Efficient mixing equipment for ammonium molybdate processing

Abstract

The utility model discloses efficient mixing equipment for ammonium molybdate processing, which comprises a reaction kettle, a processing support, an efficient mixing structure and an auxiliary feeding structure, the reaction kettle is mounted on the processing support, the efficient mixing structure is mounted on the inner side of the reaction kettle, and the auxiliary feeding structure is mounted on the processing support. The utility model relates to the technical field of ammonium molybdate processing, firstly, the efficient mixing structure is unique in design, the stirring driving machine drives the stirring gear set to drive the stirring feeding inner shaft tube and the stirring feeding sleeving shaft tube to rotate, the stirring feeding inner shaft tube and the stirring feeding sleeving shaft tube are driven to rotate, the stirring feeding inner shaft tube and the stirring feeding sleeving shaft tube are driven to rotate, and the stirring feeding inner shaft tube and the stirring feeding sleeving shaft tube are driven to rotate. Meanwhile, through cooperation with the magnetic adsorption effect of a lifting circular ring electromagnet and a lifting circular ring magnet, the adjustability of the stirring height is achieved, and the mixing uniformity and flexibility are enhanced.

Description

Technical Field

[0001] This utility model relates to the field of ammonium molybdate processing technology, specifically to a high-efficiency mixing device for ammonium molybdate processing. Background Technology

[0002] In the processing of ammonium molybdate, mixing is a crucial step that directly affects product quality and production efficiency. However, traditional mixing equipment has many shortcomings in terms of mixing efficiency, uniformity, and feeding methods. Specifically, traditional equipment often uses a single stirring method, which makes it difficult to achieve thorough mixing of raw materials in a short time, and the uniformity of mixing is difficult to guarantee. This directly affects the subsequent processing and use of the product.

[0003] To address the aforementioned issues, the industry urgently needs a highly efficient mixing device. This device not only requires high-efficiency mixing capabilities to ensure thorough mixing of raw materials in a short time, but also flexible feeding methods to improve production efficiency. Furthermore, to adapt to different production needs, the device should also have adjustable stirring height and a stable raw material delivery mechanism. In addition, considering the significant impact of temperature and pressure control on product quality during ammonium molybdate processing, the device should be equipped with corresponding temperature and pressure control devices. Therefore, this invention proposes a highly efficient mixing device for ammonium molybdate processing. By optimizing the mixing structure, auxiliary feeding structure, and reactor design, it meets the above requirements, improves production efficiency and product quality. While existing technologies may already offer solutions to these problems, this invention aims to provide an alternative or replacement technical solution. Utility Model Content

[0004] To achieve the above objectives, this utility model provides the following technical solution: a high-efficiency mixing device for ammonium molybdate processing, comprising: a reaction vessel, a processing support, a high-efficiency mixing structure, and an auxiliary feeding structure. The reaction vessel is mounted on the processing support, the high-efficiency mixing structure is mounted inside the reaction vessel, and the auxiliary feeding structure is mounted on both the processing support and the reaction vessel. The high-efficiency mixing structure includes: a stirring drive, a stirring gear set, several stirring and feeding inner shaft tubes, several stirring and feeding sleeve shaft tubes, several lifting stirring pins, several lifting rings, several lifting sleeve springs, several lifting ring magnets, several lifting ring electromagnets, several stirring blades, and several resistance regulators.

[0005] A plurality of inner shaft tubes for stirring and feeding are evenly inserted into the reactor via bearings. A plurality of sleeve shaft tubes for stirring and feeding are movably fitted onto the plurality of inner shaft tubes for stirring and feeding. A plurality of lifting pin slots are provided on the plurality of sleeve shaft tubes for stirring and feeding and the plurality of inner shaft tubes for stirring and feeding. A plurality of lifting stirring pins are movably inserted into the inner side of the plurality of lifting pin slots. A plurality of lifting rings are fitted onto the plurality of sleeve shaft tubes for stirring and feeding. A plurality of lifting sleeve springs are fitted onto the plurality of inner shaft tubes for stirring and feeding. A plurality of lifting ring magnets are installed on the plurality of lifting rings. A plurality of lifting ring electromagnets are evenly installed on the reactor. A plurality of stirring blades are installed on the plurality of sleeve shaft tubes for stirring and feeding. A plurality of resistance regulators are connected to the plurality of lifting ring electromagnets.

[0006] It should be noted that, as described above, the operation of the stirring drive motor drives the stirring gear set on the drive end of the stirring drive motor, which in turn drives several inner stirring and feeding shafts on it. These inner stirring and feeding shafts drive several lifting stirring pins, which in turn drive the stirring and feeding assembly shaft to rotate stably. The stirring and feeding assembly shaft drives the stirring blades on it to rotate. At the same time, the lifting ring electromagnet is energized, which magnetically attracts the lifting ring magnet. The lifting ring magnet drives the stirring and feeding assembly shaft to rise and fall stably. The stirring height is adjusted by the rising and falling of the stirring and feeding assembly shaft. The rising and falling rotation of the stirring and feeding assembly forces the raw materials downward or upward. The current on the lifting ring electromagnet is adjusted by a resistor regulator.

[0007] Preferably, the auxiliary feeding structure includes: several raw material boxes, several feeding valves, several L-shaped drain pipes, and several stamping pumps;

[0008] Several raw material boxes are evenly installed on the processing support, several feeding valves are respectively installed on several raw material boxes, several L-shaped drain pipes are respectively connected to several feeding valves, and several L-shaped drain pipes are respectively movably inserted into the inner side of several stirring and feeding inner shaft tubes through bearings, and several stamping pumps are respectively installed on several raw material boxes;

[0009] It should be noted that, as described above, by opening the feeding valve, the raw materials inside the raw material box are pushed under high pressure by the pressurized pump, and the raw materials are pushed under high pressure through the feeding valve and the L-shaped drainage pipe to the inside of the reactor.

[0010] Preferably, the reactor is equipped with a discharge valve.

[0011] Preferably, a temperature sensor is provided on the inside of the reactor.

[0012] Preferably, an electric heater and a cooler are provided on the inner side of the reactor.

[0013] Preferably, the reactor includes a pressure sensor and a pressure relief valve. Beneficial effects

[0014] This invention provides a high-efficiency mixing device for ammonium molybdate processing. Compared with existing technologies, this high-efficiency mixing device offers the following advantages: First, its unique high-efficiency mixing structure design, driven by a stirring drive motor, rotates the inner and outer shafts of the stirring and feeding assembly. Simultaneously, the magnetic attraction of the lifting ring electromagnet and the lifting ring magnet allows for adjustable stirring height, enhancing mixing uniformity and flexibility. Second, the auxiliary feeding structure uses a high-pressure pump to push the raw material, which is directly guided into the reactor through an L-shaped drain pipe, improving feeding efficiency and accuracy. Furthermore, a discharge valve is installed on the reactor for convenient unloading. Additionally, a temperature sensor, electric heater, and cooler are installed inside the reactor to monitor and adjust the temperature in real time, ensuring the stability of the processing. Finally, the design of the pressure sensor and pressure relief valve effectively ensures the safe operation of the reactor. In summary, this equipment boasts advantages such as high mixing efficiency, convenient feeding, precise temperature control, and safety and reliability, making it an ideal choice for the ammonium molybdate processing industry. Attached Figure Description

[0015] Figure 1 This is a front sectional view of the high-efficiency mixing equipment for ammonium molybdate processing described in this utility model.

[0016] Figure 2 for Figure 1 A magnified view of the letter "A" in the image.

[0017] Figure 3 for Figure 1 A magnified view of the "B" in the middle.

[0018] In the diagram: 1. Reactor; 2. Processing support; 3. Stirring drive motor; 4. Stirring gear set; 5. Stirring and feeding inner shaft tube; 6. Stirring and feeding sleeve shaft tube; 7. Lifting stirring pin; 8. Lifting ring; 9. Lifting sleeve spring; 10. Lifting ring magnet; 11. Lifting ring electromagnet; 12. Stirring blade; 13. Raw material box; 14. Feeding valve; 15. L-shaped drain pipe; 16. Stamping pump. Detailed Implementation

[0019] Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this utility model.

[0020] Those skilled in the art should connect all electrical components and their compatible power supplies in this case via wires. Appropriate controllers and encoders should be selected according to the actual situation to meet control requirements. The specific connection and control sequence should refer to the working principle described below, where the electrical components are connected in sequence. The detailed connection methods are well-known in the art. The following mainly introduces the working principle and process, and will not describe the electrical control further. Example

[0021] The present invention will now be described in detail with reference to the accompanying drawings, such as... Figure 1-3As shown, the reactor 1 is mounted on the processing support 2, the high-efficiency mixing structure is mounted inside the reactor 1, and the auxiliary feeding structure is mounted on both the processing support 2 and the reactor 1. The high-efficiency mixing structure includes: a stirring drive 3, a stirring gear set 4, several stirring and feeding inner shaft tubes 5, several stirring and feeding sleeve shaft tubes 6, several lifting stirring pins 7, several lifting rings 8, several lifting sleeve springs 9, several lifting ring magnets 8, several lifting ring electromagnets 8, several stirring blades 12, and several resistance regulators; several... The inner shaft tube 5 for stirring and feeding is evenly inserted into the reactor 1 via bearings. Several stirring and feeding sleeve shaft tubes 6 are movably fitted onto several inner shaft tubes 5. Several lifting pin slots are respectively provided on the several stirring and feeding sleeve shaft tubes 6 and the several inner shaft tubes 5. Several lifting stirring pins 7 are movably inserted into the inner sides of the several lifting pin slots. Several lifting rings 8 are respectively fitted onto several stirring and feeding sleeve shaft tubes 6. Several lifting sleeve springs 9 are respectively fitted onto several inner shaft tubes 5. Above, several lifting rings 8 magnets are respectively installed on several lifting rings 8, several lifting rings 8 electromagnets are evenly installed on the reaction vessel 1, several stirring blades 12 are respectively installed on several stirring and feeding sleeve shaft tubes 6, and several resistance regulators are respectively connected to several lifting rings 8 electromagnets; the auxiliary feeding structure includes: several raw material boxes 13, several feeding valves 14, several L-shaped diversion pipes 15, and several stamping pumps 16; several raw material boxes 13 are evenly installed on the processing support 2, if Each of the aforementioned feeding valves 14 is installed on a plurality of the aforementioned raw material tanks 13, and a plurality of the aforementioned L-shaped drain pipes 15 are respectively connected to a plurality of the aforementioned feeding valves 14. Furthermore, a plurality of the aforementioned L-shaped drain pipes 15 are movably inserted into the inner side of a plurality of the aforementioned stirring and feeding inner shaft tubes 5 via bearings. A plurality of the aforementioned stamping pumps 16 are respectively installed on a plurality of the aforementioned raw material tanks 13. A discharge valve is provided on the reactor 1. A temperature sensor is provided inside the reactor 1. An electric heater and a cooler are provided inside the reactor 1. A pressure sensor and a pressure relief valve are provided on the reactor 1.

[0022] According to the appendix Figure 1-3It should be noted that, as described above, the operation of the stirring drive 3 drives the stirring gear set 4 on its drive end, which in turn drives several stirring and feeding inner shaft tubes 5. These inner shaft tubes 5 then drive several lifting stirring pins 7, which in turn drive the stirring and feeding assembly shaft tube 6 to rotate stably. The stirring and feeding assembly shaft tube 6 then drives the stirring blades 12 to rotate. Simultaneously, the electromagnet of the lifting ring 8 is energized, and the electromagnet of the lifting ring 8... Iron is magnetically attracted, and the stirring and feeding sleeve 6 on the lifting ring 8 is stably raised and lowered by the magnet. The stirring and feeding sleeve 6 is raised and lowered to adjust the stirring height. At the same time, the stirring and rotating are pushed downward or guided upward by the lifting ring 8. The current on the electromagnet of the lifting ring 8 is adjusted by the resistance regulator. The feeding valve 14 is opened, and the pressure pump 16 pushes the raw material inside the raw material box 13 under high pressure. The raw material is pushed and guided into the inside of the reactor 1 through the feeding valve 14 and the L-shaped drainage pipe 15 under high pressure.

[0023] 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 high-efficiency mixing device for ammonium molybdate processing, comprising: The utility model relates to a reaction kettle, processing support, high -efficient mixing structure and auxiliary feeding structure, the reaction kettle is installed on the processing support, the high -efficient mixing structure is installed the inside of reaction kettle, the auxiliary feeding structure is installed on the processing support and the reaction kettle, its characterized in be that high -efficient mixing structure includes: stirring drive machine, stirring gear group, a plurality of stirring feeding inner shaft pipe, a plurality of stirring feeding sleeve shaft pipe, a plurality of lift stirring pin, a plurality of lift round ring, a plurality of lift sleeve spring, a plurality of lift round ring magnet, a plurality of lift round ring electromagnet, a plurality of stirring vane and a plurality of resistance regulator, A plurality of stirring feeding inner shaft pipe are evenly inserted on the reaction kettle through the bearing, a plurality of stirring feeding sleeve shaft pipe are movably sleeved on a plurality of stirring feeding inner shaft pipes respectively, a plurality of stirring feeding sleeve shaft pipes and a plurality of stirring feeding inner shaft pipes are respectively provided with a plurality of lift pin grooves, a plurality of lift stirring pins are movably inserted in the inside of a plurality of lift pin grooves respectively, a plurality of lift round rings are sleeved on a plurality of stirring feeding sleeve shaft pipes respectively, a plurality of lift sleeve springs are sleeved on a plurality of stirring feeding inner shaft pipes respectively, a plurality of lift round ring magnets are installed on a plurality of lift round rings respectively, a plurality of lift round ring electromagnets are evenly installed on the reaction kettle, a plurality of stirring vanes are installed on a plurality of stirring feeding sleeve shaft pipes respectively, and a plurality of resistance regulators are connected to a plurality of lift round ring electromagnets respectively.

2. The high-efficiency mixing device for ammonium molybdate processing according to claim 1, characterized in that, The auxiliary feeding structure includes a plurality of raw material boxes, a plurality of feeding valves, a plurality of L-shaped drainage pipes and a plurality of punch pumps. A plurality of raw material boxes are evenly installed on the processing support, a plurality of feeding valves are installed on a plurality of raw material boxes respectively, a plurality of L-shaped drainage pipes are connected to a plurality of feeding valves respectively, and a plurality of L-shaped drainage pipes are movably inserted in the inside of a plurality of stirring feeding inner shaft pipes through bearings respectively, and a plurality of punch pumps are installed on a plurality of raw material boxes respectively.

3. The high-efficiency mixing device for ammonium molybdate processing according to claim 2, characterized in that, The reaction kettle is provided with a discharge valve.

4. The high-efficiency mixing device for ammonium molybdate processing according to claim 3, characterized in that, The inside of the reaction kettle is provided with a temperature sensor.

5. The high-efficiency mixing device for ammonium molybdate processing according to claim 4, characterized in that, The inside of the reaction kettle is provided with an electric heater and a cooler.

6. The high-efficiency mixing device for ammonium molybdate processing according to claim 5, characterized in that, The reaction kettle is provided with a pressure sensor and a pressure relief valve.

Images