High-pressure jet continuous liquefaction device for glucose syrup processing

Abstract

The invention relates to the technical field of high-pressure continuous injection liquefiers, and discloses a high-pressure injection continuous liquefying device for glucose syrup processing, which comprises a mixing pipe, a sliding shaft and a diffusion buffer pipe, and a gas inlet cavity and a gas-liquid mixing chamber are arranged in the mixing pipe. During use, through the arrangement of the connecting mechanism, the diffusion buffer pipe and the mixing pipe can be quickly mounted and dismounted, the phenomena of air leakage and the like caused by bolt looseness are avoided, and the mounting and dismounting speed is increased. Through the arrangement of the cleaning mechanism, a worker can be prompted when a sliding shaft horizontally moves to a certain position, so that the sliding shaft and a circular scraper are clamped through a clamping assembly, the circular scraper is driven by the sliding shaft to move, and the function of cleaning residual materials on the inner wall of the gas-liquid mixing chamber is achieved; and the annular rotating plate and the bristles can be driven to rotate synchronously under the action of the rotating assembly, so that the gas-liquid mixing chamber is further cleaned.

Description

Technical Field

[0001] The invention relates to the technical field of high-pressure continuous jet liquefaction devices, and more specifically to a high-pressure jet continuous liquefaction device for processing glucose syrup. Background Art

[0002] Glucose is the most widely distributed and important monosaccharide in nature. It is a sugar aqueous solution obtained by partial hydrolysis of edible corn starch, which is purified and concentrated. In the production process of glucose, a jet liquefier is often needed to heat and liquefy it.

[0003] The existing liquefied ejector includes an ejector body, which includes a gas-liquid mixing chamber, a diffuser and a buffer tube. The gas-liquid mixing chamber, the diffuser and the buffer tube are fixedly connected and interconnected by multiple bolts. The left end and the bottom end of the gas-liquid mixing chamber are respectively connected to the outside with a liquid inlet and a steam inlet. When it is in use, the liquid and steam enter the gas-liquid mixing chamber through the liquid inlet and the steam inlet respectively, and after mixing in the gas-liquid mixing chamber, they are liquefied and ejected through the diffuser and the buffer tube.

[0004] In the prior art, when using a high-pressure jet continuous liquefaction device for glucose syrup processing, the following problems often occur: 1. Before using the high-pressure jet continuous liquefaction device, the gas-liquid mixing chamber, diffusion tube and buffer tube need to be assembled, and they are connected and fixed by multiple bolts. Not only is the installation and disassembly operation rather cumbersome, but after long-term use, the bolts are prone to loosening, resulting in leakage of internal steam and liquid.

[0005] 2. After the high-pressure jet continuous liquefaction device is used, the gas-liquid mixing chamber needs to be cleaned in time to prevent the residual liquid from burning during the next liquefaction process, which will cause the newly added liquid to stick to the equipment wall and affect the liquefaction effect. In the prior art, when cleaning the gas-liquid mixing chamber, it is difficult to achieve a good cleaning effect on the inner wall, and the cleaning operation is relatively inconvenient. Summary of the invention

[0006] In order to overcome the above-mentioned defects of the prior art, the present invention provides a high-pressure jet continuous liquefaction device for processing glucose syrup to solve the problems existing in the above-mentioned background technology.

[0007] The present invention provides the following technical solutions: a high-pressure jet continuous liquefaction device for processing glucose syrup, comprising a mixing tube, a sliding shaft, and a diffusion buffer tube, wherein an air inlet cavity and a gas-liquid mixing chamber are provided in the mixing tube, a steam inlet pipe is provided on the inner wall of the surrounding side of the air inlet cavity, a liquid inlet pipe is provided on the inner wall of the surrounding side of the gas-liquid mixing chamber, the air inlet cavity and the gas-liquid mixing chamber are connected through a conical air inlet hole, a cleaning mechanism is provided in the gas-liquid mixing chamber, the cleaning mechanism comprises a circular scraper, the circular scraper is slidably installed in the gas-liquid mixing chamber, the outer wall of the surrounding side of the circular scraper and the inner wall of the surrounding side of the gas-liquid mixing chamber are connected to each other through a conical air inlet hole, a cleaning mechanism is provided in the gas-liquid mixing chamber, and the cleaning mechanism comprises a circular scraper, the circular scraper is slidably installed in the gas-liquid mixing chamber, and the outer wall of the surrounding side of the circular scraper and the inner wall of the surrounding side of the gas-liquid mixing chamber are connected to each other through a conical air inlet hole. The outer wall of the circular scraper is arranged with an inclined surface, an annular groove is provided on the inclined surface of the circular scraper, an annular rotating plate is rotatably installed in the annular groove, bristles are fixedly installed on the outer wall of the circular rotating plate, the bristles are in contact with the inner wall of the circular side of the gas-liquid mixing chamber, a rotating assembly is provided on the inner wall of the circular rotating plate, the rotating assembly is used to drive the circular rotating plate to rotate when the circular scraper moves horizontally, a circular hole is provided at the end of the air inlet cavity, the sliding shaft is slidably installed in the circular hole, a clamping assembly is provided on the sliding shaft, and the clamping assembly is used to drive the circular scraper to move synchronously when the sliding shaft moves horizontally; A peak tube is fixedly installed on the inner wall of the peripheral side of the diffusion buffer tube, and the mixing tube is connected to the diffusion buffer tube by a connecting mechanism. The connecting mechanism includes a connecting flange and a connecting ring. An annular cavity is opened in the connecting ring, and a plurality of through holes are opened on the side inner wall of the annular cavity. Screws are slidably arranged in the plurality of through holes, and mounting grooves are opened at the ends of the plurality of screws. A flip block is arranged in the mounting groove, and the flip block is rotatably installed in the mounting groove. Both sides of the flip block are arc-shaped and are provided with magnetic suction components. Two fastening components are arranged on the flip block, and the fastening components are used to make the connecting flange and the connecting ring fit together.

[0008] Furthermore, the cleaning mechanism also includes two circular shafts, two square cavities are provided in the mixing tube, and two connecting holes are provided on the side inner walls of the two square cavities and the side of the circular scraper. The two circular shafts are respectively sleeved in the two connecting holes, and one end of the two circular shafts is rotatably installed on the side inner wall of the annular groove. Square blocks are slidably installed in the two square cavities, and square cavities are provided in the two square blocks. The other ends of the two circular shafts extend into the two square cavities and are rotatably connected to the side inner walls of the two square cavities respectively. Compression springs are sleeved on the circumferential outer walls of the two circular shafts, and one end of the two compression springs is fixedly installed on the sides of the two square blocks, and the other ends of the two compression springs are fixedly installed on the side inner walls of the two square cavities.

[0009] Furthermore, the cleaning mechanism also includes two rotating rods, the side inner walls of the two square cavities are provided with sliding grooves, the side inner walls of the two square blocks are provided with rotating holes, the two rotating rods are rotatably installed in the two rotating holes respectively, and the two rotating rods are provided with self-rotating components, the self-rotating components include a first rotating gear, one end of the rotating rod extends into the sliding groove, the first rotating gear is fixedly sleeved on the circumferential outer wall of the rotating rod, a spur rack is fixedly installed on the top inner wall of the sliding groove, the spur rack is meshed with the first rotating gear, the circumferential outer wall of the circular shaft is fixedly sleeved with a first bevel gear, the other end of the rotating rod extends into the square block and is fixedly sleeved with a second bevel gear, and the second bevel gear is meshed with the first bevel gear.

[0010] Furthermore, the rotating assembly includes a first annular rack and two first gears. The first annular rack is fixedly mounted on the circumferential inner wall of the annular rotating plate. The two first gears are respectively fixedly sleeved on the circumferential outer walls of the two circular shafts. The two first gears are both meshed with the first annular rack. Annular limit grooves are provided on the relative inner walls of the annular grooves. Annular limit strips are rotatably mounted in the two annular limit grooves. The sides of the two annular limit strips that are close to each other are respectively fixedly connected to the two sides of the annular rotating plate.

[0011] Furthermore, the clamping assembly includes two trapezoidal extrusion blocks, a pull plate is fixedly sleeved on the outer wall of the peripheral side of the sliding shaft, a circular cavity is opened in the sliding shaft, the two trapezoidal extrusion blocks are slidably installed in the circular cavity, a screw rod is rotatably installed on the inner wall of the end of the circular cavity, the other end of the screw rod passes through the outside of the sliding shaft and is fixedly installed with a first knob, the two trapezoidal extrusion blocks are threadedly installed on the screw rod, the sides of the two trapezoidal extrusion blocks are opened with a first limiting hole, and a first limiting shaft is slidably installed in the two first limiting holes, and the two ends of the first limiting shaft are respectively fixedly installed on the relative inner walls of the circular cavity.

[0012] Furthermore, the clamping assembly also includes four rectangular plates, and four second limit shafts are commonly fixedly installed on the inner walls of the circumference of the circular cavity. The four rectangular plates are respectively slidably mounted on the four second limit shafts, and arc-shaped clamping blocks are fixedly installed on the sides of the four rectangular plates. Four avoidance holes are opened on the inner walls of the circumference of the circular cavity, and the four arc-shaped clamping blocks are respectively slidably mounted in the four avoidance holes. Reset springs are sleeved on the outer walls of the circumference of the four second limit shafts, and the two ends of the four reset springs are respectively fixedly connected to the sides of the rectangular plates. The four rectangular plates are respectively matched with two trapezoidal extrusion blocks, and a circular air inlet hole is opened on the side of the circular scraper. The position of the circular air inlet hole is matched with the position of the conical air inlet hole, and two arc-shaped clamping grooves are opened on the inner walls of the circumference of the circular air inlet hole.

[0013] Furthermore, the cleaning mechanism also includes an operating block, an operating groove is provided on the circumferential outer wall of the mixing tube, the operating groove is connected to the circular hole through an L-shaped hole, a first guide shaft is fixedly installed on the side inner wall of the L-shaped hole, a rectangular slider is slidably installed on the first guide shaft, an arc-shaped anti-slip pad is fixedly installed on the end of the rectangular slider, the circumferential inner wall of the arc-shaped anti-slip pad is fitted with the circumferential outer wall of the sliding shaft, an extrusion spring is sleeved on the circumferential outer wall of the first guide shaft, a second guide shaft is fixedly installed on the side inner wall of the operating groove, the operating block is slidably installed on the circumferential outer wall of the second guide shaft, and the circumferential outer wall of the second guide shaft is sleeved with a tension spring, a connecting rod is rotatably installed on the side of the operating block, and the other end of the connecting rod is rotatably installed on the side of the rectangular slider.

[0014] Furthermore, the connection mechanism also includes a plurality of screw guide sleeves, the ends of the plurality of screw guide sleeves are rotatably mounted on the side inner wall of the annular cavity, the plurality of screws are respectively threadedly mounted in the plurality of screw guide sleeves, an operating hole is opened on the side inner wall of the annular cavity, an operating shaft is rotatably mounted in the operating hole, one end of the operating shaft is connected to the end of one of the screw guide sleeves, the other end of the operating shaft extends outside the operating hole and is fixedly mounted with a second knob, the peripheral outer walls of the plurality of screw guide sleeves are fixedly sleeved with a second rotating gear, and the annular cavity A second annular rack is rotatably installed on the inner wall of the circumference side, and multiple second rotating gears are meshed with the second annular rack. The outer walls of the circumference sides of the multiple screws are fixedly sleeved with limit plates, and the sides of the multiple limit plates are provided with mounting holes. Fixed rods are slidably installed in the multiple mounting holes, and both ends of the multiple fixing rods are fixedly connected to the relative inner walls of the annular cavity. A threaded hole is provided on the inner wall of the circumference side of the annular cavity, and a fixing bolt is threadedly installed in the threaded hole, and the bottom end of the fixing bolt conflicts with the outer wall of the circumference side of one of the screw guide sleeves.

[0015] Furthermore, the connecting mechanism also includes two installation shafts, the ends of the two installation shafts that are away from each other are rotatably installed on the relative inner walls of the installation groove, and the ends of the two installation shafts that are close to each other are fixedly connected to the two sides of the flip block respectively. The installation groove is arc-shaped and adapted to the flip block. The fastening assembly includes a trapezoidal clamping block, a clamping groove is opened on the side of the flip block, a fixed shaft is fixedly installed on the inner wall of one side of the clamping groove, the trapezoidal clamping block is slidably installed on the outer wall of the peripheral side of the fixed shaft, and the outer wall of the peripheral side of the fixed shaft is sleeved with a clamping spring.

[0016] Furthermore, the magnetic attraction component includes a first magnetic attraction block and two second magnetic attraction blocks. The inner wall of the mounting groove is provided with a first sensing groove. The first magnetic attraction block is fixedly installed in the first sensing groove. The two arc-shaped surfaces of the flip block are provided with second sensing grooves. The two second magnetic attraction blocks are respectively fixedly installed in the two second sensing grooves. The first magnetic attraction block is respectively adapted to the two second magnetic attraction blocks.

[0017] Compared with the prior art, the present invention has the following beneficial effects: 1. By turning the second knob to drive one of the screw guide sleeves, the multiple screw guide sleeves are rotated synchronously under the meshing action of the multiple second rotating gears and the second annular rack, thereby driving the multiple screws and multiple flip blocks to move horizontally away from the screw guide sleeve synchronously. Align the multiple flip blocks with the connecting flange and insert them. When the flip blocks are inserted, the two trapezoidal blocks on the same flip block are squeezed by the connecting flange to move synchronously into the card slot for avoidance. When the two trapezoidal blocks move outside the connecting flange, the squeezing effect on the trapezoidal blocks disappears. At this time, under the elastic action of the two clamping springs, the two trapezoidal blocks are driven to reset. At this time, the second knob is rotated in the opposite direction, thereby driving the multiple screws and multiple flip blocks to move synchronously in the direction of the screw guide sleeve, so that the multiple trapezoidal blocks squeeze the connecting flange and fit the connecting ring, thereby realizing the quick installation function. During disassembly, it is only necessary to drive the flip block to flip 180 degrees, thereby driving the two trapezoidal blocks to rotate synchronously, so that their inclined surfaces are flipped, so that the trapezoidal blocks can slide into the slots through the squeezing effect during disassembly, realizing the avoidance function and making the disassembly operation more convenient.

[0018] 2. By pushing the sliding shaft into the mixing tube, when the sliding shaft moves in the air inlet cavity, the steam intake can be adjusted according to its position in the conical air inlet hole, and the adjustment operation is relatively simple. When the sliding shaft is pushed so that the sides of the two arc-shaped blocks close to the first knob fit with the end of the mixing tube, the end of the sliding shaft just moves into the circular air inlet hole, and the first knob is turned to drive the screw to rotate, and the two trapezoidal extrusion blocks are driven to move synchronously in the direction away from the first knob. When the trapezoidal extrusion block close to the first knob moves, the extrusion of the two rectangular plates will be released, and the two arc-shaped blocks will be driven to move into the circular cavity under the elastic action of the two reset springs. When the trapezoidal extrusion block away from the first knob moves, it will squeeze the two rectangular plates, thereby driving the two arc-shaped blocks to move synchronously in opposite directions, so as to move to the outside of the sliding shaft through the two avoidance holes and engage with the two arc-shaped slots, thereby realizing the engagement function of the sliding shaft and the circular scraper.

[0019] 3. After the arc-shaped block is engaged with the arc-shaped slot, the sliding shaft continues to be pushed into the mixing tube. Through the engagement of the two arc-shaped blocks with the two arc-shaped slots, the circular scraper is driven to move horizontally synchronously. The circular scraper is used to scrape the residual materials on the inner wall of the gas-liquid mixing chamber. When the circular scraper moves horizontally, it drives the two circular shafts and the two square blocks to move synchronously. When the square block moves, it can drive the rotating rod and the first rotating gear to move horizontally synchronously. The first rotating gear is engaged with the spur gear to rotate the rotating rod. When the rotating rod rotates, it drives the second bevel gear to rotate. Through the meshing action with the first bevel gear, the circular shaft is driven to realize the rotation function. When the two circular shafts rotate synchronously, they can drive the two first gears to rotate synchronously, thereby driving the annular rotating plate and the bristles to rotate synchronously through the meshing action of the two first gears and the first annular rack. The inner wall of the gas-liquid mixing chamber is cleaned by the bristles, thereby improving the cleaning function in the gas-liquid mixing chamber. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a structural schematic diagram of the present invention; Figure 2 It is a schematic diagram of the local cross-section structure of the mixing tube; Figure 3 It is a schematic diagram of the partial cutaway structure of a circular scraper; Figure 4 for Figure 3 A schematic diagram of the enlarged structure at A in the middle; Figure 5 It is a schematic diagram of the partial cross-section structure of the mixing tube and the square block; Figure 6 for Figure 5 A schematic diagram of the enlarged structure at B in the middle; Figure 7 It is a schematic diagram of the partial cross-section structure of the sliding shaft and the pull plate; Figure 8 for Figure 7 Schematic diagram of the enlarged structure at C in the middle; Fig. 9 It is a schematic diagram of the partial cross-section structure of the mixing tube, the operating block, and the rectangular sliding block; Fig.10 for Fig. 9 Schematic diagram of the enlarged structure at D in the middle; Fig.11 It is a schematic diagram of the partial cross-section structure of the connecting flange, connecting ring, diffusion buffer tube, and wave crest tube; Fig.12 for Fig.10 Schematic diagram of the enlarged structure at E in the middle; Fig.13 It is a schematic diagram of the structural explosion of the part between the screw and the second magnetic block.

[0021] The accompanying drawings are marked as follows: 1, mixing tube; 2, steam inlet pipe; 3, sliding shaft; 4, operating block; 5, liquid inlet pipe; 6, diffusion buffer tube; 7, circular scraper; 8, circular shaft; 9, square block; 10, gas-liquid mixing chamber; 11, annular rotating plate; 12, bristles; 13, annular limiting strip; 14, first annular rack; 15, first gear; 16, compression spring; 17, first bevel gear; 18, second bevel gear; 19, rotating rod; 20, spur rack; 21, first rotating gear; 22, screw rod; 23, first limiting shaft; 24, pull plate; 25, first knob; 26, trapezoidal extrusion block; 27, rectangular plate; 28, arc-shaped block; 29, second limiting shaft; 30, reset spring; 31, connecting flange; 32, arc-shaped anti-skid pad; 33, rectangular slider; 34, first guide shaft; 35, extrusion spring; 36, connecting rod; 37, second guide shaft; 38, tension spring; 39, connecting ring; 40, wave peak tube; 41, screw; 42, screw guide sleeve; 43, second rotating gear; 44, second annular rack; 45, second knob; 46, fastening bolt; 47, first magnetic block; 48, mounting shaft; 49, trapezoidal clamping block; 50, clamping spring; 51, fixed shaft; 52, flip block; 53, second magnetic block; 54, air inlet chamber; 55, arc-shaped clamping groove; 56, limit plate; 57, fixing rod. DETAILED DESCRIPTION

[0022] The present invention is further described below in conjunction with specific embodiments. However, people familiar with the art should understand that the detailed description given here in conjunction with the drawings is for better explanation, and the structure of the present invention necessarily exceeds these limited embodiments. For some equivalent replacement schemes or common means, they are no longer described in detail herein, but still belong to the scope of protection of the present application.

[0023] Figure 1-Figure 13 The best embodiment of the present invention is shown below in conjunction with the attached Figure 1-Figure 13 The present invention is further described.

[0024] A high-pressure jet continuous liquefaction device for processing glucose syrup comprises a mixing tube 1, a sliding shaft 3, and a diffusion buffer tube 6. An air inlet cavity 54 and a gas-liquid mixing chamber 10 are provided in the mixing tube 1. A steam inlet pipe 2 is provided on the inner wall of the surrounding side of the air inlet cavity 54, and a liquid inlet pipe 5 is provided on the inner wall of the surrounding side of the gas-liquid mixing chamber 10. The air inlet cavity 54 is connected to the gas-liquid mixing chamber 10 via a conical air inlet hole. A cleaning mechanism is provided in the gas-liquid mixing chamber 10, and the cleaning mechanism includes a circular scraper 7, which is slidably installed in the gas-liquid mixing chamber 10, and the outer wall of the circular scraper 7 is in contact with the inner wall of the circular scraper 7. The outer wall of the circular scraper 7 is arranged as an inclined surface, and an annular groove is provided on the inclined surface of the circular scraper 7. An annular rotating plate 11 is rotatably installed in the annular groove, and bristles 12 are fixedly installed on the outer wall of the annular rotating plate 11, and the bristles 12 are in contact with the inner wall of the circular scraper 10. A rotating assembly is provided on the inner wall of the annular rotating plate 11, and the rotating assembly is used to drive the annular rotating plate 11 to rotate when the circular scraper 7 moves horizontally. A circular hole is provided at the end of the air inlet cavity 54, and the sliding shaft 3 is slidably installed in the circular hole. A clamping assembly is provided on the sliding shaft 3, and the clamping assembly is used to drive the circular scraper 7 to move synchronously when the sliding shaft 3 moves horizontally.

[0025] A peak tube 40 is fixedly installed on the inner wall of the peripheral side of the diffusion buffer tube 6. The mixing tube 1 is connected to the diffusion buffer tube 6 by a connecting mechanism. The connecting mechanism includes a connecting flange 31 and a connecting ring 39. An annular cavity is opened in the connecting ring 39. A plurality of through holes are opened on the inner wall of the side of the annular cavity. Screws 41 are slidably arranged in the plurality of through holes. Installation grooves are opened at the ends of the plurality of screws 41. A flip block 52 is arranged in the installation groove. The flip block 52 is rotatably installed in the installation groove. Both sides of the flip block 52 are arc-shaped and are provided with magnetic suction components. Two fastening components are arranged on the flip block 52. The fastening components are used to make the connecting flange 31 and the connecting ring 39 fit together.

[0026] like Figure 5 and Figure 6 As shown, the cleaning mechanism also includes two circular shafts 8, two square cavities are opened in the mixing tube 1, and two connecting holes are jointly opened on the side inner walls of the two square cavities and the side of the circular scraper 7, and the two circular shafts 8 are respectively sleeved in the two connecting holes, and one end of the two circular shafts 8 are rotatably installed on the side inner wall of the annular groove, and square blocks 9 are slidably installed in the two square cavities, and square cavities are opened in the two square blocks 9. The other ends of the two circular shafts 8 extend into the two square cavities and are respectively rotatably connected to the side inner walls of the two square cavities, and the circumferential outer walls of the two circular shafts 8 are sleeved with compression springs 16, and one end of the two compression springs 16 are respectively fixedly installed on the sides of the two square blocks 9, and the other ends of the two compression springs 16 are respectively fixedly installed on the side inner walls of the two square cavities.

[0027] Specifically, through the provision of two compression springs 16, when the circular scraper 7 and the square block 9 remain stationary, the compression springs 16 can fix them to prevent the circular scraper 7 from moving. When the square block 9 moves horizontally, the compression springs 16 can be squeezed. When the pushing effect on the circular scraper 7 is released, its elastic effect can provide a certain amount of assistance in the resetting process.

[0028] like Figure 4 and Figure 6 As shown, the cleaning mechanism also includes two rotating rods 19, the side inner walls of the two square cavities are provided with sliding grooves, the side inner walls of the two square blocks 9 are provided with rotating holes, the two rotating rods 19 are respectively rotatably installed in the two rotating holes, and the two rotating rods 19 are provided with self-rotating components, the self-rotating components include a first rotating gear 21, one end of the rotating rod 19 extends into the sliding groove, the first rotating gear 21 is fixedly sleeved on the peripheral outer wall of the rotating rod 19, a spur rack 20 is fixedly installed on the top inner wall of the sliding groove, the spur rack 20 is meshed with the first rotating gear 21, the peripheral outer wall of the circular shaft 8 is fixedly sleeved with a first bevel gear 17, the other end of the rotating rod 19 extends into the square block 9 and is fixedly sleeved with a second bevel gear 18, and the second bevel gear 18 is meshed with the first bevel gear 17.

[0029] Specifically, through the meshing setting of the first rotating gear 21 and the spur rack 20, when the square block 9 and the first rotating gear 21 move horizontally, the meshing action of the first rotating gear 21 and the spur rack 20 can drive the rotating rod 19 to realize the rotation function, and then drive the first bevel gear 17 to rotate synchronously through the second bevel gear 18, so that the circular shaft 8 can realize the self-rotation function during the horizontal movement.

[0030] The rotating assembly includes a first annular rack 14 and two first gears 15. The first annular rack 14 is fixedly mounted on the inner wall of the circumferential side of the annular rotating plate 11. The two first gears 15 are respectively fixedly sleeved on the outer walls of the circumferential sides of the two circular shafts 8. The two first gears 15 are both meshed with the first annular rack 14. The relative inner walls of the annular grooves are provided with annular limit grooves. Annular limit bars 13 are rotatably mounted in the two annular limit grooves. The sides of the two annular limit bars 13 that are close to each other are respectively fixedly connected to the two sides of the annular rotating plate 11. Through the meshing arrangement of the first gear 15 and the first annular rack 14, the circular shaft 8 can drive the first gear 15 to mesh with the first annular rack 14 when it rotates, thereby driving the annular rotating plate 11 to realize the rotation function.

[0031] Specifically, the circular scraper 7 can horizontally move to drive the annular rotating plate 11 to rotate, thereby driving the bristles 12 to rotate. After the circular scraper 7 scrapes the inner wall of the gas-liquid mixing chamber 10, the bristles 12 are used to clean it again, which greatly improves the cleaning effect.

[0032] like Figure 7 and Figure 8 As shown, the clamping assembly includes two trapezoidal extrusion blocks 26, a pull plate 24 is fixedly sleeved on the peripheral outer wall of the sliding shaft 3, a circular cavity is opened in the sliding shaft 3, the two trapezoidal extrusion blocks 26 are both slidably installed in the circular cavity, a screw rod 22 is rotatably installed on the inner wall of the end of the circular cavity, the other end of the screw rod 22 passes through the outside of the sliding shaft 3 and is fixedly installed with a first knob 25, the two trapezoidal extrusion blocks 26 are both threadedly installed on the screw rod 22, the sides of the two trapezoidal extrusion blocks 26 are both provided with a first limiting hole, the first limiting shaft 23 is slidably installed in the two first limiting holes, and the two ends of the first limiting shaft 23 are respectively fixedly installed on the relative inner walls of the circular cavity.

[0033] Specifically, through the setting of the screw rod 22, when the screw rod 22 is rotated, the two trapezoidal extrusion blocks 26 can be driven to move horizontally in the same direction synchronously through the action of the thread and the limiting action of the first limiting shaft 23, and through the setting of the pull plate 24 and the first knob 25, it is convenient to push the sliding shaft 3 and drive the screw rod 22 to realize the rotation function.

[0034] The clamping assembly also includes four rectangular plates 27, and four second limit shafts 29 are fixedly installed on the inner wall of the circular cavity. The four rectangular plates 27 are respectively slidably mounted on the four second limit shafts 29, and the sides of the four rectangular plates 27 are fixedly installed with arc-shaped clamping blocks 28. Four avoidance holes are opened on the inner wall of the circular cavity, and the four arc-shaped clamping blocks 28 are respectively slidably installed in the four avoidance holes. The outer walls of the four second limit shafts 29 are sleeved with reset springs 30, and the two ends of the four reset springs 30 are respectively fixedly connected to the sides of the rectangular plates 27. The four rectangular plates 27 are respectively matched with the two trapezoidal extrusion blocks 26, and a circular air inlet hole is opened on the side of the circular scraper 7. The position of the circular air inlet hole is matched with the position of the conical air inlet hole, and the inner wall of the circular air inlet hole is provided with two arc-shaped clamping grooves 55.

[0035] Specifically, the four second limit shafts 29 are provided to prevent the sliding shaft 3 from tilting and getting stuck during movement. When the two trapezoidal extrusion blocks 26 move synchronously, they can squeeze the two rectangular plates 27 on one side and release the squeezing of the two rectangular plates 27 on the other side, so that the two arc-shaped blocks 28 on one side move synchronously away from each other, and the two arc-shaped blocks 28 on the other side move synchronously toward each other, so that when the sliding shaft 3 reaches the specified position, the staff can be prompted, so that the two arc-shaped blocks 28 and the arc-shaped slots 55 can be engaged or released.

[0036] like Fig.10As shown, the cleaning mechanism also includes an operating block 4, an operating groove is provided on the peripheral outer wall of the mixing tube 1, and the operating groove is connected to the circular hole through an L-shaped hole, a first guide shaft 34 is fixedly installed on the side inner wall of the L-shaped hole, a rectangular slider 33 is slidably installed on the first guide shaft 34, an arc-shaped anti-skid pad 32 is fixedly installed on the end of the rectangular slider 33, the peripheral inner wall of the arc-shaped anti-skid pad 32 is in contact with the peripheral outer wall of the sliding shaft 3, an extrusion spring 35 is sleeved on the peripheral outer wall of the first guide shaft 34, a second guide shaft 37 is fixedly installed on the side inner wall of the operating groove, the operating block 4 is slidably installed on the peripheral outer wall of the second guide shaft 37, and a tension spring 38 is sleeved on the peripheral outer wall of the second guide shaft 37, a connecting rod 36 is rotatably installed on the side of the operating block 4, and the other end of the connecting rod 36 is rotatably installed on the side of the rectangular slider 33.

[0037] Specifically, under normal conditions, the operating block 4 and the rectangular slider 33 can be kept stationary by the elastic action of the extrusion spring 35 and the tension spring 38, so that the rectangular slider 33 and the arc-shaped anti-skid pad 32 fit the peripheral outer wall of the sliding shaft 3, which plays a limiting function on the sliding shaft 3 to prevent it from sliding randomly. When the operating block 4 is pushed in the direction of the rectangular slider 33, the tension spring 38 can be stretched, and under the action of the connecting rod 36, the rectangular slider 33 can be driven to move in the direction of the extrusion spring 35, compressing the extrusion spring 35 and driving the arc-shaped anti-skid pad 32 to move synchronously, thereby releasing the limiting function of the sliding shaft 3 and facilitating the pushing of the sliding shaft 3. By controlling the horizontal movement distance of the sliding shaft 3, not only the amount of steam intake can be adjusted, but also the circular scraper 7 can be driven to move to clean the gas-liquid mixing chamber 10.

[0038] like Fig.12 As shown, the connection mechanism also includes a plurality of screw guide sleeves 42, the ends of the plurality of screw guide sleeves 42 are rotatably mounted on the side inner wall of the annular cavity, the plurality of screws 41 are respectively threadedly mounted in the plurality of screw guide sleeves 42, an operating hole is provided on the side inner wall of the annular cavity, an operating shaft is rotatably mounted in the operating hole, one end of the operating shaft is connected to the end of one of the screw guide sleeves 42, the other end of the operating shaft extends out of the operating hole and is fixedly mounted with a second knob 45, the peripheral outer walls of the plurality of screw guide sleeves 42 are fixedly sleeved with a second rotating gear 43, the peripheral inner wall of the annular cavity is provided with an operating hole, and the second rotating gear 43 is fixedly mounted on the peripheral inner wall of the annular cavity. A second annular rack 44 is rotatably installed on the wall, and multiple second rotating gears 43 are meshed with the second annular rack 44. The peripheral outer walls of multiple screws 41 are fixedly sleeved with limit plates 56, and the sides of multiple limit plates 56 are provided with mounting holes. Fixed rods 57 are slidably installed in the multiple mounting holes. Both ends of the multiple fixing rods 57 are fixedly connected to the relative inner walls of the annular cavity. Threaded holes are provided on the peripheral inner walls of the annular cavity, and fixing bolts 46 are threadedly installed in the threaded holes. The bottom end of the fixing bolt 46 conflicts with the peripheral outer wall of one of the screw guide sleeves 42.

[0039] Specifically, by rotating the second knob 45, the operating shaft, one of the screw guide sleeves 42, and the second rotating gear 43 can be driven to rotate synchronously, so that through the meshing action of the second rotating gear 43 and the second annular rack 44, the other second rotating gears 43 and other screw guide sleeves 42 can be driven to rotate synchronously, and through the action of the thread and the limiting action of the limiting plate 56 and the fixing rod 57, multiple screws 41 can achieve the function of synchronous horizontal movement.

[0040] like Fig.13 As shown, the connecting mechanism also includes two installation shafts 48, and the ends of the two installation shafts 48 that are away from each other are rotatably installed on the opposite inner walls of the installation groove, and the ends of the two installation shafts 48 that are close to each other are fixedly connected to the two sides of the flip block 52, respectively. The installation groove is arc-shaped and adapted to the flip block 52. The fastening assembly includes a trapezoidal clamping block 49, and a clamping groove is opened on the side of the flip block 52. A fixed shaft 51 is fixedly installed on the inner wall of one side of the clamping groove. The trapezoidal clamping block 49 is slidably installed on the peripheral outer wall of the fixed shaft 51, and the peripheral outer wall of the fixed shaft 51 is sleeved with a clamping spring 50.

[0041] Specifically, by rotatably installing the two mounting shafts 48 on the opposite inner walls of the mounting groove, and fixing the flip block 52 to the two mounting shafts 48, the flip block 52 can realize the rotation function. When the flip block 52 rotates, the two trapezoidal clamping blocks 49 can be driven to rotate synchronously, so that the inclined surfaces thereof can be flipped, so that the trapezoidal clamping blocks 49 can slide into the clamping grooves by squeezing during disassembly, so as to realize the avoidance function, and make the disassembly operation more convenient. The magnetic suction assembly includes a first magnetic suction block 47 and two second magnetic suction blocks 53. The inner wall of the peripheral side of the mounting groove is provided with a first induction groove. The first magnetic suction block 47 is fixedly installed in the first induction groove. The two arc surfaces of the flip block 52 are provided with second induction grooves. The two second magnetic blocks 53 are fixedly installed in the two second induction slots, respectively, and the first magnetic block 47 is adapted to the two second magnetic blocks 53, respectively. Specifically, the first magnetic block 47 and the two second magnetic blocks 53 can be made of other materials with magnetic properties such as magnets, and the two second magnetic blocks 53 have the same magnetic properties, and the first magnetic block 47 and the second magnetic block 53 have opposite magnetic properties. Through the arrangement of the first magnetic block 47 and the second magnetic block 53, the flip block 52 can be more stable after flipping, without the need for additional operations by the staff, and it is convenient to remove multiple screws 41 and multiple flip blocks 52 from the connecting flange 31 simultaneously, thereby improving the convenience during installation and disassembly operations.

[0042] The working principle and use process of the present invention are as follows: when in use, loosen the fixing bolt 46, rotate the second knob 45 to drive one of the screw guide sleeves 42 and the second rotating gear 43 to rotate, and through the meshing action of the second rotating gear 43 and the second annular rack 44, drive the remaining second rotating gears 43 and the screw guide sleeves 42 to rotate synchronously, so that through the action of the thread and the limiting action of the fixing rod 57 on the limiting plate 56, multiple screws 41 and multiple flip blocks 52 are synchronously moved horizontally away from the screw guide sleeve 42, and then the multiple flip blocks 52 are aligned with the connecting flange 31 and inserted. When the flip block 52 is in the process of being inserted, the two trapezoidal blocks 49 located on the same flip block 52 are synchronously moved toward each other into the card slot through the extrusion effect of the connecting flange 31. When the two trapezoidal blocks 49 move to the outside of the connecting flange 31, the extrusion effect on the trapezoidal blocks 49 disappears. At this time, under the elastic action of the two clamping springs 50, the two trapezoidal clamping blocks 49 are driven to reset, and the second knob 45 is rotated in the opposite direction, thereby driving the multiple screws 41 and the multiple flip blocks 52 to move synchronously toward the screw guide sleeve 42, so that the multiple trapezoidal clamping blocks 49 squeeze the connecting flange 31 and fit the connecting ring 39, and then tighten the fixing bolts 46 to limit the screw guide sleeve 42 to prevent it from rotating and causing the connection to loosen.

[0043] Steam is introduced into the air inlet chamber 54 through the steam inlet pipe 2, and material is fed into the gas-liquid mixing chamber 10 through the liquid inlet pipe 5. The mixture is passed through the peak pipe 40 to make it more evenly mixed and realize the high-pressure injection liquefaction function.

[0044] After use, when the gas-liquid mixing chamber 10 needs to be cleaned, loosen the fixing bolt 46, and rotate the second knob 45 to drive the multiple flip blocks 52 to move synchronously away from the second knob 45, and then rotate the multiple flip blocks 52 one hundred and eighty degrees respectively, so that the first magnetic block 47 is adsorbed with the other second magnetic block 53, so that the multiple trapezoidal blocks 49 are flipped synchronously, pulling the diffusion buffer tube 6, so that the multiple flip blocks 52 are synchronously moved out of the connecting flange 31, thereby realizing the disassembly function.

[0045] The operating block 4 is pushed toward the first knob 25 , so that the rectangular slider 33 and the arc-shaped anti-skid pad 32 are driven to move synchronously away from the slide shaft 3 under the connection of the connecting rod 36 , thereby releasing the extrusion and limiting effect on the slide shaft 3 . Then, the sliding shaft 3 is pushed into the mixing tube 1 until the side portions of the two arc-shaped clamping blocks 28 close to the first knob 25 are in contact with the end portions of the mixing tube 1. At this time, the end portion of the sliding shaft 3 just moves into the circular air inlet hole. Then, the first knob 25 is rotated to drive the screw rod 22 to rotate, thereby, through the action of the thread and the limiting action of the first limiting shaft 23, the two trapezoidal extrusion blocks 26 are synchronously moved in the direction away from the first knob 25. When the trapezoidal extrusion block 26 close to one side of the first knob 25 moves, the extrusion of the two rectangular plates 27 will be released, thereby, under the elastic action of the two return springs 30, the two arc-shaped clamping blocks 28 are driven to move into the circular cavity. When the trapezoidal extrusion block 26 away from the first knob 25 moves, the two rectangular plates 27 will be squeezed, thereby driving the two arc-shaped clamping blocks 28 to move synchronously in opposite directions, thereby moving to the outside of the sliding shaft 3 through the two avoidance holes, and being clamped with the two arc-shaped clamping grooves 55, thereby realizing the clamping function of the sliding shaft 3 and the circular scraper 7.

[0046] Continue to push the sliding shaft 3 into the mixing tube 1. At this time, the circular scraper 7 is driven to move horizontally synchronously through the clamping action of the two arc-shaped clamping blocks 28 and the two arc-shaped clamping grooves 55. The circular scraper 7 is used to scrape the residual material on the inner wall of the circumferential side of the gas-liquid mixing chamber 10. When the circular scraper 7 moves horizontally, it drives the two circular shafts 8 and the two square blocks 9 to move synchronously. When the square block 9 moves, it can drive the rotating rod 19 and the first rotating gear 21 to move horizontally synchronously, so that the first rotating gear 21 is engaged with the spur rack 20 to rotate the rotating rod 19. When the rotating rod 19 rotates, it drives the second bevel gear 18 to rotate. Through the meshing action with the first bevel gear 17, the circular shaft 8 is driven to realize the rotation function. When the two circular shafts 8 rotate synchronously, they can drive the two first gears 15 to rotate synchronously, thereby driving the annular rotating plate 11 and the bristles 12 to rotate synchronously through the meshing action of the two first gears 15 and the first annular rack 14, and the bristles 12 are used to clean the inner wall of the circumference of the gas-liquid mixing chamber 10, thereby improving the cleaning function in the gas-liquid mixing chamber 10, and effectively avoiding the liquid from remaining in the gas-liquid mixing chamber 10, which causes the scorching phenomenon to occur during the next liquefaction process.

[0047] The above is only a preferred embodiment of the present invention, and does not limit the present invention in other forms. Any technician familiar with the profession may use the above disclosed technical content to change or modify it into an equivalent embodiment with equivalent changes. However, any simple modification, equivalent change and modification made to the above embodiment according to the technical essence of the present invention without departing from the technical solution of the present invention still belongs to the protection scope of the technical solution of the present invention.

Claims

1. A high-pressure jet continuous liquefaction device for processing glucose syrup, comprising a mixing tube (1), a sliding shaft (3), and a diffusion buffer tube (6), characterized in that: An air inlet cavity (54) and a gas-liquid mixing chamber (10) are provided in the mixing tube (1); a steam inlet pipe (2) is provided on the inner wall of the air inlet cavity (54); a liquid inlet pipe (5) is provided on the inner wall of the air-liquid mixing chamber (10); and the air inlet cavity (54) and the gas-liquid mixing chamber (10) are connected via a conical air inlet hole; A cleaning mechanism is provided in the gas-liquid mixing chamber (10), the cleaning mechanism comprising a circular scraper (7), the circular scraper (7) being slidably mounted in the gas-liquid mixing chamber (10), the peripheral outer wall of the circular scraper (7) being in contact with the peripheral inner wall of the gas-liquid mixing chamber (10), the peripheral outer wall of the circular scraper (7) being arranged as an inclined surface, an annular groove being provided on the inclined surface of the circular scraper (7), an annular rotating plate (11) being rotatably mounted in the annular groove, and a brush being fixedly mounted on the peripheral outer wall of the annular rotating plate (11). bristles (12), the bristles (12) are in contact with the circumferential inner wall of the gas-liquid mixing chamber (10), the circumferential inner wall of the annular rotating plate (11) is provided with a rotating assembly, the rotating assembly is used to drive the annular rotating plate (11) to rotate when the circular scraper (7) moves horizontally, a circular hole is opened at the end of the air inlet cavity (54), the sliding shaft (3) is slidably installed in the circular hole, and a clamping assembly is provided on the sliding shaft (3), the clamping assembly is used to drive the circular scraper (7) to move synchronously when the sliding shaft (3) moves horizontally; A wave crest tube (40) is fixedly mounted on the inner wall of the peripheral side of the diffusion buffer tube (6). The mixing tube (1) and the diffusion buffer tube (6) are connected via a connecting mechanism, the connecting mechanism comprising a connecting flange (31) and a connecting ring (39). An annular cavity is provided in the connecting ring (39). A plurality of through holes are provided on the inner wall of the side of the annular cavity. Screws (41) are slidably arranged in the plurality of through holes. The ends of the plurality of screws (41) are provided with mounting grooves. A flip block (52) is arranged in the mounting groove. The flip block (52) is rotatably mounted in the mounting groove. Both sides of the flip block (52) are arranged in an arc shape and are provided with magnetic suction components. Two fastening components are provided on the flip block (52). The fastening components are used to make the connecting flange (31) and the connecting ring (39) fit together.

2. The high-pressure jet continuous liquefaction device for glucose syrup processing according to claim 1, characterized in that: The cleaning mechanism further comprises two circular shafts (8), two square cavities are provided in the mixing tube (1), two connecting holes are provided on the side inner walls of the two square cavities and the side of the circular scraper (7), the two circular shafts (8) are respectively sleeved in the two connecting holes, one end of the two circular shafts (8) are rotatably mounted on the side inner wall of the annular groove, square blocks (9) are slidably mounted in the two square cavities, the two square blocks (9) are provided with square cavities, the other ends of the two circular shafts (8) extend into the two square cavities and are respectively rotatably connected to the side inner walls of the two square cavities, the outer walls of the circumferential sides of the two circular shafts (8) are sleeved with compression springs (16), one end of the two compression springs (16) are respectively fixedly mounted on the sides of the two square blocks (9), and the other ends of the two compression springs (16) are respectively fixedly mounted on the side inner walls of the two square cavities.

3. The high-pressure jet continuous liquefaction device for glucose syrup processing according to claim 2, characterized in that: The cleaning mechanism further comprises two rotating rods (19), the side inner walls of the two square cavities are provided with sliding grooves, the side inner walls of the two square blocks (9) are provided with rotating holes, the two rotating rods (19) are respectively rotatably mounted in the two rotating holes, and the two rotating rods (19) are provided with self-rotating components, the self-rotating components comprising a first rotating gear (21), one end of the rotating rod (19) extends into the sliding groove, the first rotating gear (21) is fixedly sleeved on the peripheral outer wall of the rotating rod (19), a spur rack (20) is fixedly mounted on the top inner wall of the sliding groove, the spur rack (20) is meshingly mounted with the first rotating gear (21), a first bevel gear (17) is fixedly sleeved on the peripheral outer wall of the circular shaft (8), the other end of the rotating rod (19) extends into the square block (9) and is fixedly sleeved with a second bevel gear (18), and the second bevel gear (18) is meshingly mounted with the first bevel gear (17).

4. The high-pressure jet continuous liquefaction device for glucose syrup processing according to claim 2, characterized in that: The rotating assembly comprises a first annular rack (14) and two first gears (15). The first annular rack (14) is fixedly mounted on the inner wall of the circumferential side of the annular rotating plate (11). The two first gears (15) are respectively fixedly sleeved on the outer walls of the circumferential sides of the two circular shafts (8). The two first gears (15) are both meshed and mounted with the first annular rack (14). The opposite inner walls of the annular groove are each provided with an annular limiting groove. An annular limiting strip (13) is rotatably mounted in the two annular limiting grooves. The mutually adjacent sides of the two annular limiting strips (13) are respectively fixedly connected to the two sides of the annular rotating plate (11).

5. The high-pressure jet continuous liquefaction device for glucose syrup processing according to claim 1, characterized in that: The clamping assembly comprises two trapezoidal extrusion blocks (26), a pull plate (24) is fixedly sleeved on the peripheral outer wall of the sliding shaft (3), a circular cavity is provided in the sliding shaft (3), the two trapezoidal extrusion blocks (26) are slidably mounted in the circular cavity, a screw rod (22) is rotatably mounted on the inner wall of the end of the circular cavity, the other end of the screw rod (22) passes through the outside of the sliding shaft (3) and is fixedly mounted with a first knob (25), the two trapezoidal extrusion blocks (26) are threadedly mounted on the screw rod (22), the side portions of the two trapezoidal extrusion blocks (26) are provided with a first limiting hole, a first limiting shaft (23) is slidably mounted in the two first limiting holes, and the two ends of the first limiting shaft (23) are respectively fixedly mounted on the opposite inner walls of the circular cavity.

6. The high-pressure jet continuous liquefaction device for glucose syrup processing according to claim 5, characterized in that: The clamping assembly further comprises four rectangular plates (27), four second limit shafts (29) are fixedly mounted on the inner wall of the circumference of the circular cavity, the four rectangular plates (27) are respectively slidably mounted on the four second limit shafts (29), arc-shaped clamping blocks (28) are fixedly mounted on the sides of the four rectangular plates (27), four avoidance holes are opened on the inner wall of the circumference of the circular cavity, the four arc-shaped clamping blocks (28) are respectively slidably mounted in the four avoidance holes, the outer walls of the circumference of the four second limit shafts (29) are respectively sleeved with return springs (30), the two ends of the four return springs (30) are respectively fixedly connected to the side of the rectangular plates (27), the four rectangular plates (27) are respectively matched with the two trapezoidal extrusion blocks (26), the side of the circular scraper (7) is opened with a circular air inlet hole, the position of the circular air inlet hole is matched with the position of the conical air inlet hole, and the inner wall of the circumference of the circular air inlet hole is opened with two arc-shaped clamping grooves (55).

7. The high-pressure jet continuous liquefaction device for glucose syrup processing according to claim 1, characterized in that: The cleaning mechanism further comprises an operating block (4); an operating groove is provided on the peripheral outer wall of the mixing tube (1); the operating groove is connected to the circular hole via an L-shaped hole; a first guide shaft (34) is fixedly mounted on the side inner wall of the L-shaped hole; a rectangular sliding block (33) is slidably mounted on the first guide shaft (34); an arc-shaped anti-slip pad (32) is fixedly mounted on the end of the rectangular sliding block (33); the peripheral inner wall of the arc-shaped anti-slip pad (32) is aligned with the peripheral outer wall of the sliding shaft (3); The first guide shaft (34) is fitted with a compression spring (35) on its circumferential outer wall, a second guide shaft (37) is fixedly mounted on the inner wall of the side of the operating slot, the operating block (4) is slidably mounted on the circumferential outer wall of the second guide shaft (37), a tension spring (38) is mounted on the circumferential outer wall of the second guide shaft (37), a connecting rod (36) is rotatably mounted on the side of the operating block (4), and the other end of the connecting rod (36) is rotatably mounted on the side of the rectangular sliding block (33).

8. The high-pressure jet continuous liquefaction device for glucose syrup processing according to claim 1, characterized in that: The connection mechanism further comprises a plurality of screw guide sleeves (42), the ends of the plurality of screw guide sleeves (42) are rotatably mounted on the side inner wall of the annular cavity, the plurality of screws (41) are respectively threadedly mounted in the plurality of screw guide sleeves (42), an operating hole is provided in the side inner wall of the annular cavity, an operating shaft is rotatably mounted in the operating hole, one end of the operating shaft is connected to the end of one of the screw guide sleeves (42), the other end of the operating shaft extends outside the operating hole and is fixedly mounted with a second knob (45), the peripheral outer walls of the plurality of screw guide sleeves (42) are fixedly sleeved with a second rotating gear (43), and the peripheral inner wall of the annular cavity is rotatably mounted. A second annular rack (44) is installed, and a plurality of second rotating gears (43) are meshedly installed with the second annular rack (44). The peripheral outer walls of a plurality of the screw rods (41) are fixedly sleeved with a limit plate (56), and the sides of a plurality of the limit plates (56) are provided with mounting holes. A fixing rod (57) is slidably installed in a plurality of the mounting holes. Both ends of a plurality of the fixing rods (57) are fixedly connected to the opposite inner walls of the annular cavity. A threaded hole is provided on the peripheral inner wall of the annular cavity. A fixing bolt (46) is threadedly installed in the threaded hole. The bottom end of the fixing bolt (46) contacts the peripheral outer wall of one of the screw guide sleeves (42).

9. The high-pressure jet continuous liquefaction device for glucose syrup processing according to claim 8, characterized in that: The connection mechanism further comprises two installation shafts (48), the ends of the two installation shafts (48) being away from each other are rotatably mounted on the opposite inner walls of the installation groove, and the ends of the two installation shafts (48) being close to each other are fixedly connected to the two sides of the flip block (52), the installation groove is arc-shaped and matched with the flip block (52), the fastening assembly comprises a trapezoidal clamping block (49), a clamping groove is provided on the side of the flip block (52), a fixed shaft (51) is fixedly mounted on the inner wall of one side of the clamping groove, the trapezoidal clamping block (49) is slidably mounted on the peripheral outer wall of the fixed shaft (51), and the peripheral outer wall of the fixed shaft (51) is sleeved with a clamping spring (50).

10. The high-pressure jet continuous liquefaction device for glucose syrup processing according to claim 1, characterized in that: The magnetic attraction component comprises a first magnetic attraction block (47) and two second magnetic attraction blocks (53); a first sensing groove is provided on the inner wall of the peripheral side of the installation groove; the first magnetic attraction block (47) is fixedly installed in the first sensing groove; two arc-shaped surfaces of the flip block (52) are both provided with second sensing grooves; the two second magnetic attraction blocks (53) are respectively fixedly installed in the two second sensing grooves; and the first magnetic attraction block (47) is respectively adapted to the two second magnetic attraction blocks (53).

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