A cake wire forming processing device

Abstract

The present invention discloses a dough-shred forming device, comprising a dough-kneading mechanism, a dough-making mechanism, and a dough-cutting mechanism. The dough batter produced by the dough-kneading mechanism is conveyed to the dough-making mechanism, baked into a dough sheet, and then cut into dough sheets by the dough-cutting mechanism. The device is equipped with a feed hopper at the front end of the dough-making process. A transverse, elongated discharge port is located at the bottom of the feed hopper, and the shape of the discharge port allows for preliminary control of the width and thickness of the dough sheet. The rolling assembly comprises a first rolling drum and a plurality of second rolling drums. The first and second rolling drums are rotatably fixed to a frame, with adjacent rolling drums rotating in opposite directions, heating both sides of the dough sheet and conveying it forward. A support net is located at the bottom of the first rolling drum. A specific inlet gap between the support net and the first rolling drum limits the initial thickness of the dough sheet, preventing excessive initial dough batter from overcompacting during the subsequent pressing process, resulting in a hard texture.

Description

Technical Field

[0001] The present invention relates to the field of food processing equipment, in particular to a shredded cake forming and processing device. Background Art

[0002] With the development of mechanized production, the making of pancakes has also begun to be mechanized. In the process of using a pancake shredder to mass-produce pancake shreds, four steps are generally required to complete the process: preparing batter, making pancakes, cooling, and shredding.

[0003] Chinese utility model patent CN201621385897.5 discloses a pancake-making device for a tortilla machine, which drives a sheet of dough from the inlet side of the tortilla machine to the left, where it is cooked and then discharged from the outlet side of the tortilla machine. The device comprises a frame disposed between the inlet and outlet sides of the tortilla machine and a rolling device disposed on the frame. The rolling device comprises at least two adjacent, counter-rotating heating rollers, each of which heats a corresponding surface of the tortilla sheet and conveys the tortilla sheet from right to left. When using this device for baking, the tortilla sheet must be pre-made. Since the tortilla sheet shrinks after prefabrication (before baking), it becomes thicker. This is then squeezed through the dough passage between the second heating roller and the heat-resistant tensioning belt, which makes the tortilla sheet more solid, resulting in a poorer taste after baking. Furthermore, the device sprays oil onto the upper surface of the tortilla sheet, which can easily cause the tortilla sheet to stick to the first heating roller. Summary of the Invention

[0004] In order to solve the above technical problems, the present invention provides a cake wire forming processing device.

[0005] In order to solve the above technical problems, the technical solution adopted by the present invention is:

[0006] A shredded pancake forming and processing device includes a dough kneading mechanism, a pancake making mechanism, and a shredding mechanism. The batter prepared by the dough kneading mechanism is conveyed to the pancake making mechanism to be baked into a sheet of dough and then conveyed to the shredding mechanism to be cut into shredded pancake. The pancake making mechanism includes a frame on which are provided:

[0007] A feeding bin, into which the batter prepared by the dough kneading mechanism is fed, and the bottom of the feeding bin is provided with a horizontal, elongated discharge port;

[0008] An oil spray assembly includes an oil roller, a transverse movable frame, and an oil spray nozzle. The oil roller is located below the discharge port and is rotatably fixed to the frame. The oil spray nozzle is fixed to the transverse movable frame and is disposed toward the oil roller. The oil spray nozzle is connected to a pressure oil storage tank. The transverse movable frame is capable of transverse movement.

[0009] The rolling assembly includes a first rolling drum and a plurality of second rolling drums. The first rolling drum and each of the second rolling drums are rotatably fixed to a frame, and adjacent rolling drums rotate in opposite directions. The first rolling drum and each of the second rolling drums are provided with heating members for heating both sides of the dough sheet and conveying the dough sheet forward.

[0010] The first rolling drum is located below the oil roller. A gear ring is fixed on the outer wall of at least one end of the first rolling drum. There are multiple transmission rollers arranged in a U shape around the bottom of the first rolling drum. The transmission rollers are rotatably fixed on the frame. First sprockets are fixed at both ends of each transmission roller. The multiple first sprockets and the gear ring at the same end are connected and transmitted by a first chain. A support net is fixed between the first chains at both ends.

[0011] A further technical solution is that there are three second rolling rollers, and the four rolling rollers are arranged in a diamond shape.

[0012] A further technical solution is that one end of the first rolling cylinder and each second rolling cylinder is fixed to a second sprocket, a first motor is provided on the frame, a driving sprocket is fixed on the first motor, and the driving sprocket and multiple second sprockets are connected and transmitted by a second chain, so that the adjacent rolling cylinders rotate in opposite directions.

[0013] A further technical solution is that the feeding bin is arranged horizontally, and has a pushing screw inside to push the batter toward the discharge port, and the pushing screw is connected to a second motor to drive it to rotate.

[0014] A further technical solution is that a heating layer is wrapped around the outer wall of the feeding bin, and an insulation layer is coated outside the heating layer.

[0015] A further technical solution is that the transverse movable frame includes:

[0016] A slide bar, slidably connected to the crossbeam of the frame;

[0017] A rocker located in the middle of the slide bar, wherein the lower end of the rocker and both ends of the slide bar are fixed by tension springs; and

[0018] The third motor is used to drive the rocker to swing with its upper end as the center.

[0019] A further technical solution is that the dough kneading mechanism includes:

[0020] A mixing tank having a mixing shaft inside, a flour feed bin, a water inlet, and an air inlet at the top of the mixing tank, and a discharge port at the bottom. The flour feed bin includes a feed hopper and a suction pipe vertically fixed in the feed hopper. A gap for dropping materials is provided between the outer wall of the suction pipe and the inner wall of the feed hopper. The suction pipe is provided with multiple suction holes. A feed port is provided above the side wall of the feed hopper.

[0021] The water tank is connected to the water inlet of the mixing tank through a water pipe, and a water pump is provided on the water pipe;

[0022] An air compressor is connected to the air inlet of the mixing tank through an air pipe;

[0023] A flour tank connected to the feed port of the mixing tank through a feed pipe; and

[0024] A suction fan has an air suction end connected to a material suction pipe.

[0025] A further technical solution is that the dough kneading mechanism further comprises:

[0026] The dust storage tank has a dust suppression bin on its top, the suction end of the suction fan is connected to the top of the dust suppression bin, and a right-angle tube is provided on the side wall of the dust suppression bin, one end of the right-angle tube faces downward, and the other end is connected to the suction pipe.

[0027] A further technical solution is that the dough kneading mechanism further comprises:

[0028] The batter storage tank has a feed port connected to the discharge port of the mixing tank, and a discharge port of the batter storage tank is connected to the feeding bin.

[0029] A further technical solution is that the slicing mechanism includes:

[0030] The conveying roller is rotatably fixed on the frame, and a third motor is connected to the conveying roller to drive the conveying roller to rotate;

[0031] Two cutting rollers are horizontally located below the conveying roller and rotatably fixed to the frame, one of the cutting rollers is connected to a fourth motor for driving its rotation, and the two cutting rollers are engaged through a gear set so that the two cutting rollers rotate in opposite directions; and

[0032] The cutting roller is horizontally located below the slitting roller. The cutting roller is rotatably fixed on the frame and is connected to a fifth motor for driving the cutting roller to rotate. A radially protruding cutter is fixed on the cutting roller.

[0033] The beneficial effects of adopting the above technical solution are:

[0034] The device is provided with a feeding hopper, and a horizontal, long strip-shaped discharge port is arranged at the bottom of the feeding hopper. The width and thickness of the dough sheet can be preliminarily controlled by the shape of the discharge port. The feeding hopper is arranged above the first rolling cylinder. Under the action of the dough sheet's own gravity, the dough sheet can be stretched downward to prevent it from shrinking and thickening.

[0035] A supporting net is provided at the bottom of the first rolling drum, and the supporting net is meshed with the gear ring on the first rolling drum through the first chain for transmission, thereby realizing synchronous and unidirectional transmission of the supporting net and the first rolling drum, avoiding sagging of the dough sheet due to softness during the initial forming, and ensuring effective contact between the dough sheet and the first rolling drum. Before the dough sheet is baked and formed, the initial thickness of the dough sheet can be limited by a specific entrance gap between the supporting net and the first rolling drum, and excess dough sheet material on the upper layer can be scraped off, thereby avoiding excessive dough paste at the beginning and over-compaction in the subsequent pressing process, resulting in a hard taste defect.

[0036] When spraying oil, the oil roller is located below the discharge port, and the material falls downward through the discharge port and hits the oil roller, which can drive the oil roller to rotate clockwise toward the first rolling cylinder. The oil sprayed from the oil nozzle falls on the oil roller. The rolling oil roller can effectively apply edible oil to the dough strip, avoiding waste caused by oil dripping.

[0037] The oil roller applies oil to the side of the dough sheet that contacts the first rolling drum, preventing the batter from sticking to the first rolling drum. During the baking process, the oil seeps into the dough sheet, and when the dough sheet is transferred to the second rolling drum, it will not stick to the second rolling drum. BRIEF DESCRIPTION OF THE DRAWINGS

[0038] The present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0039] Figure 1 It is a structural schematic diagram of the present invention;

[0040] Figure 2 It is a structural schematic diagram of the pancake mechanism in the present invention;

[0041] Figure 3 It is a structural schematic diagram of the dough kneading mechanism of the present invention;

[0042] Figure 4 It is a structural schematic diagram of the shredding mechanism of the present invention;

[0043] Figure 5 It is a structural schematic diagram of the transverse movable frame in the present invention. DETAILED DESCRIPTION

[0044] The following is a clear and complete description of the technical solutions in the embodiments of the present invention, in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of them. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative work are within the scope of protection of the present invention.

[0045] In the following description, many specific details are set forth to facilitate a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Those skilled in the art may make similar generalizations without violating the connotation of the present invention. Therefore, the present invention is not limited to the specific embodiments disclosed below.

[0046] like Figures 1 to 5 As shown, a shredded pancake forming and processing device includes a dough kneading mechanism 10, a pancake making mechanism 20 and a shredding mechanism 30. The batter prepared by the dough kneading mechanism 10 is conveyed to the pancake making mechanism 20 to be baked into a sheet of dough and then to the shredding mechanism 30 to be cut into shredded pancake.

[0047] The dough kneading mechanism 10 is used to mix flour and edible water and stir them into batter. In the dough forming processing device, the dough kneading mechanism 10 includes a mixing tank 110, a water tank 120, an air compressor 130, a flour tank 140 and a suction fan 150.

[0048] The mixing tank 110 has a vertical stirring shaft inside. Both ends of the stirring shaft are rotatably fixed within the mixing tank 110 via bearings. The upper end of the stirring shaft extends outside the mixing tank 110 and is connected to a sixth motor that drives its rotation. The stirring shaft has stirring blades, and the stirring speed of the stirring shaft can be set. The top of the mixing tank 110 has a flour feed hopper, a water inlet, and an air inlet, and the bottom has a discharge port. The flour feed hopper includes a feed hopper 111 and a suction pipe 112 vertically fixed within the feed hopper 111. A gap is defined between the outer wall of the suction pipe 112 and the inner wall of the feed hopper 111. The suction pipe 112 is provided with multiple suction holes, and a feed port is provided above the side wall of the feed hopper 111. Control valves are installed at the inlet and outlet of each raw material. The water inlet is connected to the water tank 120 via a water pipe with a water pump. The feed port is connected to the flour tank 140 via a material pipe. The air inlet is connected to the air compressor 130 via an air pipe.

[0049] When kneading the dough, turn on the water pump to pump the water in the water tank 120 into the mixing tank 110, and at the same time turn on the suction fan 150. Under the action of negative pressure suction, the flour is sucked into the feed hopper 111. The supply of flour and water can be controlled by the working time of the suction fan and the water pump. When the feeding is completed, turn off the water pump and the suction fan, start the sixth motor, and rotate the stirring shaft to mix the flour and water to form a batter. Then open the feed port and turn on the air compressor 130 to pump out the batter under high pressure and supply the batter backward. In order to ensure the pressure balance of the system, there are air holes on the flour tank 140 and the water tank 120.

[0050] In order to reduce dust raised during dough kneading, the dough kneading mechanism 10 also includes a dust storage tank 160. The top of the dust storage tank 160 is provided with a dust suppression bin. The suction end of the suction fan 150 is connected to the top of the dust suppression bin. The side wall of the dust suppression bin is provided with a right-angle tube 162, one end of the right-angle tube 162 faces downward, and the other end is connected to the suction pipe 112. When flour is added, the raised dust will be sucked into the dust suppression bin through the suction pipe and finally fall into the dust storage tank. During mixing, the control valves on the material pipe and water pipe can also be closed, and then the suction fan can be turned on. At this time, the dust raised in the mixing tank due to mixing can be sucked into the dust storage tank. This avoids environmental pollution and recycles flour, avoiding waste.

[0051] The entire production system, from the moment flour and other processed materials enter the production site, is completely enclosed and stored, and transported via sealed pipelines, enabling unmanned assembly line production. To ensure continuous batter supply, the dough mixing mechanism 10 also includes a batter storage tank 170. The feed port of batter storage tank 170 is connected to the discharge port of mixing tank 110. The mixed batter is pumped into batter storage tank 170 for storage, enabling continuous operation of the device. The material in batter storage tank 170 can also be pumped into subsequent processes at high pressure using an air compressor 130.

[0052] The pancake making mechanism 20 is used to bake the batter into pancakes. In this device, the pancakes are continuous flour belts 01. The pancake making mechanism 20 comprises a frame on which a feeding bin 210, an oil spraying assembly 220 and a rolling assembly are provided.

[0053] The discharge port of the batter storage tank 170 is connected to the feed hopper 210, into which the batter produced by the dough kneading mechanism 10 is conveyed. The bottom of the feed hopper 210 has a horizontal, elongated discharge port. The shape of the discharge port allows for preliminary control of the width and thickness of the dough sheet. Positioning the feed hopper above the first rolling drum allows the dough sheet to be stretched downward by its own weight, preventing it from shrinking and thickening.

[0054] To improve batter discharge efficiency and prevent batter from sticking inside the feeding bin 210, which can breed bacteria over time, the device arranges the feeding bin 210 horizontally. Inside, a pusher screw 211 is installed to push the batter toward the discharge port. This pusher screw 211 is connected to a second motor that drives its rotation. Activating the second motor rotates the pusher screw 211, pushing the batter forward.

[0055] In addition, a heating layer is wound on the outer wall of the feeding bin 210. The heating layer can be an electric heating wire, and an insulation layer is coated on the outside of the heating layer. The batter in the feeding bin 210 can be preliminarily heated to reduce its fluidity and make the discharge more stable.

[0056] The oil spray assembly 220 includes an oil roller 221, a transverse movable frame and an oil spray nozzle 222. The oil roller 221 is located below the discharge port and is rotatably fixed on the frame. The oil spray nozzle 222 is fixed on the transverse movable frame and is arranged toward the oil roller 221. The oil spray nozzle 222 is connected to a pressure oil storage tank. The pressure oil storage tank is edible oil. The transverse movable frame can move horizontally. Figure 5 As shown, the transverse movable frame includes a slide bar 223, a rocker 224, and a third motor. The slide bar 223 is slidably connected to the crossbar of the frame; the rocker 224 is located in the middle of the slide bar 223, with its lower end and both ends secured by tension springs. The third motor is used to drive the rocker 224 to swing about its upper end. During operation, the third motor is activated, driving the rocker 224 to swing left and right. When the rocker 224 swings left, the right tension spring stretches, causing the slide bar 223 to move left. When the rocker 224 swings right, the left tension spring stretches, causing the slide bar 223 to move right. This achieves lateral reciprocating motion of the transverse movable frame, allowing the oil sprayed from the multiple oil nozzles 222 to be applied laterally to the oil roller 221.

[0057] The rolling assembly includes a first rolling drum 231 and several second rolling drums 232. The first rolling drum 231 and each of the second rolling drums 232 are rotatably fixed to the frame. The first rolling drum 231 is located below the oil roller 221. Adjacent rolling drums rotate in opposite directions. A heating element is installed inside the first rolling drum 231 and each of the second rolling drums 232. The heating element can be a gas lighter. The heat level can be adjusted by adjusting the gas supply. The multiple heating elements can be individually controlled to heat both sides of the noodle sheet 01 and convey the noodle sheet 01 forward. Preferably, the second rolling drum 232 comprises three or four rolling drums arranged in a diamond shape, so that the noodle sheet 01 forms an S-shaped trajectory between the second and third rolling drums, increasing the contact area between the noodle sheet 01 and the second and third rolling drums.

[0058] Regarding the transmission structure between the multiple rolling drums, one end of the first rolling drum 231 and each second rolling drum 232 is fixed to the second sprocket, and a first motor is provided on the frame. A driving sprocket is fixed on the first motor. The driving sprocket and the multiple second sprockets are connected and transmitted through the second chain 235. By starting the first motor, the adjacent rolling drums can be rotated in opposite directions under the transmission of the second chain 235. Adjacent refers to the transmission path in sequence.

[0059] A ring gear is fixed to the outer wall of at least one end of the first rolling drum 231. Multiple drive rollers 233 are arranged in a U-shape around the bottom of the first rolling drum. These drive rollers 233 are rotatably fixed to the frame. A first sprocket is fixed to each end of each drive roller 233. The multiple first sprockets and the ring gear at the same end are connected by a first chain. A support net 234 is fixed between the first chains at both ends. During operation, the support net 234 and the first rolling drum 231 are driven synchronously and in the same direction by the first chain.

[0060] A support net 234 is provided at the bottom of the first rolling drum 231. The support net 234 is meshed with the gear ring on the first rolling drum 231 through a first chain, thereby realizing synchronous and unidirectional transmission of the support net 234 and the first rolling drum 231, thereby preventing the dough band 01 from sagging due to its softness during the initial forming process, ensuring effective contact between the dough band 01 and the first rolling drum 231, and limiting the initial thickness of the dough band through a specific entrance gap between the support net 234 and the first rolling drum 231, thereby scraping off excess dough band material on the upper layer, thereby avoiding excessive dough paste at the beginning and excessive compaction during the subsequent pressing process, resulting in a hard texture.

[0061] When spraying oil, the oil roller 221 is located below the discharge port, and the material falls downward through the discharge port and hits the oil roller 221, which can drive the oil roller 221 to rotate clockwise toward the first rolling cylinder 231. The oil sprayed by the oil nozzle 222 falls on the oil roller 221. The rolling oil roller 221 can effectively apply edible oil to the dough strip 01, avoiding waste caused by oil falling.

[0062] The oil roller 221 applies oil to the side of the dough sheet that contacts the first rolling drum 231, preventing the batter from sticking to the first rolling drum 231. Since the oil seeps into the dough sheet during the baking process, the dough sheet will not stick to the second rolling drum 232 when it is transferred to the second rolling drum 232.

[0063] The shredding mechanism 30 is used to cut the baked dough sheet 01 into shreds. The shredding process includes cutting the long filaments longitudinally and then cutting the long filaments transversely. In this device, the shredding mechanism 30 includes a conveying roller 310, two shredding rollers 320 and a cutting roller 330.

[0064] The conveying roller 310 can be rotatably fixed on the frame, and a third motor is connected to the conveying roller 310 to drive its rotation. Multiple parallel conveying rollers 310 can be set, and the multiple conveying rollers 310 are driven by sprocket chains. The purpose of setting multiple conveying rollers 310 is to increase the time and stroke of conveying after baking, which is used for cooling the dough strip 01.

[0065] Two cutting rollers 320 are horizontally positioned below the conveyor roller 310 and rotatably fixed to the frame. One of the cutting rollers 320 is connected to a fourth motor that drives it. A gear train meshes between the two cutting rollers 320, causing them to rotate in opposite directions. The cutting rollers 320 are conventional and have multiple circumferential grooves. As the dough sheet 01 passes between the two cutting rollers 320, it is cut into filaments. A cutting roller 330 is horizontally positioned below the cutting rollers 320. The cutting roller 330 is rotatably fixed to the frame and connected to a fifth motor that drives it. A radially protruding cutter is fixed to the cutting roller 330. As the cutting roller 330 rotates, the filaments dropped from the cutting rollers 320 are cut into short filaments of a predetermined length, completing the shredded dough. Adjusting the speed of the cutting roller 330 adjusts the length of the shredded dough.

[0066] The overall structure of the device is three-dimensional and compact, achieving a small footprint. The entire system operates continuously and uninterruptedly in a sealed space, improving production efficiency, reducing production consumption, stabilizing product quality, reducing labor and worker intensity, and improving the sanitation of the production site.

[0067] The above are only preferred embodiments of the present invention. Any simple modification, deformation and equivalent replacement made by anyone to the present invention based on the contents of the present invention shall fall within the protection scope of the present invention.

Claims

1. A shredded pancake forming and processing device, comprising a dough kneading mechanism (10), a pancake making mechanism (20) and a shredding mechanism (30), wherein the batter prepared by the dough kneading mechanism (10) is conveyed to the shredding mechanism (20) to be baked into a sheet of dough and then conveyed to the shredding mechanism (30) to be cut into shredded pancakes, characterized in that: The pancake mechanism (20) comprises a frame, on which are provided: A feeding bin (210) is provided to which the batter produced by the dough kneading mechanism (10) is fed. The bottom of the feeding bin (210) is provided with a horizontal, elongated discharge port. An oil spray assembly (220) comprises an oil roller (221), a transverse movable frame, and an oil spray nozzle (222), wherein the oil roller (221) is located below the discharge port and is rotatably fixed on the frame, the oil spray nozzle (222) is fixed on the transverse movable frame and is disposed toward the oil roller (221), the oil spray nozzle (222) is connected to a pressure oil storage tank, and the transverse movable frame is capable of transverse movement; The rolling assembly comprises a first rolling drum (231) and a plurality of second rolling drums (232), wherein the first rolling drum (231) and each second rolling drum (232) are rotatably fixed on a frame, and adjacent rolling drums rotate in opposite directions, and a heating component is provided in the first rolling drum (231) and each second rolling drum (232), respectively heating both sides of a sheet-like noodle strip (01) and conveying the sheet-like noodle strip forward; wherein The first rolling drum (231) is located below the oil roller (221), a gear ring is fixed on the outer wall of at least one end of the first rolling drum (231), and multiple transmission rollers (233) are arranged in a U-shape around the bottom of the first rolling drum. The transmission rollers (233) are rotatably fixed on the frame, and a first sprocket is fixed at both ends of each transmission roller (233). The multiple first sprockets and the gear ring at the same end are connected and driven by a first chain, and a support net (234) is fixed between the first chains at both ends. The second rolling rollers (232) have three or four rolling rollers arranged in a diamond shape; One end of the first rolling drum (231) and each second rolling drum (232) is fixed to a second sprocket, a first motor is provided on the frame, a driving sprocket is fixed on the first motor, and the driving sprocket and the plurality of second sprockets are connected and driven by a second chain (235), so that two adjacent rolling drums rotate in opposite directions; The transverse moving frame comprises: A slide bar (223) is slidably connected to the crossbeam of the frame; A rocker (224) is located in the middle of the slide bar (223), wherein the lower end of the rocker (224) and both ends of the slide bar (223) are fixed by tension springs; and The third motor is used to drive the rocker (224) to swing with its upper end as the center.

2. The cake wire forming device according to claim 1, characterized in that: The feeding bin (210) is arranged horizontally, and has a pushing screw (211) inside thereof for pushing the batter toward the discharge port. The pushing screw (211) is connected to a second motor for driving the pushing screw to rotate.

3. The cake wire forming processing device according to claim 2, characterized in that: A heating layer is wound around the outer wall of the feeding bin (210), and a heat-insulating layer is wrapped around the outer wall of the heating layer.

4. The cake wire forming processing device according to claim 1, characterized in that: The dough kneading mechanism (10) comprises: A stirring tank (110) is provided with a stirring shaft therein, a flour feeding bin, a water inlet and an air inlet are provided at the top of the stirring tank (110), and a discharge port is provided at the bottom, the flour feeding bin comprises a feeding hopper (111) and a suction pipe (112) vertically fixed in the feeding hopper (111), a gap for dropping materials is provided between the outer wall of the suction pipe (112) and the inner wall of the feeding hopper (111), a plurality of suction holes are provided on the suction pipe (112), and a feeding port is provided above the side wall of the feeding hopper (111); A water tank (120) is connected to the water inlet of the mixing tank (110) via a water pipe, and a water pump is provided on the water pipe; An air compressor (130) is connected to an air inlet of the mixing tank (110) through an air pipe; The flour tank (140) is connected to the feed port of the mixing tank (110) through a feed pipe; and The suction fan (150) has a suction end connected to the suction pipe (112).

5. The cake wire forming device according to claim 4, characterized in that: The dough kneading mechanism (10) further comprises: The dust storage tank (160) has a dust suppression bin on its top, the suction end of the suction fan (150) is connected to the top of the dust suppression bin, and a right-angle tube (162) is provided on the side wall of the dust suppression bin, one end of the right-angle tube (162) faces downward, and the other end is connected to the suction pipe (112).

6. The cake wire forming processing device according to claim 4, characterized in that: The dough kneading mechanism (10) further comprises: The batter storage tank (170) has a feed port connected to the discharge port of the mixing tank (110), and a discharge port of the batter storage tank (170) is connected to the feeding bin (210).

7. The cake wire forming processing device according to claim 1, characterized in that: The shredding mechanism (30) comprises: The conveying roller (310) is fixed on the frame in a rotatable manner, and a third motor is connected to the conveying roller (310) to drive the conveying roller to rotate; Two cutting rollers (320) are horizontally located below the conveying roller (310) and are rotatably fixed to the frame, one of the cutting rollers (320) is connected to a fourth motor for driving its rotation, and the two cutting rollers (320) are engaged through a gear set, so that the two cutting rollers (320) rotate in opposite directions; and The cutting roller (330) is horizontally located below the slitting roller (320). The cutting roller (330) is rotatably fixed on the frame and is connected to a fifth motor for driving the rotation thereof. A radially protruding cutter is fixed on the cutting roller (330).

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