Low-sugar cooking-free rice low-temperature production process and control device

Abstract

The invention relates to the technical field of cooking-free rice production, and discloses a low-sugar cooking-free rice low-temperature production process and control device.The low-sugar cooking-free rice low-temperature production control device comprises a discharging tank, the discharging tank comprises a tank body, and a feeding port and a discharging port are formed in the tank body; the rubbing mechanism comprises a first fixed rubbing disc and a second fixed rubbing disc, and a plurality of groups of first movable rubbing discs and second movable rubbing discs are arranged between the first fixed rubbing disc and the second fixed rubbing disc. Through the arrangement of a first fixed rubbing disc, a second fixed rubbing disc, a first movable rubbing disc and a second movable rubbing disc, when rice grains subjected to rotary cutting enter a separation space, the first movable rubbing disc and the second movable rubbing disc alternately move up and down to simulate the rubbing action, so that the separation space separates two adhered rice grains, and the rice grains are separated from each other. And adhesion of the rice grains during processing is avoided, so that the yield of the low-sugar cooking-free rice is improved.

Description

Technical Field

[0001] The invention relates to the technical field of cooking-free rice production, and more specifically, to a low-sugar cooking-free rice low-temperature production process and a control device. Background Art

[0002] At present, dietary control for diabetics is one of the important means of treating diabetes. Limiting the intake of sugar and sugary foods, such as limiting the intake of sugar and high-carbohydrate foods for diabetics and limiting the intake of lipids for those with hyperlipidemia, can show certain effects to a certain extent, but it still cannot overcome the unstable blood sugar situation such as sudden increase and decrease of blood sugar after ingesting food.

[0003] Low-sugar, no-cooking rice aims to reduce its sugar content by breaking down the starch in rice into low-sugar ingredients through enzymatic hydrolysis technology. This process involves specific enzymes (such as α-amylase) to reduce the sugar release of starch, helping to control blood sugar levels, and is suitable for diabetics or people who are concerned about blood sugar.

[0004] Among them, no-cook rice refers to starch raw materials with various nutritional fortification substances added, and artificially granulated, gelatinized, and dried to make granules similar to natural rice. No-cook rice generally uses raw grains, raw water-containing fruits and vegetables, rice, and konjac flour as the main raw materials. During processing, the rice mixture is extruded through a screw extruder and peeled through a peeling machine to produce rice granules, which are then dried to make no-cook rice.

[0005] However, during the rotary cutting process, the rice grains will be affected by the centrifugal force generated by the rotation of the rotary cutter, causing them to undergo inertial displacement. This causes the rice grains to move radially in the rotary cutter, which may cause the grains to stick together during separation and discharge. Specifically, the rice grains are forced to move along the path around the rotary cutter under the action of centrifugal force, and this inertial displacement may cause collision and overlap between the grains, resulting in adhesion at the discharge port, affecting the yield rate of rice processing. Summary of the invention

[0006] The present invention provides a low-sugar, cooking-free, low-temperature production process and a control device, which solves the technical problem in the related art that rice particles are forced to move along the peripheral path of a rotary cutter under the action of centrifugal force, and this inertial displacement may cause collision and overlap between particles, thereby forming adhesion at the drop outlet, affecting the yield rate of rice processing.

[0007] The present invention provides a low-sugar, cooking-free, low-temperature production control device, comprising a feed tank, the feed tank comprising a tank body, a feed port and a feed port are installed on the tank body, a connecting cylinder is also provided in the tank body, a mounting frame is installed on the feed port, and a first driving source is installed on the mounting frame; a material control component is arranged inside the feed port, and is used to control the feed amount of rice particles; a kneading mechanism is arranged in the tank body, the kneading mechanism comprises a first fixed rubbing plate and a second fixed rubbing plate, a plurality of first movable rubbing plates and a second movable rubbing plate are arranged between the first fixed rubbing plate and the second fixed rubbing plate, and a rice grain separation space is formed between the first fixed rubbing plate, the second fixed rubbing plate, the first movable rubbing plate and the second movable rubbing plate.

[0008] As a further optimization scheme of the present invention, the first moving rubbing plate and the second moving rubbing plate are arranged alternately, and the first moving rubbing plate and the second moving rubbing plate are also provided with an alternate shaking mechanism to drive the first moving rubbing plate and the second moving rubbing plate to move back and forth up and down through the alternate shaking mechanism.

[0009] As a further optimization scheme of the present invention, the staggered shaking mechanism includes a crankshaft symmetrically arranged in the tank body, and the two ends of the crankshaft are respectively connected to the bearings between the tank body and the connecting cylinder, the crankshaft includes a plurality of cranks staggered in position, and the crank is provided with a connecting journal, the connecting journal is connected to a connecting arm with a bearing, and the end of the connecting arm away from the connecting journal is respectively rotatably connected to the first movable rubbing disc and the second movable rubbing disc through a rotating shaft, a second driving source is installed on the tank body, and the second driving source is a dual-axis motor, and a transmission shaft is installed on both output shafts of the dual-axis motor, and the transmission shaft and the crankshaft are connected through a pulley transmission mechanism.

[0010] As a further optimization scheme of the present invention, limit rods are symmetrically arranged inside the first movable rubbing disc and the second movable rubbing disc, and the limit rods are fixedly connected to the inner wall of the tank body, and limit grooves matching the limit rods are opened inside the first movable rubbing disc and the second movable rubbing disc, and the limit grooves and the limit rods are slidably connected, and a second spring is installed between the limit rod and the limit groove.

[0011] As a further optimization scheme of the present invention, a drying mechanism is also provided in the tank body, and the drying mechanism includes a dispersion cylinder installed on the connecting cylinder, and a plurality of dispersion holes are opened on the dispersion cylinder, an isolation cylinder is provided outside the dispersion cylinder, and the isolation cylinder is installed on the inner wall of the tank body, and a drying channel is formed between the dispersion cylinder and the isolation cylinder.

[0012] As a further optimization scheme of the present invention, a spiral blade is provided in the drying channel, and the edge of the spiral blade is fixedly connected to the dispersion cylinder and the isolation cylinder. The section of the spiral blade away from the connecting cylinder is the tail section, and multiple groups of drop-off openings are opened on the tail section of the spiral blade.

[0013] As a further optimization scheme of the present invention, the bearing in the connecting cylinder is connected to an air supply pipe, and one end of the air supply pipe passes through the feed port and is connected to the fixed frame and the mounting frame bearings, and a drying pipe is installed at the other end of the air supply pipe, and a plurality of drying heads are installed on the drying pipe for providing a heat source to the dispersion cylinder.

[0014] As a further optimization solution of the present invention, transmission gears are installed on the air supply pipeline and the output shaft of the first driving source, and the transmission gears are meshingly connected.

[0015] As a further optimization scheme of the present invention, an air supply disk is provided on the air supply pipeline, and the air supply disk is fixedly connected to the mounting frame, an air supply chamber is opened inside the air supply disk, and annular sliders are installed on the upper and lower sides of the air supply chamber, an annular groove is opened on the outer wall of the air supply pipeline, and the annular groove and the annular slider are slidably connected, a connecting pipe is installed on the air supply disk for connecting to an external heat source supply equipment, and a plurality of air flow openings are also opened in the air supply pipeline, and the air flow openings correspond to the positions of the air supply chambers.

[0016] The present invention also provides a low-sugar, no-cooking rice low-temperature production process, which is used for the low-sugar, no-cooking rice low-temperature production control device as described above, comprising the following steps:

[0017] Step 1, prepare raw materials: refined flour, konjac flour, resistant dextrin, mono- and di-glycerol fatty acid esters and water;

[0018] Step 2, mixing raw materials: adding refined flour, konjac flour, resistant dextrin, mono- and di-glycerol fatty acid esters and water into a blender and mixing evenly to prepare a mixture;

[0019] Step 3: Preparation: The mixture is conveyed to a twin-screw extruder through a screw conveyor for extrusion molding, and extruded outward through a die head;

[0020] Step 4: Peeling: Peeling the extruded mixture using a peeling machine at the die head to obtain rice particles;

[0021] Step 5, kneading: kneading the rice grains after the rotary cutting process through a kneading mechanism to prevent the rice grains from sticking together;

[0022] Step six, drying: After the kneading process, the rice grains enter the drying channel and are fully dried by interfering with the falling journey of the rice grains.

[0023] The beneficial effect of the present invention is that: through the arrangement of the first fixed rubbing plate, the second fixed rubbing plate, the first movable rubbing plate and the second movable rubbing plate, when the peeled rice grains enter the separation space, the first movable rubbing plate and the second movable rubbing plate are alternately moved up and down to simulate the kneading action, so that the separation space separates the two adhered rice grains, avoiding the adhesion of the rice grains during processing, thereby improving the yield rate of low-sugar and cooking-free rice. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 It is a three-dimensional structural schematic diagram of the present invention;

[0025] Figure 2 It is a schematic cross-sectional view of the three-dimensional structure of the present invention;

[0026] Figure 3 It is a schematic diagram of the three-dimensional structure of the kneading mechanism of the present invention;

[0027] Figure 4 It is a schematic cross-sectional view of a partial three-dimensional structure of the kneading mechanism of the present invention;

[0028] Figure 5 It is a schematic cross-sectional view of a local three-dimensional structure of the present invention;

[0029] Figure 6 The present invention Figure 5 A magnified view of the structure at center;

[0030] Figure 7 It is a schematic cross-sectional view of a partial three-dimensional structure of the drying mechanism of the present invention;

[0031] Figure 8 It is a cross-sectional schematic diagram of the three-dimensional structure of the connection between the air supply pipeline and the air supply disk of the present invention;

[0032] Fig. 9 It is a partial three-dimensional structural schematic diagram of the drying mechanism of the present invention.

[0033] In the figure: 100, feeding tank; 101, tank body; 102, feeding port; 1021, fixing frame; 1022, conical feeding plate; 1023, first spring; 1024, traction frame; 1025, eccentric wheel; 1026, inclined edge; 103, feeding port; 104, controller; 105, connecting cylinder; 106, mounting frame; 107, first driving source; 200, kneading mechanism; 201, first fixed rubbing plate; 202, second fixed rubbing plate; 203, first moving rubbing plate; 204, second moving rubbing plate; 205 , crankshaft; 206, connecting arm; 207, second driving source; 208, transmission shaft; 209, pulley transmission mechanism; 210, limit rod; 211, second spring; 300, drying mechanism; 301, dispersion cylinder; 302, dispersion hole; 303, isolation cylinder; 304, spiral blade; 3041, drop port; 305, air supply pipeline; 306, drying pipe; 307, drying head; 308, transmission gear; 309, air supply disk; 310, annular slider; 311, connecting pipe; 312, air flow outlet. DETAILED DESCRIPTION

[0034] The subject matter described herein will now be discussed with reference to example embodiments. It should be understood that the discussion of these embodiments is only to enable those skilled in the art to better understand and implement the subject matter described herein, and the functions and arrangements of the elements discussed may be changed without departing from the scope of protection of the contents of this specification. Each example may omit, replace or add various processes or components as needed. In addition, the features described relative to some examples may also be combined in other examples.

[0035] Embodiment 1: According to the attached Figure 1 and attached Figure 2 As shown, a low-sugar, no-cooking rice low-temperature production control device includes a feed tank 100, the feed tank 100 includes a tank body 101, a feed port 102 and a feed port 103, and a controller 104 are installed on the tank body 101, a connecting cylinder 105 is also provided in the tank body 101, and the connecting cylinder 105 is fixedly connected to the inner wall of the tank body 101 through a connecting bracket; a mounting frame 106 is installed on the feed port 102, and a first driving source 107 is installed on the mounting frame 106, and the first driving source 107 can be a motor.

[0036] According to the attached Figure 2 and attached Figure 5 As shown, a material control component is provided in the feed port 102, and the material control component includes a fixed frame 1021 installed in the feed port 102, and a conical discharge tray 1022 is slidably connected to the fixed frame 1021, and a spring is provided between the fixed frame 1021 and the conical discharge tray 1022, one end of the first spring 1023 is fixedly connected to the fixed frame 1021, and the other end of the first spring 1023 is connected to the conical discharge tray 1022.

[0037] Specifically, an inclined edge 1026 is installed at one end of the feed port 102 close to the conical discharge tray 1022, and the inclined edge 1026 is matched with a surface in contact with the conical discharge tray 1022; by setting the inclined edge 1026, the contact area between the conical discharge tray 1022 and the feed port 102 is increased, so that when the conical discharge tray 1022 is closed, the movement of rice grains can be stably controlled to stop, and when the conical discharge tray 1022 is opened, the flow of rice grains can be stably controlled.

[0038] Further, a traction frame 1024 is installed on the conical unloading tray 1022, and an eccentric wheel 1025 is provided on the traction frame 1024. The rotation center of the eccentric wheel 1025 is far away from the center point of the circle, and when the eccentric wheel 1025 is driven to rotate, the eccentric wheel 1025 rotates eccentrically.

[0039] It should be understood that when the eccentric wheel 1025 is driven to rotate, the eccentric wheel 1025 controls the traction frame 1024 to move downward, thereby driving the conical discharge tray 1022 to move downward synchronously, pulling the distance between the feed port 102 and the conical discharge tray 1022 to form a discharge cavity, so that the rice grains in the feed port 102 are discharged from the discharge cavity and enter the tank body 101 for subsequent processing.

[0040] According to the attached Figure 2 and attached Figure 3 As shown, a kneading mechanism 200 is provided in the tank body 101, and the kneading mechanism 200 includes a first fixed rubbing disc 201 and a second fixed rubbing disc 202, and a plurality of first movable rubbing discs 203 and a second movable rubbing disc 204 are provided between the first fixed rubbing disc 201 and the second fixed rubbing disc 202, and the first movable rubbing disc 203 and the second movable rubbing disc 204 are arranged in a staggered manner, and a rice grain separation space is formed between the first fixed rubbing disc 201, the second fixed rubbing disc 202, the first movable rubbing disc 203 and the second movable rubbing disc 204. Among them, the first fixed rubbing disc 201, the second fixed rubbing disc 202, the first movable rubbing disc 203 and the second movable rubbing disc 204 are arranged obliquely at one end edge close to the feed port 102.

[0041] It should be noted that after the low-sugar and no-cooking rice is granulated by the rotary cutter, the rice grains enter the discharge tank 100, and the rice grains are guided into the separation space by the inclination of the edges of the first fixed rubbing plate 201, the second fixed rubbing plate 202, the first movable rubbing plate 203 and the second movable rubbing plate 204. The first movable rubbing plate 203 and the second movable rubbing plate 204 are alternately moved up and down to simulate the kneading action, so that the separation space separates the two adhered rice grains, thereby improving the yield rate of the low-sugar and no-cooking rice.

[0042] Specifically, the first fixed rubbing plate 201 is installed on the inner wall of the tank body 101, the second fixed rubbing plate 202 is installed on the connecting tube 105, and the first movable rubbing plate 203 and the second movable rubbing plate 204 are also provided with a staggered shaking mechanism, so as to drive the first movable rubbing plate 203 and the second movable rubbing plate 204 to move up and down through the staggered shaking mechanism, thereby facilitating the separation of two connected rice grains and avoiding the adhesion of rice grains.

[0043] Furthermore, according to the attached Figure 3 To Attachment Figure 6 As shown, the staggered shaking mechanism includes a crankshaft 205 symmetrically arranged in the tank body 101, and the two ends of the crankshaft 205 are respectively connected to the bearings between the tank body 101 and the connecting tube 105, the crankshaft 205 includes a plurality of cranks staggered in position, and the crank is provided with a connecting journal, the connecting journal is connected to a connecting arm 206 with a bearing, and the end of the connecting arm 206 away from the connecting journal is respectively connected to the first movable rubbing disc 203 and the second movable rubbing disc 204 through a rotating shaft.

[0044] It should be noted that when the crankshaft 205 is driven to rotate, the crank rotates around the center of the crankshaft 205. The cranks are staggered so that the cranks rotate eccentrically while driving the connecting arms 206 to move up and down alternately, thereby driving the first movable rubbing plate 203 and the second movable rubbing plate 204 to move up and down, kneading the rice grains and separating the rice grains.

[0045] In addition, the crankshaft 205 is fixedly connected to the eccentric wheel 1025 . When the crankshaft 205 rotates, it can also drive the eccentric wheel 1025 to rotate, so that the conical discharge tray 1022 is opened or closed, thereby controlling the feed amount in the tank body 101 .

[0046] Among them, a second driving source 207 is installed on the tank body 101, and the second driving source 207 is a double-axis motor. A transmission shaft 208 is installed on both output shafts of the double-axis motor, and the transmission shaft 208 is connected to the crankshaft 205 through a pulley transmission mechanism 209.

[0047] When the second driving source 207 is driven to rotate, the transmission shaft 208 and the crankshaft 205 are driven to rotate synchronously through the pulley transmission mechanism 209, thereby driving the crank to rotate, so that the crank rotates eccentrically around the crankshaft 205. In addition, by staggered arrangement of the cranks, when the cranks rotate eccentrically, the driving connecting arm 206 moves up and down alternately, thereby driving the first moving rubbing disc 203 and the second moving rubbing disc 204 to move up and down, thereby simulating a rubbing action, separating the adhered rice grains, and not damaging the rice grains.

[0048] It should be noted that according to the attached Figure 4As shown, the first movable rubbing disc 203 and the second movable rubbing disc 204 are symmetrically provided with limit rods 210 inside, and the limit rods 210 are fixedly connected to the inner wall of the tank body 101, and the first movable rubbing disc 203 and the second movable rubbing disc 204 are both provided with limit grooves matched with the limit rods 210 inside, and the limit grooves and the limit rods 210 are slidably connected, and a second spring 211 is installed between the limit rod 210 and the limit groove; through the setting of the limit rod 210 and the spring, when the first movable rubbing disc 203 and the second movable rubbing disc 204 move up and down alternately, the second spring 211 performs telescopic movement under the action of elastic force, thereby facilitating the first movable rubbing disc 203 and the second movable rubbing disc 204 to reset.

[0049] According to the attached Figure 2 , Attachment Figure 7 and attached Fig. 9 As shown, a drying mechanism 300 is also provided in the tank body 101, and the drying mechanism 300 includes a dispersion cylinder 301 installed on the connecting cylinder 105, and a plurality of dispersion holes 302 are opened on the dispersion cylinder 301, and an isolation cylinder 303 is provided outside the dispersion cylinder 301, and the isolation cylinder 303 is installed on the inner wall of the tank body 101, and a drying channel is formed between the dispersion cylinder 301 and the isolation cylinder 303; the dispersion cylinder 301 and the isolation cylinder 303 are used to limit the feeding of the kneaded rice grains, and when the rice grains pass through the drying channel, the hot air flow is dispersed through the dispersion holes 302, so that the hot air flow enters the drying channel evenly to dry the rice grains.

[0050] Specifically, a spiral blade 304 is provided in the drying channel, and the edge of the spiral blade 304 is fixedly connected to the dispersion cylinder 301 and the isolation cylinder 303; the spiral blade 304 is provided to disturb the rice grains falling into the drying channel and increase the moving distance of the rice grains in the drying channel, so that when the hot air flow enters the drying channel, it can fully contact the rice grains during the falling process of the rice grains to dry the rice grains.

[0051] Furthermore, a section of the spiral blade 304 away from the connecting tube 105 is the tail section, and a plurality of feeding ports 3041 are provided on the tail section of the spiral blade 304; by providing the feeding ports 3041 at the tail end of the spiral blade 304, the rice grains can be discharged at the same time as they move on the spiral blade 304, thereby avoiding congestion during feeding.

[0052] Among them, according to the attached Figure 7As shown, the bearing in the connecting cylinder 105 is connected with an air supply pipe 305, and one end of the air supply pipe 305 passes through the feed port 102 and is connected with the bearings of the fixing frame 1021 and the mounting frame 106, and the other end of the air supply pipe 305 is installed with a drying pipe 306, and a plurality of drying heads 307 are installed on the drying pipe 306, which are used to provide a heat source to the dispersion cylinder 301. The heat source is provided to the inside of the drying pipe 306 through the air supply pipe 305, and the hot air flow is discharged outward through the drying head 307, so that the hot air flow passes through the dispersion hole 302 and enters the inside of the drying channel, so that the hot air flow contacts the rice grains and fully dries the rice grains.

[0053] In addition, transmission gears 308 are installed on the output shafts of the air supply pipe 305 and the first driving source 107, and the transmission gears 308 are meshedly connected; when the first driving source 107 rotates, the two sets of transmission gears 308 are meshedly connected to drive the air supply pipe 305 to rotate, so that the drying tube 306 rotates synchronously, and the drying head 307 rotates inside the dispersion cylinder 301, and the hot air flow enters the drying channel through the dispersion holes 302. During the rotation of the drying tube 306, the hot air flow can also be stirred, thereby improving the uniformity of the hot air flow and facilitating uniform heating and drying of the rice grains.

[0054] According to the attached Figure 8 As shown, an air supply disk 309 is provided on the air supply pipeline 305, and the air supply disk 309 is fixedly connected to the mounting frame 106, an air supply chamber is opened inside the air supply disk 309, and an annular slider 310 is installed on the upper and lower sides of the air supply chamber, an annular groove is opened on the outer wall of the air supply pipeline 305, and the annular groove and the annular slider 310 are slidably connected, and a connecting pipe 311 is installed on the air supply disk 309 for connecting to an external heat source supply device.

[0055] Specifically, through the sliding connection between the annular slide groove and the annular slider 310, when the air supply pipe 305 rotates, the air supply disk 309 can continuously supply air to the air supply pipe 305, so as to facilitate drying of the rice grains inside.

[0056] It should be noted that a plurality of air flow openings 312 are provided in the air supply pipe 305, and the air flow openings 312 correspond to the positions of the air supply chambers. The air flow openings 312 are connected to the interior of the air supply chambers, so that the air supply pipe 305 can input gas into the air supply pipe 305, and an external heat source supply device can be connected through the connecting pipe 311 to facilitate drying of the rice grains processed inside.

[0057] Embodiment 2: According to the attached Figure 1 To Attachment Fig. 9As shown, a low-sugar, no-cooking rice low-temperature production process is used for a low-sugar, no-cooking rice low-temperature production control device as disclosed in Example 1, comprising the following steps:

[0058] Step 1, prepare raw materials: refined flour, konjac flour, resistant dextrin, mono- and di-glycerol fatty acid esters and water; wherein the refined flour is made by grinding rice;

[0059] Step 2, mixing raw materials: adding refined flour, konjac flour, resistant dextrin, mono- and di-glycerol fatty acid esters and water into a blender and mixing evenly to prepare a mixture;

[0060] Step 3: Preparation: The mixture is conveyed to a twin-screw extruder through a screw conveyor for extrusion molding, and extruded outward through a die head;

[0061] Step 4: Peeling: Peeling the extruded mixture using a peeling machine at the die head to obtain rice particles;

[0062] Step 5, kneading: kneading the rice grains after the rotary cutting process through the kneading mechanism 200 to prevent the rice grains from sticking together;

[0063] Step six, drying: After the kneading process, the rice grains enter the drying channel, and the spiral blades 304 interfere with the falling stroke of the rice grains, so that the rice grains are fully dried.

[0064] An example of the present specific implementation mode is described above, but the present embodiment is not limited to the above-mentioned specific implementation mode, which is merely illustrative and not restrictive. A person skilled in the art may make many forms inspired by the present embodiment, all of which are protected by the present embodiment.

Claims

1. A low-sugar, no-cooking rice low-temperature production control device, characterized in that: include: A material discharge tank (100), the material discharge tank (100) comprising a tank body (101), a material feed port (102) and a material discharge port (103) being installed on the tank body (101), a connecting tube (105) being further provided inside the tank body (101), a mounting frame (106) being installed on the material feed port (102), and a first driving source (107) being installed on the mounting frame (106); A feed control component, arranged inside the feed inlet (102), for controlling the feed amount of rice particles; The kneading mechanism (200) is arranged in the tank body (101), and the kneading mechanism (200) comprises a first fixed rubbing plate (201) and a second fixed rubbing plate (202), a plurality of groups of first movable rubbing plates (203) and second movable rubbing plates (204) are arranged between the first fixed rubbing plate (201) and the second fixed rubbing plate (202), and a rice grain separation space is formed between the first fixed rubbing plate (201), the second fixed rubbing plate (202), the first movable rubbing plate (203) and the second movable rubbing plate (204).

2. A low-sugar, no-cooking rice low-temperature production control device according to claim 1, characterized in that: The first moving rubbing disc (203) and the second moving rubbing disc (204) are arranged in a staggered manner, and a staggered shaking mechanism is also provided on the first moving rubbing disc (203) and the second moving rubbing disc (204) so ​​as to drive the first moving rubbing disc (203) and the second moving rubbing disc (204) to move up and down reciprocatingly through the staggered shaking mechanism.

3. A low-sugar, no-cooking rice low-temperature production control device according to claim 2, characterized in that: The staggered shaking mechanism comprises a crankshaft (205) symmetrically arranged in the tank body (101), and the two ends of the crankshaft (205) are respectively connected to the tank body (101) and the connecting tube (105) by bearings, the crankshaft (205) comprises a plurality of cranks staggered in position, and the cranks are provided with connecting journals, the connecting journals are connected to a connecting arm (206) by bearings, and the ends of the connecting arms (206) away from the connecting journals are respectively connected to the first moving rubbing disc (203) and the second moving rubbing disc (204) by rotating shafts, the tank body (101) is installed with a second driving source (207), and the second driving source (207) is a double-axis motor, and the two output shafts of the double-axis motor are both installed with a transmission shaft (208), and the transmission shaft (208) and the crankshaft (205) are connected by a pulley transmission mechanism (209).

4. A low-sugar, no-cooking rice low-temperature production control device according to claim 3, characterized in that: Limit rods (210) are symmetrically arranged inside the first movable rubbing disc (203) and the second movable rubbing disc (204), and the limit rods (210) are fixedly connected to the inner wall of the tank body (101); limit grooves matching the limit rods (210) are opened inside the first movable rubbing disc (203) and the second movable rubbing disc (204), and the limit grooves and the limit rods (210) are slidably connected; a second spring (211) is installed between the limit rod (210) and the limit groove.

5. The low-sugar, no-cooking rice low-temperature production control device according to claim 1, characterized in that: A drying mechanism (300) is also provided in the tank body (101), and the drying mechanism (300) comprises a dispersion cylinder (301) mounted on the connecting cylinder (105), and a plurality of dispersion holes (302) are provided on the dispersion cylinder (301), and an isolation cylinder (303) is provided outside the dispersion cylinder (301), and the isolation cylinder (303) is mounted on the inner wall of the tank body (101), and a drying channel is formed between the dispersion cylinder (301) and the isolation cylinder (303).

6. A low-sugar, no-cooking rice low-temperature production control device according to claim 5, characterized in that: A spiral blade (304) is provided in the drying channel, and the edge of the spiral blade (304) is fixedly connected to the dispersion cylinder (301) and the isolation cylinder (303). The section of the spiral blade (304) away from the connecting cylinder (105) is the tail section, and a plurality of drop openings (3041) are provided on the tail section of the spiral blade (304).

7. The low-sugar, no-cooking rice low-temperature production control device according to claim 5, characterized in that: The connecting cylinder (105) is connected to an air supply pipe (305) through a bearing inside the connecting cylinder (105), and one end of the air supply pipe (305) passes through a feed port (102) and is connected to a bearing of a fixing frame (1021) and a mounting frame (106). The other end of the air supply pipe (305) is installed with a drying pipe (306), and a plurality of drying heads (307) are installed on the drying pipe (306) for providing a heat source to the dispersion cylinder (301).

8. The low-sugar, no-cooking rice low-temperature production control device according to claim 7, characterized in that: The air supply pipeline (305) and the output shaft of the first driving source (107) are both equipped with transmission gears (308), and the transmission gears (308) are meshingly connected.

9. The low-sugar, no-cooking rice low-temperature production control device according to claim 7, characterized in that: The air supply pipeline (305) is provided with an air supply disk (309), and the air supply disk (309) is fixedly connected to the mounting frame (106). An air supply chamber is provided inside the air supply disk (309), and an annular slider (310) is installed on the upper and lower sides of the air supply chamber. An annular groove is provided on the outer wall of the air supply pipeline (305), and the annular groove and the annular slider (310) are slidably connected. A connecting pipe (311) is installed on the air supply disk (309) for connecting to an external heat source supply device. A plurality of air flow openings (312) are also provided in the air supply pipeline (305), and the air flow openings (312) correspond to the positions of the air supply chamber.

10. A low-sugar, no-cooking rice low-temperature production process, used for a low-sugar, no-cooking rice low-temperature production control device as claimed in any one of claims 1 to 9, characterized in that: The steps include: Step 1: Prepare the raw materials; Flour, konjac flour, resistant dextrin, mono- and di-glycerides of fatty acids and water; Step 2: Mixing raw materials; Add refined flour, konjac flour, resistant dextrin, mono- and di-glycerol fatty acid esters and water into a blender and mix well to prepare a mixture; Step 3: Preparation; The mixture is conveyed to a twin-screw extruder through a screw conveyor for extrusion molding, and extruded outward through a die head; Step 4: Peeling; Using a rotary cutter at the die head to rotary cut the extruded mixture to obtain rice particles; Step 5: Rub; The rice grains after the rotary cutting process are kneaded by a kneading mechanism (200) to prevent the rice grains from sticking together; Step 6: Drying; After the kneading process, the rice grains enter the drying channel and are fully dried by interfering with the falling stroke of the rice grains.

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