A device for producing and processing telithromycin

Abstract

The utility model relates to a teramycin production and processing device belongs to teramycin granule processing equipment technical field, the teramycin production and processing device includes: stirring subassembly, the stirring subassembly includes pivot and stirring paddle, the head and stirring paddle, install the limit block on the pivot, and the pivot is installed with upper baffle and lower baffle respectively in the position of the upper and lower both ends of setting limit block, the limit block outside limit sliding installation has the head, and the head both sides are installed with stirring paddle and are distributed symmetrically, the teramycin production and processing device flow hot air or cold air as the power source of stirring subassembly, can greatly reduce the energy consumption of entire teramycin production and processing device operation.

Description

Technical Field

[0001] This utility model relates to a tylosin production and processing device, belonging to the technical field of tylosin granule processing equipment. Background Technology

[0002] Tylosin granules are a macrolide antibiotic, mainly used to treat bacterial infections in livestock and poultry. After being manufactured and shaped, tylosin granules require a drying process to ensure their stability, flowability, and shelf life. Drying equipment is generally used for drying tylosin granules. The drying equipment provided in related technologies is mostly of this structure: including a drying box, a stirring rack installed inside the drying box, a rotating shaft at the center of the stirring rack, and the end of the rotating shaft that passes through the inner wall of the drying box is connected to a motor, which is located on the drying box; at the same time, an adjustable temperature heating tube is also installed at the bottom of the drying box. When using this drying equipment to dry tylosin granules, the shaped tylosin granules are placed into the drying chamber, and the heating element is powered on to heat the inside of the drying chamber. Once the air inside the drying chamber is heated, the motor is started, and the motor outputs kinetic energy to drive the stirring rack to rotate, ensuring that the tylosin granules are fully mixed with the hot air, thus improving the drying effect. Finally, after the tylosin granules are dried, they are discharged directly through the discharge pipe connected to one side of the drying chamber. This drying equipment can effectively dry tylosin granules, but it also has obvious drawbacks. For example, the stirring rack is driven by a motor, and the heating tube for heating the air is powered by a power source. This means that the heating tube and the stirring rack need to be powered simultaneously, resulting in high energy consumption for the entire drying equipment. Utility Model Content To solve the above-mentioned technical problems, this utility model provides a tylosin production and processing device, which solves the problem that the heating tube of the drying equipment and the operation of the stirring rack in the above-mentioned background art need to be powered at the same time, resulting in a large energy consumption of the entire drying equipment. The technical solution adopted by this utility model to solve its technical problem is: A tylosin production and processing apparatus, the tylosin production and processing apparatus comprising: Using flowing air as a power source, the stirring component can drive the tylosin granules to fully contact and mix with hot air for hot air drying, and can also drive the tylosin granules that have been dried at high temperature to fully contact and mix with oxygen-free gas to achieve low temperature cooling. The stirring assembly includes a rotating shaft and a stirring paddle, a second rotating head and a stirring paddle, a limit block is installed on the rotating shaft, and an upper baffle and a lower baffle are respectively installed at the upper and lower ends of the rotating shaft where the limit block is set; the second rotating head is slidably installed on the outer side of the limit block, and stirring paddles are symmetrically distributed on both sides of the second rotating head.

[0003] Preferably, the stirring paddle is installed at an angle on one side of the second rotor, and the included angle between the stirring paddle and the second rotor is controlled between 30°C and 45°C; in addition, through holes are provided on the surface of the stirring paddle.

[0004] Preferably, the stirring assembly is installed inside the drying tank, the top of the drying tank is diffuser-shaped and connected to the upper end; the bottom of the drying tank is flat and connected to the lower end. The upper part of the rotating shaft is equipped with a transmission component, and one end of the upper end is connected to a cold air component; stirring paddles are symmetrically installed at the bottom of the rotating shaft inside the drying tank, and a lower turbine is installed on the lower part of the rotating shaft inside the lower end; at the same time, one end of the lower end is connected to a hot air component.

[0005] Preferably, the transmission assembly includes an upper turbine, a first rotating head, and a positioning tube. A filter plate is provided at the position where the upper end connects to the drying tank, and a positioning tube is installed on the filter plate. The first rotating head is fitted on the outside of the positioning tube, and the upper turbine is provided on the first rotating head. At the same time, the inside of the positioning tube and the inside of the first rotating head are both hollow. The upper end of the rotating shaft passes through the positioning tube and the first rotating head in sequence, and the end part of the shaft is connected to the center position of the rotating shaft.

[0006] Preferably, the cooling air assembly includes an upper air pump and an upper air pipe, one end of the upper air pipe is connected to the air outlet of the upper air pump, the other end of the upper air pipe is connected to an upper end cap, and an upper air valve is installed on the upper air pipe.

[0007] Preferably, the hot air assembly includes an air purifier, an air heater, a lower air pump, and a lower air pipe. One end of the lower air pipe is connected to a lower end cap, and the other end of the lower air pipe is connected to the air outlet of the lower air pump. A lower air valve is installed on the lower air pipe. The air purifier is connected to the air heater, and the air heater is connected to the air inlet of the lower air pump.

[0008] Compared with the prior art, the beneficial effects of this utility model are as follows: Compared with current drying equipment, the described tylosin production and processing equipment has the following advantages: It uses a stirring assembly set inside the drying tank, including a rotating shaft and stirring paddle, a rotating head and stirring paddle, a limit block installed on the rotating shaft, and an upper baffle and a lower baffle installed at the upper and lower ends of the rotating shaft where the limit block is set; a rotating head is slidably installed on the outside of the limit block, and stirring paddles are symmetrically distributed on both sides of the rotating head. When the airflow propels the shaft to rotate, it drives the rotating head installed on the shaft to rotate, which in turn causes the stirring paddles symmetrically installed on both sides of the rotating head to rotate, which is used to stir and mix the tylosin granules with hot or cold air to achieve hot air drying and low temperature cooling. By using flowing hot or cold air as the power source for the stirring components, the energy consumption of the entire tylosin production and processing unit can be greatly reduced. Furthermore, after the tylosin granules have completed heat drying, inert gases such as nitrogen are introduced into the drying tank to perform cold air drying on the dried tylosin granules inside the drying tank. When nitrogen enters the drying tank through the upper end, it can drive the symmetrically distributed stirring paddles on the rotating shaft to rotate through the transmission component. This is used to stir the tylosin granules and mix them with the cold air. The low temperature and oxygen-free environment inside the drying tank improves the cooling efficiency and prevents the dried tylosin granules from becoming damp and oxidized again due to temperature differences when they are discharged from the drying tank later. Attached Figure Description

[0009] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on the structures shown in these drawings without creative effort.

[0010] Figure 1 This is a schematic diagram of a tylosin production and processing device according to the present invention.

[0011] Figure 2 This is a schematic diagram of the internal structure of a tylosin production and processing device according to the present invention.

[0012] Figure 3 This is a schematic diagram of the transmission component of a tylosin production and processing device according to the present invention.

[0013] Figure 4 This is a schematic diagram of the stirring assembly of a tylosin production and processing device according to the present invention.

[0014] In the diagram: 1-Upper air pump, 2-Upper air pipe, 3-Upper air valve, 4-Upper end head, 5-Feed pipe, 6-Drying tank, 7-Viewing window, 8-Support leg, 9-Lower air pipe, 10-Air purifier, 11-Air heater, 12-Lower air pump, 13-Lower air valve, 14-Discharge pipe, 15-Discharge valve, 16-Rotating shaft, 17-Transmission assembly, 18-Agitating assembly, 19-Lower end head, 20-Lower turbine, 21-Upper turbine, 22-First rotor, 23-Positioning pipe, 24-Agitator, 25-Lower baffle, 26-Limiting block, 27-Second rotor, 28-Upper baffle. Detailed Implementation

[0015] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0016] Please see Figure 1-4 This utility model provides a technical solution: A tylosin production and processing apparatus, the tylosin production and processing apparatus comprising: The stirring assembly 18 uses flowing air as a power source, which can drive the tylosin granules to be stirred and fully mixed with hot air for hot air drying, and drive the tylosin granules dried at high temperature to be fully mixed with oxygen-free gas to achieve low temperature cooling. The stirring assembly 18 includes a rotating shaft 16 and a stirring paddle 24, a second rotating head 27 and a stirring paddle 24. A limit block 26 is installed on the rotating shaft 16, and an upper baffle 28 and a lower baffle 25 are respectively installed at the upper and lower ends of the rotating shaft 16 where the limit block 26 is set. The second rotating head 27 is slidably installed on the outer side of the limit block 26, and the stirring paddle 24 is symmetrically distributed on both sides of the second rotating head 27. When the airflow drives the rotating shaft 16 to rotate, it will drive the second rotating head 27 installed on the rotating shaft 16 to rotate, which in turn causes the stirring paddles 24 symmetrically distributed on both sides of the second rotating head 27 to rotate, which is used to stir and mix the tylosin granules with hot or cold air to achieve hot air drying and low temperature cooling. The different airflow forces will cause the rotating shaft 16 to rotate at different speeds. When the rotating shaft 16 rotates at different speeds, it will cause different centrifugal forces on the second rotating head 27, which will cause the second rotating head 27 to move along the rotating shaft 16, adjust the working height position of the stirring paddle 24, and achieve the mixing and blending of tylosin granules and airflow at different depths. Specifically, the stirring paddle 24 is installed at an angle on one side of the second rotating head 27, and the included angle between the stirring paddle 24 and the second rotating head 27 is controlled between 30°C and 45°C; in addition, through holes are provided on the surface of the stirring paddle 24. The mixing paddle 24 and the second rotating head 27 are designed to be installed at an angle, which can reduce the resistance generated when the mixing paddle 24 mixes materials. At the same time, through holes are opened on the surface of the mixing paddle 24, so that the airflow can pass through when the mixing paddle 24 rotates and mixes materials, and the airflow can make circular motion, further increasing the contact area between the airflow and the tylosin granules. Please see Figure 1 and Figure 2 In one embodiment of the present invention, the stirring assembly 18 is installed inside the drying tank 6. The top of the drying tank 6 is diffused and connected to the upper end 4. The bottom of the drying tank 6 is flat and connected to the lower end 19. The shaft 16 is provided with a transmission assembly 17 on the part inside the upper end 4, and one end of the upper end 4 is connected to a cold air assembly; the shaft 16 is provided with symmetrically distributed stirring paddles 24 at the bottom of the drying tank 6, and the shaft 16 is provided with a lower turbine 20 on the part inside the lower end 19; at the same time, one end of the lower end 19 is connected to a hot air assembly. In an embodiment of this utility model, when drying tylosin granules through the drying tank 6, after the tylosin granules are put into the drying tank 6, the cold air assembly is turned off while the hot air assembly is turned on. The hot air enters from the lower end 19 and is then lifted from bottom to top inside the drying tank 6. The turbulent force generated when the hot air enters can drive the lower turbine 20 to rotate. When the lower turbine 20 rotates, it will drive the rotating shaft 16 to rotate, thereby causing the stirring paddle 24 installed on the rotating shaft 16 to rotate, which is used to stir the tylosin granules at the bottom of the drying tank 6, so that the tylosin granules come into contact with and mix with the hot air to achieve the drying operation. After the tylosin granules have been dried inside the drying tank 6 for a period of time, the hot air component is turned off and the cold air component is turned on. The cold air component rotates in reverse to draw out the hot air inside the drying tank 6 and discharge it from the upper end 4 position, gradually creating a vacuum negative pressure environment inside the drying tank 6, so that the tylosin granules inside the drying tank 6 can continue to be dried using the residual heat. Drying tylosin granules under vacuum negative pressure can significantly reduce the boiling point of tylosin granules, allowing the tylosin granules to evaporate moisture rapidly at low temperatures (usually 30-60℃), avoiding drug degradation, discoloration or loss of potency caused by high temperatures; Finally, after the tylosin granules are dried, the cold air assembly is turned forward to deliver an inert gas, such as nitrogen, into the drying tank 6 to dry the tylosin granules inside the drying tank 6. When the nitrogen enters the drying tank 6 through the upper end 4, the symmetrically distributed stirring paddles 24 on the rotating shaft 16 can be driven by the transmission assembly 17 to rotate, so that the tylosin granules can be stirred and mixed with the cold air. This improves the cooling efficiency in the low-temperature and oxygen-free environment inside the drying tank 6 and prevents the dried tylosin granules from becoming damp and oxidized again due to temperature differences when they are discharged from the drying tank 6 later. Please see Figure 2 and Figure 3 In one embodiment of this utility model, the transmission assembly 17 includes an upper turbine 21, a first rotating head 22, and a positioning tube 23. A filter plate is provided at the position where the upper end 4 connects with the drying tank 6. The positioning tube 23 is installed on the filter plate. The first rotating head 22 is fitted on the outside of the positioning tube 23. The upper turbine 21 is provided on the first rotating head 22. At the same time, the inside of the positioning tube 23 and the inside of the first rotating head 22 are both hollow. The upper end of the rotating shaft 16 passes through the positioning tube 23 and the first rotating head 22 in sequence, and the end part of the shaft 16 is connected to the axis of the rotating shaft 16. In an embodiment of this utility model, when the cold air assembly operates and delivers low-temperature nitrogen gas into the drying tank 6 through the upper end head 4, the nitrogen gas flow generates turbulent force, which can drive the upper turbine 21 to rotate. When the upper turbine 21 rotates, it will drive the rotating shaft 16 set at the shaft center of the upper turbine 21 to rotate, thereby causing the stirring assembly 18 installed on the rotating shaft 16 to rotate, which is used to stir the tylosin granules with the cold air to achieve low-temperature cooling. By mounting the first rotating head 22 onto the positioning tube 23, the lower turbine 20 located inside the lower end head 19 at the lower end of the rotating shaft 16 can be fixed in position, ensuring that the lower turbine 20 can be driven to rotate when air enters the lower end head 19. Please see Figure 1 and Figure 2 In one embodiment of this utility model, a feed pipe 5 is provided on one side of the upper end of the drying tank 6 for feeding materials; a viewing window 7 is installed on one side of the drying tank 6, which allows the operator to observe the drying status of the tylosin granules inside the drying tank 6 in real time; a discharge pipe 14 is connected to one side of the lower end of the drying tank 6, and a discharge valve 15 is installed on the discharge pipe 14; the discharge pipe 14 is used for discharging materials, and the discharge valve 15 is used to control the discharge flow rate; in addition, three support legs 8 are symmetrically distributed at the lower end of the drying tank 6, and the three support legs 8 are distributed in an equilateral triangle at the lower end of the drying tank 6. The three support legs 8 are used to improve the stability of the entire tylosin production and processing device when it is placed. Please see Figure 1In one embodiment of the present invention, the cooling air assembly includes an upper air pump 1 and an upper air pipe 2. One end of the upper air pipe 2 is connected to the air outlet of the upper air pump 1, and the other end of the upper air pipe 2 is connected to an upper end cap 4. An upper air valve 3 is installed on the upper air pipe 2. By starting the air pump 1, the air pump 1 is made to transport low-temperature nitrogen into the drying tank 6 through the air pipe 2 or to create a vacuum negative pressure inside the drying tank 6, so as to guide the hot gas inside the drying tank 6 to be discharged. Please see Figure 1 In one embodiment of this utility model, the hot air assembly includes an air purifier 10, an air heater 11, a lower air pump 12, and a lower air pipe 9. One end of the lower air pipe 9 is connected to a lower end cap 19, and the other end of the lower air pipe 9 is connected to the air outlet of the lower air pump 12. A lower air valve 13 is installed on the lower air pipe 9. The air purifier 10 is connected to the air heater 11, and the air heater 11 is connected to the air inlet of the lower air pump 12. In an embodiment of this utility model, when the hot air assembly is used to deliver hot air into the drying tank 6, the lower air pump 12 is started. The lower air pump 12 operates to draw the natural airflow from the outside through the air purifier 10 and the air heater 11 in sequence. After being purified by the air purifier 10, the air is then heated by the air heater 11 and becomes clean hot air, which is delivered to the drying tank 6 through the lower air pipe 9. The hot air rises from bottom to top inside the drying tank 6 to achieve hot air drying of the tylosin granules. The workflow of this embodiment is as follows: After the tylosin granules are added into the drying tank 6, the cold air assembly is turned off while the hot air assembly is turned on. The hot air enters from the lower end 19 and rises from bottom to top inside the drying tank 6. The turbulent force generated when the hot air enters can drive the lower turbine 20 to rotate. When the lower turbine 20 rotates, it will drive the rotating shaft 16 to rotate, which in turn causes the stirring paddle 24 installed on the rotating shaft 16 to rotate. This is used to stir the tylosin granules at the bottom of the drying tank 6, so that the tylosin granules come into contact with and mix with the hot air to achieve the drying operation. After the tylosin granules have been dried inside the drying tank 6 for a period of time, the hot air component is turned off and the cold air component is turned on. The cold air component rotates in reverse to draw out the hot air inside the drying tank 6 and discharge it from the upper end 4 position, gradually creating a vacuum negative pressure environment inside the drying tank 6, so that the tylosin granules inside the drying tank 6 can continue to be dried using the residual heat. After the tylosin granules are dried, the cold air assembly is turned forward to deliver an inert gas, such as nitrogen, into the drying tank 6 to dry the tylosin granules inside the drying tank 6. When the nitrogen enters the drying tank 6 through the upper end 4, the stirring paddles 24 symmetrically distributed on the rotating shaft 16 can be driven to rotate through the transmission assembly 17 to make the tylosin granules come into contact with and mix with the cold air, thereby improving the cooling efficiency. Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A tylosin production and processing apparatus, characterized in that... include: A stirring component (18) is used as a power source to drive the tylosin granules to fully contact and mix with hot air for hot air drying and to drive the tylosin granules after high temperature drying to fully contact and mix with oxygen-free gas for low temperature cooling. The stirring assembly (18) includes a rotating shaft (16) and a stirring paddle (24), a second rotating head (27) and a stirring paddle (24). A limiting block (26) is installed on the rotating shaft (16). An upper baffle (28) and a lower baffle (25) are respectively installed on the upper and lower ends of the rotating shaft (16) where the limiting block (26) is set. The second rotating head (27) is slidably installed on the outer side of the limiting block (26). The stirring paddle (24) is symmetrically distributed on both sides of the second rotating head (27).

2. The tylosin production and processing apparatus according to claim 1, characterized in that: The stirring paddle (24) is installed at an angle on one side of the second rotor (27), and the angle between the stirring paddle (24) and the second rotor (27) is controlled between 30°C and 45°C; in addition, a through hole is provided on the surface of the stirring paddle (24).

3. The tylosin production and processing apparatus according to claim 2, characterized in that: The stirring assembly (18) is installed inside the drying tank (6); The top of the drying tank (6) is diffused and connected to the upper end head (4); the bottom of the drying tank (6) is flat and connected to the lower end head (19); the shaft (16) located inside the upper end head (4) is provided with a transmission component (17), and one end of the upper end head (4) is connected to a cold air component; the shaft (16) located inside the bottom of the drying tank (6) is symmetrically equipped with stirring paddles (24), and the shaft (16) located inside the lower end head (19) is provided with a lower turbine (20); at the same time, one end of the lower end head (19) is connected to a hot air component.

4. The tylosin production and processing apparatus according to claim 3, characterized in that: The transmission assembly (17) includes an upper turbine (21), a first rotating head (22), and a positioning tube (23). A filter plate is provided at the position where the upper end (4) connects with the drying tank (6). The positioning tube (23) is installed on the filter plate. The first rotating head (22) is fitted on the outside of the positioning tube (23). The upper turbine (21) is provided on the first rotating head (22). At the same time, the inside of the positioning tube (23) and the inside of the first rotating head (22) are both hollow. The upper end of the rotating shaft (16) passes through the positioning tube (23) and the first rotating head (22) in sequence, and the end part is connected to the axis of the rotating shaft (16).

5. The tylosin production and processing apparatus according to claim 3, characterized in that: The cold air assembly includes an upper air pump (1) and an upper air pipe (2). One end of the upper air pipe (2) is connected to the air outlet of the upper air pump (1), and the other end of the upper air pipe (2) is connected to the upper end head (4). An upper air valve (3) is installed on the upper air pipe (2).

6. The tylosin production and processing apparatus according to claim 3, characterized in that: The hot air assembly includes an air purifier (10), an air heater (11), a lower air pump (12), and a lower air pipe (9). One end of the lower air pipe (9) is connected to the lower end (19), and the other end of the lower air pipe (9) is connected to the air outlet of the lower air pump (12). A lower air valve (13) is installed on the lower air pipe (9). The air purifier (10) is connected to the air heater (11), and the air heater (11) is connected to the air inlet of the lower air pump (12).

Images