix the materials evenly. When in use, after the comprehensive carbonate and bicarbonate and the probiotic seeds are placed in the mixing chamber, the barrel 100 is rotated and the stirring assembly is operated at the same time. In this process, the rotation frequency of the stirring assembly and the barrel 100, as well as the rotation direction of the stirring assembly and the barrel 100 can be adjusted to make the two have different rotation frequencies and opposite rotation directions, so that the comprehensive carbonate and bicarbonate and the probiotic seeds are fully stirred and mixed. The above-mentioned stirring and mixing method is a prior art, which is achieved by placing the cylinder 100 horizontally so that the comprehensive carbonate and bicarbonate and the probiotic seeds are at the bottom of the cylinder 100. When the cylinder 100 rotates, the comprehensive carbonate and bicarbonate and the probiotic seeds inside are constantly turned over in the cylinder 100, and then the comprehensive carbonate and bicarbonate are stirred and mixed with the probiotic seeds by stirring the stirring component, so as to improve the stirring and mixing effect of the probiotic seeds and the sodium alginate micro-embedded wall material.

[0040] In the above stirring and mixing process, the turning of the materials (combined carbonates and bicarbonates and probiotic seeds) and the stirring of the materials by the stirring assembly only act on the same part of the materials in the radial direction of the cylinder 100, and the materials in the axial direction of the cylinder 100 cannot be mixed quickly, resulting in inconsistent mixing degrees of the materials in the axial direction of the cylinder 100, affecting the stirring and mixing effect of the probiotic seeds and the sodium alginate micro-encapsulation wall material. Although this problem can be solved by increasing the stirring time, this will affect the overall mixing efficiency.

[0041] To this end, the technical solution further improves the stirring and mixing effect of the probiotic seeds and the sodium alginate micro-encapsulation wall material under the same stirring time by designing the structure of the mixing chamber 200, so that the microcapsule encapsulation of probiotics is better and faster.

[0042] Specifically, Figure 1-Figure 3As shown, the plane passing through the central axis of the cylinder 100 is the setting plane L. As shown in the figure, the setting plane L is a horizontal plane passing through the central axis of the cylinder 100. The mixing chamber 200 includes a transition chamber 210 located at one end of the cylinder 100, and a sliding chamber 220 symmetrically arranged on both sides of the setting plane L. The sliding chamber 220 extends obliquely toward the central axis from the end of the cylinder 100 away from the transition chamber 210 and communicates with the transition chamber 210; the stirring assembly includes a rotating shaft 300 arranged at the center of the sliding chamber 220 and rotating along the axial direction of the sliding chamber 220, and a sliding chamber 220 located at the sliding chamber 220. Agitating blades are evenly arranged on the rotating shaft 300 in 220, and the rotating shaft 300 passes through the cylinder 100 at one end away from the transition chamber 210 and is connected to a driving source. A feed pipe 400 is arranged on the side of the transition chamber 210 away from the sliding chamber 220. The feed pipe 400 includes a horizontal section 410 that horizontally passes through the transition chamber 210 from the center of the cylinder 100. A discharge pipe 500 that is connected to the corresponding sliding chamber 220 is arranged on the cylinder 100 at one end of the sliding chamber 220 away from the transition chamber 210, and a valve 510 is arranged on the discharge pipe 500.

[0043] Before use, materials (combined carbonate and bicarbonate and probiotic seeds) can be added into the mixing chamber 200 through the feeding pipe 400. After the materials are added, the barrel 100 can be rotated slowly and the driving source can be started synchronously. During the slow rotation of the barrel 100, the two sliding chambers 220 will make a circular motion around the central axis of the barrel 100. In order to facilitate understanding and explanation of the material state of the two sliding chambers 220 during the circular motion around the central axis of the barrel 100, the two sliding chambers 220 are respectively referred to as sliding chamber A221 and sliding chamber B222. Figure 6 As shown, the sliding chamber A221 is located in the lower half of the cylinder 100, and the sliding chamber B222 is located in the upper half of the cylinder 100. At this time, the height of the sliding chamber A221 close to one end of the transition chamber 210 is greater than the height of the other end, and the height of the sliding chamber B222 close to one end of the transition chamber 210 is less than the height of the other end. When the material is added into the mixing chamber 200, it will first enter the transition chamber 210. Under the action of gravity, the material will move in the sliding chamber A221 toward the end away from the transition chamber 210. Since the cylinder 100 is constantly rotating slowly, when the sliding chamber A221 rotates to the upper half of the cylinder 100, as shown in FIG. Figure 7As shown, the sliding chamber B222 rotates to the lower half of the barrel 100 accordingly. At this time, the height of the sliding chamber A221 close to one end of the transition chamber 210 is less than the height of the other end, and the height of the sliding chamber B222 close to one end of the transition chamber 210 is greater than the height of the other end. Therefore, the material in the sliding chamber A221 away from the transition chamber 210 will move toward the end of the transition chamber 210 under the action of gravity and fall into the transition chamber 210 and then enter the sliding chamber B222. The material entering the sliding chamber B222 moves toward the end away from the transition chamber 210 under the action of gravity, and so on and so forth, so that the various parts of the material in the axial direction of the mixing chamber 200 are constantly moving axially for mixing, and in this process, the driving source can synchronously drive the rotating shaft 300 to rotate and then stir the axially moving material through the stirring blade, so as to further improve the stirring and mixing effect of the probiotic seeds and the sodium alginate micro-encapsulated wall material under the same stirring time.

[0044] It is worth mentioning that the present technical solution can not only enable the various parts of the materials in the axial direction in the mixing chamber 200 to continuously move axially for mixing, but also can reduce the height of material accumulation when mixing the same amount of materials, so as to reduce the resistance of the stirring component during the rotation process, that is, the present technical solution divides the mixing chamber 200 into two chambers, both of which are loaded with materials, while in the prior art, the materials will accumulate at the bottom of the material mixing chamber 200, and the stirring component will have greater resistance during the rotation process.

[0045] like Figure 1 As shown, in this embodiment, the probiotic microcapsule embedding device also includes a bracket 600 and a driving device 700 for driving the cylinder 100 to rotate circumferentially; the cylinder 100 is rotatably mounted on the bracket 600, and a first positioning shaft 140 and a second positioning shaft 150 are respectively arranged at the center positions of both ends of the cylinder 100, and the first positioning shaft 140 and the second positioning shaft 150 are both rotatably connected to the bracket 600, and the interior of the first positioning shaft 140 is provided with an axial channel 141 for the horizontal section 410 to pass through, and the driving device 700 includes a driving motor fixedly mounted on the bracket 600, and the output end of the driving motor is fixedly connected to the second positioning shaft 150. The cylinder 100 is supported by the first positioning shaft 140 and the second positioning shaft 150 and is mounted on the bracket 600 and can rotate around its central axis on the bracket 600, and the driving motor provides power output for the rotation of the cylinder 100, that is, the driving motor drives the rotation of the second positioning shaft 150, thereby rotating the cylinder 100.

[0046] like Figure 3As shown, in this embodiment, the feed pipe 400 is L-shaped, and the feed pipe 400 also includes a vertical section 420 connected to the side of the horizontal section 410 away from the cylinder 100, and a positioning plate is provided on the vertical section 420, and the positioning plate is detachably mounted on the bracket 600. The feed pipe 400 can remain stationary and not rotate with the cylinder 100 without affecting the rotation and airtightness of the cylinder 100, which can facilitate the staff to add or supplement materials into the cylinder 100 through the feed pipe 400.

[0047] In order to simplify the difficulty of forming the mixing cavity 200, Figure 1-Figure 7 As shown, in this specific embodiment, the mixing chamber 200 is formed by the cylinder 100 and the partition plate member 800. Specifically, the cylinder 100 includes a truncated cone-shaped enclosure 110, and a left end plate 120 and a right end plate 130 detachably connected to the two ends of the enclosure 110; a partition plate member 800 extending in the axial direction is provided at the center of the cylinder 100, the length of the partition plate member 800 is less than the height of the cylinder 100, and one end of the partition plate member 800 is fixedly connected to the right end plate 130, and the two sides of the partition plate member 800 in the width direction are connected to the enclosure 110. 0 is adapted to and tightly attached to the inner wall of the enclosure 110, and the two side surfaces in the thickness direction of the dividing plate component 800 are symmetrical about the set plane L, and the thickness of the dividing plate component 800 decreases continuously from the right end plate 130 to the left end plate 120; the two side surfaces in the thickness direction of the dividing plate component 800 are first sliding surfaces 810, and the inner wall of the enclosure 110 opposite to the first sliding surface 810 is a second sliding surface 820, and the first sliding surface 810 and the corresponding second sliding surface 820 together form a sliding chamber 220, and the end of the enclosure 110 close to the left end plate 120 forms a transition chamber 210. Based on the above design, in the actual production process, it is only necessary to produce a truncated cone-shaped enclosure 110, a left end plate 120 and a right end plate 130 matching the enclosure 110, and a partition plate member 800 adapted to the enclosure 110, and then weld the partition plate member 800 to the right end plate 130. In the assembly process, the left end plate 120 and the right end plate 130 are respectively fixed to the two ends of the enclosure 110 by bolts, wherein when the right end plate 130 is fixed, the partition plate member 800 can be inserted from one end of the enclosure 110 into the inner side of the enclosure 110, and the mixing chamber 200 described above can be formed in the cylinder 100. And because the mixing chamber 200 is formed by the enclosure 110, the left end plate 120, the right end plate 130 and the partition plate member 800, this design can also facilitate the subsequent maintenance and cleaning of the mixing chamber 200 by the staff.

[0048] Furthermore, the interior of the partition plate member 800 is hollow to form a cavity 830. This design can reduce the overall gravity of the cylinder 100, thereby reducing the operating load of the driving device 700, and the interior of the partition plate member 800 is hollow to form a cavity 830, which can be loaded with some auxiliary devices that are beneficial to improving the stirring effect, for example, a vibration motor can be loaded in the cavity 830 to increase the speed of the material moving in the sliding chamber 220, or a temperature control device (temperature sensor, cooling pipe) can be installed in the cavity 830 to control the temperature during the stirring process; or the cavity 830 can be used as a storage cavity for coolant and circulating coolant can be injected into the cavity 830 to control the temperature during the stirring process.

[0049] In order to further improve the stirring and mixing effect of the probiotic seeds and the sodium alginate micro-embedded wall material, in this specific embodiment, Figure 4-Figure 6 As shown, the stirring blades on the rotating shaft 300 have two groups, namely a first group of stirring blades 310 and a second group of stirring blades 320. The first group of stirring blades 310 and the second group of stirring blades 320 are respectively arranged on both sides of the rotating shaft 300. The first group of stirring blades 310 includes a plurality of first stirring blade monomers 311 equidistantly distributed along the axial direction of the rotating shaft 300, and the plurality of first stirring blade monomers 311 are tilted. The second group of stirring blades 320 includes a plurality of second stirring blade monomers 321 equidistantly distributed along the axial direction of the rotating shaft 300, and the plurality of second stirring blade monomers 321 are tilted, and the first stirring blade monomers 311 and the corresponding second stirring blade monomers 321 are intersected with each other. Based on the above design, guiding gaps with opposite inclination directions are formed between adjacent stirring blades in the first group of stirring blades 310 and the second group of stirring blades 320, so that during the rotation of the rotating shaft 300, the materials are guided in different directions, and the materials in the axial direction of the sliding chamber 220 are mixed with each other to a certain extent, further improving the stirring and mixing effect of the probiotic seeds and the sodium alginate micro-encapsulation wall material.

[0050] Furthermore, the first sliding surface 810 is symmetrical to the second sliding surface 820, so that the sliding chamber 220 forms a chamber with a decreasing spacing from the middle to both sides. Based on the above design, the sliding chamber 220 forms a chamber similar to an elliptical structure, so that the length of the stirring blade can be increased as much as possible, the contact area between the stirring blade and the logistics is increased, and the stirring range of the material is improved.

[0051] Considering that the rotating shaft 300 and the cylinder 100 are eccentrically arranged, if the driving source is a motor in the conventional technology, the power connection of the motor needs to be realized by means of an electric slip ring during the rotation of the cylinder 100, which increases the production cost and is not conducive to subsequent maintenance. Figure 3 and Figure 6As shown, in this specific embodiment, the left end plate 120 is provided with a first bearing seat adapted to the end of the rotating shaft 300, the right end plate 130 is provided with a second bearing seat adapted to the rotating shaft 300, and the driving source includes a helical gear 910 assembled on the rotating shaft 300 away from the first bearing seat, and a helical gear ring 920 fixed on the bracket 600 and meshing with the two helical gears 910. Based on the above design, through the meshing relationship between the helical gear 910 on the rotating shaft 300 and the fixed helical gear ring 920, the rotating shaft 300 can automatically rotate during the rotation of the cylinder 100, which not only reduces the production cost, but also facilitates subsequent maintenance work.

[0052] In this specific embodiment, the enclosure 110 is provided with an observation window (not shown) at a position corresponding to the sliding chamber 220. Based on the above design, the state of the internal material can be checked through the observation window to adjust the rotation speed of the cylinder 100 adaptively.

[0053] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A probiotic microcapsule embedding device, comprising a cylinder and a stirring assembly, wherein the cylinder is arranged horizontally and can rotate circumferentially around its central axis, and a mixing chamber is formed in the cylinder, characterized in that: The plane passing through the center axis of the cylinder is taken as the setting plane, and the center axis of the cylinder is in the setting plane. The mixing chamber includes a transition chamber located at one end of the cylinder, and sliding chambers symmetrically arranged on both sides of the setting plane, and the sliding chamber extends obliquely toward the center axis from the end of the cylinder away from the transition chamber and is connected to the transition chamber; the stirring assembly includes a rotating shaft arranged in the center of the sliding chamber along the axial direction of the sliding chamber, stirring blades are evenly arranged on the rotating shaft located in the sliding chamber, and the end of the rotating shaft away from the transition chamber passes through the cylinder and is connected to a driving source, a feeding pipe is arranged on the side of the transition chamber away from the sliding chamber, and the feeding pipe includes a horizontal section horizontally penetrating from the center of the cylinder into the transition chamber, and a discharge pipe connected to the corresponding sliding chamber is arranged on the cylinder at one end of the sliding chamber away from the transition chamber, and a valve is arranged on the discharge pipe; The cylinder body comprises a truncated cone-shaped enclosure, and a left end plate and a right end plate detachably connected to both ends of the enclosure plate; a dividing plate member extending in the axial direction thereof is arranged at the center position of the cylinder body, the length of the dividing plate member is less than the height of the cylinder body, and one end of the dividing plate member is fixedly connected to the right end plate, the two side edges of the dividing plate member in the width direction are adapted to and closely attached to the inner wall of the enclosure plate, the two side surfaces of the dividing plate member in the thickness direction are symmetrical about the set plane, and the thickness of the dividing plate member decreases continuously from the right end plate to the left end plate; The two side surfaces in the thickness direction of the dividing plate component are first sliding surfaces, the inner wall of the enclosure opposite to the first sliding surface is a second sliding surface, the first sliding surface and the corresponding second sliding surface together form a sliding chamber, and the end of the enclosure close to the left end plate forms a transition chamber.

2. The probiotic microcapsule embedding device according to claim 1, characterized in that: The probiotic microcapsule embedding device also includes a bracket and a driving device for driving the cylinder to rotate circumferentially; the cylinder is rotatably assembled on the bracket, and a first positioning shaft and a second positioning shaft are respectively arranged at the center positions of both ends of the cylinder, and the first positioning shaft and the second positioning shaft are both rotatably connected to the bracket, and an axial channel for the horizontal section to pass through is arranged inside the first positioning shaft, and the driving device includes a driving motor fixedly assembled on the bracket, and the output end of the driving motor is fixedly connected to the second positioning shaft.

3. The probiotic microcapsule embedding device according to claim 1, characterized in that: The feed pipe is L-shaped and further comprises a vertical section connected to the horizontal section away from the side of the cylinder. A positioning plate is arranged on the vertical section and the positioning plate is detachably mounted on the bracket.

4. The probiotic microcapsule embedding device according to claim 1, characterized in that: The stirring blades on the rotating shaft have two groups, namely a first group of stirring blades and a second group of stirring blades. The first group of stirring blades and the second group of stirring blades are respectively arranged on both sides of the rotating shaft. The first group of stirring blades includes a plurality of first stirring blade monomers equidistantly distributed along the axial direction of the rotating shaft, and a plurality of first stirring blade monomers are inclinedly arranged. The second group of stirring blades includes a plurality of second stirring blade monomers equidistantly distributed along the axial direction of the rotating shaft, and a plurality of second stirring blade monomers are inclinedly arranged, and the first stirring blade monomers and the corresponding second stirring blade monomers cross each other.

5. The probiotic microcapsule embedding device according to claim 4, characterized in that: The first sliding surface is symmetrical to the second sliding surface, so that the sliding chamber has a cavity with a decreasing distance from the middle to the two sides.

6. The probiotic microcapsule embedding device according to claim 1, characterized in that: The left end plate is provided with a first bearing seat adapted to the end of the rotating shaft, and the right end plate is provided with a second bearing seat adapted to the rotating shaft. The driving source includes a helical gear assembled on the rotating shaft away from the first bearing seat, and a helical gear ring fixed on the bracket and meshing with the two helical gears.

7. The probiotic microcapsule embedding device according to claim 1, characterized in that: The enclosure is provided with an observation window at a position corresponding to the sliding chamber.

8. The probiotic microcapsule embedding device according to claim 1, characterized in that: The interior of the partition plate member is hollow to form a cavity.

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