Processing equipment for pressing type mixed seasoning

Abstract

The invention discloses pressing type mixed seasoning processing equipment which comprises an extrusion type conveying mechanism, the inlet end of the extrusion type conveying mechanism is communicated with the outlet end of a mixed type humidifying mechanism, the outlet end of the extrusion type conveying mechanism is communicated with the inlet end of a pressure-bearing type shaping mechanism, and a multi-section cutting mechanism is installed on the pressure-bearing type shaping mechanism. A pneumatic adjusting mechanism is arranged between the multi-section cutting mechanism and the pressure-bearing type shaping mechanism, the pressure-bearing type shaping mechanism is connected with a vertical turnover mechanism, and the vertical turnover mechanism is installed on the machine frame. According to the processing equipment, the rod-shaped mixed seasoning with the preset compactness can be pressed, so that the mixed seasoning can be suitable for stewing or quick frying of dishes, and the processing efficiency of the rod-shaped mixed seasoning can be improved by utilizing the processing equipment. The device is suitable for the technical field of pressing the powdery mixed seasoning into the solid state.

Description

Technical Field

[0001] The invention belongs to the technical field of seasoning processing, and in particular relates to a processing device for pressing mixed seasoning. Background Art

[0002] At present, the processing of mixed seasonings can be roughly divided into three types. The first type is relatively simple, that is, after cleaning a variety of seasoning ingredients, mix them together in a predetermined ratio, and then package and sell them; this type of mixed seasoning is mostly used for long-term stewing of meat dishes, so that the flavor in the mixed seasoning is gradually stewed out and penetrates into the meat dishes. The second type is to mix and grind a variety of seasoning ingredients in a predetermined ratio, or grind each seasoning ingredient first and then mix it, and then package and sell it; this type of mixed seasoning is in powder form and is not suitable for stewing meat. That is, during the long stewing process, its own spicy flavor is lost quickly, and it cannot achieve the effect of gradually releasing spicy flavor like the first type of mixed seasoning, at least the taste of the dish is reduced; generally speaking, its seasoning effect is most obvious when the dish is stir-fried. The third method is to put a variety of seasoning ingredients into hot oil or hot water according to a predetermined ratio, and then boil them for a long time. After boiling, filter out the residue, and finally pour and sell the obtained mixed seasoning liquid. This kind of seasoning is generally suitable for quick stir-frying or mixing dishes, but its disadvantage is obvious, that is, compared with mixed seasonings in solid or powder form, its shelf life is shorter, so most of the first and second mixed seasonings are used for cooking. However, due to the different forms of the first and second mixed seasonings, the interoperability of the two cooking dishes is weak; therefore, there is an urgent need for a mixed seasoning and processing equipment that combines the advantages of the two to adapt to the cooking of different dishes and improve the processing efficiency of the mixed seasoning. Summary of the invention

[0003] The invention provides a pressing type mixed seasoning processing device for pressing a rod-shaped mixed seasoning with a predetermined density so that the mixed seasoning can be suitable for stewing or quick frying of dishes, and the processing efficiency of the rod-shaped mixed seasoning can be improved by using the processing device.

[0004] To achieve the above purpose, the technical solution adopted by the present invention is as follows:

[0005] A processing device for pressed mixed seasonings, comprising an extrusion-type conveying mechanism whose inlet end is connected to the outlet end of a mixed humidifying mechanism, the outlet end of the extrusion-type conveying mechanism is connected to the inlet end of a pressure-bearing shaping mechanism, a multi-segment cutting mechanism is installed on the pressure-bearing shaping mechanism, a pneumatic adjustment mechanism is constructed between the multi-segment cutting mechanism and the pressure-bearing shaping mechanism, and the pressure-bearing shaping mechanism is connected to a vertical flipping mechanism, and the vertical flipping mechanism is installed on a frame.

[0006] Furthermore, the hybrid humidification mechanism includes a mixing kettle with a feed end cover detachably connected to the upper end, a plurality of feed pipes are evenly connected to the feed end cover, a feed control valve is installed on each of the feed pipes, and a drainage humidification component is coaxially installed in the mixing kettle, and the upper end of the drainage humidification component extends out of the feed end cover and is rotatably connected to the feed end cover.

[0007] Furthermore, the drainage and humidification assembly includes an umbrella-shaped drainage hood arranged in the mixing kettle, the central part of the drainage hood protrudes upward, the inner cavity of the mixing kettle is divided into an upper mixing chamber and a lower humidification chamber by the drainage hood, and a plurality of drainage ports are evenly opened on the drainage hood along its circumference, the upper mixing chamber and the lower humidification chamber are connected to each other through the drainage ports, and a connecting shaft and a humidification tube are respectively connected to the upper and lower ends at the center of the drainage hood, the upper part of the connecting shaft is rotatably connected to the feed end cover, a humidification channel connected to the humidification tube is constructed in the connecting shaft, and the humidification channel is connected to the humidification hole on the humidification tube, and a first transmission wheel is coaxially installed on the upper part of the connecting shaft.

[0008] Furthermore, the extrusion conveying mechanism includes a horizontal feed barrel with a feed joint constructed on the upper part of the peripheral wall, a lateral end cover is detachably connected to one axial end of the horizontal feed barrel, an extrusion barrel is constructed at the other end of the horizontal feed barrel, the extrusion barrel is connected to the pressure-bearing shaping mechanism, a feed cavity and an extrusion cavity are respectively formed in the horizontal feed barrel and the extrusion barrel, one end of the mounting shaft extends into the horizontal feed barrel through the lateral end cover along the axis of the horizontal feed barrel, and extends to the junction of the feed cavity and the extrusion cavity, a spiral conveying blade is constructed on the mounting shaft, and a second transmission wheel is coaxially installed on the portion of the mounting shaft located outside the lateral end cover.

[0009] Furthermore, the radial length of the horizontal feed barrel decreases along the feeding direction, the extrusion barrel is coaxially constructed at the small diameter end of the horizontal feed barrel, and the outer peripheral edge of the spiral conveying blade is close to or in contact with the inner wall of the horizontal feed barrel, and the feed connector is constructed at the upper part of the outer peripheral wall of the large diameter end of the horizontal feed barrel.

[0010] Furthermore, the pressure-bearing forming mechanism includes a forming body with a snap-on cover at one end, the snap-on cover is snapped with the outlet end of the extrusion-type conveying mechanism, and a plurality of forming cavities are evenly opened on the forming body along its circumference, and each of the forming cavities extends out of the two ends of the forming body along the axial direction of the forming body, and a driving rod is coaxially arranged in each forming cavity, and a driven gear is rotatably connected to one end of the forming cavity away from the extrusion-type conveying mechanism, and the driven gear is coaxially assembled with the corresponding driving rod, and a driving gear is rotatably connected to the end of the forming body, the driving gear is meshed with each driven gear, and the driving gear is coaxially connected to the output shaft of the driving motor, and the driving motor is connected to the forming body via a connecting seat.

[0011] Furthermore, an electric heating wire is installed in the molding body, an assembly cavity is constructed in each of the driving rods, an electric heating rod is installed in each assembly cavity, and an adapter cap rotatably connected to the end of the driving rod is constructed at the end of each electric heating rod, and each adapter cap is fixedly connected to an annular protective tube, and the annular protective tube is fixed to the connecting seat through a fixing tube constructed thereon, and the wire of each electric heating rod passes through the annular protective tube and extends out of the fixing tube.

[0012] Furthermore, the multi-segment cutting mechanism includes a plurality of segment cutting components evenly arranged along the circumference of the forming body, and these segment cutting components are arranged one-to-one corresponding to the forming cavities. The segment cutting components are slidingly connected to the forming body, and the segment cutting components move radially along the corresponding forming cavities under the drive of the pneumatic adjustment mechanism.

[0013] Furthermore, guide seats extending radially outward along the shaping cavity are respectively constructed on the shaping body and at both ends of each shaping cavity, the segment cutting assembly includes a mounting plate extending axially along the shaping cavity, sliding blocks are respectively constructed at both ends of the mounting plate, each of the sliding blocks is slidably connected to the corresponding guide seat, a plurality of cutting blades are arranged at intervals along its length direction on the mounting plate, an adjusting stud is constructed at the end of each cutting blade away from the shaping body, the adjusting stud vertically passes through the mounting plate, and a locking nut is threadedly connected to the adjusting stud; a plurality of cutting port groups are opened on the upper edge of the shaping body and evenly in the circumferential direction, these cutting port groups are arranged one-to-one with the shaping cavities, each cutting port group includes a plurality of cutting ports arranged at intervals along the axial direction of the shaping cavity, and these cutting ports are arranged one-to-one with the plurality of cutting blades on the corresponding segment cutting assembly, and each cutting port is connected to the corresponding shaping cavity.

[0014] Furthermore, the pneumatic adjustment mechanism includes a plurality of adjustment components evenly arranged along the circumference of the forming body, each of the adjustment components includes an adjustment tube installed on the mounting plate, an adjustment rod movably connected in the adjustment tube, the adjustment rod is detachably connected to the fixing plate, the fixing plate is connected to two corresponding guide seats, and the adjustment tube and the adjustment rod both extend radially along the corresponding forming cavity, a movable head is constructed at the end of the adjustment rod extending into the adjustment tube, a connecting spring is installed in the pneumatic cavity of the adjustment tube, two ends of the connecting spring are respectively connected to the adjustment tube and the movable head, a pneumatic channel connected to the pneumatic cavity is constructed in the adjustment rod, a joint pipe is constructed at the end of the adjustment rod away from the adjustment tube, the joint pipe is connected to the annular air pipe, and an air pipe joint is connected to the annular air pipe.

[0015] Due to the adoption of the above structure, the technical progress achieved by the present invention compared with the prior art is that: the present invention conveys powders of a plurality of seasoning raw materials into a mixing humidifying mechanism according to a predetermined ratio, and these seasoning raw materials are mixed and humidified in the mixing humidifying mechanism; thereafter, the mixed seasoning containing a certain humidity content enters the extrusion conveying mechanism, the extrusion conveying mechanism conveys the mixed seasoning, and the mixed seasoning is extruded in the extrusion conveying mechanism and gradually extruded into the pressure-bearing shaping mechanism, and gradually extruded and compacted in the pressure-bearing shaping mechanism, and the pressure-bearing shaping mechanism is heated at the same time, so that the mixed seasoning in the pressure-bearing shaping mechanism is gradually shaped; then , the pressurized gas is introduced into the pneumatic adjustment mechanism, so that the pneumatic adjustment mechanism drives the multi-segment cutting mechanism toward the pressure-bearing shaping mechanism, so that the multi-segment cutting mechanism cuts the shaped rod-shaped mixed seasoning into segments, thereby forming a plurality of annular cutting grooves on the rod-shaped mixed seasoning along its axial interval, and in the cutting process, the end of the rod-shaped mixed seasoning close to the extrusion conveying mechanism is gradually cut off by the multi-segment cutting mechanism, and finally, the vertical flipping mechanism is controlled to drive the pressure-bearing shaping mechanism to disengage from the extrusion conveying mechanism, and then the pressure-bearing shaping mechanism is driven to flip downward 90°, so as to facilitate the removal of the rod-shaped mixed seasoning in the pressure-bearing shaping mechanism. After the material is taken out, the vertical flipping mechanism is controlled to drive the pressure-bearing shaping mechanism to return to its original position. The stick-shaped mixed seasoning obtained by the present invention can be stewed with meat dishes. As the stewing progresses, the mixed seasoning gradually spreads out and gradually releases the spice from the outside to the inside, so as to gradually penetrate into the meat, improve the taste and flavor of the meat, and prevent the spice of the mixed seasoning from being quickly lost. Moreover, when the dishes are stir-fried, the mixed seasoning can be scraped flatly with a scraper, or the mixed seasoning can be ground by grinding, and the obtained powder can be directly sprinkled on the dishes for stir-frying. The mixed seasoning of the present invention is easy to store, and the stick-shaped mixed seasoning can be broken along the predetermined annular cutting groove according to the amount of the dishes to obtain a mixed seasoning of a predetermined length. Moreover, due to the use of the above-mentioned processing equipment, the processing efficiency of the mixed seasoning is improved. The present invention can use the processing equipment to press a powdered seasoning ingredient, or perform a mixed pressing operation of two or more powdered seasoning ingredients, so that the obtained stick-shaped product is easy to transport and store, has a longer shelf life, and compared with powdered seasonings, will not scatter around the stove during the cooking process. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0017] In the attached picture:

[0018] Figure 1 It is a structural schematic diagram of an embodiment of the present invention;

[0019] Figure 2 This is a schematic structural diagram of the connection between the hybrid humidification mechanism and the extrusion-type conveying mechanism according to an embodiment of the present invention;

[0020] Figure 3 It is an axial structural cross-sectional view of the connection between the hybrid humidification mechanism and the extrusion-type conveying mechanism according to an embodiment of the present invention;

[0021] Figure 4 It is a structural schematic diagram of a drainage humidification component in a hybrid humidification mechanism according to an embodiment of the present invention;

[0022] Figure 5 It is a schematic structural diagram of the connection between the mounting shaft, the spiral conveying blades and the second transmission wheel in the extrusion type conveying mechanism of the embodiment of the present invention;

[0023] Figure 6 This is a schematic diagram of the structure of an embodiment of the present invention after removing the mixed humidification mechanism and the extrusion conveying mechanism;

[0024] Figure 7 It is a structural schematic diagram of the connection of the pressure-bearing shaping mechanism, the multi-segment cutting mechanism and the pneumatic adjustment mechanism according to an embodiment of the present invention;

[0025] Figure 8 for Figure 7 A front view of the structure shown;

[0026] Fig. 9 It is a partial structural schematic diagram of a pressure-bearing shaping mechanism according to an embodiment of the present invention;

[0027] Fig.10 It is a schematic diagram of the structure of the connection between the driving rod and the driven gear in the pressure-bearing shaping mechanism of the embodiment of the present invention;

[0028] Fig.11 It is a schematic structural diagram of the connection between the annular protective tube, the fixed tube and a plurality of electric heating rods in the pressure-bearing shaping mechanism of an embodiment of the present invention;

[0029] Fig.12 It is a structural schematic diagram of a segment cutting assembly in a multi-segment cutting mechanism according to an embodiment of the present invention;

[0030] Fig.13 for Fig.12 A schematic diagram of another angle of the structure shown;

[0031] Fig.14 It is an axial structural cross-sectional view of an adjustment component in a pneumatic adjustment mechanism according to an embodiment of the present invention.

[0032] Labeled parts: 100-mixed humidification mechanism, 101-mixing kettle, 102-discharging part, 103-discharging joint, 104-upper mixing chamber, 105-lower humidification chamber, 106-discharging chamber, 107-feeding end cover, 108-feeding pipe, 109-feeding control valve, 110-connecting shaft, 111-humidification channel, 112-drainage cover, 113-drainage port, 114-humidification pipe, 115-humidification hole, 116-scraper rod , 117-first transmission wheel, 200-extrusion conveying mechanism, 201-horizontal feeding cylinder, 202-feeding cavity, 203-feeding joint, 204-extrusion cylinder, 205-extrusion cavity, 206-lateral end cover, 207-installation shaft, 208-spiral conveying blade, 209-second transmission wheel, 300-pressure-bearing shaping mechanism, 301-shaping body, 302-snap-on cover, 303-shaping cavity, 304-cutting mouth, 305- Guide seat, 306-fixed plate, 307-driving rod, 308-limiting strip, 309-adapter tube, 310-assembly cavity, 311-adapter plate, 312-driven gear, 313-driving gear, 314-driving motor, 315-electric heating rod, 316-adapter cap, 317-annular protective tube, 318-fixed tube, 400-pneumatic adjustment mechanism, 401-annular air pipe, 402-air pipe joint, 403-joint pipe, 404-adjusting rod, 405-movable head, 406-pneumatic channel, 407-adjusting tube, 408-pneumatic chamber, 409-connecting spring, 500-multi-segment cutting mechanism, 501-mounting plate, 502-sliding block, 503-cutting blade, 504-adjusting stud, 505-locking nut, 600-vertical flip mechanism, 601-right angle fixing frame, 602-longitudinal cylinder, 603-oblique cylinder, 604-connecting seat. DETAILED DESCRIPTION

[0033] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0034] The present invention discloses a pressing type mixed seasoning processing equipment, such as Figure 1-14As shown, it includes a mixed humidifying mechanism 100, an extrusion conveying mechanism 200, a pressure-bearing shaping mechanism 300, a multi-segment cutting mechanism 500, a pneumatic adjustment mechanism 400 and a vertical flipping mechanism 600. Among them, the inlet end of the extrusion conveying mechanism 200 is interconnected with the outlet end of the mixed humidifying mechanism 100, the outlet end of the extrusion conveying mechanism 200 is interconnected with the inlet end of the pressure-bearing shaping mechanism 300, the multi-segment cutting mechanism 500 is installed on the pressure-bearing shaping mechanism 300, the pneumatic adjustment mechanism 400 is constructed between the multi-segment cutting mechanism 500 and the pressure-bearing shaping mechanism 300, and the pressure-bearing shaping mechanism 300 is connected to the vertical flipping mechanism 600, and the vertical flipping mechanism 600 is installed on the frame. The working principle and advantages of the present invention are as follows: the present invention conveys powders of a plurality of seasoning raw materials into a mixed humidifying mechanism 100 in a predetermined ratio, and these seasoning raw materials are mixed and humidified in the mixed humidifying mechanism 100; thereafter, the mixed seasoning containing a certain humidity content enters the extrusion conveying mechanism 200, and the extrusion conveying mechanism 200 conveys the mixed seasoning, and the mixed seasoning is extruded in the extrusion conveying mechanism 200 and gradually extruded into the pressure-bearing shaping mechanism 300, and gradually squeezed and compacted in the pressure-bearing shaping mechanism 300, and at the same time, the pressure-bearing shaping mechanism 300 is heated, so that the mixed seasoning in the pressure-bearing shaping mechanism 300 is gradually shaped; then, the pressurized gas is passed into the pneumatic adjustment mechanism The pneumatic adjustment mechanism 400 drives the multi-segment cutting mechanism 500 toward the pressure-bearing shaping mechanism 300, so that the multi-segment cutting mechanism 500 cuts the shaped rod-shaped mixed seasoning in sections, thereby forming a plurality of annular cutting grooves on the rod-shaped mixed seasoning along the axial intervals thereof, and in the cutting process, the end of the rod-shaped mixed seasoning close to the extrusion conveying mechanism 200 is gradually cut off by the multi-segment cutting mechanism 500, and finally, the vertical flipping mechanism 600 is controlled to drive the pressure-bearing shaping mechanism 300 to disengage from the extrusion conveying mechanism 200, and then the pressure-bearing shaping mechanism 300 is driven to flip downward by 90°, so as to facilitate the removal of the rod-shaped mixed seasoning in the pressure-bearing shaping mechanism 300. After the material is taken out, the vertical flipping mechanism 600 is controlled to drive the pressure-bearing shaping mechanism 300 to return to its original position. The stick-shaped mixed seasoning obtained by the present invention can be stewed with meat dishes. As the stewing progresses, the mixed seasoning gradually spreads out and gradually releases the spice from the outside to the inside, so as to gradually penetrate into the meat, improve the taste and flavor of the meat, and prevent the spice of the mixed seasoning from being quickly lost. Moreover, when the dishes are quickly fried, the mixed seasoning can be scraped flatly with a scraper, or the mixed seasoning can be ground by grinding, and the obtained powder can be directly sprinkled on the dishes for stir-frying. The mixed seasoning of the present invention is easy to store, and the stick-shaped mixed seasoning can be broken along the predetermined annular cutting groove according to the amount of the dishes to obtain a mixed seasoning of a predetermined length.Moreover, due to the use of the above processing equipment, the processing efficiency of the mixed seasoning is improved. The present invention can use the processing equipment to press a powdered seasoning raw material, or to perform mixed pressing operations of two or more powdered seasoning raw materials, so that the obtained stick-shaped product is easy to transport and store, has a longer shelf life, and compared with powdered seasonings, will not scatter around the stove during the cooking process.

[0035] As a preferred embodiment of the present invention, Figure 2-4As shown, the hybrid humidification mechanism 100 includes a mixing kettle 101, a feed end cover 107 and a drainage humidification assembly. Among them, the feed end cover 107 is detachably connected to the upper end of the mixing kettle 101, and a feed discharge portion 102 is formed at the lower part of the mixing kettle 101. The diameter of the feed discharge portion 102 gradually decreases downward in the vertical direction. A discharge joint 103 is constructed at the lower end (small diameter end) of the feed discharge portion 102, and the discharge joint 103 is connected to the inlet end of the extrusion conveying mechanism 200. In this embodiment, a plurality of feed pipes 108 are evenly connected to the feed end cover 107. The upper part of each feed pipe 108 is vertically arranged, and the lower part of the feed pipe 108 is tilted downward and fixed on the feed end cover 107. The feed pipe 108 is connected to the inner cavity of the mixing kettle 101, and a feed control valve 109 is installed on each feed pipe 108. The drainage humidification component of this embodiment is installed in the mixing kettle 101, and the axes of the two coincide, and the upper end of the drainage humidification component extends out of the feed end cover 107 and is rotatably connected to the feed end cover 107. In this embodiment, the drainage humidification component is driven to rotate, so that the various seasoning raw material powders entering the mixing kettle 101 are mixed with each other, and the drainage humidification component sprays atomized water to the mixed materials to change the moisture content of the mixed materials for subsequent pressing operations. Moreover, since the lower part of the feed pipe 108 is tilted, and the outlet end of the feed pipe 108 is tilted from the axis of the feed end cover 107, under the action of the drainage humidification component, the seasoning raw material powders that are drained down are mixed with each other in the form of a swirl, thereby improving the mixing efficiency. The specific structure of the drainage humidification component of this embodiment is that the drainage humidification component includes a drainage cover 112, a connecting shaft 110 and a humidification pipe 114, and the axes of the three coincide. The drainage cover 112 is an umbrella-shaped structure, which is arranged in the mixing kettle 101. The center of the drainage cover 112 protrudes upward, and the inner cavity of the mixing kettle 101 is divided into an upper mixing chamber 104 and a lower humidification chamber 105 by the drainage cover 112. A lower material chamber 106 is formed in the lower material portion 102, and the lower humidification chamber 105 is connected to the lower material chamber 106. In this embodiment, a plurality of drainage ports 113 are evenly opened on the drainage cover 112 along its circumference, and the upper mixing chamber 104 and the lower humidification chamber 105 are connected to each other through these drainage ports 113. The connecting shaft 110 and the humidifying tube 114 are respectively connected to the upper and lower ends of the center of the drainage cover 112. The upper part of the connecting shaft 110 is rotatably connected to the feed end cover 107. A humidifying channel 111 is constructed in the connecting shaft 110. The humidifying channel 111 and the humidifying tube 114 are interconnected. A plurality of humidifying holes 115 are opened on the humidifying tube 114. The humidifying channel 111 and the humidifying holes 115 on the humidifying tube 114 are interconnected. A first transmission wheel 117 is coaxially installed on the upper part of the connecting shaft 110.The working principle and advantages of this embodiment are as follows: this embodiment drives the first transmission wheel 117 to rotate, so that it drives the drainage cover 112 and the humidification tube 114 to rotate through the connecting shaft 110; during the rotation of the drainage cover 112, the seasoning raw material powders entering the upper mixing chamber 104 are mixed with each other, and enter the lower humidification chamber 105 through the drainage port 113, and under the drainage effect of the drainage cover 112, each seasoning raw material powder can smoothly enter the upper mixing chamber 104 through the feed pipe 108, and when humidifying in the lower humidification chamber 105, it is prevented that water vapor enters the upper mixing chamber 104 through the drainage port 113. Moreover, since the middle part of the drainage cover 112 protrudes upward, the mixed materials gradually converge toward the axis of the lower humidification chamber 105 through the drainage port 113, so that the water vapor atomized from the humidification tube 114 is fully mixed with the mixed materials. In this embodiment, a pressure water pipe is rotatably connected to the upper end of the connecting shaft 110, and the pressure water enters the humidification channel 111 through the pressure water pipe, and then the pressure water smoothly enters the humidification pipe 114 and atomizes out. In order to prevent the mixed material after humidification from adhering to the inner wall of the lower humidification chamber 105 and the inner wall of the feeding chamber 106, the measures taken in this embodiment are as follows: two scraping rods 116 are symmetrically fixed at the outer edge of the lower end of the drainage cover 112, and each scraping rod 116 is close to the inner wall of the lower humidification chamber 105 and the inner wall of the feeding chamber 106, and extends to the discharge joint 103; in this way, during the rotation of the drainage cover 112, the two scraping rods 116 are driven to scrape the inner wall of the lower humidification chamber 105 and the inner wall of the feeding chamber 106.

[0036] As a preferred embodiment of the present invention, Figure 2 , 3As shown in Figures 5 and 6, the extrusion conveying mechanism 200 includes a horizontal conveying barrel 201, a lateral end cover 206, an extrusion barrel 204 and a mounting shaft 207. A feed connector 203 is configured at the upper portion of the peripheral wall of the horizontal conveying barrel 201, and the feed connector 203 is interconnected with the discharge connector 103 of the hybrid humidifying mechanism 100. The lateral end cover 206 is detachably connected to one axial end of the horizontal conveying barrel 201. The extrusion barrel 204 is configured at the other end of the horizontal conveying barrel 201. The extrusion barrel 204 is interconnected with the pressure-bearing shaping mechanism 300, and a conveying cavity 202 and an extrusion cavity 205 are formed in the horizontal conveying barrel 201 and the extrusion barrel 204, respectively. One end of the mounting shaft 207 of this embodiment extends into the horizontal feeding barrel 201 through the lateral end cover 206 along the axis of the horizontal feeding barrel 201, the mounting shaft 207 is rotatably connected to the lateral end cover 206, and one end of the mounting shaft 207 extends to the junction of the feeding chamber 202 and the extrusion chamber 205, a spiral conveying blade 208 is constructed on the mounting shaft 207, and a second transmission wheel 209 is coaxially mounted on the portion of the mounting shaft 207 located outside the lateral end cover 206. The working principle and advantages of this embodiment are: this embodiment drives the second transmission wheel 209 to rotate, so that it drives the mounting shaft 207 to rotate, so that the spiral conveying blade 208 conveys the mixed material entering the feeding chamber 202, so that the mixed material is gradually conveyed to the extrusion chamber 205, and the mixed material is gradually extruded in the extrusion chamber 205, and stably and continuously supplied to the pressure-bearing shaping mechanism 300. In order to prevent the mixed material from being too loose during the conveying process and thus affecting the subsequent profiling effect, the measures taken in this embodiment are as follows: the radial length of the horizontal conveying barrel 201 decreases along the conveying direction, the extrusion barrel 204 is constructed at the small-diameter end of the horizontal conveying barrel 201, and the axis of the extrusion barrel 204 coincides with the axis of the horizontal conveying barrel 201. The outer peripheral edge of the spiral conveying blade 208 of this embodiment is close to or in contact with the inner wall of the horizontal conveying barrel 201, and the above-mentioned feed connector 203 is constructed at the upper part of the outer peripheral wall of the large-diameter end of the horizontal conveying barrel 201. In this way, during the conveying process of the mixed material, as the caliber of the conveying cavity 202 gradually decreases, the density of the mixed material gradually increases, thereby ensuring that the mixed material achieves the purpose of pre-pressing before entering the pressure-bearing shaping mechanism 300.

[0037] As a preferred embodiment of the present invention, Figure 6-11As shown, the pressure-bearing molding mechanism 300 includes a molding body 301, one end of which is constructed with a snap-fit ​​cover 302, and the snap-fit ​​cover 302 is snapped with the extrusion cylinder 204 of the extrusion conveying mechanism 200, and a plurality of molding cavities 303 are evenly opened along the circumference of the molding body 301, and each molding cavity 303 extends from both ends of the molding body 301 along the axial direction of the molding body 301. In this embodiment, a driving rod 307 is coaxially arranged in each molding cavity 303, and two limiting strips 308 are symmetrically arranged on the peripheral wall of the driving rod 307, each limiting strip 308 extends along the axial direction of the driving rod 307 to both ends of the driving rod 307, and a transfer tube 309 is constructed at the end of the driving rod 307 away from the extrusion cylinder 204, and an adapter disk 311 is fixedly mounted on the transfer tube 309, the adapter disk 311 closes the corresponding end of the molding cavity 303, and the portion of the adapter disk 311 extending into the molding cavity 303 is rotatably connected to the molding cavity 303, and a driven gear 312 is installed on the adapter disk 311, and the axes of the driving rod 307, the adapter disk 311 and the driven gear 312 coincide. In this embodiment, a driving gear 313 is rotatably connected to the end of the shaped body 301, and the driving gear 313 is meshed with each driven gear 312, and the driving gear 313 is coaxially connected to the output shaft of the driving motor 314, and a connecting seat 604 is installed on the shaped body 301, and the driving motor 314 is installed on the connecting seat 604. In this embodiment, an electric heating wire is installed in the shaped body 301, an assembly cavity 310 is constructed in each driving rod 307, an electric heating rod 315 is installed in each assembly cavity 310, and a transfer cap 316 is constructed at the end of each electric heating rod 315, the transfer cap 316 is rotatably connected to the end of the driving rod 307, and each transfer cap 316 is fixedly connected to the annular protection tube 317, and the annular protection tube 317 is fixed to the connecting seat 604 through a fixing tube 318 constructed thereon, and the wire of each electric heating rod 315 passes through the annular protection tube 317 and extends out of the fixing tube 318. The annular protective tube 317 and the fixed tube 318 of this embodiment can effectively protect the wire of the electric heating rod 315 and prevent the wire from being damaged. The working principle and advantages of this embodiment are: the extrusion conveying mechanism 200 of this embodiment gradually squeezes the mixed material into each shaping cavity 303 until the mixed material is filled and compacted in the shaping cavity 303. At this time, the shaping body 301 and the driving rod 307 are heated by the electric heating wire and the electric heating rod 315 respectively, so that the mixed material entering the shaping cavity 303 is heated and shaped to form a rod-like structure, and the center of the rod-like structure is the driving rod 307. When the driving rod 307 is disconnected from the rod-like structure, the rod-like structure is in a hollow shape.After the rod-like structure is shaped in the shaping cavity 303, the driving motor 314 is controlled to operate so that it drives each driven gear 312 to rotate through the driving gear 313, and then each driven gear 312 drives the corresponding driving rod 307 to rotate. In this way, the driving rod 307 drives the rod-like structure to rotate, so that the multi-segment cutting mechanism 500 can synchronously cut all the rod-like structures, thereby improving the cutting efficiency.

[0038] As a preferred embodiment of the present invention, Figure 7 , 8As shown in FIGS. 12 and 13, the multi-segment cutting mechanism 500 includes a plurality of segment cutting assemblies, the number of which is the same as the number of the shaping cavities 303, the segment cutting assemblies are evenly arranged along the circumference of the shaping body 301, and the segment cutting assemblies are arranged one-to-one with the shaping cavities 303, the segment cutting assemblies are slidably connected with the shaping body 301, and the segment cutting assemblies move radially along the corresponding shaping cavities 303 under the drive of the pneumatic adjustment mechanism 400. In this way, the distance between the segment cutting assembly and the shaping body 301 is adjusted by the pneumatic adjustment mechanism 400, thereby achieving the purpose of adjusting the cutting depth of the rod-like structure in the shaping cavity 303 by the segment cutting assembly. In this embodiment, guide seats 305 are respectively constructed on the shaping body 301 and at both ends of each shaping cavity 303, and each guide seat 305 extends radially outward along the corresponding shaping cavity 303. The segment cutting assembly of this embodiment includes a mounting plate 501 and a plurality of cutting blades 503, wherein the mounting plate 501 is arranged outside the shaped body 301 and extends along the axial direction of the shaped cavity 303, and sliding blocks 502 are respectively constructed at both ends of the mounting plate 501, and each sliding block 502 is slidably connected with a corresponding guide seat 305. The plurality of cutting blades 503 described in this embodiment are arranged on the mounting plate 501 at intervals along the length direction of the mounting plate 501, and an adjusting stud 504 is constructed at one end of each cutting blade 503 away from the shaped body 301, and one end of the adjusting stud 504 vertically passes through the mounting plate 501, and a locking nut 505 is threadedly connected to the adjusting stud 504. Two locking nuts 505 are threadedly connected to each adjusting stud 504, and the two locking nuts 505 are respectively tightened on two opposite end faces of the mounting plate 501. When the end face of the cutting blade 503 and the mounting plate 501 are in contact with each other, the corresponding locking nut 505 can be removed. In this embodiment, the relative distance between the cutting blade 503 and the mounting plate 501 can be adjusted by adjusting the connection position between the adjusting stud 504 and the mounting plate 501, thereby ensuring that the cutting blade 503 performs annular cutting or annular cutting on the rod-like structure under the drive of the pneumatic adjustment mechanism 400, that is, adjusting the annular cutting depth of the rod-like structure by the cutting blade 503. In this embodiment, a plurality of cutting opening groups are uniformly provided on the upper edge and circumferential direction of the shaped body 301, and these cutting opening groups are arranged in a one-to-one correspondence with the shaped cavity 303. Each cutting opening group includes a plurality of cutting openings 304 arranged at intervals along the axial direction of the shaped cavity 303, and these cutting openings 304 are arranged in a one-to-one correspondence with the plurality of cutting blades 503 on the corresponding segment cutting assembly, and each cutting opening 304 is communicated with the corresponding shaped cavity 303.The working principle and advantages of this embodiment are: this embodiment controls the pneumatic adjustment mechanism 400 to drive all the segment cutting components to move synchronously toward the shaping body 301, so that multiple cutting blades 503 in the segment cutting components gradually extend from the cutting opening 304 into the shaping cavity 303. At the same time, the driving motor 314 drives each driving rod 307 to rotate, so that the driving rod 307 drives the rod-like structure to rotate, so that multiple annular cutting grooves are cut on the outer peripheral surface of the rod-like structure, and these annular cutting grooves are arranged at intervals along the axis of the rod-like structure. The distance that the cutting blade 503 near the extrusion cylinder 204 in the segment cutting component of this embodiment extends to the shaping body 301 is greater than that of other cutting blades 503. In this way, when other cutting blades 503 perform annular cutting on the rod-like structure, the cutting blade 503 near the extrusion cylinder 204 gradually cuts off the end of the rod-like structure, so that the rod-like structure is separated from the mixed material in the extrusion cylinder 204.

[0039] As a preferred embodiment of the present invention, Figure 7 , 8As shown in Figures 13 and 14, the pneumatic adjustment mechanism 400 includes an annular air pipe 401 and a plurality of adjustment components. The plurality of adjustment components are evenly arranged along the circumference of the shaped body 301, and each adjustment component includes an adjustment tube 407 mounted on a mounting plate 501, an adjustment rod 404 is movably connected in the adjustment tube 407, the adjustment rod 404 is detachably connected to a fixed plate 306, the fixed plate 306 is connected to two corresponding guide seats 305, and the adjustment tube 407 and the adjustment rod 404 both extend along the radial direction of the corresponding shaped cavity 303. In this embodiment, a movable head 405 is constructed at one end of the adjustment rod 404 extending into the adjustment tube 407, and a connecting spring 409 is installed in the pneumatic cavity 408 of the adjustment tube 407, and the two ends of the connecting spring 409 are respectively connected to the adjustment tube 407 and the movable head 405. In this embodiment, a pneumatic channel 406 connected to the pneumatic cavity 408 is constructed in the adjustment rod 404, and a joint pipe 403 is constructed at one end of the adjustment rod 404 away from the adjustment tube 407. The joint pipe 403 is connected to the annular air pipe 401, and the annular air pipe 401 is connected to the air pipe joint 402. The working principle and advantage of this embodiment are: when it is necessary to perform annular cutting on the rod-like structure in each shaping cavity 303, the gas of a predetermined pressure is introduced into the annular air pipe 401 through the air pipe joint 402, and then evenly distributed to each pneumatic channel 406, and then enters each pneumatic cavity 408, so that the high-pressure gas drives the adjustment tube 407 to move back to the fixed plate 306, and at this time, the connection spring 409 elastically stores energy, so that the adjustment tube 407 drives each cutting blade 503 to gradually extend into the shaping cavity 303 through the mounting plate 501, so that the cutting blade 503 performs annular cutting on the rod-like structure. After the tape is cut, the high pressure gas is discharged from the gas pipe joint 402. At the same time, under the elastic return action of the connecting spring 409, the adjustment tube 407 drives the cutting blade 503 to return through the mounting plate 501.

[0040] As a preferred embodiment of the present invention, Figure 6As shown, the vertical flip mechanism 600 includes a right-angle fixing frame 601, a longitudinal cylinder 602 and an oblique cylinder 603. The right-angle fixing frame 601 is detachably connected to the frame, the cylinder body of the longitudinal cylinder 602 is hinged on the vertical beam of the right-angle fixing frame 601, and the cylinder rod of the longitudinal cylinder 602 is hinged to the connecting seat 604. The cylinder body of the oblique cylinder 603 is hinged to the transverse beam of the right-angle fixing frame 601, and the cylinder rod of the oblique cylinder 603 is hinged to the cylinder body of the longitudinal cylinder 602. In this way, by controlling the movement of the longitudinal cylinder 602, it pulls the pressure-bearing shaping mechanism 300 to move longitudinally through the connecting seat 604, so as to achieve the purpose of disconnecting or connecting the pressure-bearing shaping mechanism 300 with the extrusion conveying mechanism 200. When the pressure-type forming mechanism 300 is disengaged from the extrusion-type conveying mechanism 200, the inclined cylinder 603 is controlled to move, so as to achieve the purpose of mutual conversion between the horizontal state and the vertical state of the pressure-type forming mechanism 300, thereby facilitating the discharge of the rod-like structure and the return of the pressure-type forming mechanism 300 after discharge.

[0041] Finally, it should be noted that the above is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein with equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the scope of protection of the claims of the present invention.

Claims

1. A compressed mixed seasoning processing equipment, characterized in that: It includes an extrusion-type conveying mechanism whose inlet end is connected to the outlet end of a mixing humidifying mechanism, the outlet end of the extrusion-type conveying mechanism is connected to the inlet end of a pressure-bearing shaping mechanism, a multi-segment cutting mechanism is installed on the pressure-bearing shaping mechanism, a pneumatic adjustment mechanism is constructed between the multi-segment cutting mechanism and the pressure-bearing shaping mechanism, and the pressure-bearing shaping mechanism is connected to a vertical flipping mechanism, and the vertical flipping mechanism is installed on a frame.

2. The compressed mixed seasoning processing equipment according to claim 1, characterized in that: The hybrid humidification mechanism comprises a mixing kettle with a feed end cover detachably connected to the upper end, a plurality of feed pipes are evenly connected to the feed end cover, a feed control valve is installed on each of the feed pipes, a drainage humidification component is coaxially installed in the mixing kettle, and the upper end of the drainage humidification component extends out of the feed end cover and is rotatably connected to the feed end cover.

3. The compressed mixed seasoning processing equipment according to claim 2, characterized in that: The drainage and humidification assembly includes an umbrella-shaped drainage hood arranged in the mixing kettle, the center part of the drainage hood protrudes upward, the inner cavity of the mixing kettle is divided into an upper mixing chamber and a lower humidification chamber by the drainage hood, a plurality of drainage ports are evenly opened on the drainage hood along its circumference, the upper mixing chamber and the lower humidification chamber are connected to each other through the drainage ports, a connecting shaft and a humidification tube are respectively connected to the upper and lower ends at the center of the drainage hood, the upper part of the connecting shaft is rotatably connected to the feed end cover, a humidification channel connected to the humidification tube is constructed in the connecting shaft, and the humidification channel is connected to the humidification hole on the humidification tube, and a first transmission wheel is coaxially installed on the upper part of the connecting shaft.

4. The compressed mixed seasoning processing equipment according to claim 1, characterized in that: The extrusion type conveying mechanism includes a horizontal feed cylinder with a feed joint configured at the upper part of the peripheral wall, a lateral end cover is detachably connected to one axial end of the horizontal feed cylinder, an extrusion cylinder is configured at the other end of the horizontal feed cylinder, the extrusion cylinder is communicated with the pressure-bearing shaping mechanism, a feed cavity and an extrusion cavity are respectively formed in the horizontal feed cylinder and the extrusion cylinder, one end of the mounting shaft extends into the horizontal feed cylinder through the lateral end cover along the axis of the horizontal feed cylinder, and extends to the junction of the feed cavity and the extrusion cavity, a spiral conveying blade is configured on the mounting shaft, and a second transmission wheel is coaxially mounted on the portion of the mounting shaft located outside the lateral end cover.

5. The compressed mixed seasoning processing equipment according to claim 4, characterized in that: The radial length of the horizontal feed barrel decreases along the feeding direction, the extrusion barrel is coaxially constructed at the small diameter end of the horizontal feed barrel, and the outer peripheral edge of the spiral conveying blade is close to or in contact with the inner wall of the horizontal feed barrel, and the feed joint is constructed at the upper part of the outer peripheral wall of the large diameter end of the horizontal feed barrel.

6. The compressed mixed seasoning processing equipment according to claim 1, characterized in that: The pressure-bearing shaping mechanism comprises a shaping body having a snap-on cover at one end, the snap-on cover snaps with the outlet end of the extrusion-type conveying mechanism, a plurality of shaping cavities are uniformly opened on the shaping body along its circumference, and both ends of the shaping body are extended out of the shaping body along the axial direction of the shaping body, a driving rod is coaxially arranged in each shaping cavity, a driven gear is rotatably connected to one end of the shaping cavity away from the extrusion-type conveying mechanism, the driven gear is coaxially assembled with the corresponding driving rod, a driving gear is rotatably connected to the end of the shaping body, the driving gear meshes with each driven gear, and the driving gear is coaxially connected to the output shaft of the driving motor, and the driving motor is connected to the shaping body via a connecting seat.

7. The compressed mixed seasoning processing equipment according to claim 6, characterized in that: An electric heating wire is installed in the molding body, an assembly cavity is constructed in each of the driving rods, an electric heating rod is installed in each assembly cavity, and an adapter cap rotatably connected to the end of the driving rod is constructed at the end of each electric heating rod, and each adapter cap is fixedly connected to an annular protective tube, and the annular protective tube is fixed to the connecting seat through a fixing tube constructed thereon, and the wire of each electric heating rod passes through the annular protective tube and extends out of the fixing tube.

8. The compressed mixed seasoning processing equipment according to claim 6, characterized in that: The multi-segment cutting mechanism includes a plurality of segment cutting components evenly arranged along the circumference of the forming body, and these segment cutting components are arranged one-to-one corresponding to the forming cavities. The segment cutting components are slidably connected to the forming body, and the segment cutting components move radially along the corresponding forming cavities under the drive of the pneumatic adjustment mechanism.

9. The compressed mixed seasoning processing equipment according to claim 8, characterized in that: Guide seats extending radially outward along the shaping cavity are respectively constructed on the shaping body and at both ends of each shaping cavity. The segment cutting assembly includes a mounting plate extending axially along the shaping cavity. Sliding blocks are respectively constructed at both ends of the mounting plate. Each sliding block is slidably connected to the corresponding guide seat. A plurality of cutting blades are arranged at intervals along the length direction of the mounting plate. An adjusting stud is constructed at the end of each cutting blade away from the shaping body. The adjusting stud vertically passes through the mounting plate, and a locking nut is threadedly connected to the adjusting stud. A plurality of cutting opening groups are opened evenly along the upper edge of the shaping body and in the circumferential direction. These cutting opening groups are arranged one-to-one with the shaping cavities. Each cutting opening group includes a plurality of cutting openings arranged at intervals along the axial direction of the shaping cavity, and these cutting openings are arranged one-to-one with the plurality of cutting blades on the corresponding segment cutting assembly, and each cutting opening is connected to the corresponding shaping cavity.

10. The compressed mixed seasoning processing equipment according to claim 9, characterized in that: The pneumatic adjustment mechanism includes a plurality of adjustment components uniformly arranged along the circumference of the forming body, each of the adjustment components includes an adjustment tube installed on a mounting plate, an adjustment rod movably connected in the adjustment tube, the adjustment rod is detachably connected to a fixed plate, the fixed plate is connected to two corresponding guide seats, and the adjustment tube and the adjustment rod both extend radially along the corresponding forming cavity, a movable head is constructed at one end of the adjustment rod extending into the adjustment tube, a connecting spring is installed in the pneumatic cavity of the adjustment tube, two ends of the connecting spring are respectively connected to the adjustment tube and the movable head, a pneumatic channel connected to the pneumatic cavity is constructed in the adjustment rod, a joint pipe is constructed at one end of the adjustment rod away from the adjustment tube, the joint pipe is connected to an annular air pipe, and an air pipe joint is connected to the annular air pipe.

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