Batching bin capable of conveniently controlling proportion of ingredients

Abstract

The utility model relates to the technical field of calcium hydroxide production, in particular to a batching bin capable of conveniently controlling the proportion of ingredients, which comprises a bottom plate, a control panel is mounted above the bottom plate through screws, a batching barrel is arranged above the bottom plate, a discharging barrel is arranged on one side of the batching barrel, a dustproof cover is clamped above the discharging barrel, and the control panel is mounted above the bottom plate through screws. An alarm lamp is mounted in front of the batching barrel through a screw, and a pressure sensor is mounted above a control panel through a cable; a shell of a first servo motor is installed below a bottom plate through screws, an electric control valve is arranged below an improved batching bin and a batching barrel and can accurately control feeding, an electric control valve is arranged below a discharging barrel and can accurately control feeding and accurate amount control of a weight scale, a dustproof cover is arranged above the discharging barrel, powder flying is avoided, and dust is prevented; and the storage tanks are moved in cooperation with a rotary disc, continuous feeding is achieved, the storage tanks are conveniently taken out and added, and meanwhile quantitative batching can be achieved.

Description

Technical Field

[0001] The utility model relates to the technical field of calcium hydroxide production, in particular to a batching bin for conveniently controlling the batching proportion. Background Technique

[0002] Calcium hydroxide has a wide range of applications in the fields of industry, agriculture, environmental protection, etc. In industry, it can be used to produce calcium carbonate, bleaching powder, etc. In the chemical industry, it can be used as an important chemical raw material. Its aqueous solution is also called lime water, which can react with carbon dioxide to form calcium carbonate precipitation. This reaction is often used to detect carbon dioxide gas. In agriculture, as mentioned before, it can be used to improve acidic soil, adjust the soil pH, and is beneficial to the growth of crops. In the environmental protection field, it can be used to treat wastewater containing heavy metal ions, etc.

[0003] A batching bin is usually a container or facility for storing and dispensing various raw materials. Storing raw materials provides a stable material supply for the production process, ensuring the continuity of production. Precise batching can accurately measure and mix different raw materials according to the requirements of the production process to achieve a specific formula ratio.

[0004] The inventor found the following problems in the process of implementing the present utility model in the prior art: 1. Calcium hydroxide powder is likely to fly into the air during the feeding, discharging, and storage processes, causing dust pollution to the surrounding environment. Impurities in the air will mix into the calcium hydroxide in the batching bin, affecting the purity and quality stability of the product. At the same time, the flying calcium hydroxide powder means material loss, reducing the accuracy of batching; 2. There is only one storage tank for the calcium hydroxide powder batching. A weighing device is provided below the storage tank, and it is necessary to recheck the quantity of the tank body. Because there is only one storage tank, the batching process is frequently interrupted to wait for the single storage tank to be emptied or used up before the next batching can be carried out, greatly reducing the production efficiency. The production cannot be continuous, and a large amount of time is wasted in the waiting and switching processes. It cannot cooperate with the machine for placing the storage tank and needs to rely on manual replacement. When replacing manually, impurities on the hands will be introduced into the storage tank, affecting the purity of the calcium hydroxide in the storage tank. Content of the Utility Model

[0005] The purpose of the present utility model is to provide a batching bin for conveniently controlling the batching proportion to solve the problem that impurities in the air will mix into the calcium hydroxide in the batching bin, affecting the purity and quality stability of the product as mentioned in the above background technique. To achieve the above purpose, the present utility model provides the following technical solution: A batching bin for conveniently controlling the batching proportion, including a bottom plate, a control panel is installed above the bottom plate by screws, a batching barrel is provided above the bottom plate, a discharging barrel is provided on one side of the batching barrel, a dust-proof cover is clamped above the discharging barrel, an alarm lamp is installed in front of the batching barrel by screws, and a pressure sensor is installed above the control panel by a cable;

[0006] Below the bottom plate, the housing of the first servo motor is installed by screws. Above the first servo motor, the output shaft is installed with a rotating shaft by bolts. Below the bottom plate, the housing of the cylinder is installed by screws. One side of the cylinder is attached to a proximity switch. Above the output shaft of the cylinder, a push plate is installed by bolts. Above the push plate, an induction sheet is installed by screws. Above the rotating shaft, a semi-circular turntable is rotatably connected. Inside the semi-circular turntable, a storage barrel is attached. Below the storage barrel, a weighing scale is attached.

[0007] The lower outlet end of the batching barrel is threadedly connected to an electric flow regulating valve. The lower outlet end of the electric flow regulating valve is threadedly connected to a material conveying housing. On one side of the material conveying housing, a second servo motor is installed by screws. On one side of the second servo motor, the output shaft is connected to a screw conveyor shaft by bolts.

[0008] Further preferably, the rotating shaft forms a rotating structure through the first servo motor, and the semi-circular turntable forms a rotating structure through the rotating shaft.

[0009] Further preferably, the push plate forms a vertical sliding structure through the cylinder, and the storage barrel forms a vertical sliding structure through the push plate.

[0010] Further preferably, the screw conveyor shaft forms a rotating structure through the second servo motor.

[0011] Further preferably, several cables are provided on one side of the control panel, and the control panel is connected to an alarm lamp, the alarm lamp is connected to an ultrasonic sensor installed on the inner wall of the batching barrel, and the control panel is connected to a pressure sensor, and the second servo motor is connected to the pressure sensor.

[0012] Further preferably, several cables are provided on one side of the control panel, and the control panel is connected to the electric flow regulating valve between the batching barrel and the material conveying housing, and the control panel is connected to the electric flow regulating valve below the discharge barrel, and the weighing scale is connected to the pressure sensor.

[0013] Further preferably, several cables are provided on one side of the control panel, and the control panel is connected to the pressure sensor, and the first servo motor is connected to the pressure sensor, and the proximity switch is connected to the pressure sensor and the proximity switch is connected to the induction sheet. And an induction sheet is adhesively bonded to the middle part below each storage barrel, and the induction sheet below the storage barrel and the induction sheet above the push plate have the same size.

[0014] Compared with the prior art, the beneficial effects of the present utility model:

[0015] In the present utility model, the flying of calcium hydroxide powder into the air is effectively reduced, the dust pollution to the surrounding environment is lowered, the loss of materials caused by flying is reduced, the utilization rate of materials is improved, the risk of impurities in the air mixing into the calcium hydroxide in the batching bin is reduced, the purity and quality stability of the product are improved, and at the same time, there is an accurately quantified powder, which can be accurately proportioned.

[0016] In the present utility model, continuous batching can be realized without waiting for a single storage tank to be emptied or used up before batching, which greatly improves the production efficiency. Multiple storage barrels can be alternately used for batching and use, making the production process smoother and enhancing the emergency response ability. When a certain storage barrel fails or needs maintenance, other storage barrels can continue to work to ensure the continuity of production, reduce the production interruption loss caused by equipment failures, and can cooperate with the storage tank discharging device and the storage tank receiving device to realize continuous batching and reduce manual intervention. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 is a front view structural schematic diagram of the present utility model;

[0018] Figure 2 is a bottom view structural schematic diagram of the present utility model;

[0019] Figure 3 is a structural schematic diagram under the bottom plate of the present utility model;

[0020] Figure 4 is a structural schematic diagram under the batching barrel of the present utility model.

[0021] In the figure: 1, control panel; 2, bottom plate; 201, semi-circular turntable; 202, induction piece; 203, first servo motor; 204, cylinder; 205, proximity switch; 206, push plate; 207, weighing scale; 208, storage barrel; 209, rotating shaft; 3, batching barrel; 301, electric flow regulating valve; 302, material conveying housing; 303, second servo motor; 304, auger conveyor shaft; 4, dust cover; 5, discharge barrel; 6, alarm lamp; 7, pressure sensor. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0022] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present utility model without creative efforts shall fall within the protection scope of the present utility model.

[0023] Please refer to Figures 1 to 4, the present utility model provides a technical solution: a batching bin for facilitating the control of the batching ratio, including a bottom plate 2, a control panel 1 is installed above the bottom plate 2 by screws, a batching barrel 3 is arranged above the bottom plate 2, a discharge barrel 5 is arranged on one side of the batching barrel 3, a dust-proof cover 4 is clamped above the discharge barrel 5, an alarm lamp 6 is installed in front of the batching barrel 3 by screws, and a pressure sensor 7 is installed above the control panel 1 by a cable;

[0024] The housing of a first servo motor 203 is installed below the bottom plate 2 by screws, a rotating shaft 209 is installed on the upper output shaft of the first servo motor 203 by bolts, the housing of a cylinder 204 is installed below the bottom plate 2 by screws, a proximity switch 205 is attached to one side of the cylinder 204, a push plate 206 is installed above the output shaft of the cylinder 204 by bolts, an induction sheet 202 is installed above the push plate 206 by screws, the upper part of the rotating shaft 209 is rotatably connected to a semi-circular turntable 201, a storage barrel 208 is attached inside the semi-circular turntable 201, and a weighing scale 207 is attached below the storage barrel 208;

[0025] The lower outlet end of the batching barrel 3 is threadedly connected to an electric flow regulating valve 301, the lower outlet end of the electric flow regulating valve 301 is threadedly connected to a material conveying housing 302, a second servo motor 303 is installed on one side of the material conveying housing 302 by screws, and a screw conveyor shaft 304 is connected to the output shaft on one side of the second servo motor 303 by bolts.

[0026] In this embodiment, as Figure 3 shown, the rotating shaft 209 forms a rotating structure through the first servo motor 203, and the semi-circular turntable 201 forms a rotating structure through the rotating shaft 209; the rotating shaft 209 forms a rotating structure driven by the first servo motor 203, and the first servo motor 203 can accurately control the rotation angle and speed of the rotating shaft 209. As a key component for power transmission, the rotating shaft 209 drives the semi-circular turntable 201 connected thereto to rotate. The semi-circular turntable 201 realizes rotation through the rotating shaft 209. The hole grooves provided inside the semi-circular turntable 201 provide an installation position for the storage barrel 208. During the calcium hydroxide batching process, the rotation of the semi-circular turntable 201 can sequentially move the storage barrels 208 at different positions to a specific feeding position, facilitating the reception of calcium hydroxide batching. After the calcium hydroxide batching is fed, the storage barrel 208 can be adjusted in position driven by the semi-circular turntable 201 for subsequent storage, transportation or other operations. The storage barrel 208 plays a key role in storing the calcium hydroxide batching in the entire structure. It is arranged in the hole grooves of the semi-circular turntable 201 and changes its position as the semi-circular turntable 201 rotates. During the batching process, the storage barrel 208 can accurately receive the calcium hydroxide batching fed from above.

[0027] In this embodiment, as Figure 1 、 Figure 2and Figure 3 As shown in the figure, the push plate 206 forms a vertical sliding structure through the cylinder 204, and the storage barrel 208 forms a vertical sliding structure through the push plate 206; when the semi-circular turntable 201 rotates, it will drive the storage barrel 208 to rotate. At this time, the induction sheet 202 below the storage barrel 208 gradually approaches the induction sheet 202 on the push plate 206. After the proximity switch 205 detects the proximity signal of the two induction sheets 202, it transmits the signal to the control panel 1, and the control panel 1 then transmits the signal to the pressure sensor 7. The pressure sensor 7 controls the cylinder 204 to move upward, so that the push plate 206 above the cylinder 204 lifts the storage barrel 208. The push plate 206 will move upward and stop for a few seconds. During this period, some specific operations can be carried out to stabilize the position of the storage barrel 208, and then the push plate 206 returns to the initial position. As the semi-circular turntable 201 continues to rotate, the storage barrel 208 gradually falls on the weighing scale 207 on one side after being lifted. When the storage barrel 208 is separated from the push plate 206, at this time, the storage barrel 208 performs a weighing operation on the weighing scale 207, and the first servo motor 203 stops moving so that the weighing scale 207 can accurately wait for the measurement of the weight of the calcium hydroxide ingredients in the storage barrel 208 after discharging materials from above. At this time, the operator needs to control the control panel 1 to complete the movement command to continue moving the position. The reducer at the upper end of the first servo motor 203 adjusts the rotation speed during the operation of the motor to make the rotation of the semi-circular turntable 201 more stable. Since the opening of the storage barrel 208 is larger than the opening of the hole groove of the semi-circular turntable 201, when the semi-circular turntable 201 rotates again and the storage barrel 208 is separated from the weighing scale 207, it will slide down according to gravity and fall on the upper edge of the hole groove of the semi-circular turntable 201, ready to receive the next calcium hydroxide ingredients and can accurately measure the weight.

[0028] In this embodiment, as Figure 1 、 Figure 2 and Figure 4 shown, the auger conveyor shaft 304 forms a rotating structure through the second servo motor 303; the auger conveyor shaft 304 plays a key role in conveying materials during the calcium hydroxide batching process. It stably and continuously conveys the calcium hydroxide ingredients flowing out of the batching barrel 3 to a designated position, such as the discharging barrel 5 or the next production link. The second servo motor 303 provides power for the auger conveyor shaft 304 to ensure that it can rotate at an accurate speed and torque, thereby realizing the effective control of the conveying volume and conveying speed of the calcium hydroxide ingredients.

[0029] In this embodiment, as Figure 1 、 Figure 2 and Figure 4As shown, several cables are provided on one side of the control panel 1. The control panel 1 is connected to the alarm light 6, and the alarm light 6 is connected to the ultrasonic sensor installed on the inner wall of the batching tank 3. Also, the control panel 1 is connected to the pressure sensor 7, and the second servo motor 303 is connected to the pressure sensor 7. The control panel 1 serves as the control center of the entire system. By connecting multiple components, it realizes the centralized control and monitoring of the calcium hydroxide batching process. It receives signals from various sensors and issues control instructions according to preset programs and parameters to adjust the operating state of the equipment. The cables are used to transmit electrical signals, connecting the control panel 1 to each device and sensor to ensure the stable transmission of signals. When abnormal situations occur in the system, such as the liquid level in the batching tank 3 exceeding the set range or equipment failures, the alarm light 6 will emit an alarm signal according to the instructions of the control panel 1 to remind the operator to handle it in a timely manner. The ultrasonic sensor is installed on the inner wall of the batching tank 3 to detect the material liquid level in the batching tank 3 and transmit the detected signal to the control panel 1 so that the control system can adjust the batching process according to the actual situation. The pressure sensor 7 is connected to the control panel 1 and the second servo motor 303 to monitor the pressure in the batching tank 3 and, in some cases, provide feedback signals to the second servo motor 303 to achieve precise control of the auger conveyor shaft 304. The control panel 1 can adjust the rotation speed of the second servo motor 303 through the signal of the pressure sensor 7 to reduce the conveying speed of the auger conveyor shaft 304. During the calcium hydroxide batching process, the ultrasonic sensor continuously detects the material state in the batching tank 3 and transmits the detected signal to the control panel 1 through the cable. The control panel 1 analyzes and processes the received signal. If abnormal situations are found, such as too high or too low liquid level, corresponding control instructions will be issued. For example, when the liquid level is too high, the control panel 1 can control the electric flow regulating valve 301 to reduce the discharge amount or start the alarm light 6 to emit an alarm. The control panel 1 can adjust the operating state of the equipment according to the pressure situation, such as controlling the rotation speed of the second servo motor 303.

[0030] In this embodiment, as Figure 1 、 Figure 2 、 Figure 3 and Figure 4As shown in the figure, several cables are provided on one side of the control panel 1. The control panel 1 is connected to the electric flow regulating valve 301 between the batching tank 3 and the material transfer housing 302, and the control panel 1 is also connected to the electric flow regulating valve 301 below the discharging tank 5. Moreover, the weighing scale 207 is connected to the pressure sensor 7. The electric flow regulating valves 301 are respectively installed between the batching tank 3 and the material transfer housing 302 and below the discharging tank 5. By being connected to the control panel 1 and receiving its control signal, the accurate regulation of the flow rate of calcium hydroxide material is realized. In this way, according to the production requirements, the proportion of batching and the discharging speed can be controlled. The weighing scale 207 is used to measure the weight of calcium hydroxide batching in the storage tank 208. After being connected to the pressure sensor 7, the weight signal can be converted into a pressure signal or transmitted to the control panel 1 together with the pressure signal, providing data support for the accurate control of the batching process. During the production process of calcium hydroxide batching, the control panel 1 sends control signals to the electric flow regulating valve 301 according to the preset formula and production process requirements. When it is necessary to adjust the discharging flow rate of the batching tank 3 to the material transfer housing 302, the control panel 1 controls the outflow speed of the calcium hydroxide material by adjusting the opening degree of the electric flow regulating valve 301 at this position. Similarly, for the electric flow regulating valve 301 below the discharging tank 5, the flow rate can also be controlled as needed to meet the requirements of different production links. The weighing scale 207 measures the weight of calcium hydroxide batching in the storage tank 208 in real time and transmits the weight information to the pressure sensor 7 or transmits it to the control panel 1 together with the signal of the pressure sensor 7 in a certain way. The control panel 1 judges the progress and accuracy of batching according to the received weight or pressure signal, and then adjusts the operating parameters of other devices, such as the opening degree of the electric flow regulating valve 301, the rotation speeds of the first servo motor 203 and the second servo motor 303, etc., to realize the accurate control and automated production of the calcium hydroxide batching process.

[0031] In this embodiment, as Figure 1 、 Figure 2 and Figure 3As shown in the figure, several cables are provided on one side of the control panel 1, and the control panel 1 is connected to the pressure sensor 7, the first servo motor 203 is connected to the pressure sensor 7, the proximity switch 205 is connected to the pressure sensor 7, and the proximity switch 205 is connected to the sensing piece 202. And a sensing piece 202 is adhesively bonded to the middle of the lower part of each storage barrel 208. The sensing piece 202 at the lower part of the storage barrel 208 has the same size as the sensing piece 202 above the push plate 206; the pressure sensor 7 is connected to the control panel 1 and the first servo motor 203. On the one hand, it can monitor the pressure change in the system and provide guarantee for the safe operation of the system. On the other hand, it can feedback the pressure signal to the control panel 1 so that the control panel 1 can adjust the operation state of devices such as the first servo motor 203 according to the pressure situation. During the calcium hydroxide batching process, the first servo motor 203 is used to drive the rotation of the rotating shaft 209 and the semi-circular turntable 201 to realize the position switching of the storage barrel 208. By connecting with the pressure sensor 7, the speed and position can be adjusted according to the signal feedback by the pressure sensor 7, improving the batching accuracy and efficiency. The proximity switch 205 is connected to the pressure sensor 7 and the sensing piece 202, and determines the position of the storage barrel 208 by detecting the position of the sensing piece 202. When the storage barrel 208 moves to a specific position, the proximity switch 205 is triggered and transmits the signal to the pressure sensor 7 and the control panel 1, thereby controlling the actions of the corresponding devices. The sensing pieces 202 are adhesively bonded to the middle of the lower part of each storage barrel 208 and above the push plate 206 respectively, and are used to cooperate with the proximity switch 205. When the two sensing pieces 202 are close, the proximity switch 205 can accurately detect the position of the storage barrel 208, providing a basis for the precise control of the system. The storage barrel 208 is used to store the calcium hydroxide batching, and the sensing piece 202 below it cooperates with other components in the system to realize the positioning and operation control of the storage barrel 208. During the calcium hydroxide batching process, each component works together. When the first servo motor 203 drives the semi-circular turntable 201 to rotate, it drives the storage barrel 208 to move. The sensing piece 202 below the storage barrel 208 moves together with the storage barrel 208. When approaching the sensing piece 202 above the push plate 206, the proximity switch 205 detects the approaching signal of the two sensing pieces 202 and transmits this signal to the pressure sensor 7 and the control panel 1. After receiving the signal from the proximity switch 205, the pressure sensor 7 feeds it back to the control panel 1 together with the monitored system pressure information. The control panel 1 analyzes and processes these signals, judges the position of the storage barrel 208 and the operation state of the system, and sends corresponding control instructions to the first servo motor 203 to adjust the rotation speed and position of the semi-circular turntable 201, or control the actions of other devices, such as the telescoping of the cylinder 204, etc.

[0032] The usage method and advantages of the present utility model: For this batching bin that is convenient to control the batching ratio, during use, the working process is as follows:

[0033] As Figure 1 , Figure 2 , Figure 3 and Figure 4 shown, first, the first servo motor 203 drives the rotating shaft 209 to rotate, thereby driving the semi-circular turntable 201 to rotate. At the same time, after the proximity switch 205 detects the proximity signals of the two induction sheets 202, it transmits the signals to the control panel 1, and the control panel 1 then transmits the signals to the pressure sensor 7. The pressure sensor 7 controls the cylinder 204 to move upward, causing the push plate 206 above the cylinder 204 to lift the storage barrel 208. The push plate 206 moves upward and stops for thirty seconds to stabilize the position of the storage barrel 208. As the semi-circular turntable 201 continues to rotate, the empty storage barrel 208 is moved to the weighing scale 207 below the batching barrel 3. When the storage barrel 208 is separated from the push plate 206, at this time, the storage barrel 208 is weighed on the weighing scale 207. The first servo motor 203 stops moving so that the weighing scale 207 can accurately wait to measure the weight of the calcium hydroxide batching in the storage barrel 208 after the material is discharged from above. The ultrasonic sensor on the inner wall of the batching barrel 3 continuously detects the material liquid level in the batching barrel 3 and transmits the detected signals to the control panel 1 through the cable. The control panel 1 analyzes and processes the received signals. If the liquid level is normal, it controls the electric flow regulating valve 301 between the batching barrel 3 and the material conveying housing 302 to open, so that the calcium hydroxide batching flows out of the batching barrel 3. The calcium hydroxide batching enters the material conveying housing 302 through the electric flow regulating valve 301. The second servo motor 303 drives the auger conveying shaft 304 to rotate, stably and continuously conveying the calcium hydroxide batching into the storage barrel 208 to complete the batching. The pressure sensor 7 is connected to the control panel 1 and the second servo motor 303, and is used to monitor the pressure in the batching barrel 3 and provide feedback signals to the second servo motor 303 in some cases. If the liquid level in the batching barrel 3 is too high or the pressure exceeds the safe range, the control panel 1 can control the electric flow regulating valve 301 to reduce the discharge amount, or adjust the rotation speed of the second servo motor 303 to reduce the conveying speed of the auger conveying shaft 304. At the same time, the alarm lamp 6 will send an alarm signal according to the instructions of the control panel 1 to remind the operator to deal with it in time. When the storage barrel 208 is weighed and receives the required calcium hydroxide batching, at this time, the operator needs to control the control panel 1 to complete the movement command before it can continue to move. The operator issues a movement command through the control panel 1, and the first servo motor 203 starts again, driving the semi-circular turntable 201 to rotate. Since the opening of the storage barrel 208 is larger than the opening of the hole groove of the semi-circular turntable 201, when the semi-circular turntable 201 rotates again and the storage barrel 208 is separated from the weighing scale 207, it will slide down according to gravity and fall on the upper edge of the hole groove of the semi-circular turntable 201, ready to receive the next calcium hydroxide batching.

[0034] The foregoing has shown and described the basic principles, main features and advantages of the present utility model. Those skilled in the art should understand that the present utility model is not limited by the above embodiments. The above embodiments and the descriptions in the specification are only preferred examples of the present utility model and are not used to limit the present utility model. Without departing from the spirit and scope of the present utility model, the present utility model will have various changes and improvements, and these changes and improvements all fall within the scope of the present utility model claimed. The scope of protection claimed by the present utility model is defined by the appended claims and their equivalents.

Claims

1. A batching bin for conveniently controlling the specific gravity of the batching, comprising a bottom plate (2), characterized in that: A control panel (1) is installed above the bottom plate (2) by means of screws, a batching barrel (3) is provided above the bottom plate (2), a discharging barrel (5) is provided on one side of the batching barrel (3), a dust cover (4) is clamped above the discharging barrel (5), an alarm light (6) is installed in front of the batching barrel (3) by means of screws, and a pressure sensor (7) is installed above the control panel (1) by means of a cable; The housing of a first servo motor (203) is installed below the bottom plate (2) by means of screws, the output shaft of the first servo motor (203) is installed with a rotating shaft (209) by means of bolts, the housing of a cylinder (204) is installed below the bottom plate (2) by means of screws, one side of the cylinder (204) is attached with a proximity switch (205), a push plate (206) is installed above the output shaft of the cylinder (204) by means of bolts, a sensing sheet (202) is installed above the push plate (206) by means of screws, a semicircular turntable (201) is rotatably connected above the rotating shaft (209), a storage barrel (208) is attached inside the semicircular turntable (201), and a weight scale (207) is attached below the storage barrel (208); The lower outlet end of the batching barrel (3) is threadedly connected to an electric flow regulating valve (301), and the lower outlet end of the electric flow regulating valve (301) is threadedly connected to a material transfer housing (302), a second servo motor (303) is installed on one side of the material transfer housing (302) by means of screws, and an output shaft on one side of the second servo motor (303) is connected to an auger conveying shaft (304) by means of bolts.

2. The batching bin for conveniently controlling the specific gravity of the ingredients according to claim 1, characterized in that: The rotating shaft (209) forms a rotating structure through the first servo motor (203), and the semicircular rotating disk (201) forms a rotating structure through the rotating shaft (209).

3. The batching bin for conveniently controlling the specific gravity of the ingredients according to claim 1 is characterized by: The push plate (206) forms a vertical sliding structure through the cylinder (204), and the storage barrel (208) forms a vertical sliding structure through the push plate (206).

4. The batching bin for conveniently controlling the specific gravity of the ingredients according to claim 1 is characterized in that: The auger conveying shaft (304) forms a rotating structure through the second servo motor (303).

5. The batching bin for conveniently controlling the specific gravity of the ingredients according to claim 1 is characterized in that: A plurality of cables are provided on one side of the control panel (1), and the control panel (1) is connected to the alarm light (6), and the alarm light (6) is connected to an ultrasonic sensor installed on the inner wall of the batching barrel (3), and the control panel (1) is connected to the pressure sensor (7), and the second servo motor (303) is connected to the pressure sensor (7).

6. The batching bin for conveniently controlling the specific gravity of the ingredients according to claim 1, characterized in that: A plurality of cables are provided on one side of the control panel (1), and the control panel (1) is connected to an electric flow regulating valve (301) between the batching barrel (3) and the material transfer housing (302), and the control panel (1) is connected to an electric flow regulating valve (301) below the material discharge barrel (5), and a weight scale (207) is connected to a pressure sensor (7).

7. The batching bin for conveniently controlling the specific gravity of the ingredients according to claim 1, characterized in that: A plurality of cables are provided on one side of the control panel (1), and the control panel (1) is connected to the pressure sensor (7), and the first servo motor (203) is connected to the pressure sensor (7), and the proximity switch (205) is connected to the pressure sensor (7), and the proximity switch (205) is connected to the induction sheet (202), and the induction sheet (202) is glued to the middle of the lower part of each storage barrel (208), and the size of the induction sheet (202) below the storage barrel (208) is consistent with the size of the induction sheet (202) above the push plate (206).

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