A device for dosing olive blend oil

Abstract

This utility model discloses a quantitative mixing device for olive blended oil, including a storage cylinder body, an inlet pipe and an outlet pipe fixedly installed on the storage cylinder body, a first electrically controlled valve body installed on the inlet pipe, a second electrically controlled valve body installed on the outlet pipe, a main rotating gear disk rotatably connected to the storage cylinder body, a gear disk drive assembly installed on the storage cylinder body, a scraper assembly and a reciprocating drive assembly installed on the main rotating gear disk, and a sliding seat slidably connected to the main rotating gear disk. By setting the reciprocating drive assembly, the gear disk drive assembly, and the guide assembly, when the connecting shaft carries the pusher blade to rotate, it moves in three directions. The three components work together to enable the pusher blade to move in three directions, reaching the corners and bottom of the storage cylinder body, which are traditional blind spots for stirring. This avoids the need for oil in certain areas not being stirred, ensuring that all oil in the cylinder participates in mixing and fully improving the oil mixing efficiency.

Description

Technical Field

[0001] This utility model relates to the field of blended oil production technology, specifically to a quantitative blending device for olive oil. Background Technology

[0002] Olive blending oil metering device, as a specialized food processing equipment, plays a vital role in the modern oil processing industry. It is not just a simple mixing tool, but integrates advanced technology and a precise control system, aiming to achieve a precise blending ratio between olive oil and other edible oils to meet the diverse market demand for high-quality blended oil products.

[0003] In existing technologies, common blending devices typically employ a single-shaft design for their rotating shaft. However, when dealing with certain oil solutions, relying solely on a single agitator for material mixing results in relatively limited shear force. In high-viscosity, complex material systems like olive oil blends, a single agitator cannot provide sufficient energy in a short time to fully disperse and uniformly mix the materials. This significantly extends the time required to achieve industry-standard mixing uniformity, reducing production efficiency and potentially affecting the final product quality due to uneven mixing. Summary of the Invention

[0004] The purpose of this utility model is to provide a quantitative blending device for olive oil blending, in order to solve the problem mentioned in the background art that the existing blending devices often use a single shaft with a single stirring paddle, which has limited shearing force. For some olive oil blending operations, it is difficult to fully disperse and mix the materials in a short time, which prolongs the time to reach the standard, reduces production efficiency, and may affect product quality.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a quantitative blending device for olive oil, comprising a storage cylinder body, an inlet pipe and a outlet pipe fixedly installed on the storage cylinder body, a first electrically controlled valve body installed on the inlet pipe, a second electrically controlled valve body installed on the outlet pipe, and further comprising a main rotating gear disk rotatably connected to the storage cylinder body, a gear disk drive assembly installed on the storage cylinder body, a scraper assembly and a reciprocating drive assembly installed on the main rotating gear disk, a sliding seat slidably connected to the main rotating gear disk, a rotating bushing rotatably connected to the sliding seat, a guide assembly and a rotating shaft drive assembly installed on the sliding seat, a transmission assembly installed on the rotating bushing, a connecting rotating shaft slidably connected to the rotating bushing, and a pusher blade fixedly installed on the connecting rotating shaft. The main rotating gear disk is connected to the output end of the gear disk drive assembly, and the rotating bushing is connected to the output end of the rotating shaft drive assembly. The gear drive assembly is used to drive the main rotating gear to reciprocate. When the main rotating gear rotates, it drives the scraper assembly to clean the deposits on the inner wall of the storage cylinder. When the rotating shaft drive assembly drives the connected rotating shaft sleeve to rotate, it drives the other rotating shaft sleeve to rotate synchronously through the transmission assembly. When the rotating shaft sleeve rotates, it carries the connecting rotating shaft to rotate synchronously. When the connecting rotating shaft rotates, it drives the connecting rotating shaft and the pusher blade to move up and down synchronously through the guide assembly.

[0006] In a preferred embodiment of this technical solution, the rotating bushing has a slot adapted to the connecting shaft, and the connecting shaft is slidably connected to the slot.

[0007] In a preferred embodiment of this technical solution, the gear drive assembly includes a first motor fixedly mounted on the storage cylinder body, a first rotating disk fixedly connected to the output end of the first motor, a first fixed rod fixedly connected to the first rotating disk, a first gear rotatably connected to the storage cylinder body, and a connecting plate fixedly connected to the first gear. The first fixed rod is slidably connected to the connecting plate. The main rotating gear meshes with the first gear. The first motor drives the first rotating disk to rotate. When the first rotating disk rotates, it engages with the connecting plate through the first fixed rod to drive the first gear to reciprocate.

[0008] According to the preferred embodiment of this technical solution, the reciprocating drive assembly includes a fixed bracket and a fixed gear disk fixedly mounted on the main rotating gear disk, a first sliding plate slidably connected to the fixed bracket, a second motor fixedly mounted on the first sliding plate, and a second gear fixedly connected to the second motor. The second gear is slidably connected to the sliding seat and meshes with the fixed gear disk. The second motor is used to drive the second gear to rotate. When the second gear rotates, it drives the sliding seat to carry the rotating bushing, the connecting shaft, and the pusher blade to reciprocate through meshing with the fixed gear disk.

[0009] In a preferred embodiment of this technical solution, the transmission assembly includes a sprocket fixedly mounted on a rotating bushing and a chain meshing with the sprocket.

[0010] According to the preferred embodiment of this technical solution, the rotating shaft drive assembly includes a third motor fixedly mounted on the sliding seat, a third gear fixedly connected to the output end of the third motor, and a connecting gear meshing with the third gear. The connecting gear is fixedly connected to the rotating shaft sleeve. The third motor is used to drive the third gear to rotate. When the third gear rotates, it drives the connected rotating shaft sleeve to rotate through meshing with the connecting gear.

[0011] According to the preferred embodiment of this technical solution, the guide assembly includes a guide sleeve fixedly installed on the sliding seat and a guide rod slidably connected to the guide sleeve. The guide rod is fixedly connected to the connecting shaft. When the connecting shaft rotates, it drives the guide rod to slide along the guide groove of the guide sleeve, thereby driving the connecting shaft to move up and down synchronously when it rotates.

[0012] According to the preferred embodiment of this technical solution, the scraper assembly includes a second fixed rod fixedly mounted on the main rotating gear disk, a first bolt rotatably connected to the second fixed rod, a second sliding plate threadedly connected to the first bolt, a scraper body slidably connected to the second fixed rod, and a first spring fixedly connected between the scraper body and the second sliding plate.

[0013] Compared with the prior art, the beneficial effects of this utility model are: 1. By setting up a reciprocating drive component, a gear drive component, and a guide component, the connecting shaft carries the pusher blades to rotate and move in three directions. The three components work together to enable the pusher blades to move in three directions, which can reach the corners and bottom of the storage cylinder body and other traditional stirring blind areas, avoiding the absence of stirring of the required oil in some areas, ensuring that all the oil in the cylinder can participate in the mixing, and fully improving the oil mixing efficiency.

[0014] 2. Several conical through holes are provided on the pusher blade to reduce material slippage and improve driving effectiveness. The conical through holes of the pusher blade can increase the contact friction between the material and the blade, so that the blending oil can be stably driven when the blade rotates, and will not slip out of the mixing trajectory. This ensures that each part of the oil can be effectively acted on by the blade and reduces the situation of insufficient local mixing.

[0015] 3. By adjusting the sliding of the second sliding plate with the first bolt, the thrust provided by the first spring to the scraper body is changed. This prevents excessive thrust from causing excessive friction between the scraper body and the inner wall, resulting in wear on the scraper body edge and scratches on the inner wall. It also avoids insufficient thrust causing the scraper body to be idle and worn out. At the same time, it adapts to the cleaning needs of oils with different viscosities and reduces the failure of the scraper assembly due to improper force. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of one embodiment of the olive oil blending device of this utility model; Figure 2 for Figure 1 Schematic diagram of the cross-sectional structure of the middle storage cylinder; Figure 3 for Figure 1 A partial structural diagram of the central storage cylinder body; Figure 4 This is a schematic diagram of the gear drive assembly of this utility model; Figure 5 This is a schematic diagram of the main rotating gear disk and its connected components of this utility model; Figure 6 This is a schematic diagram of the connecting shaft and its connected components of this utility model; Figure 7 This is a schematic diagram of the sliding seat and its connected components of this utility model; Figure 8This is a schematic diagram of the reciprocating drive component structure of this utility model; Figure 9 This is a schematic diagram of the shaft drive assembly structure of this utility model; Figure 10 This is a schematic diagram of the scraper assembly structure of this utility model.

[0017] In the diagram: 1. Storage cylinder body; 21. Main rotating gear disk; 22. Sliding seat; 23. Rotating bushing; 24. Connecting shaft; 25. Pushing blade; 26. First motor; 27. First rotating disk; 28. First fixed rod; 29. ​​First gear; 210. Connecting plate; 211. Fixed bracket; 212. First sliding plate; 213. Second motor; 214. Fixed gear disk; 215. Second gear; 216. Sprocket; 217. Chain; 218. Third motor; 219. Third gear; 220. Connecting gear; 221. Guide sleeve; 222. Guide rod; 31. Second fixed rod; 32. First bolt; 33. Second sliding plate; 34. Scraper body; 35. First spring; 4. Feed pipe; 5. First electric control valve body; 6. Discharge pipe; 7. Second electric control valve body. Detailed Implementation

[0018] 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.

[0019] Please see Figure 1 - Figure 10 This utility model provides an embodiment: a quantitative blending device for olive oil, including a storage cylinder body 1, a feed pipe 4 and a discharge pipe 6 fixedly installed on the storage cylinder body 1, a first electrically controlled valve body 5 installed on the feed pipe 4, a second electrically controlled valve body 7 installed on the discharge pipe 6, and a main rotating gear disk 21 rotatably connected to the storage cylinder body 1, a gear disk drive assembly installed on the storage cylinder body 1, a scraper assembly and a reciprocating drive assembly installed on the main rotating gear disk 21, a sliding seat 22 slidably connected to the main rotating gear disk 21, a rotating bushing 23 rotatably connected to the sliding seat 22, a guide assembly and a rotating shaft drive assembly installed on the sliding seat 22, a transmission assembly installed on the rotating bushing 23, a connecting rotating shaft 24 slidably connected to the rotating bushing 23, and a pusher blade 25 fixedly installed on the connecting rotating shaft 24. The main rotating gear disk 21 is connected to the output end of the gear disk drive assembly, and the rotating bushing 23 is connected to the output end of the rotating shaft drive assembly. The gear drive assembly is used to drive the main rotating gear 21 to reciprocate. When the main rotating gear 21 reciprocates, it drives the scraper assembly to clean the deposits on the inner wall of the storage cylinder body 1. When the rotating shaft drive assembly drives the connected rotating shaft sleeve 23 to rotate, it drives the other rotating shaft sleeve 23 to rotate synchronously through the transmission assembly. When the rotating shaft sleeve 23 rotates, it carries the connecting rotating shaft 24 to rotate synchronously. When the connecting rotating shaft 24 rotates, it drives the connecting rotating shaft 24 and the pusher blade 25 to move up and down synchronously through the guide assembly. In use, the required oil enters through the feed pipe 4. The first electrically controlled valve 5 limits the amount of oil entering the storage cylinder body 1, ensuring a precise quantity enters. First, the gear drive assembly operates, causing the main rotating gear 21 to reciprocate inside the storage cylinder body 1. The rotation of the main rotating gear 21 drives the scraper assembly and other components to reciprocate. The scraper assembly cleans the inner wall of the storage cylinder body 1, preventing the required oil from adhering to it. The rotation of the main rotating gear 21 also activates the shaft drive assembly and the reciprocating drive assembly. When the shaft drive assembly operates, it drives the rotating bushing 23 to rotate. When the rotating bushing 23 rotates, the connecting shaft 24 is driven by the guide assembly to carry the pusher blade 25 to move up and down reciprocally while rotating. During the reciprocating drive, the sliding seat 22 can be driven to rotate reciprocally on the main rotating gear disk 21, thereby causing the feed pipe 4 to move reciprocally in three directions, which fully increases the contact area between the pusher blade 25 and the required oil inside the storage cylinder body 1. The pusher blade 25 has several conical holes. When the pusher blade 25 is stirring the required oil and the material flows in the holes, the friction with the hole wall is increased compared with the traditional smooth blade surface, which improves the mixing efficiency. After the mixing is completed, the second electric control valve body 7 is opened, so that the material is discharged from the discharge pipe 6.

[0020] Please see Figure 8 A further solution based on this embodiment is as follows: a groove adapted to the connecting shaft 24 is provided on the rotating bushing 23. The connecting shaft 24 is slidably connected to the groove. When the rotating bushing 23 rotates, the connecting shaft 24 is driven to rotate synchronously through the circumferential constraint of the groove. When the guide component drives the connecting shaft 24 to move up and down, the connecting shaft 24 can slide along the axial direction of the groove. This groove structure can provide precise guidance for the up and down movement of the connecting shaft 24 while ensuring stable transmission of rotational torque, and avoid the connecting shaft 24 from deviating during the movement.

[0021] Please see Figure 1 - Figure 4A further solution based on this embodiment is as follows: the gear drive assembly includes a first motor 26 fixedly mounted on the storage cylinder body 1, a first rotating disk 27 fixedly connected to the output end of the first motor 26, a first fixing rod 28 fixedly connected to the first rotating disk 27, a first gear 29 rotatably connected to the storage cylinder body 1, and a connecting plate 210 fixedly connected to the first gear 29. The first fixing rod 28 is slidably connected to the connecting plate 210. The main rotating gear 21 meshes with the first gear 29. The first motor 26 drives the first rotating disk 27 to rotate. When the first rotating disk 27 rotates, it cooperates with the connecting plate 210 through the first fixing rod 28 to drive the first gear 29 to reciprocate. After startup, the first rotating disk 27 rotates circumferentially. The first fixed rod 28 on the first rotating disk 27 rotates with it and slides in the slot of the connecting plate 210. Through this sliding engagement, the circumferential motion is converted into the reciprocating oscillation of the connecting plate 210, which in turn drives the first gear 29 to reciprocate. Finally, the gear meshing drives the main rotating disk 21 to reciprocate. This component converts the continuous rotation of the motor into the reciprocating motion of the main rotating disk 21 through a mechanical transmission structure. By reciprocating the main rotating disk 21, the scraper assembly is driven to clean the inner wall of the storage cylinder body 1. At the same time, the position of the connecting shaft 24 and the pusher blade 25 can be changed to increase the stirring range and ensure that the required oil is better mixed inside the storage cylinder body 1.

[0022] Please see Figure 5 - Figure 8 A further embodiment of this solution is as follows: the reciprocating drive assembly includes a fixed bracket 211 and a fixed gear disk 214 fixedly mounted on the main rotating gear disk 21, a first sliding plate 212 slidably connected to the fixed bracket 211, a second motor 213 fixedly mounted on the first sliding plate 212, and a second gear 215 fixedly connected to the second motor 213. The second gear 215 is slidably connected to the sliding seat 22 and meshes with the fixed gear disk 214. The second motor 213 is used to drive the second gear 215 to rotate. When the second gear 215 rotates, it drives the sliding seat 22 to carry the rotating bushing 23 and the connecting shaft 214 through meshing with the fixed gear disk 214. 4. The pusher blade 25 slides back and forth, and the second gear 215 is driven to rotate by the second motor 213. Since the second gear 215 is engaged with the fixed gear disk 214 and the fixed gear disk 214 is in a fixed position, the second gear 215 and the fixed gear disk 214 are engaged to drive the sliding seat 22 to slide back and forth, thereby driving the rotating sleeve 23, the connecting shaft 24 and the pusher blade 25 to move synchronously. This driving method allows the pusher blade 25 to slide back and forth along the radial direction of the main rotating gear disk 21 while rotating with the main rotating gear disk 21, which greatly expands the stirring coverage of the pusher blade 25, effectively avoids the formation of stirring dead zones in the storage tank, and makes the oil of different components more uniformly mixed.

[0023] Please see Figure 7 - Figure 9 A further solution based on this embodiment is as follows: The transmission assembly includes a sprocket 216 fixedly mounted on the rotating bushing 23 and a chain 217 meshing with the sprocket 216. When the rotating bushing 23 connected to the connecting gear 220 rotates under the action of the rotating shaft drive assembly, the sprocket 216 at one end rotates synchronously. Through the meshing transmission of the chain 217, the sprockets 216 on other rotating bushings 23 rotate synchronously, thereby making all rotating bushings 23 maintain the same speed and direction of rotation. This transmission structure can realize the synchronous drive of multiple rotating bushings 23 without the need to configure a separate drive assembly for each rotating bushing 23, simplifying the device structure and reducing energy consumption. It ensures that the rotation speed of all pusher blades 25 is consistent, avoiding uneven oil mixing due to differences in the rotation speed of each pusher blade 25, and further ensuring the accuracy of the oil preparation required for olives.

[0024] Please see Figure 7 - Figure 9 A further solution based on this embodiment is as follows: The rotating shaft drive assembly includes a third motor 218 fixedly mounted on the sliding seat 22, a third gear 219 fixedly connected to the output end of the third motor 218, and a connecting gear 220 meshing with the third gear 219. The connecting gear 220 is fixedly connected to the rotating shaft sleeve 23. The third motor 218 is used to drive the third gear 219 to rotate. When the third gear 219 rotates, it drives the connected rotating shaft sleeve 23 to rotate through meshing with the connecting gear 220. After the third motor 218 starts, it drives the third gear 219 to rotate. The third gear 219 transmits torque to the rotating shaft sleeve 23 through meshing with the connecting gear 220, causing the rotating shaft sleeve 23 to rotate around and drive the connecting rotating shaft 24 and the pusher blade 25 to rotate synchronously to perform stirring motion.

[0025] Please see Figure 7 - Figure 9A further embodiment of this solution is as follows: the guide assembly includes a guide sleeve 221 fixedly mounted on the sliding seat 22 and a guide rod 222 slidably connected to the guide sleeve 221. The guide rod 222 is fixedly connected to the connecting shaft 24. When the connecting shaft 24 rotates, it drives the guide rod 222 to slide along the guide groove of the guide sleeve 221, causing the connecting shaft 24 to move up and down synchronously when it rotates. When the connecting shaft 24 rotates under the drive of the rotating bushing 23, the guide rod 222 fixed to the connecting shaft 24 rotates synchronously with it. Meanwhile, the guide rod 222 is constrained by the guide groove inside the guide sleeve 221. The specific trajectory of the guide groove will convert the rotation of the guide rod 222 into linear motion in the up and down direction, thereby driving the connecting shaft 24 to move up and down while rotating. This guide structure allows the pusher blade 25 to have a compound action of rotation and up and down movement at the same time. Rotation can realize the circumferential stirring of the oil, while up and down movement can break the vertical stratification of the oil, so that the oil components of different densities can be fully mixed, avoiding the deviation of the component ratio when quantitatively discharging due to oil stratification.

[0026] Please see Figure 2 , Figure 10 A further embodiment of this design includes a scraper assembly comprising a second fixed rod 31 fixedly mounted on the main rotating gear disk 21, a first bolt 32 rotatably connected to the second fixed rod 31, a second sliding plate 33 threadedly connected to the first bolt 32, a scraper body 34 slidably connected to the second fixed rod 31, and a first spring 35 fixedly connected between the scraper body 34 and the second sliding plate 33. By rotating the first bolt 32, the position of the second sliding plate 33 on the second fixed rod 31 can be adjusted. The second sliding plate 33 applies elastic pressure to the scraper body 34 through the first spring 35, ensuring that the scraper body 34 remains constantly in contact with the main rotating gear disk 21. When the main rotating gear 21 drives the second fixed rod 31 to rotate reciprocally, the scraper body 34 moves synchronously with it and scrapes off the oil deposits on the inner wall. The assembly can flexibly adjust the contact pressure between the scraper body 34 and the inner wall of the storage cylinder through the first bolt 32. This ensures thorough cleaning of residual oil on the inner wall and avoids the problem of excessive friction between the scraper body 34 and the inner wall caused by excessive pressure in traditional rigid fixed scrapers. This extends the service life of the scraper body 34. At the same time, the elastic buffering effect of the first spring 35 can cope with the small dimensional errors of the inner wall of the storage cylinder, ensuring that the scraper body 34 always maintains a stable cleaning effect.

[0027] Other embodiments: The scraper assembly can also adopt other structures in the prior art, with a disc spring replacing the first spring 35. The advantage is that under the same compression, the elastic force provided by the disc spring is more stable, avoiding the problem of the scraper body not sticking tightly to the wall caused by the elastic force decay after long-term use of the original cylindrical spring; the elastic force can also be adjusted by stacking multiple disc springs to adapt to olive oil of different viscosities, and the adjustment range is greater than that of the original spring; and it has excellent fatigue resistance, improved service life, and reduced replacement frequency of scraper assembly.

[0028] Working principle: First, the required oil enters the storage cylinder body 1 through the feed pipe 4. During the entry process, the first electrically controlled valve body 5 restricts the entry of the required oil, ensuring that the required oil enters the storage cylinder body 1 in the required quantity. After the blended oil enters, the gear drive assembly starts working. The first motor 26 starts, driving the first rotating disk 27 to rotate circumferentially. The first fixed rod 28 on the first rotating disk 27 rotates with it and slides in the slot of the connecting plate 210. Through this sliding engagement, the circumferential motion is converted into the reciprocating oscillation of the connecting plate 210, which in turn drives the first gear 29 to rotate reciprocally. The first gear 29 meshes with the main rotating gear disk 21, from... The main rotating gear 21 reciprocates inside the storage cylinder body 1. When the main rotating gear 21 reciprocates, it drives the scraper assembly, reciprocating drive assembly, etc. to reciprocate synchronously. The second fixing rod 31 of the scraper assembly rotates with the main rotating gear 21. The scraper body 34 is always pressed against the inner wall of the storage cylinder body 1 under the elastic pressure of the first spring 35. It reciprocates with the second fixing rod 31 to scrape off the oil deposits on the inner wall. Subsequently, according to actual needs, the first bolt 32 can be rotated to drive the second sliding plate 33 to slide inside the second fixing rod 31, thereby adjusting the thrust provided by the first spring 35 to the scraper body 34. Simultaneously with the rotation of the main rotating gear disk 21, the rotating shaft drive assembly and the reciprocating drive assembly are activated. In the rotating shaft drive assembly, the third motor 218 starts, driving the third gear 219 to rotate. The third gear 219 meshes with the connecting gear 220, transmitting torque to the rotating shaft sleeve 23, causing the rotating shaft sleeve 23 to rotate. As the rotating shaft sleeve 23 rotates, it forms a circumferential constraint on the connecting rotating shaft 24 through its groove, causing the connecting rotating shaft 24 to rotate synchronously. Simultaneously, as the connecting rotating shaft 24 rotates, the guide rod 222 fixed to it rotates synchronously with it. 222 is constrained by the guide groove in the guide sleeve 221. The specific trajectory of the guide groove converts the rotation of the guide rod 222 into linear motion in the up and down direction, thereby driving the connecting shaft 24 to carry the pusher blade 25 to move up and down reciprocally while rotating. In the transmission assembly, when the rotating bushing 23 connected to the connecting gear 220 rotates, the sprocket 216 at one end of it rotates synchronously. Through the meshing transmission of the chain 217, it drives the sprockets 216 on other rotating bushings 23 to rotate synchronously, so that all rotating bushings 23 maintain the same speed and direction of rotation. When the reciprocating drive assembly is working, the second motor 213 drives the second gear 215 to rotate. Since the second gear 215 is meshed with the fixed gear disk 214 and the fixed gear disk 214 is in a fixed position, the sliding seat 22 is driven to slide back and forth on the main rotating gear disk 21 through the meshing transmission of the two, thereby driving the rotating bushing 23, the connecting shaft 24 and the pusher blade 25 to move synchronously. This allows the pusher blade 25 to additionally slide back and forth along the radial direction of the main rotating gear disk 21 while rotating with the main rotating gear disk 21, rotating on its own and moving up and down. It moves back and forth in three directions, expanding the contact area with the required oil inside the storage cylinder body 1. With the help of several conical holes opened on the pusher blade 25, when the required oil is stirred, the material flows in the holes and rubs against the hole wall, which fully improves the stirring and mixing efficiency. After the required oil is mixed, the second electric control valve body 7 is opened and the material is discharged from the discharge pipe 6, completing the mixing work.

[0029] 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 quantitative blending device for olive oil, comprising a storage cylinder body (1), an inlet pipe (4) and a outlet pipe (6) fixedly installed on the storage cylinder body (1), a first electrically controlled valve body (5) installed on the inlet pipe (4), and a second electrically controlled valve body (7) installed on the outlet pipe (6), characterized in that: It also includes a main rotating gear disk (21) rotatably connected to the storage cylinder body (1), a gear disk drive assembly mounted on the storage cylinder body (1), a scraper assembly and a reciprocating drive assembly mounted on the main rotating gear disk (21), a sliding seat (22) slidably connected to the main rotating gear disk (21), a rotating bushing (23) rotatably connected to the sliding seat (22), a guide assembly and a rotating shaft drive assembly mounted on the sliding seat (22), a transmission assembly mounted on the rotating bushing (23), a connecting shaft (24) slidably connected to the rotating bushing (23), and a pusher blade (25) fixedly mounted on the connecting shaft (24). The main rotating gear disk (21) is connected to the output end of the gear disk drive assembly, and the rotating bushing (23) is connected to the output end of the rotating shaft drive assembly. The gear drive assembly is used to drive the main rotating gear (21) to reciprocate. When the main rotating gear (21) reciprocates, it drives the scraper assembly to clean the attachments on the inner wall of the storage cylinder body (1). When the rotating shaft drive assembly drives the connected rotating shaft sleeve (23) to rotate, it drives the other rotating shaft sleeve (23) to rotate synchronously through the transmission assembly. When the rotating shaft sleeve (23) rotates, it carries the connecting rotating shaft (24) to rotate synchronously. When the connecting rotating shaft (24) rotates, it drives the connecting rotating shaft (24) and the pusher blade (25) to move up and down synchronously through the guide assembly.

2. The olive blending oil metering device according to claim 1, characterized in that: The rotating bushing (23) has a slot that matches the connecting shaft (24), and the connecting shaft (24) is slidably connected to the slot.

3. The olive blending oil quantitative mixing device according to claim 1, characterized in that: The gear drive assembly includes a first motor (26) fixedly mounted on the storage cylinder body (1), a first rotating disk (27) fixedly connected to the output end of the first motor (26), a first fixed rod (28) fixedly connected to the first rotating disk (27), a first gear (29) rotatably connected to the storage cylinder body (1), and a connecting plate (210) fixedly connected to the first gear (29). The first fixed rod (28) is slidably connected to the connecting plate (210). The main rotating gear (21) meshes with the first gear (29). The first motor (26) is used to drive the first rotating disk (27) to rotate. When the first rotating disk (27) rotates, it cooperates with the connecting plate (210) through the first fixed rod (28) to drive the first gear (29) to reciprocate.

4. The olive blending oil quantitative mixing device according to claim 1, characterized in that: The reciprocating drive assembly includes a fixed bracket (211) and a fixed gear disk (214) fixedly mounted on the main rotating gear disk (21), a first sliding plate (212) slidably connected to the fixed bracket (211), a second motor (213) fixedly mounted on the first sliding plate (212), and a second gear (215) fixedly connected to the second motor (213). The second gear (215) is slidably connected to the sliding seat (22) and meshes with the fixed gear disk (214). The second motor (213) is used to drive the second gear (215) to rotate. When the second gear (215) rotates, it drives the sliding seat (22) to carry the rotating bushing (23), the connecting shaft (24), and the pusher blade (25) to reciprocate.

5. The olive blending oil quantitative mixing device according to claim 1, characterized in that: The transmission assembly includes a sprocket (216) fixedly mounted on a rotating bushing (23) and a chain (217) meshing with the sprocket (216).

6. The olive blending oil quantitative mixing device according to claim 1, characterized in that: The rotating shaft drive assembly includes a third motor (218) fixedly mounted on a sliding seat (22), a third gear (219) fixedly connected to the output end of the third motor (218), and a connecting gear (220) meshing with the third gear (219). The connecting gear (220) is fixedly connected to the rotating shaft sleeve (23). The third motor (218) is used to drive the third gear (219) to rotate. When the third gear (219) rotates, it drives the connected rotating shaft sleeve (23) to rotate through meshing with the connecting gear (220).

7. The olive blending oil quantitative mixing device according to claim 1, characterized in that: The guide assembly includes a guide sleeve (221) fixedly mounted on a sliding seat (22) and a guide rod (222) slidably connected to the guide sleeve (221). The guide rod (222) is fixedly connected to the connecting shaft (24). When the connecting shaft (24) rotates, it drives the guide rod (222) to slide along the guide groove of the guide sleeve (221), causing the connecting shaft (24) to move up and down synchronously when it rotates.

8. The olive blending oil quantitative mixing device according to claim 1, characterized in that: The scraper assembly includes a second fixed rod (31) fixedly mounted on the main rotating gear disk (21), a first bolt (32) rotatably connected to the second fixed rod (31), a second sliding plate (33) threadedly connected to the first bolt (32), a scraper body (34) slidably connected to the second fixed rod (31), and a first spring (35) fixedly connected between the scraper body (34) and the second sliding plate (33).

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