Sterile high-pressure homogenizer

Abstract

The invention relates to a sterile high-pressure homogenizer, and relates to the technical field of homogenizers. The homogenizer comprises a homogenizer body, a first-stage homogenizing valve, a second-stage homogenizing valve and a discharging pipe, the first-stage homogenizing valve and the second-stage homogenizing valve are both arranged on the homogenizer body, a discharging port of the first-stage homogenizing valve is connected with a feeding port of the second-stage homogenizing valve through a connecting pipe, the discharging pipe is communicated with a discharging port of the second-stage homogenizing valve, an adjusting mechanism is arranged in the connecting pipe, and the adjusting mechanism is connected with the discharging port of the second-stage homogenizing valve. The adjusting mechanism comprises an adjusting assembly and two baffles, the adjusting assembly is arranged on the connecting pipe, the two baffles are located in the connecting pipe and symmetrically arranged with the radial direction of the connecting pipe as the axis, and the adjusting assembly is connected with the two baffles and used for driving the two baffles to rotate so as to control opening and closing of the two baffles. The device has the effect that the material flow speed can be controlled, so that the homogenization degree is adjusted.

Description

Technical Field

[0001] This application relates to the field of homogenizers, and more particularly to a sterile high-pressure homogenizer. Background Technology

[0002] High-pressure homogenizers, also known as "high-pressure fluid nano-homogenizers," allow materials in suspension to flow at high speed through a cavity with a special internal structure under ultra-high pressure, causing a series of changes in the material's physical, chemical, and structural properties, ultimately achieving a homogenization effect.

[0003] In operation, the material enters through the feed inlet and is pressurized to a higher pressure by a high-pressure pump (such as a plunger pump). This high-pressure fluid is then transported to the homogenizing valve. The homogenization pressure is adjusted by regulating the distance between the valve core and the valve seat of the homogenizing valve, thereby controlling the degree of material homogenization. When the material passes through the tiny gap between the valve core and the valve seat, pressure energy is instantly converted into kinetic energy, the flow velocity increases sharply, and a cavitation effect is generated. The high-speed jet exits the gap and impacts the impact ring in front, producing a crushing effect and forming uniform small particles.

[0004] Meanwhile, to control the temperature during the homogenization process, a cold circulation system with a temperature-controlled jacket is often used to keep the homogenizing valve operating at a low temperature. For materials that have undergone primary homogenization, a secondary homogenizing valve is used for further processing. The pressure setting of the secondary homogenizing valve is significantly lower than that of the primary valve. This is used to break up small particles that have re-aggregated due to surface charge after primary processing, resulting in a more uniform particle or droplet size distribution.

[0005] However, in the existing technology, after the material is homogenized by the primary homogenizing valve, it directly enters the secondary homogenizing valve for secondary homogenization. During this process, the degree of homogenization is fixed and cannot be adjusted. That is, it is impossible to make the size distribution of particles or droplets adapt to the uniformity required by different processes, so it needs to be improved. Summary of the Invention

[0006] To address the issue of the inability to adjust the degree of homogenization according to process requirements, this application provides a sterile high-pressure homogenizer.

[0007] The sterile high-pressure homogenizer provided in this application adopts the following technical solution: A sterile high-pressure homogenizer includes a homogenizer body, a primary homogenizing valve, a secondary homogenizing valve, and a discharge pipe. Both the primary and secondary homogenizing valves are mounted on the homogenizer body. The discharge port of the primary homogenizing valve is connected to the inlet of the secondary homogenizing valve via a connecting pipe. The discharge pipe communicates with the discharge port of the secondary homogenizing valve. An adjusting mechanism is provided within the connecting pipe. The adjusting mechanism includes an adjusting component and two baffles. The adjusting component is mounted on the connecting pipe, and the two baffles are located within the connecting pipe and are symmetrically arranged about the radial direction of the connecting pipe. The adjusting component is connected to the two baffles and is used to drive the two baffles to rotate, thereby controlling the opening and closing of the two baffles.

[0008] By adopting the above technical solution, when using the homogenizer, the material is fed into the homogenizer body. After passing through the first-stage homogenizing valve, the material is broken into uniform small particles. Then the material is discharged and enters the connecting pipe. Next, the material enters the second-stage homogenizing valve through the connecting pipe. The second-stage homogenizing valve is used to break up the aggregates. It further breaks up the small particles that have re-aggregated due to surface charge after being processed by the first-stage homogenizing valve, making the size distribution of particles or droplets more uniform. Finally, the material after homogenization by the second-stage homogenizing valve is discharged from the discharge pipe. In the whole process, the material undergoes homogenization twice, thereby improving the quality and effect of homogenization.

[0009] As the material flows through the connecting pipe towards the secondary homogenizing valve, the regulating component is activated, causing the two baffles to rotate simultaneously. This gradually expands the baffles, changing the area of ​​the connecting pipe they cover, thus narrowing the pipe's orifice. In other words, the effective flow path of the connecting pipe is narrowed, effectively making the connecting pipe thinner. With a fixed material flow rate at the inlet of the connecting pipe, the material flows faster from the connecting pipe to the secondary homogenizing valve after passing through the baffles. This results in a higher degree of pulverization upon impact with the secondary homogenizing valve. The pulverization effect can be adjusted according to process requirements, thus adapting to the homogenization needs of different materials and processes, making it more versatile.

[0010] Optionally, the adjusting assembly includes an adjusting cylinder and an adjusting frame. The adjusting cylinder is mounted on the connecting pipe, and the adjusting frame is slidably connected to the connecting pipe. The output end of the adjusting cylinder is connected to the adjusting frame and is used to drive the adjusting frame to move on the connecting pipe. The adjusting frame is connected to two baffles through the connecting assembly and is used to drive the two baffles to rotate when the adjusting frame moves.

[0011] By adopting the above technical solution, when the regulating cylinder is working, it can drive the regulating frame to move on the connecting pipe, so that the connecting component drives the two baffles to rotate simultaneously, realizing the opening or closing of the two baffles, thereby adjusting the orifice size of the connecting pipe, thereby changing the flow rate of the material into the secondary homogenizing valve, and thus adjusting the homogenization effect.

[0012] Optionally, the connecting assembly includes a connecting rod, a connecting block, a mounting sleeve, and a mounting block. The connecting rod is inserted into the connecting pipe and is arranged radially along the connecting pipe. One end of the connecting rod extends out of the connecting pipe and is inserted into the adjusting frame. The connecting block is fixed on the connecting rod. A connecting hole is provided on the inner wall of the adjusting frame, and the connecting block is inserted into the connecting hole. The mounting sleeve is coaxially sleeved on the connecting rod, and one end of the mounting sleeve extends out of the connecting pipe and is inserted into the adjusting frame. The mounting block is fixed on the mounting sleeve. A mounting hole is provided on the inner wall of the adjusting frame. The connecting hole and the mounting hole are arranged opposite to each other, and the mounting block is inserted into the mounting hole. One of the baffles is fixed to the connecting rod, and the other baffle is fixed to the mounting sleeve. When the adjusting frame moves, it is used to drive the connecting rod and the mounting sleeve to rotate.

[0013] By adopting the above technical solution, when the adjusting frame moves, the positions of the connecting hole and the mounting hole change, thereby driving the connecting block and the mounting block to move, while the positions of the connecting rod and the mounting sleeve are fixed, that is, one end of the connecting block and the mounting block is fixed. The movement of the connecting frame causes the other end of the connecting block and the mounting block to move, thereby causing the connecting block and the rotating block to rotate, thus realizing the synchronous rotation of the connecting rod and the mounting sleeve. Since the connecting hole and the mounting hole are distributed on both sides of the connecting frame, the connecting block and the mounting block move in the same direction relative to each other, thereby making the rotation directions of the connecting block and the mounting block opposite, realizing that the two baffles move closer or further apart, completing the opening or closing of the two baffles, so as to change the size of the flow path in the connecting pipe.

[0014] Optionally, the side wall of the baffle is provided with a flow guide groove, which is arranged radially along the connecting pipe.

[0015] By adopting the above technical solution, when the material enters the connecting pipe and flows through the baffle, the guide channel can guide the flow direction of the material, so that the material can pass through the connecting pipe more smoothly.

[0016] Optionally, the connecting pipe is provided with an output pipe, one end of which is connected to the connecting pipe and is perpendicular to the connecting pipe.

[0017] By adopting the above technical solution, the material obtained from the discharge pipe is the material after two homogenizations. According to the process requirements, the material after homogenization by the first-stage homogenizing valve can be directly discharged through the output pipe, thus obtaining the material after only one homogenization. This allows for selection based on demand and improves applicability.

[0018] Optionally, the connecting pipe is provided with a sealing plate, which is connected to the connecting pipe via a rotating assembly. The rotating assembly is used to drive the sealing plate to move within the connecting pipe, and the sealing plate can block the connecting pipe or the output pipe.

[0019] By adopting the above technical solution, in the initial state, the sealing plate blocks the output pipe, preventing the connection between the connecting pipe and the output pipe. This allows all the material after the first homogenization to enter the secondary homogenizing valve through the connecting pipe for secondary homogenization. When the material after the first homogenization is needed, the rotating component is activated, driving the sealing plate to move so that the sealing plate blocks the connecting pipe horizontally, thus isolating it and preventing the connecting pipe from connecting to the secondary homogenizing valve. At this time, the output pipe is connected to the connecting pipe, allowing all the material entering the connecting pipe to be discharged through the output pipe, thus obtaining the material after the first homogenization. Alternatively, the sealing plate can be controlled to be positioned between the connecting pipe and the output pipe, preventing them from being completely sealed. In this case, both the discharge pipe and the output pipe will discharge material, thus simultaneously obtaining the material after the first homogenization and the material after the second homogenization.

[0020] Optionally, a rubber pad is provided on the side of the sealing plate away from the connecting rod.

[0021] By adopting the above technical solution, the rubber gasket can enhance the sealing performance of the sealing plate and prevent material leakage. It also provides protection, preventing the sealing plate from being damaged by scraping against the inner wall of the connecting pipe during movement.

[0022] Optionally, the rotating assembly includes a rotating gear and a rotating rack. The rotating gear is rotatably connected to the connecting pipe, the sealing plate is fixed to the rotating gear, and the rotating rack is slidably connected to the inner wall of the connecting pipe. The rotating rack is driven by a rotating cylinder, which is located on the connecting pipe, and the output end of the rotating cylinder is fixed to the rotating rack. The rotating rack meshes with the rotating gear.

[0023] By adopting the above technical solution, the rotating cylinder is started, which drives the rotating rack to move. The meshing action of the rotating rack and the rotating gear causes the rotating gear to rotate, thereby driving the sealing plate to move, thus adjusting the flow direction of the material.

[0024] Optionally, the adjustment component is located at the connection between the output pipe and the connecting pipe, the connecting rod and the mounting sleeve are coaxially connected through the rotating gear, and the adjustment frame and the adjustment cylinder are both located on the rotating gear.

[0025] By adopting the above technical solution, when the rotating component drives the sealing plate to move, it simultaneously drives the two baffles to move. When the sealing plate seals the connecting pipe, the baffles act as guides, facilitating the entry of material into the output pipe. Simultaneously, the adjusting component drives the two baffles to rotate, allowing adjustment of the opening size at the inlet of the output pipe, thereby controlling the discharge speed. When the sealing plate seals the connecting pipe, its rotation controls the flow rate of material in the connecting pipe, resulting in better applicability.

[0026] Optionally, the rotating gear is provided with a guide groove, and a guide block is fixed on the side wall of the adjusting frame. The guide block is inserted into the guide groove and can move in the guide groove.

[0027] By adopting the above technical solution, the cooperation between the guide groove and the guide block can ensure the stability and accuracy of the movement of the adjustment frame, making the operation of the adjustment mechanism more reliable.

[0028] In summary, this application includes at least one of the following beneficial effects: 1. During the flow of material from the connecting pipe to the secondary homogenizing valve, the regulating component is activated, driving the two baffles to rotate simultaneously. This causes the two baffles to gradually expand, thereby changing the area of ​​the connecting pipe covered by the baffles. This narrows the diameter of the connecting pipe, which means the effective flow path of the connecting pipe is narrowed, effectively making the connecting pipe thinner. With a fixed material flow rate at the inlet of the connecting pipe, the flow velocity of the material after passing through the baffles and being discharged from the connecting pipe to the secondary homogenizing valve increases. As a result, the degree of pulverization in the secondary homogenizing valve increases. This allows for adjustment of the pulverization effect according to process requirements, thus adapting to the homogenization needs of different materials and processes, resulting in better applicability. 2. In the initial state, the sealing plate blocks the output pipe, preventing the connection between the connecting pipe and the output pipe. This allows all the material after the first homogenization to enter the secondary homogenizing valve for a second homogenization. When the material after the first homogenization is needed, the rotating component is activated, driving the sealing plate to move so that it blocks the connecting pipe horizontally, thus isolating it and preventing it from connecting to the secondary homogenizing valve. At this point, the output pipe is connected to the connecting pipe, allowing all the material entering the connecting pipe to be discharged through the output pipe, thus obtaining the material after the first homogenization. Alternatively, the sealing plate can be controlled to be positioned between the connecting pipe and the output pipe, preventing them from being completely sealed. In this case, both the discharge pipe and the output pipe will discharge material, allowing the simultaneous acquisition of both the material after the first homogenization and the material after the second homogenization. Attached Figure Description

[0029] Figure 1 This is a schematic diagram of the structure of the aseptic high-pressure homogenizer according to an embodiment of this application; Figure 2 This is a cross-sectional view of the aseptic high-pressure homogenizer according to an embodiment of this application; Figure 3 This is a schematic diagram of the adjustment mechanism; Figure 4 This is a schematic diagram showing the connection between the adjustment mechanism and the rotating component.

[0030] In the diagram: 10. Homogenizer body; 20. Primary homogenizing valve; 30. Connecting pipe; 31. Output pipe; 40. Secondary homogenizing valve; 50. Discharge pipe; 60. Adjusting mechanism; 61. Adjusting component; 611. Adjusting cylinder; 612. Adjusting frame; 6121. Guide block; 6122. Connecting hole; 6123. Mounting hole; 62. Baffle; 621. Guide groove; 70. Connecting component; 71. Connecting rod; 72. Connecting block; 73. Mounting sleeve; 74. Mounting block; 80. Sealing plate; 90. Rotating component; 91. Rotating gear; 911. Guide groove; 92. Rotating rack; 93. Rotating cylinder. Detailed Implementation

[0031] The following is in conjunction with the appendix Figure 1-4 This application will be described in further detail.

[0032] This application discloses a sterile high-pressure homogenizer. (Refer to...) Figure 1 and 2 The aseptic high-pressure homogenizer includes a homogenizer body 10, a primary homogenizing valve 20, a secondary homogenizing valve 40, a discharge pipe 50, and a connecting pipe 30. The primary homogenizing valve 20 and the secondary homogenizing valve 40 are both installed on the homogenizer body 10. The discharge port of the primary homogenizing valve 20 is connected to the inlet of the secondary homogenizing valve 40 through the connecting pipe 30. The discharge pipe 50 is connected to the discharge port of the secondary homogenizing valve 40. The connecting pipe 30 is equipped with an adjustment mechanism 60, which can control the flow rate of material from the primary homogenizing valve 20 to the secondary homogenizing valve 40, so as to make the processing effect of the secondary homogenizing valve 40 more stable and make the size distribution of particles or droplets more uniform.

[0033] Reference Figure 2 and 3 Specifically, the adjusting mechanism 60 includes an adjusting component 61 and two baffles 62. The adjusting component 61 drives the two baffles 62 to rotate. The adjusting component 61 includes an adjusting cylinder 611 and an adjusting frame 612. The adjusting cylinder 611 is embedded in the wall thickness of the connecting pipe 30 and mounted on the connecting pipe 30. The adjusting frame 612 is also located in the wall thickness of the connecting pipe 30 and is slidably connected to the outer wall of the connecting pipe 30. The output end of the adjusting cylinder 611 is connected to the adjusting frame 612. When the adjusting cylinder 611 works, it can drive the adjusting frame 612 to move on the connecting pipe 30. The adjusting frame 612 is connected to the two baffles 62 through a connecting component 70. When the adjusting frame 612 moves, it can drive the two baffles 62 to rotate.

[0034] Reference Figure 2 and 3The connecting assembly 70 is used to convert the movement of the adjusting frame 612 into the rotation of the two baffles 62. It includes a connecting rod 71, a connecting block 72, a mounting sleeve 73, and a mounting block 74. The connecting rod 71 is inserted into the connecting pipe 30 and is arranged radially along the connecting pipe 30. One end of the connecting rod 71 extends out of the connecting pipe 30 and is inserted into the adjusting frame 612. The connecting block 72 is fixed to the connecting rod 71. A connecting hole 6122 is provided on the inner wall of the adjusting frame 612, and the connecting block 72 is inserted into the connecting hole 6122. In this way, when the adjusting frame 612 moves, it can drive the connecting rod 71 to move.

[0035] Reference Figure 2 and 3 A mounting sleeve 73 is coaxially fitted onto the connecting rod 71. One end of the mounting sleeve 73 extends out of the connecting pipe 30 and is inserted into the adjusting frame 612. A mounting block 74 is fixed to the mounting sleeve 73. The inner wall of the adjusting frame 612 has a mounting hole 6123. The connecting hole 6122 and the mounting hole 6123 are positioned opposite each other, and the mounting block 74 is inserted into the mounting hole 6123. One baffle 62 is fixed to the connecting rod 71, and the other baffle 62 is fixed to the mounting sleeve 73. The two baffles 62 are symmetrically arranged about the radial direction of the connecting pipe 30. Reference Figure 2 and 3 When the adjusting frame 612 moves, the positions of the connecting hole 6122 and the mounting hole 6123 change, thereby driving the connecting block 72 and the mounting block 74 to move. The positions of the connecting rod 71 and the mounting sleeve 73 are fixed, that is, one end of the connecting block 72 and the mounting block 74 is fixed. The movement of the connecting frame causes the other end of the connecting block 72 and the mounting block 74 to move, thereby causing the connecting block 72 and the rotating block to rotate. This enables the connecting rod 71 and the mounting sleeve 73 to rotate synchronously. Since the connecting hole 6122 and the mounting hole 6123 are distributed on both sides of the connecting frame, the connecting block 72 and the mounting block 74 move in the same direction relative to each other, thereby causing the connecting block 72 and the mounting block 74 to rotate in opposite directions. This enables the two baffles 62 to rotate about the connecting rod 71 as an axis, so that the included angle between the two baffles 62 can be changed, thereby opening or closing the two baffles 62, thereby controlling the material flow rate in the connecting pipe 30.

[0036] When the two baffles 62 are opened to their maximum extent, both baffles 62 abut against the inner wall of the connecting pipe 30, thereby isolating the connecting pipe 30 and achieving closure of the connecting pipe 30. When the two baffles 62 are closed, that is, when the included angle between the two baffles 62 is the smallest, the area occupied by the baffles 62 in the orifice of the connecting pipe 30 is the smallest, and the flow rate in the connecting pipe 30 is the largest, thereby reducing the flow velocity.

[0037] Reference Figure 2 and 3Specifically, the side wall of the baffle 62 is provided with a guide channel 621, which is arranged radially along the connecting pipe 30. The guide channel 621 can guide the flow direction of the material, allowing the material to pass through the connecting pipe 30 more smoothly.

[0038] Reference Figure 2 and 4 Specifically, the connecting pipe 30 is equipped with an output pipe 31, one end of which is connected to the connecting pipe 30 and perpendicular to it. A sealing plate 80 is provided within the connecting pipe 30, connected to it via a rotating assembly 90. The rotating assembly 90 drives the sealing plate 80 to move within the connecting pipe 30, allowing it to block either the connecting pipe 30 or the output pipe 31. The movement of the sealing plate 80 controls the flow of materials through the connecting pipe 30 and the output pipe 31.

[0039] When the sealing plate 80 seals the output pipe 31, all the material enters the secondary homogenizing valve 40 through the connecting pipe 30. The material after secondary homogenization is collected from the discharge pipe 50. When the sealing plate 80 seals the connecting pipe 30, the material entering the connecting pipe 30 can only be discharged from the output pipe 31, thus obtaining the material after homogenization by the homogenizing valve. When the sealing plate 80 is located between the connecting pipe 30 and the output pipe 31, i.e., it is impossible to seal the connecting pipe 30 and the output pipe 31, the material will be discharged from both the discharge pipe 50 and the output pipe 31, thus obtaining the material after one homogenization and the material after two homogenizations simultaneously.

[0040] Reference Figure 2 and 4 The rotating assembly 90 includes a rotating gear 91 and a rotating rack 92. The rotating gear 91 is embedded in the wall of the connecting pipe 30 and rotatably connected to the connecting pipe 30. The sealing plate 80 is fixed to the rotating gear 91. The rotating rack 92 is slidably connected to the inner wall of the connecting pipe 30. The rotating rack 92 is driven by a rotating cylinder 93, which is mounted on the connecting pipe 30. The output end of the rotating cylinder 93 is fixed to the rotating rack 92, and the rotating rack 92 meshes with the rotating gear 91. When the rotating cylinder 93 operates, it drives the rotating rack 92 to move. The meshing action of the rotating rack 92 with the rotating gear 91 causes the rotating gear 91 to rotate, thereby driving the sealing plate 80 to move.

[0041] Specifically, a rubber pad is provided on the side of the sealing plate 80 away from the connecting rod 71. The rubber pad can enhance the sealing performance of the sealing plate 80 and prevent material leakage. At the same time, it can also play a protective role to prevent the sealing plate 80 from being damaged by scratching against the inner wall of the connecting pipe 30 during movement.

[0042] Reference Figure 2 and 3The adjusting component 61 is located at the connection between the output pipe 31 and the connecting pipe 30. The connecting rod 71 and the mounting sleeve 73 are coaxially connected by a rotating gear 91. The adjusting frame 612 and the adjusting cylinder 611 are both mounted on the rotating gear 91. This layout makes the entire adjusting mechanism 60 more compact and improves the space utilization of the equipment.

[0043] Simultaneously, when the rotating component 90 moves the sealing plate 80, it also moves the two baffles 62. When the sealing plate 80 seals the connecting pipe 30, the baffles 62 act as guides, facilitating the entry of material into the output pipe 31. At the same time, the adjusting component 61 drives the two baffles 62 to rotate, allowing adjustment of the opening size at the inlet of the output pipe 31, thereby controlling the discharge speed of the output pipe 31. When the sealing plate 80 seals the connecting pipe 30, its rotation allows for control of the material flow rate within the connecting pipe 30, resulting in better applicability.

[0044] Reference Figure 3 and 4 The rotating gear 91 is provided with a guide groove 911, and a guide block 6121 is fixed on the side wall of the adjusting frame 612. The guide block 6121 is inserted into the guide groove 911 and can move within the guide groove 911. The cooperation between the guide groove 911 and the guide block 6121 can ensure the stability and accuracy of the movement of the adjusting frame 612, making the operation of the adjusting mechanism 60 more reliable.

[0045] The implementation principle of a sterile high-pressure homogenizer according to an embodiment of this application is as follows: By setting a primary homogenizing valve 20 and a secondary homogenizing valve 40, the material is homogenized twice, improving the homogenization effect. The adjustment mechanism 60 allows for flexible adjustment of the material flow rate into the secondary homogenizing valve 40 according to different material and process requirements, thereby controlling the degree of material pulverization by the secondary homogenizing valve 40. The output pipe 31 and the sealing plate 80 allow for selection of materials after one or two homogenizations according to process needs. The coordinated operation of the rotating component 90 and the adjustment component 61 further enhances the control capability of material flow direction and velocity, improving the applicability and flexibility of the equipment.

[0046] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A sterile high-pressure homogenizer, characterized in that, The system includes a homogenizer body (10), a primary homogenizing valve (20), a secondary homogenizing valve (40), and a discharge pipe (50). The primary homogenizing valve (20) and the secondary homogenizing valve (40) are both located on the homogenizer body (10). The discharge port of the primary homogenizing valve (20) is connected to the inlet of the secondary homogenizing valve (40) via a connecting pipe (30). The discharge pipe (50) is connected to the discharge port of the secondary homogenizing valve (40). An adjusting mechanism (60) is provided inside the connecting pipe (30). The adjustment mechanism (60) includes an adjustment component (61) and two baffles (62). The adjustment component (61) is disposed on the connecting pipe (30), and the two baffles (62) are located in the connecting pipe (30). The two baffles (62) are arranged symmetrically about the radial direction of the connecting pipe (30). The adjustment component (61) is connected to the two baffles (62) and is used to drive the two baffles (62) to rotate, so as to control the opening and closing of the two baffles (62).

2. The aseptic high-pressure homogenizer according to claim 1, characterized in that, The adjustment assembly (61) includes an adjustment cylinder (611) and an adjustment frame (612). The adjustment cylinder (611) is mounted on the connecting pipe (30), and the adjustment frame (612) is slidably connected to the connecting pipe (30). The output end of the adjustment cylinder (611) is connected to the adjustment frame (612) and is used to drive the adjustment frame (612) to move on the connecting pipe (30). The adjustment frame (612) is connected to two baffles (62) through the connection assembly (70). When the adjustment frame (612) moves, it is used to drive the two baffles (62) to rotate.

3. The aseptic high-pressure homogenizer according to claim 2, characterized in that, The connecting assembly (70) includes a connecting rod (71), a connecting block (72), a mounting sleeve (73), and a mounting block (74). The connecting rod (71) is inserted into the connecting tube (30) and is arranged radially along the connecting tube (30). One end of the connecting rod (71) extends out of the connecting tube (30) and is inserted into the adjusting frame (612). The connecting block (72) is fixed on the connecting rod (71). A connecting hole (6122) is provided on the inner wall of the adjusting frame (612), and the connecting block (72) is inserted into the connecting hole (6122). The mounting sleeve (73) is coaxially sleeved on the connecting rod (71). On 71), one end of the mounting sleeve (73) extends out of the connecting tube (30) and is inserted into the adjusting frame (612). The mounting block (74) is fixed on the mounting sleeve (73). The inner wall of the adjusting frame (612) is provided with a mounting hole (6123). The connecting hole (6122) and the mounting hole (6123) are arranged opposite to each other. The mounting block (74) is inserted into the mounting hole (6123). One of the baffles (62) is fixed to the connecting rod (71), and the other baffle (62) is fixed to the mounting sleeve (73). When the adjusting frame (612) moves, it is used to drive the connecting rod (71) and the mounting sleeve (73) to rotate.

4. The aseptic high-pressure homogenizer according to claim 1, characterized in that, The side wall of the baffle (62) is provided with a guide groove (621), which is arranged radially along the connecting pipe (30).

5. The aseptic high-pressure homogenizer according to claim 3, characterized in that, The connecting pipe (30) is provided with an output pipe (31), one end of which is connected to the connecting pipe (30), and the output pipe (31) is perpendicular to the connecting pipe (30).

6. The aseptic high-pressure homogenizer according to claim 5, characterized in that, The connecting pipe (30) is provided with a sealing plate (80), which is connected to the connecting pipe (30) via a rotating assembly (90). The rotating assembly (90) is used to drive the sealing plate (80) to move in the connecting pipe (30). The sealing plate (80) can block the connecting pipe (30) or the output pipe (31).

7. The aseptic high-pressure homogenizer according to claim 6, characterized in that, A rubber pad is provided on the side of the sealing plate (80) away from the connecting rod (71).

8. The aseptic high-pressure homogenizer according to claim 6, characterized in that, The rotating assembly (90) includes a rotating gear (91) and a rotating rack (92). The rotating gear (91) is rotatably connected to the connecting pipe (30). The sealing plate (80) is fixed to the rotating gear (91). The rotating rack (92) is slidably connected to the inner wall of the connecting pipe (30). The rotating rack (92) is driven by a rotating cylinder (93). The rotating cylinder (93) is located on the connecting pipe (30), and the output end of the rotating cylinder (93) is fixed to the rotating rack (92). The rotating rack (92) meshes with the rotating gear (91).

9. The aseptic high-pressure homogenizer according to claim 8, characterized in that, The adjustment component (61) is located at the connection between the output pipe (31) and the connecting pipe (30). The connecting rod (71) and the mounting sleeve (73) are coaxially connected through the rotating gear (91). The adjustment frame (612) and the adjustment cylinder (611) are both located on the rotating gear (91).

10. The aseptic high-pressure homogenizer according to claim 9, characterized in that, The rotating gear (91) is provided with a guide groove (911), and a guide block (6121) is fixed on the side wall of the adjusting frame (612). The guide block (6121) is inserted into the guide groove (911) and can move in the guide groove (911).

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