A high-moisture toast bread forming production apparatus

Abstract

The utility model discloses a kind of high moisture toast bread forming production equipment, including conveyor assembly, vacuum dividing machine for being used to divide entire dough into several small dough is sequentially arranged on the conveyor assembly along its transmission direction, dough rounding machine for being used to carry out round processing to dough, leavening machine for being used to carry out leavening processing to dough, roller press for being used to press dough into pie, rolling machine for being used to roll pie into compact stick-shaped roll, forming correction machine for being used to carry out visual position correction to roll and equidistant arrangement feeding, righting belt for being used to carry out folding cutting to roll and can adjust discharge angle, and righting component for being used to arrange and lay out pie after cutting roll;Multiple processing equipment are connected by conveyor assembly, realize the automation continuous production of dough from lifting, division, round, leavening, roller pressing, rolling, forming correction, cutting to lay out plate;Each equipment cooperates, reduces manual intervention and waiting time, greatly improves production efficiency.

Description

Technical Field

[0001] This utility model relates to the field of bread forming and production technology, specifically to a high-moisture toast bread forming and production equipment. Background Technology

[0002] Dough preparation before bread processing is a crucial step in bread making, directly affecting the bread's taste, texture, and appearance. It involves dividing, rounding, rolling, shaping, and slicing the bread for plating. Publication number CN113519592A describes a toast bread and its preparation method. The toast bread is made from the following ingredients by weight percentage: 18-26% scalded dough, 45-55% sponge dough, and 22-32% main dough. The scalded dough is made from the following ingredients: wheat flour, whole wheat flour, salt, and water. The sponge dough is made from the following ingredients: wheat flour, whole wheat flour, fresh yeast, and water. The main dough is made from the following ingredients: wheat flour, whole wheat flour, and fresh yeast. The main ingredients are sugar, gluten, additives, water, and butter. The preparation method involves: preparing a scalded dough and a starter dough; mixing the main dough ingredients (except butter) with the scalded dough and starter dough; then adding butter and continuing to mix to obtain the dough; the dough undergoes relaxation, division, shaping, proofing, baking, cooling, packaging, coding, inspection, and warehousing to obtain the finished product. Current dough processing equipment has low automation, involves many manual steps, resulting in low production efficiency and high labor costs. The processing precision of the dough is insufficient, such as poor rounding, affecting product quality. The connections between different processing equipment are not smooth, and material transfer efficiency is low, leading to poor production process continuity. These problems limit the development of the dough processing industry and urgently need to be addressed. Utility Model Content

[0003] The purpose of this invention is to provide a high-moisture toast bread forming production equipment to solve the above-mentioned problems and overcome the defects of the prior art, as detailed below.

[0004] To achieve the above objectives, the present invention provides the following technical solution:

[0005] This utility model provides a high-moisture toast bread forming production equipment, including a conveyor assembly. The conveyor assembly is provided with the following components arranged sequentially along its conveying direction: a vacuum divider for dividing the whole dough into several small dough balls; a dough rounding machine for rounding the dough; a proofing machine for proofing the dough; a roller press for rolling the dough into a flatbread; a rolling machine for rolling the flatbread into a tight stick-shaped dough roll; a forming and correcting machine for visually correcting the position of the dough roll and arranging it at equal intervals for feeding; a second straightening belt for folding and cutting the dough roll and adjusting the discharge angle; and a traying assembly for arranging the cut dough rolls on a tray.

[0006] The conveyor assembly is provided with a lifting mechanism at its head end along its conveying direction for lifting the dough as a whole upward and sending it to the vacuum dividing mechanism;

[0007] A feeding machine is provided between the dough rounding machine and the proofing machine to orderly feed the dough into the proofing machine, wherein the feeding machine is equipped with a transition mechanism to orderly transfer and feed the dough.

[0008] Preferably, the elevator includes a base and a carriage. The elevator is equipped with a rotating support and a lifting column that can drive the rotating support to move up and down. The lifting column is equipped with a lifting slider, and a rotary motor that can drive the rotating support to rotate up and down is fixedly installed on the lifting slider. A dough bucket is installed on the carriage. The rotating support is equipped with a plug-in structure that can be detachably connected to the carriage. A vacuum divider is installed on one side of the elevator.

[0009] The plug-in structure includes two parallel plug rods, one end of which is fixedly connected to a rotating bracket, and the other end of which forms a pointed tip. A plug cylinder for engaging the plug rods is fixedly provided on the seat, and a positioning groove for positioning the mating seat is provided on the seat.

[0010] The bottom side of the seat is provided with three or more movable wheels, the upper side of the seat is provided with a push handle, and the upper other side of the seat is provided with a material guide slide, the cross-sectional shape of the material guide slide is arc-shaped.

[0011] The vacuum divider includes a dividing body, a funnel is provided on the upper side of the dividing body, a discharge port is formed on the dividing body, and a first discharge conveyor is provided at the discharge port.

[0012] Preferably, the dough rounding machine includes a support base, with support feet at the four corners of the support base. A rounding roller is rotatably mounted on the support base. A first motor for driving the rounding roller to rotate is mounted on the support base. Several blade seats are spirally distributed around the central axis of rotation of the rounding roller. Several rounding plates are mounted on each blade seat. A gap adjustment structure for adjusting the gap between the blade seat and the rounding roller is provided on one side of each blade seat.

[0013] The outer side of the rounding roller is provided with four or more columns evenly distributed around its central axis, and an upper seat plate is provided between the tops of the columns. The gap adjustment structure is provided on the columns.

[0014] The gap adjustment structure includes an adjustment sleeve, an adjustment sleeve is provided at one end of the adjustment sleeve facing the blade seat, an adjustment shaft is slidably arranged inside the adjustment sleeve, a push plate is fixedly provided at the upper end of the adjustment shaft for fixed support with the bottom side of the blade seat, an adjustment slider is slidably arranged inside the adjustment sleeve and fixedly connected to the adjustment sleeve, an adjustment screw is rotatably arranged inside the adjustment sleeve and threadedly connected to the adjustment slider, and a knob is provided at the end of the adjustment screw;

[0015] Each rounding plate is mounted on the blade seat by a locking structure, and the surface of the rounding plate facing the rounding roller has rounding patterns.

[0016] The locking structure includes two locking plates with an arc shape. The ends of the two locking plates facing away from each other are fixedly connected to the blade seat and the rounding plate, respectively. The ends of the two locking plates close to each other are provided with an arc-shaped locking groove. A locking bolt that can pass through the arc-shaped locking groove is provided between the two locking plates for locking and fixing.

[0017] A hopper is provided at the topmost section of the rounding plate. The hopper is fixed to the column by a crossbar, and the cross-sectional shape of the hopper is U-shaped.

[0018] Preferably, the feeding machine includes a feeding frame, within which two parallel first chain drive mechanisms are arranged. Between the two first chain drive mechanisms, several sets of feeding bowls are evenly distributed along their transmission direction. Each set includes several feeding bowls. Each feeding bowl has a bowl fixing plate fixed between the two first chain drive mechanisms on one side. Each feeding bowl is rotatably mounted on its corresponding bowl fixing plate via a bowl rotation shaft. A locking structure is provided between adjacent feeding bowls. On the straight section of the chain of the first chain drive mechanism, the feeding bowls can be rotated downwards by 90 degrees via the bowl rotation shaft. On the lower straight section of the chain, the feeding bowls can maintain their positions from rotating through the locking structure. The feeding frame is provided with a dropping support structure that enables the partial feeding bowls that move on the upper straight section of the chain to rotate.

[0019] The first chain drive mechanism includes two first sprockets, which are connected to each other by meshing with a first chain. The first sprockets at the same end of the two first chain drive mechanisms are connected to each other by a connecting shaft. A guide wheel capable of resetting the feeding bowl is provided between the first sprockets at the same end. A second motor capable of driving the shaft to rotate is provided at the end of one of the connecting shafts.

[0020] The material feeding support structure includes several material feeding support guide rails that are arranged in a cross-over manner. A material feeding notch is formed between two adjacent material feeding support guide rails. Rollers are rotatably mounted on the feeding bowls via a wheel shaft. The rollers on two adjacent feeding bowls are distributed on opposite sides. The number of feeding bowls in each group is consistent with the number of material feeding notches. The rollers on each group of feeding bowls and the material feeding notches are matched one-to-one.

[0021] Each of the material dropping notches is provided with a corresponding material guide groove below it. The material guide grooves are fixedly connected to each other by a fixing rod, and the fixing rod is fixedly installed on the feeding frame.

[0022] The feeding bowl has an opening on one side near the upper roller, and there are locking protrusions on both sides of the opening of the feeding bowl. A locking rod that cooperates with the locking protrusions is fixedly installed on the bowl fixing plate. An angle support block that can be limited and connected with the bowl fixing plate is provided on the side of the feeding bowl near the wheel shaft.

[0023] Preferably, the proofing machine includes a proofing frame, within which two parallel second chain drive mechanisms are arranged, and between the two second chain drive mechanisms along their drive direction, a plurality of proofing storage structures are evenly distributed. The proofing frame is provided with a discharge port, and a feeding mechanism is provided at the discharge port. When the second chain drive mechanism drives the proofing storage structure to move to the discharge port, the feeding mechanism can flip the proofing storage structure to export the dough.

[0024] The second chain drive mechanism includes a plurality of second sprockets rotatably disposed within the proofing frame. The second sprockets are meshed with each other and connected by a second chain. The corresponding second sprockets of two second chain drive mechanisms are connected to each other by a drive shaft, and the end of one of the drive shafts is driven to rotate by a third motor fixedly disposed on the proofing frame.

[0025] The proofing and storage structure includes two parallel bowl support rods, with several proofing bowls evenly distributed between the two bowl support rods. The ends of the two bowl support rods are fixedly connected to each other with end plates. Each end plate is provided with a T-shaped follower, and the T-shaped follower is rotatably connected to the second chain through a hanging shaft.

[0026] The feeding mechanism includes a feeding frame fixedly mounted on the proofing frame. A fixing bar is fixedly mounted on the feeding frame. A first stop wheel, a second stop wheel, a third stop wheel, and a fourth stop wheel are rotatably mounted on the fixing bar along its length. A stop box is fixedly mounted on the fixing bar. A rotary shaft is rotatably mounted on the stop box. One end of the rotary shaft is provided with a limit sliding shaft. An arc-shaped guide groove is provided on the stop box for guiding the sliding of the limit sliding shaft. The other end of the rotary shaft is provided with a rotary rod for rotating and resetting the T-shaped follower. When the second chain drives the proofing storage structure to the discharge port, the rotary rod, the first stop wheel, the second stop wheel, the third stop wheel, and the fourth stop wheel can realize that the T-shaped follower drives the proofing bowl to flip up and down and reset. Below the feeding mechanism, there is a feeding hopper that can receive the dough when the proofing bowl is flipped. Each feeding hopper has two unloading claws on its bottom side. The feeding frame is provided with an opening and closing drive assembly that can drive the unloading claws to open and close.

[0027] The opening and closing drive assembly includes two parallel opening and closing shafts, with a first gear structure between one end of the two opening and closing shafts. The first gear structure includes two meshing first gears. A deflection rod is fixedly connected to the other end of one of the opening and closing shafts. A first cylinder for deflecting the rod is provided on one side. A material unloading conveyor is provided below the unloading claw.

[0028] Preferably, the roller press includes a roller conveyor, which is provided with a centering and aligning mechanism for adjusting and centering the position of the dough, a flattening mechanism for initially flattening the dough, and a roller pressing mechanism for pressing the dough into a flat disc along its conveying direction.

[0029] The centering and straightening mechanism includes a straightening bracket, on which two straightening belt structures are arranged in a figure-eight shape. Each straightening belt structure includes two pulleys, and a first straightening belt is connected between the two pulleys. One of the pulleys of each straightening belt structure is driven to rotate by a straightening motor fixedly mounted on the straightening bracket.

[0030] The flattening mechanism includes a flattening cover, a flattening roller is rotatably mounted on the lower side of the flattening cover, and a flattening motor for driving the flattening roller to rotate is mounted on the flattening cover.

[0031] The roller pressing mechanism includes a roller pressing housing, on which three or more sets of roller pressing cylinders are provided. Each set of roller pressing cylinders consists of a first roller pressing cylinder and a second roller pressing cylinder. A roller pressing transmission structure capable of enabling the first roller pressing cylinder and the second roller pressing cylinder to rotate synchronously in opposite directions is provided between them. A roller pressing motor capable of driving the first roller pressing cylinder to rotate through the roller pressing transmission structure is provided on the roller pressing housing.

[0032] Preferably, the rolling machine includes a lower rolling conveyor, on which a rolling mesh for rolling the dough and an upper rolling conveyor for compacting the rolled dough are respectively provided along its conveying direction.

[0033] The upper conveyor of the rolling machine is provided with a first support frame at each end along its conveying direction, and two limit bars are provided between the two first support frames in parallel.

[0034] An adjustment groove is provided on the upper side of the first support frame. The length direction of the adjustment groove is consistent with the width direction of the winding conveyor. Two hangers corresponding to the limit stop are slidably arranged in the adjustment groove. The lower end of the hangers is fixedly connected to the limit stop.

[0035] The winding conveyor is equipped with a winding frame, and the winding mesh is disposed between the winding frame and the first support frame located on the front side.

[0036] The lower conveyor for rolling is equipped with a flipping structure that can flip the upper conveyor for rolling.

[0037] The flipping structure includes a fixed frame, the upper conveyor of the rolling mechanism is mounted on the fixed frame, a rolling frame is mounted above the fixed frame, and a spacing adjustment component is mounted on the rolling frame to adjust the distance between the fixed frame and the frame. One side of the rolling frame is hinged to the lower conveyor of the rolling mechanism via a hinge seat, and the other side of the rolling frame is detachably connected to the lower conveyor of the rolling mechanism via a buckle.

[0038] The spacing adjustment assembly includes an adjusting screw threadedly connected to the rolling frame. The upper end of the adjusting screw is provided with a handwheel, and the lower end of the adjusting screw is rotatably connected to the fixed frame. The rolling lower conveyor is provided with a nitrogen spring that can assist in the flipping drive of the rolling frame.

[0039] Preferably, the forming and correcting machine includes a forming and correcting frame and a third chain drive mechanism inside it for lifting the face roll from bottom to top at an incline. A face roll feeding structure is provided on one side of the bottom of the third chain drive mechanism for feeding it. A transition roller is provided between the third chain drive mechanism and the second straightening belt. A correcting mechanism for correcting the position of the face roll is provided on the third chain drive mechanism. A vision camera for detecting the face roll on the third chain drive mechanism is provided on the forming and correcting frame. A deflector claw assembly for folding and bending the face roll is provided above the transition roller.

[0040] The dough roll feeding structure includes a rotating roller. One end of the rotating roller is driven to rotate by a sixth motor fixedly mounted on the forming correction frame. The outer side of the rotating roller is provided with several sets of transition claws evenly distributed around its central axis. Each set includes several transition claws evenly distributed along the axial direction of the rotating roller.

[0041] The third chain drive mechanism has two parallel distributions. The third chain drive mechanism includes two third sprockets, which are meshed and connected to a third chain. A number of chain driven plates are evenly distributed between the two third chains along their transmission direction. A roll lifting hanger is provided on the chain driven rod, which can be adjusted by moving along the axial direction of the third sprocket under the drive of the correction mechanism. The roll lifting hanger has a J-shaped cross-section and a number of evenly distributed first gap grooves that cooperate with the transition claws along the axial direction of the third sprocket.

[0042] The correction mechanism includes a lead screw rotatably disposed between two third sprockets, a lead screw nut disposed on the lead screw, an active push plate fixedly disposed on the lead screw nut, a driven push plate distributed on both sides of the active push plate disposed on the roll lifting hanger, a positioning motor disposed on the forming correction frame, and the output shaft end of the positioning motor being connected to one end of the lead screw through a gear transmission mechanism.

[0043] The forming correction frame is provided with a fourth motor for driving the transition roller to rotate, the stop pawl assembly includes a stop pawl hinged on the forming correction frame, and the forming correction frame is provided with a second cylinder for driving the stop pawl to rotate hingedly.

[0044] The stop claw has two first turntables symmetrically distributed around it on both sides. The two first turntables are arranged in an inclined figure-eight shape. Each first turntable has two claws symmetrically distributed around its rotation axis. The claws have a J-shaped outline. The two first turntables are respectively provided on opposite sides for adjusting the distance between them. The push rod head of the linear adjustment structure is rotatably connected to the first turntable through a rotary joint. The forming and correcting frame is provided with a fifth motor for driving the rotation of the first turntable. The output shaft of the fifth motor is connected to the first turntable through a toothed belt drive structure. The first turntable and the driven shaft of the toothed belt drive structure are connected to each other by a universal joint.

[0045] Two arc-shaped guide plates are provided on both sides of the stop claw, symmetrically distributed with the stop claw as the center. The arc-shaped guide plates are fixedly mounted on the forming and correcting frame.

[0046] Preferably, the second alignment belt includes an alignment frame, an alignment bracket is provided inside the alignment frame, a swing support shaft is provided on one side of the bottom of the alignment bracket for supporting its rotation, a deflection drive mechanism is provided on the other side of the bottom of the alignment bracket for reciprocating deflection about the swing support shaft, a lower swing transmission is provided on the upper side of the alignment bracket, and side swing transmissions are provided on both sides of the lower swing transmission. The two side swing transmissions are arranged in a figure-eight shape with their wide ends facing the forming and correcting machine. A cutting machine for cutting the roll is provided at the wide end opening of the two side swing transmissions, and two guide plates are provided at the narrow end opening of the two side swing transmissions.

[0047] A rotating support beam is fixedly installed on the alignment frame, and the swing support shaft is rotatably connected to the rotating support beam via a bearing.

[0048] The deflection drive mechanism includes a swing motor, the output shaft of which is connected to a second turntable. One end of a drive push rod is rotatably connected to the eccentric position of the second turntable. The other end of the drive push rod is rotatably connected to the alignment bracket. The bottom side of the alignment bracket is provided with two or more support wheels for rolling support of its swing.

[0049] The tray arrangement assembly includes a tray frame, within which a front baffle and a rear baffle are respectively arranged. Several partitions are evenly distributed between the front and rear baffles, with all partitions located on the rear baffle. A translation rod is provided on each of the opposite sides of the front and rear baffles, and a base plate is provided on the bottom side of each translation rod. A third cylinder for adjusting the distance between the two translation rods is provided on the tray frame. Two or more guide rods for guiding the translation rods are provided on the tray frame. Guide holes are provided at both ends of the translation rods to facilitate sliding with the guide rods. When the push rod of the third cylinder reaches its minimum stroke, the two base plates abut against each other and close; when the push rod of the third cylinder reaches its maximum stroke, the two base plates move away from each other and open.

[0050] Preferably, the transition mechanism includes a transition frame, within which a transition wheel and several dial wheels are rotatably mounted. The outer side of the transition wheel has four or more transition material slots evenly distributed around its rotation axis. The outer side of the transition wheel has a second gap slot corresponding to each dial wheel along its axis. A dial wheel shaft is provided at the rotation axis of the dial wheel. An eighth motor is mounted on the transition frame. The output shaft of the eighth motor is connected to one of the shaft ends of the transition wheel via a fourth chain drive mechanism. The other shaft end of the transition wheel is connected to the end of the dial wheel shaft via a fifth chain drive mechanism.

[0051] The transition wheel is provided with side guards on both sides along its axial direction, and a front guard is provided on the side of the transition wheel opposite to the dial wheel. The upper side of the side guards and the front guards are respectively provided with position adjustment structures for adjusting their positions.

[0052] The position adjustment structure includes an adjustment slide, which has an opening groove and a set bolt at the opening groove to achieve a tight connection between the adjustment slide and the transition frame.

[0053] The beneficial effects are:

[0054] 1. This production line connects multiple processing devices through a conveyor assembly, enabling automated continuous production of dough from lifting, dividing, rounding, proofing, rolling, shaping, correction, cutting to tray placement; the coordinated work of each device reduces manual intervention and waiting time, greatly improving production efficiency;

[0055] 2. The gap adjustment structure of the dough rounding machine can be adjusted according to the characteristics of the dough to ensure the rounding effect of the dough;

[0056] 3. The centering and straightening mechanism and the flattening and rolling mechanism of the roller press work together to precisely press the dough into a flatbread of uniform thickness.

[0057] 4. The forming and straightening machine uses a vision camera to detect the position of the dough roll and the straightening mechanism corrects it, ensuring the shape and position accuracy of the dough roll;

[0058] 5. The flipping structure of the rolling machine allows the upper conveyor of the rolling machine to flip, making it easy to clean and replace parts. Attached Figure Description

[0059] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0060] Figure 1 This is a front view of the production line of this utility model;

[0061] Figure 2 This is a utility model Figure 1 Top view;

[0062] Figure 3 This is a utility model Figure 1 A three-dimensional image;

[0063] Figure 4 This is a schematic diagram of the elevator and vacuum divider used in conjunction with this utility model;

[0064] Figure 5 This is a utility model Figure 4 First-direction stereoscopic view;

[0065] Figure 6 This is a utility model Figure 4 The second-direction stereoscopic view;

[0066] Figure 7 This is the front view of the dough rounding machine of this utility model;

[0067] Figure 8 This is a utility model Figure 7 A schematic diagram of a partial three-dimensional structure;

[0068] Figure 9 This is a utility model Figure 8 A schematic diagram of the second-direction three-dimensional structure;

[0069] Figure 10 This is a utility model Figure 9 A magnified view of part A;

[0070] Figure 11 This is a schematic diagram of the feeding machine and the proofing machine of this utility model.

[0071] Figure 12 This is a front view of the feeding machine of this utility model;

[0072] Figure 13 This is a utility model Figure 12 Top view;

[0073] Figure 14 This is a utility model Figure 12 A three-dimensional image;

[0074] Figure 15 This is a utility model Figure 14 A magnified view of section B;

[0075] Figure 16 This is a three-dimensional view of the internal structure of the feeding machine of this utility model;

[0076] Figure 17 This is a utility model Figure 16 A magnified view of a portion at point C;

[0077] Figure 18 This is a three-dimensional view of the feeding bowl of this utility model;

[0078] Figure 19 This is a schematic diagram of the internal structure of the proofing machine of this utility model;

[0079] Figure 20 This is a utility model Figure 19 A schematic diagram of the internal three-dimensional structure;

[0080] Figure 21 This is a utility model Figure 20 A magnified schematic diagram of the structure at point D;

[0081] Figure 22 This is a three-dimensional structural diagram of the feeding mechanism of the proofing machine of this utility model;

[0082] Figure 23 This is a utility model Figure 22 A schematic diagram of the three-dimensional structure from another direction;

[0083] Figure 24 This is a utility model Figure 23 A magnified schematic diagram of the structure at point E;

[0084] Figure 25 This is a three-dimensional structural diagram of the stop box of this utility model;

[0085] Figure 26 This is a three-dimensional structural diagram of the roller press of this utility model;

[0086] Figure 27 This is a utility model Figure 26 A schematic diagram of a partial three-dimensional structure;

[0087] Figure 28 This is a utility model Figure 27 An internal 3D schematic diagram;

[0088] Figure 29 This is a utility model Figure 28 A three-dimensional diagram from another direction;

[0089] Figure 30 This is a three-dimensional structural diagram of the centering and straightening mechanism of this utility model;

[0090] Figure 31 This is a schematic diagram of the winding machine structure of this utility model;

[0091] Figure 32 This is a utility model Figure 31 A schematic diagram of the three-dimensional structure;

[0092] Figure 33 This is a utility model Figure 32 A magnified schematic diagram of the structure at point F;

[0093] Figure 34 This is a three-dimensional structural diagram of the first support frame of the rolling machine of this utility model;

[0094] Figure 35 This is a schematic diagram of the combined structure of the forming and correcting machine, the straightening belt, and the plate assembly of this utility model;

[0095] Figure 36This is a utility model Figure 35 The main view;

[0096] Figure 37 This is a utility model Figure 35 Another perspective 3D view;

[0097] Figure 38 This is a first-angle perspective view of the molding and straightening machine of this utility model;

[0098] Figure 39 This is a utility model Figure 38 A magnified view of a portion of point G;

[0099] Figure 40 This is a second perspective view of the molding and straightening machine of this utility model;

[0100] Figure 41 This is a partial cross-sectional structural diagram of the correction mechanism of this utility model;

[0101] Figure 42 This is a perspective view of the second alignment belt of this utility model in the first direction;

[0102] Figure 43 This is a perspective view of the second alignment belt of this utility model in the second direction;

[0103] Figure 44 This is a three-dimensional view of the tray arrangement component of this utility model;

[0104] Figure 45 This is a first-direction perspective view of the transition mechanism of this utility model;

[0105] Figure 46 This is a second-direction perspective view of the transition mechanism of this utility model;

[0106] Figure 47 This is a schematic diagram of the interaction between the transition wheel and the dial wheel of this utility model.

[0107] The reference numerals in the attached drawings are explained as follows: 1. Elevator; 101. Base; 102. Lifting column; 103. Car seat; 104. Moving wheel; 105. Insert cylinder; 106. Rotary motor; 107. Rotating bracket; 108. Insert rod; 109. Guide slide plate; 110. Positioning groove; 111. Dough bucket; 112. Push handle; 2. Vacuum divider; 201. Divider body; 202. Funnel; 203. First discharge conveyor; 3. Dough rounding machine; 301. Support base; 302. Support leg; 303. Column; 304. Gap adjustment structure; 304a. Cylinder seat; 304b. Adjustment sleeve; 304c. Adjustment screw; 304d. Knob; 304e. Adjustment sleeve; 304f. Adjustment shaft; 304g. Top push plate; 305. Rounding roller; 306. Blade seat; 307. Rounding plate; 308. Slide bucket; 309. Crossbar; 310. Upper seat plate; 311. Rounding pattern; 312. Locking structure; 313. First motor; 4. Feeder; 401. Feeding frame; 402. Second motor; 403. First sprocket; 404. First chain; 405. Feeding bowl; 406. Guide chute; 407. Fixing rod; 408. Discharge support rail; 409. Discharge notch; 410. Bowl fixing plate; 411. Roller; 412. Guide wheel; 413. Positioning rod; 414. Positioning protrusion; 415. Corner support block; 416. Bowl shaft; 417. Wheel shaft; 5. Proofing machine; 501. Proofing frame; 502. Second sprocket; 503. Second chain; 504. Proofing bowl; 505. Third motor; 506. Bowl support rod; 507. End plate; 508. T-type follower; 509. Hanging shaft; 510. Stop box; 511. Feeding frame; 512. First cylinder; 513. Deflecting rod; 514. Feeding conveyor; 515. Feeding hopper; 516. Unloading claw; 517. Opening and closing shaft; 518. First gear; 519. Rotating rod; 520. Arc-shaped guide groove; 521. Limiting slide shaft; 522. Fixing bar; 523. Rotating shaft; 524. First stop wheel; 525. Second stop wheel; 526. Third stop wheel; 527. Fourth stop wheel; 6. Roller press; 601. Centering and straightening mechanism; 601a. ​​Straightening bracket; 601b. Pulley; 601c, First leveling belt; 601d, Leveling motor; 602, Roller conveyor; 603, Flattening mechanism; 603a, Flattening motor; 603b, Flattening cover; 603c, Flattening roller; 604, Roller housing; 605, Roller motor; 606, Cover; 607, First roller cylinder; 608, Second roller cylinder; 609, Roller transmission structure; 7, Winding machine; 701, Lower winding conveyor; 702, Upper winding conveyor; 703, Winding frame; 704, Handwheel; 705, First support frame; 706, Second support frame; 707, Winding net; 708, Buckle; 709, Limiting bar; 710, Nitrogen spring; 711, Hinge seat; 712, Adjusting screw; 713, Adjusting groove;714. Hanging rod; 715. Fixing frame; 8. Forming and straightening machine; 801. Third sprocket; 802. Third chain; 803. Roll lifting hanger; 804. Positioning motor; 805. Vision camera; 806. Transition roller; 807. Fourth motor; 808. Transition claw; 809. Linear adjustment structure; 810. Arc-shaped guide plate; 811. Sixth motor; 812. First gap groove; 813. Rotary roller; 814. Rotary joint; 815. Universal joint; 816. First turntable; 817. 818. Claw; 819. Second cylinder; 820. Stopper; 821. Gear transmission mechanism; 822. Driven push plate; 823. Lead screw; 824. Lead screw nut; 825. Driven push plate; 826. Fifth motor; 827. Chain driven plate; 901. Second swaying belt; 902. Swaying bracket; 903. Side swinging transmission machine; 904. Swinging support shaft; 905. Rotating support beam; 906. Cutting machine; 907. Lower swinging transmission machine; 908. Guide plate; 909. Second turntable ; 910, Drive push rod; 911, Support wheel; 10, Plate swivel assembly; 1001, Plate swivel frame; 1002, Front baffle; 1003, Third cylinder; 1004, Rear baffle; 1005, Partition plate; 1006, Base plate; 1007, Translation rod; 1008, Guide rod; 11, First transmission machine; 12, Second transmission machine; 13, Third transmission machine; 14, Fourth transmission machine; 15, Fifth transmission machine; 16, First flour spreader; 17, Second flour spreader; 18, Third flour spreader; 19. Fourth flour spreader; 20. Transition mechanism; 2001. Transition frame; 2002. Transition wheel; 2003. Dial wheel; 2004. Dial wheel shaft; 2005. Side enclosure; 2006. Front enclosure; 2007. Position adjustment structure; 2007a. Adjusting slide; 2007b. Opening slot; 2007c. Set bolt; 2008. Fourth chain drive mechanism; 2009. Fifth chain drive mechanism; 2010. Transition material trough; 2011. Eighth motor; 2012. Second gap slot. Detailed Implementation

[0108] To make the objectives, technical solutions, and advantages of this utility model clearer, the technical solutions of this utility model will be described in detail below. Obviously, the described embodiments are only a part of the embodiments of this utility model, and not all of them. Based on the embodiments of this utility model, all other implementation methods obtained by those skilled in the art without creative effort are within the scope of protection of this utility model.

[0109] See Figures 1-47As shown, this utility model provides a high-moisture toast bread forming production equipment, including a conveyor assembly. Along its conveying direction, the conveyor assembly is sequentially equipped with: a vacuum divider 2 for dividing the entire dough into several small dough balls; a dough rounding machine 3 for rounding the dough; a proofing machine 5 for proofing the dough; a roller press 6 for rolling the dough into flatbreads; a rolling machine 7 for rolling the flatbreads into tight, stick-shaped rolls; a forming and correcting machine 8 for visually correcting the rolls and equidistantly arranging them for feeding; a second straightening belt 9 for folding and cutting the rolls and adjusting the discharge angle; and a tray assembly 10 for arranging the cut rolls on a tray. At the head end of the conveyor assembly along its conveying direction, an elevator 1 is provided for lifting the dough as a whole upwards and sending it to the vacuum divider. Between the dough rounding machine 3 and the proofing machine 5, a feeding machine 4 is provided to orderly feed the dough into the proofing machine 5, wherein the feeding machine 4 is equipped with a transition mechanism 22 for orderly transitional feeding of the dough.

[0110] See instruction manual attached Figure 4 , Figure 5 and Figure 6 The main function of the elevator 1 shown is to lift and flip the dough bucket 111 containing dough, so that the dough can smoothly enter the vacuum divider 2 for subsequent processing. The elevator 1 includes a base 101 and a carriage 103. The carriage 103 is used to support the dough bucket 111. The elevator 1 is equipped with a rotating support 107, which is a key component connecting the carriage 103, the dough bucket 111, and the elevator 1. It can realize the lifting and flipping of the dough bucket 111. The elevator 1 is equipped with a lifting column 102 that can drive the rotating support 107 to move up and down. The lifting column 102 is equipped with a lifting slider that can slide on the lifting column 102. Its function is to drive the rotating support 107 to move up and down, thereby lifting the dough bucket. 111 is raised to a suitable height so that the dough can smoothly enter the funnel 202 of the vacuum divider 2. A rotary motor 106 is fixed on the lifting slider to drive the rotating bracket 107 to rotate up and down. The rotary motor 106 is fixed on the lifting slider and its function is to drive the rotating bracket 107 to rotate up and down. When the dough bucket 111 is raised to a suitable height, the rotary motor 106 causes the dough bucket 111 to rotate and pour out the dough. The dough bucket 111 is fixed on the seat 103. The dough bucket 111 is used to hold the dough and is the container for transporting the dough from the initial position by the elevator 1 to the vacuum divider 2. The rotating bracket 107 is provided with a plug-in structure that can be detachably connected to the seat 103. The vacuum divider 2 is provided on one side of the elevator 1.

[0111] The plug-in structure includes two parallel plug rods 108. One end of each plug rod 108 is fixedly connected to the rotating bracket 107, and the other end of each plug rod 108 forms a pointed cone shape to facilitate insertion into the plug tube 105 on the seat 103. The seat 103 is fixedly provided with a plug tube 105 for accommodating the plug rod 108. The seat 103 is provided with a positioning groove 110 for positioning and accommodating the seat 103, which is used to precisely match the position of the seat 103 and ensure that the plug rod 108 can be accurately inserted into the plug tube 105, thus ensuring the stability of the seat 103 and the dough drum 111 during the operation of the hoist 1. This detachable plug-in structure allows the seat 103 and the dough drum 111 to be easily connected and separated from the rotating bracket 107, facilitating the replacement of the dough drum 111 or the maintenance of the equipment.

[0112] The bottom side of the seat 103 is provided with three or more moving wheels 104, the upper side of the seat 103 is provided with a push handle 112, and the upper other side of the seat 103 is provided with a guide slide plate 109. The cross-sectional shape of the guide slide plate 109 is arc-shaped. When the rotary motor 106 drives the dough drum 111 to flip and pour out the dough, the guide slide plate 109 can guide the dough to slide smoothly into the funnel 202 of the vacuum divider 2.

[0113] The vacuum divider 2 includes a divider body 201, which contains various devices and mechanisms for dividing dough. The technology used is known to those skilled in the art. A funnel 202 is provided on the upper side of the divider body 201. Its function is to receive the dough that slides in from the guide slide plate 109 of the elevator 1 and guide the dough into the divider body 201 for dividing. A discharge port is formed on the divider body 201, and a first discharge conveyor 203 is provided at the discharge port, which is responsible for conveying the divided dough pieces to the subsequent processing stage.

[0114] See instruction manual attached Figure 7 Figure 8 Figure 9 Figure 10As shown, the main function of the dough rounding machine 3 is to round the received dough, making it into a nearly regular circle for subsequent processing. The dough rounding machine 3 includes a support base 301, with support legs 302 at the four corners of the support base 301. A rounding roller 305 is rotatably mounted on the support base 301. A first motor 313 is mounted on the support base 301 to drive the rounding roller 305 to rotate. Several blade seats 306 are spirally distributed around the rotation axis of the rounding roller 305. Several rounding plates 307 are mounted on each blade seat 306. A gap adjustment structure 304 is provided on one side of each blade seat 306 to adjust the gap between it and the rounding roller 305. The rotation of the rounding roller 305 is the power source for rounding the dough. Through its rotation, the surrounding blade seats 306 and rounding plates 307 are driven to move relative to the dough, thereby achieving the rounding of the dough.

[0115] The outer side of the rounding roller 305 is provided with four or more columns 303 evenly distributed around its central axis. An upper seat plate 310 is provided between the tops of the columns 303, providing support for the upper seat plate 310 and also providing an installation position for the gap adjustment structure 304. The gap adjustment structure 304 is mounted on the columns 303.

[0116] The gap adjustment structure 304 includes an adjusting sleeve 304b. An adjusting sleeve 304e is provided at one end of the adjusting sleeve 304b facing the blade seat 306. An adjusting shaft 304f is slidably mounted inside the adjusting sleeve 304e. A push plate 304g is fixedly mounted at the upper end of the adjusting shaft 304f for fixed support with the bottom side of the blade seat 306. An adjusting slider is slidably mounted inside one end of the adjusting sleeve 304b and fixedly connected to the adjusting sleeve 304e. An adjusting screw 304c is rotatably mounted inside the adjusting sleeve 304e and threadedly connected to the adjusting slider. A knob 304d is provided at the end of the adjusting screw 304c. The adjustment screw 304c is adjusted by... The specific structural design involves rotating the knob 304d to drive the adjusting screw 304c to rotate. Since the adjusting screw 304c is threadedly connected to the adjusting slider, the adjusting slider slides within the adjusting sleeve 304b, thereby causing the adjusting sleeve 304e and the adjusting shaft 304f to move horizontally. The push plate 304g at the upper end of the adjusting shaft 304f is fixedly supported by the bottom side of the blade seat 306, thus adjusting the gap between the blade seat 306 and the rounding roller 305. Alternatively, adjustment can be made by sliding the adjusting shaft 304f up and down within the adjusting sleeve 304e. The gap adjustment structure 304 adjusts the gap between the blade seat 306 and the rounding roller 305. Different dough characteristics, such as hardness and moisture content, may require different rounding gaps. Adjusting the gap can adapt to the processing needs of different doughs, ensuring a good rounding effect. Additionally, it can ensure that the gap between the lower blade seat 306 and the rounding roller 305 is greater than the gap between the upper blade seat 306 and the rounding roller 305, thus achieving a progressive rounding operation.

[0117] Each rounding plate 307 is mounted on the blade seat 306 via a locking structure 312. The surface of the rounding plate 307 facing the rounding roller 305 has rounding patterns 311. The patterns 311 can increase the friction with the dough, better drive the dough to roll, and improve the rounding effect of the dough.

[0118] The locking structure 312 includes two locking plates with arc-shaped shapes. The ends of the two locking plates that are opposite to each other are fixedly connected to the blade seat 306 and the rounding plate 307 respectively. The ends of the two locking plates that are close to each other are provided with arc-shaped locking grooves. A locking bolt that can pass through the arc-shaped locking grooves is provided between the two locking plates for locking and fixing.

[0119] A hopper 308 is installed at the top of the rounding board 307. The hopper 308 is fixed to the column 303 by a crossbar 309, and the cross-sectional shape of the hopper 308 is U-shaped. The hopper 308 serves to guide and transport the dough, conveying the rounded dough to the next processing stage.

[0120] See instruction manual attached Figure 11 , Figure 12 , Figure 13 , Figure 14, Figure 15 , Figure 16 , Figure 17 and Figure 18 As shown, the feeding machine 4 drives the feeding bowl 405 to move cyclically through the first chain drive mechanism. The feeding bowl 405 is flipped and unloaded at a specific position by the material drop support structure. Then, the material is guided to the subsequent processing flow by the guide chute 406, realizing the efficient material conveying and feeding function. The feeding machine 4 includes a feeding frame 401. Two parallel first chain drive mechanisms are set in the feeding frame 401. Several groups of feeding bowls 405 are evenly distributed between the two first chain drive mechanisms along their transmission direction. Each group includes several feeding bowls 405. Each feeding bowl 405 has a bowl fixing plate 410 fixed between the two first chain drive mechanisms on one side. Each feeding bowl 405 is rotatably mounted on the corresponding bowl fixing plate 410 through the bowl rotation shaft 416, providing installation and support for the feeding bowl 405 and ensuring the stability of the feeding bowl 405 during the chain 404 transmission process. A locking structure is provided between adjacent feeding bowls 405. On the straight section of the chain 404 of the first chain drive mechanism, the feeding bowls 405 can be rotated downwards by 90 degrees via the bowl rotation shaft 416. On the lower straight section of the chain 404, the feeding bowls 405 can maintain their position relative to each other without rotation through the locking structure. On the lower straight section of the chain 404, the locking structure can restrict the rotation of the feeding bowls 405, so that the feeding bowls 405 maintain their position relative to each other without rotation, ensuring that the material will not spill during the conveying process. The feeding frame 401 is provided with a material dropping support structure that enables the partial feeding bowls 405 that move on the upper straight section of the chain 404 to be flipped.

[0121] The first chain drive mechanism includes two first sprockets 403, which are connected by a first chain 404. The first sprockets 403 at the same end of the two first chain drive mechanisms are connected by a connecting shaft. A guide wheel 412 is provided between the first sprockets 403 at the same end, capable of actuating and resetting the feeding bowl 405. Its function is to actuate and reset the feeding bowl 405 during chain 404 transmission, ensuring the accurate position of the feeding bowl 405 during transmission and maintaining normal working condition. A second motor 402 is provided at the end of one of the connecting shafts to drive its rotation.

[0122] The material discharge support structure includes several material discharge support guide rails 408 that are arranged in a crisscrossing manner. A material discharge notch 409 is formed between two adjacent material discharge support guide rails 408. Rollers 411 are rotatably mounted on the feeding bowls 405 via a wheel shaft 417. The rollers 411 on two adjacent feeding bowls 405 are distributed on opposite sides. The number of feeding bowls 405 in each group is consistent with the number of material discharge notches 409, and the rollers 411 on each group of feeding bowls 405 correspond one-to-one with the material discharge notches 409. Through the above specific structural design, when the feeding bowl 405 on the straight section of the chain 404 moves to the position of the material discharge support guide rail 408, the rollers 411 enter the material discharge notch 409. Due to the loss of support, the feeding bowl 405 will rotate downwards by ninety degrees via the bowl shaft 416 to achieve material unloading.

[0123] Below each material dropping notch 409, there is a corresponding material guide trough 406. The material guide troughs 406 are fixedly connected to each other by a fixing rod 407, and the fixing rod 407 is fixedly mounted on the feeding frame 401.

[0124] The feeding bowl 405 has an opening on one side near the roller 411, and there are locking protrusions 414 on both sides of the opening of the feeding bowl 405. The bowl fixing plate 410 is fixedly provided with a locking rod 413 that cooperates with the locking protrusions 414 for locking. The feeding bowl 405 is provided with an angle support block 415 on the side near the wheel shaft 417 that can be limited and connected with the bowl fixing plate 410.

[0125] See instruction manual attached Figure 19 , Figure 20 , Figure 21 , Figure 22 , Figure 23 , Figure 24 and Figure 25 As shown, the proofing machine 5 includes a proofing frame 501, which provides a support structure for the proofing machine and fixes other components, such as the second chain drive mechanism and the feeding mechanism, to ensure the relative position of each component is stable and to maintain the overall operation of the equipment. Two parallel second chain drive mechanisms are provided inside the proofing frame 501, which drive the proofing storage structure to move along the set track to realize the conveying of dough. Several proofing storage structures are evenly distributed between the two second chain drive mechanisms along their transmission direction. The proofing frame 501 is provided with a discharge port, and a feeding mechanism is provided at the discharge port. When the second chain drive mechanism drives the proofing storage structure to move to the discharge port, the feeding mechanism can realize the flipping of the proofing storage structure to export the dough.

[0126] The second chain drive mechanism includes a plurality of second sprockets 502 rotatably disposed within the proofing frame 501. The second sprockets 502 are meshed with each other and connected by a second chain 503. The corresponding second sprockets 502 of the two second chain drive mechanisms are connected to each other by a drive shaft, and the end of one of the drive shafts is driven to rotate by a third motor 505 fixedly disposed on the proofing frame 501.

[0127] The proofing and storage structure includes two parallel bowl support rods 506, and several proofing bowls 504 are evenly distributed between the two bowl support rods 506. The ends of the two bowl support rods 506 are fixedly connected to each other by end plates 507. Each end plate 507 is provided with a T-shaped follower 508. The T-shaped follower 508 is rotatably connected to the second chain 503 through a hanging shaft 509.

[0128] The feeding mechanism includes a feeding frame 511 fixedly mounted on the proofing frame 501. A fixing bar 522 is fixedly mounted on the feeding frame 511. A first stop wheel 524, a second stop wheel 525, a third stop wheel 526, and a fourth stop wheel 527 are sequentially rotatably mounted on the fixing bar 522 along its length. When the proofing storage structure moves to the discharge port with the second chain 503, the stop wheels contact the T-shaped driven member, changing the T-shape. The movement direction of the T-shaped follower enables the proofing bowl to flip up and down, pouring out the dough. A stop box 510 is fixedly installed on the fixing strip 522, and a rotating shaft 523 is rotatably installed on the stop box 510. One end of the rotating shaft 523 is provided with a limit sliding shaft 521. The stop box 510 has an arc-shaped guide groove 520 for guiding the sliding of the limit sliding shaft 521. The other end of the rotating shaft 523 is provided with a rotating rod 519 for rotating and resetting the T-shaped follower 508. When the second chain 503 drives the proofing storage structure to the discharge port, the rotating rod 519, the first stop wheel 524, the second stop wheel 525, the third stop wheel 526, and the fourth stop wheel 527 enable the T-shaped follower 508 to drive the proofing bowl 504 to flip up and down and reset. When the proofing storage structure reaches the discharge port and completes unloading, the rotating rod, constrained by the arc-shaped guide groove, will rotate the T-shaped follower 508 to reset the dough. The driven component rotates and resets, returning the proofing bowl to its initial position. Below the feeding mechanism is a feeding chute 515, which receives the dough when the proofing bowl 504 is flipped. Located below the feeding mechanism, it receives the dough spilled out during the flipping of the proofing bowl, preventing it from scattering and guiding it into subsequent devices. Each feeding chute 515 has two unloading claws 516 on its bottom side, and the feeding frame 511 is equipped with an opening and closing drive assembly that drives the unloading claws 516 to open and close.

[0129] The opening and closing drive assembly includes two parallel opening and closing shafts 517. A first gear structure is provided between one end of the two opening and closing shafts 517. The first gear structure includes two meshing first gears 518. A deflecting rod 513 is fixedly connected to the other end of one of the opening and closing shafts 517. A first cylinder 512 for deflecting the deflecting rod 513 is provided on one side. A feeding conveyor 514 is provided below the unloading claw 516. The opening and closing drive assembly controls the opening and closing of the unloading claw 516, adjusts the dough falling speed and flow rate, and ensures that the dough falls smoothly onto the feeding conveyor.

[0130] See instruction manual attached Figure 26 , 27 As shown in 28, 29 and 30, the roller press 6 is mainly used to process dough. Through the centering and straightening mechanism 601, the flattening mechanism 603 and the roller pressing mechanism arranged in sequence, the dough is adjusted to a suitable position and initially flattened, and finally pressed into a flatbread, which is ready for subsequent food processing steps. The roller press 6 includes a roller conveyor 602, which provides a continuous conveying channel for the processing of dough, so that the dough can pass through the centering and straightening mechanism 601, the flattening mechanism 603 and the roller pressing mechanism in sequence to realize the automated processing flow of dough. The roller conveyor 602 is arranged in sequence along its conveying direction with a centering and straightening mechanism 601 that can adjust and center the position of the dough, a flattening mechanism 603 for initially flattening the dough and a roller pressing mechanism for pressing the dough into a flatbread.

[0131] The centering and straightening mechanism 601 includes a straightening bracket 601a, on which two straightening belt structures are arranged in a figure-eight shape. Each straightening belt structure includes two pulleys 601b, and a first straightening belt 601c is connected between the two pulleys 601b. One of the pulleys 601b of each straightening belt structure is driven to rotate by a straightening motor 601d fixedly mounted on the straightening bracket 601a. ​​When the dough is conveyed to the centering and straightening mechanism 601 on the roller conveyor 602, the rotation of the first straightening belt 601c will apply a lateral force to the dough, causing the dough to gradually move towards the center of the conveying channel, thereby achieving the adjustment and centering of the dough position.

[0132] The flattening mechanism 603 includes a flattening cover 603b, a flattening roller 603c rotatably mounted on the lower side of the flattening cover 603b, and a flattening motor 603a mounted on the flattening cover 603b for driving the flattening roller 603c to rotate. When the dough passes through the flattening mechanism 603, the rotation of the flattening roller 603c applies pressure to the dough, initially flattening it and making the dough thickness relatively uniform, thus creating better conditions for the subsequent rolling process.

[0133] The rolling mechanism includes a rolling press housing 604, on which three or more sets of rolling cylinders are mounted. Each set of rolling cylinders consists of a first rolling cylinder 607 and a second rolling cylinder 608. A rolling transmission structure 609 is provided between the first rolling cylinder 607 and the second rolling cylinder 608 to enable them to rotate synchronously in opposite directions. A rolling motor 605 is mounted on the rolling press housing 604 to drive the first rolling cylinder 607 to rotate via the rolling transmission structure 609. When the dough, after initial flattening, enters the rolling mechanism, the synchronous opposite rotation of the first rolling cylinder 607 and the second rolling cylinder 608 further compresses and stretches the dough, gradually pressing it into a flatbread that meets the requirements.

[0134] See instruction manual attached Figure 31 , Figure 32 , Figure 33 and Figure 34 As shown, the rolling machine 7 is mainly used to process dough into rolls and compact them to meet the needs of subsequent food processing. This function is achieved through the coordinated operation of components such as the lower rolling conveyor 701, the rolling mesh 707, and the upper rolling conveyor 702. The rolling machine 7 includes the lower rolling conveyor 701, which provides power and a channel for conveying the dough, allowing it to pass sequentially through the rolling mesh 707 and the upper rolling conveyor 702 at a set direction and speed, completing the rolling and compaction processes. The lower rolling conveyor 701 is equipped with the rolling mesh 707 for rolling the dough and the upper rolling conveyor 702 for compacting the rolled dough along its conveying direction. When the dough passes through the rolling mesh 707 driven by the lower rolling conveyor 701, the rolling mesh 707 applies a certain resistance and friction force to the dough, causing it to gradually roll into a roll shape as it moves forward. When the rolled dough enters the area between the upper rolling conveyor 702 and the lower rolling conveyor 701, the upper rolling conveyor 702 and the lower rolling conveyor 701 work together to apply pressure to the dough, making the dough roll more compact and ensuring the shape and quality of the roll.

[0135] The winding conveyor 702 is provided with first support frames 705 at both ends along its conveying direction, and two limit bars 709 are provided in parallel between the two first support frames 705.

[0136] An adjusting groove 713 is provided on the upper side of the first support frame 705. The length direction of the adjusting groove 713 is consistent with the width direction of the rolling lower conveyor 701. Two hanging rods 714 corresponding to the limiting stops 709 are slidably arranged in the adjusting groove 713. The lower ends of the hanging rods 714 are fixedly connected to the limiting stops 709. Their function is to limit the dough roll during the rolling process, prevent the dough roll from shifting to both sides during the transmission, and ensure the transmission path and forming effect of the dough roll. The lower ends of the hanging rods 714 are fixedly connected to the limiting stops 709, and the hanging rods 714 can slide in the adjusting groove 713. By adjusting the position of the hanging rods 714, the spacing of the limiting stops 709 can be adjusted to accommodate dough rolls of different sizes.

[0137] The lower conveyor 701 is equipped with a winding frame 703, and the winding mesh 707 is disposed between the winding frame 703 and the first support frame 705 located at the front. On the one hand, it provides installation and support for the winding mesh 707 to ensure the stability of the winding mesh 707. On the other hand, the winding frame 703 is associated with the flipping structure and the spacing adjustment assembly, and is an important component for realizing the flipping and spacing adjustment of the upper conveyor 702.

[0138] The lower conveyor 701 is equipped with a flipping structure that can flip the upper conveyor 702.

[0139] The flipping structure includes a fixed frame 715, with the upper winding conveyor 702 mounted on the fixed frame 715. A winding frame 703 is positioned above the fixed frame 715, and the winding frame 703 has a spacing adjustment component that allows adjustment of the distance between it and the fixed frame 715. One side of the winding frame 703 is hinged to the lower winding conveyor 701 via a hinge seat 711, and the other side is detachably connected to the lower winding conveyor 701 via a latch 708. This structural design allows the winding frame 703 to rotate around the hinge seat 711. When cleaning, maintenance, or parts replacement is required, the latch 708 can be opened to flip the winding frame 703 and the upper winding conveyor 702 together, facilitating operation.

[0140] The spacing adjustment assembly includes an adjusting screw 712 threadedly connected to the rolling frame 703. A handwheel 704 is located at the upper end of the adjusting screw 712, and the lower end of the adjusting screw 712 is rotatably connected to the fixed frame 715. By rotating the handwheel 704, the adjusting screw 712 can move up and down on the rolling frame 703, thereby driving the fixed frame 715 and the upper rolling conveyor 702 to move up and down, thus adjusting the spacing between the upper rolling conveyor 702 and the lower rolling conveyor 701. This spacing adjustment function can adjust the pressure of the upper rolling conveyor 702 on the dough roll according to different dough thicknesses and rolling requirements to achieve the best rolling and compaction effect. The lower rolling conveyor 701 is equipped with a nitrogen spring 710 that assists in the flipping drive of the rolling frame 703. When the latch 708 is opened for the flipping operation, the nitrogen spring 710 provides auxiliary driving force, reducing the operator's workload and making the flipping process easier and smoother.

[0141] See instruction manual attached Figure 35 , Figure 36 , Figure 37 , Figure 38 , Figure 39 , Figure 40 and Figure 41 As shown, the main function of the forming and straightening machine 8 is to perform a series of operations on the roll, including feeding, position correction, inspection, and folding and bending, to ensure that the roll achieves the required shape and positional accuracy. The forming and straightening machine 8 includes a forming and straightening frame and an internal third-chain drive mechanism for tilting and lifting the roll from bottom to top. A roll feeding structure is located on one side of the bottom of the third-chain drive mechanism. A transition roller 806 is located between the third-chain drive mechanism and the second straightening belt 9. The transition roller 806 smoothly transitions the roll from the third-chain drive mechanism to the second straightening belt 9, ensuring the continuity of roll conveying. A straightening mechanism is installed on the third-chain drive mechanism to correct the position of the roll. A vision camera 805 is installed on the forming and straightening frame to inspect the roll on the third-chain drive mechanism. This camera detects the roll's position, shape, and other parameters, providing feedback information for subsequent straightening operations. A pawl assembly for folding and bending the roll is located above the transition roller 806.

[0142] The dough roll feeding structure includes a rotating roller 813. One end of the rotating roller 813 is driven to rotate by a sixth motor 811 fixedly mounted on the forming and correcting frame. Several sets of transition claws 808 are evenly distributed around the central axis of the rotating roller 813 on its outer side. Each set includes several transition claws 808 evenly distributed along the axial direction of the rotating roller 813. When the rotating roller 813 rotates, the transition claws 808 grab the dough roll and convey it to the dough roll lifting plate 803 of the third chain drive mechanism, thus feeding the dough roll to the third chain drive mechanism. The first gap groove 812 on the dough roll lifting plate 803 engages with each transition claw 808, facilitating accurate placement of the dough roll onto the dough roll lifting plate 803 by the transition claws 808.

[0143] The third chain drive mechanism comprises two parallelly distributed third sprockets 801, which are meshed and connected by a third chain 802. A plurality of chain driven plates 826 are evenly distributed between the two third chains 802 along their transmission direction. Each chain driven plate 826 has a roll lifting hanger 803 that can be adjusted and moved axially along the third sprockets 801 under the drive of a correction mechanism. This hanger is used to mount the roll and, with the transmission of the third chain 802, drives the roll to move. The roll lifting hanger 803 has a J-shaped cross-section and a plurality of evenly distributed first clearance grooves 812 that mate with transition claws 808 along the axial direction of the third sprockets 801.

[0144] The correction mechanism includes a lead screw 822 rotatably mounted between two third sprockets 801, a lead screw nut 823 mounted on the lead screw 822, an active push plate 824 fixedly mounted on the lead screw nut 823, driven push plates 821 distributed on both sides of the active push plate 824 mounted on the roll lifting hanger 803, and a positioning motor 804 mounted on the forming correction frame. The output shaft of the positioning motor 804 is connected to one end of the lead screw 822 via a gear transmission mechanism 820. Through the above specific structural design, the positioning motor 804 drives the lead screw 822 to rotate via the gear transmission mechanism 820, and the lead screw nut 823 moves on the lead screw 822, thereby driving the active push plate 824 to move. The driven push plates 821 on both sides of the active push plate 824 are set on the roll lifting hanger 803. When the active push plate 824 moves, it will push the driven push plates 821, thereby causing the roll lifting hanger 803 to move along the axial direction of the third sprocket 801, realizing the correction of the roll position and ensuring the accurate position of the roll on the third chain drive mechanism.

[0145] The forming and correcting frame is equipped with a fourth motor 807 for driving the transition roller 806 to rotate. The deflector assembly includes a deflector 819 hinged to the forming and correcting frame, which can block and guide the roll as it passes by, and work with the deflector 817 to achieve the folding and bending operation of the roll. The forming and correcting frame is equipped with a second cylinder 818 for driving the deflector 819 to rotate hingedly.

[0146] Two first turntables 816 are symmetrically distributed on both sides of the stop pawl 819, with the stop pawl 819 as the center. The two first turntables 816 are arranged in an inclined V-shape. Each first turntable 816 is provided with two pawls 817 symmetrically distributed with the rotation axis as the center. The pawls 817 have a J-shaped outline. On the opposite side of the two first turntables 816, there are linear adjustment structures 809 for adjusting the distance between them. The push rod head of the linear adjustment structure 809 is rotatably connected to the first turntable 816 through a rotary joint 814. A fifth motor 825 is installed on the forming and correcting frame to drive the first turntable 816 to rotate. The output shaft of the fifth motor 825 is connected to the first turntable 816 via a toothed belt drive structure, and the first turntable 816 and the driven shaft of the toothed belt drive structure are connected by a universal joint 815. The fifth motor 825 drives the first turntable 816 to rotate via the toothed belt drive structure. When the first turntable 816 rotates, the pawls 817 apply force to the roll and move closer together, cooperating with the stop pawls 819 to achieve the folding and bending of the roll. A linear adjustment structure 809 is used to adjust the distance between the two first turntables 816 to adapt to the processing requirements of rolls of different sizes. The rotary joint 814 and the universal joint 815 ensure flexibility and stability during the transmission process.

[0147] Two arc-shaped guide plates 810 are symmetrically distributed on both sides of the stop claw 819, with the arc-shaped guide plates 810 fixedly mounted on the forming and correction frame. The arc-shaped guide plates 810 play a guiding role during the folding and bending process of the roll, so that the roll moves along a predetermined trajectory and ensures the folding and bending effect.

[0148] See instruction manual attached Figure 42 and Figure 43As shown, the main function of the second straightening belt 9 is to receive the dough rolls conveyed from the forming and straightening machine 8, cut them, adjust their position and guide them so that the dough rolls can enter the next process in a suitable posture and position. The second alignment belt 9 includes an alignment frame, within which an alignment bracket 901 is installed. A swing support shaft 904 is provided on one side of the bottom of the alignment bracket 901 to support its rotation, providing a pivot point for the alignment bracket 901 to swing around the swing support shaft 904. A deflection drive mechanism is provided on the other side of the bottom of the alignment bracket 901 to reciprocate around the swing support shaft 904. A lower swing transmission 907 is installed on the upper side of the alignment bracket 901, and side swing transmissions 902 are installed on both sides of the lower swing transmission 907. The two side swing transmissions 902 are arranged in a V-shape with their wide ends facing the forming and correcting machine 8. A cutting machine 906 is installed at the wide end openings of the two side swing transmissions 902 to cut the roll into suitable lengths to meet the needs of subsequent processing. Two guide plates 908 are provided at the narrow end openings of the two side swing conveyors 902; the side swing conveyors 902 swing together with the straightening bracket 901 when they swing, which can guide and straighten the face roll, so that the face roll is gradually adjusted to the appropriate position during the conveying process.

[0149] A rotating support beam 905 is fixedly installed on the aligning frame, and a swing support shaft 904 is rotatably connected to the rotating support beam 905 via a bearing.

[0150] The deflection drive mechanism includes a swing motor 903. The output shaft of the swing motor 903 is connected to a second turntable 909. One end of a drive push rod 910 is rotatably connected to the eccentric position of the second turntable 909. The other end of the drive push rod 910 is rotatably connected to a leveling bracket 901. The bottom side of the leveling bracket 901 is provided with two or more support wheels 911 for rolling support during its swing. This provides rolling support for the swing of the leveling bracket 901, reducing friction during the swing process and ensuring smooth swinging.

[0151] The main function of the tray-laying assembly 10 is to arrange the dough rolls after they have been processed by the second straightening belt 9 on the tray. The tray-laying assembly 10 includes a tray-laying frame 1001, within which a front baffle 1002 and a rear baffle 1004 are respectively arranged. Several evenly distributed partitions 1005 are arranged between the front baffle 1002 and the rear baffle 1004, with all partitions 1005 located on the rear baffle 1004. In practical applications, the front baffle 1002, the rear baffle 1004, and the partitions 1005 together form multiple spaces for arranging the dough rolls, allowing them to be neatly arranged. A translation rod 1007 is respectively provided on the opposite side of the front baffle 1002 and the rear baffle 1004. The bottom of the 07 is provided with a base plate 1006. The swivel frame 1001 is provided with a third cylinder 1003 for adjusting the distance between the two translation rods 1007. The swivel frame 1001 is provided with two or more guide rods 1008 for guiding the translation rods 1007. The two ends of the translation rods 1007 are provided with guide holes for cooperating with the guide rods 1008 to slide. When the push rod of the third cylinder 1003 reaches the minimum stroke, the two base plates 1006 abut against each other and close. When the push rod of the third cylinder 1003 reaches the maximum stroke, the two base plates 1006 move away from each other and open.

[0152] See instruction manual attached Figure 44 , Figure 45 , Figure 46 and Figure 47 As shown, the transition mechanism 22 is mainly used for the transition conveying and position adjustment of dough between the dough rounding machine 3 and the feeding machine 4. The transition mechanism 22 includes a transition frame 2001, within which a transition wheel 2002 and several dial wheels 2003 are rotatably arranged. The outer side of the transition wheel 2002 has four or more transition material placement grooves 2010 evenly distributed around its rotation axis. The transition material placement grooves 2010 are used to hold the dough. When the transition wheel 2002 rotates, it can convey the dough from one position to another, realizing the transition of dough between different processes or equipment. The outer side of the transition wheel 2002 has second gap grooves 2012 along its axis, corresponding one-to-one with the dial wheels 2003, for... The rotation of wheel 2003 and its cooperation with transition wheel 2002 provide space. A dial wheel shaft 2004 is provided at the rotation axis of dial wheel 2003. An eighth motor 2011 is provided on transition frame 2001. The output shaft end of the eighth motor 2011 is connected to one of the shaft ends of transition wheel 2002 through fourth chain transmission mechanism 2008. The other shaft end of transition wheel 2002 is connected to the end of dial wheel shaft 2004 through fifth chain transmission mechanism 2009. Through the above specific structural design, the linkage between transition wheel 2002 and dial wheel 2003 can play a role in assisting the material to move in the transition material storage trough 2010, adjusting the material position, or preventing material accumulation during the material transition process.

[0153] The transition wheel 2002 is provided with side barriers 2005 on both sides along its axial direction, and a front barrier 2006 is provided on the side opposite to the turntable 2003. The side barriers 2005 and the front barrier 2006 are respectively provided with position adjustment structures 2007 for adjusting their positions. Through the above specific structural design, the material can be prevented from falling from the side or front of the transition wheel 2002 during the transition process, which plays the role of barrier and protection, and ensures that the material can be stably conveyed in the transition material trough 2010.

[0154] The position adjustment structure 2007 includes an adjusting slide 2007a, which has an opening slot 2007b. A setter bolt 2007c is located at the opening slot 2007b to securely connect the adjusting slide 2007a to the transition frame 2001. The setter bolt 2007c passes through the opening slot 2007b, securing the adjusting slide 2007a to the transition frame 2001. When the position of the enclosure needs to be adjusted, the setter bolt 2007c is loosened, allowing the adjusting slide 2007a to slide within the range of the opening slot 2007b, thereby adjusting the position of the enclosure to accommodate materials of different sizes or conveying requirements. After adjustment, the setter bolt 2007c is tightened to fix the enclosure in the appropriate position.

[0155] The working principle of this utility model:

[0156] Lifting and Segmentation:

[0157] The lifting column 102 of the elevator 1 drives the rotating support 107 to rise and fall, and the rotating motor 106 drives it to rotate. The dough bucket 111 on the carriage 103 is connected to the rotating support 107 through a plug-in structure composed of a plug rod 108 and a plug cylinder 105. The dough in the dough bucket 111 enters the vacuum divider 2 through the guide slide plate 109. The vacuum divider 2 receives the dough through the funnel 202 and divides it into several small dough balls in the divider body 201. The dough balls are then sent out by the first discharge conveyor 203 to the first conveyor 11. The first conveyor 11 is a three-stage conveyor used to adjust and control the spacing between the dough balls, so that the dough balls are transported forward in a queue and the spacing between the dough balls is not too close.

[0158] Complete circle processing:

[0159] After being divided, the small dough balls are conveyed by the first conveyor 11 to the dough rounding machine 3. The first motor 313 drives the rounding roller 305 to rotate, which in turn works with the rounding plate 307 to move the dough spiral upward. The outer spirally distributed blade seats 306 and the rounding plate 307 round the dough. The gap adjustment structure 304 includes an adjusting sleeve 304b, an adjusting sleeve 304e, an adjusting shaft 304f, a push plate 304g, an adjusting screw 304c, and a knob 304d, which can adjust the gap between the blade seats 306 and the rounding roller 305. The locking structure 312, composed of two locking plates and locking bolts, fixes the rounding plate 307. The hopper 308 at the uppermost part of the rounding plate 307 collects the rounded dough and guides it to the second conveyor 12. The second conveyor 12 is an arc belt conveyor used to guide the dough to the transition mechanism 20. The second conveyor 12 is equipped with a fourth flour sprinkler 19.

[0160] Feeding and proofing:

[0161] The eighth motor 2011 of the transition mechanism 20 drives the transition wheel 2002 to rotate via the fourth chain drive mechanism 2008. The transition wheel 2002 drives the dial wheel 2003 to rotate via the fifth chain drive mechanism 2009. The transition feeding trough 2010 on the transition wheel 2002 holds the dough introduced by the second conveyor 12, and the dial wheel 2003 assists the dough in entering the transition feeding trough 2010. The side barrier 2005 prevents the dough from falling, and the front barrier 2006 is used to block the dough so that it enters the feeding bowl 405 of the feeder 4 at a fixed point. The position adjustment structure 2007 includes an adjusting slide 2007a, an opening slot 2007b, and a set bolt 2007c, which can adjust its position. The second motor 402 of the feeder 4 drives the first chain drive mechanism, which consists of two first sprockets 403 and a first chain 404, to move the feeding bowl 405. On the straight section of chain 404, the feeding bowl 405 can be flipped over by the bowl shaft 416 to unload the dough. On the lower straight section, the dough is held in position by a locking structure consisting of a locking protrusion 414 and a locking rod 413. The dropping support structure includes a dropping support guide rail 408 and a dropping notch 409, which allows the feeding bowl 405 to flip at a specific position, so that the dough falls into the guide groove 406 and enters the proofing bowl 504 of the proofing machine 5. The third motor 505 of the proofing machine 5 drives the second chain transmission mechanism, which consists of several second sprockets 502 and a second chain 503, to move the proofing storage structure, which consists of a bowl support rod 506, a proofing bowl 504, an end plate 507, and a T-shaped follower 508. The dough is placed in the proofing bowl 504 for proofing. When it reaches the discharge port, the feeding mechanism flips the proofing bowl 504, and the dough falls into the feeding conveyor 514 through the feeding hopper 515. The unloading claw 516 is controlled by the opening and closing drive assembly consisting of the opening and closing shaft 517, the first gear 518, the deflection rod 513 and the first cylinder 512. A third conveyor 13 is provided between the feeding conveyor 514 and the roller press 6.

[0162] Roll forming process:

[0163] The roller conveyor 602 of the roller press 6 transports the dough. The centering and leveling mechanism 601 includes a leveling bracket 601a, a pulley 601b, a first leveling belt 601c, and a leveling motor 601d. The leveling motor 601d drives the first leveling belt 601c to rotate, adjusting the dough position to be centered. The flattening mechanism 603 includes a flattening cover 603b, a flattening roller 603c, and a flattening motor 603a. The flattening motor 603a drives the flattening roller 603c to rotate, initially flattening the dough. The rolling mechanism includes a rolling press housing 604, a first rolling cylinder 607, a second rolling cylinder 608, a rolling transmission structure 609, and a rolling motor 605. The rolling motor 605 drives the first and second rolling cylinders 607 and 608 to rotate synchronously in opposite directions through the rolling transmission structure 609, gradually pressing the dough into a flatbread. A fourth conveyor 14 is provided between the rolling press 6 and the rolling machine 7. A fifth conveyor 15 is provided below the rolling conveyor 701 for conveying the tray. A first flour sprinkler 16 is provided on the rolling conveyor 602, and a second flour sprinkler 17 is provided on the fourth conveyor 14, for sprinkling flour on both sides of the pressed flatbread.

[0164] Rolling process:

[0165] The lower conveyor 701 of the rolling machine 7 transports the dough sheet, and the rolling net 707 rolls the dough sheet into a roll. The lower conveyor 701 works in conjunction with the upper conveyor 702 to compact the dough roll. The spacing adjustment assembly, consisting of an adjusting screw 712 and a handwheel 704, can adjust the spacing between the upper conveyor 702 and the lower conveyor 701. The flipping structure, consisting of a fixed frame 715, a hinge seat 711, a buckle 708, and a nitrogen spring 710, can flip the upper conveyor 702. The nitrogen spring 710 assists in the flipping. A third flour sprinkler 18 is installed above the rolling net 707 for sprinkling flour during the rolling process.

[0166] Molding correction:

[0167] The sixth motor 811 of the forming and straightening machine 8 drives the rotating roller 813 to rotate. The transition claw 808 on the rotating roller 813 feeds material to the third chain transmission mechanism, which consists of two third sprockets 801 and a third chain 802. The vision camera 805 detects the roll, and the shifting motor 804 of the third chain transmission mechanism drives the lead screw 822 to rotate through the gear transmission mechanism 820. The lead screw nut 823 drives the active push plate 824 to move, and the driven push plate 821 moves accordingly to correct the position of the roll. The fourth motor 807 drives the transition roller 806 to rotate, the second cylinder 818 drives the stop claw 819 to rotate, and the fifth motor 825 drives the component consisting of the first turntable 816 and the shift claw 817 to rotate through the toothed belt transmission structure, performing a W-shaped folding bend on the roll that has passed through the transition roller 806. The arc-shaped guide plate 810 assists in the movement of the roll.

[0168] Cutting process:

[0169] The lower swing conveyor 907 and the side swing conveyor 902 convey the roll of dough. The cutter 906 cuts the roll of dough at the wide end opening of the side swing conveyor 902. The guide plate 908 guides the roll of dough to move after cutting. The swing motor 903 of the second straightening belt 9 drives the second turntable 909 to rotate. The straightening bracket 901 is deflected back and forth about the swing support shaft 904 by the drive push rod 910, thereby conveying the dough to the chambers formed between the partitions 1005 respectively.

[0170] Plating:

[0171] The third cylinder 1003 of the tray arrangement assembly 10 adjusts the distance between the two translation rods 1007, thereby controlling the opening and closing of the base plate 1006. The partition 1005 separates the front baffle 1002 and the rear baffle 1004, and the roll falls into the tray body conveyed on the fifth conveyor 15, thus realizing the tray arrangement.

[0172] The conveyor assembly consists of a first discharge conveyor 203, a discharge conveyor 514, a roller press conveyor 602, a rolling lower conveyor 701, a lower swing conveyor 907, a first conveyor 11, a second conveyor 12, a third conveyor 13, a fourth conveyor 14, and a fifth conveyor 15.

[0173] The above description is merely a specific embodiment of this utility model, but the protection scope of this utility model is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in this utility model should be included within the protection scope of this utility model. Therefore, the protection scope of this utility model should be determined by the protection scope of the claims.

Claims

1. A high-moisture toast bread forming production equipment, characterized in that: The system includes a conveyor assembly, on which are arranged sequentially along the conveying direction a vacuum divider (2) for dividing the whole dough into several small dough balls, a dough rounding machine (3) for rounding the dough, a proofing machine (5) for proofing the dough, a roller press (6) for rolling the dough into a flatbread, a rolling machine (7) for rolling the flatbread into a tight stick-shaped dough roll, a forming and straightening machine (8) for visually correcting the position of the dough roll and arranging the feed at equal intervals, a second straightening belt (9) for folding and cutting the dough roll and being able to adjust the discharge angle, and a tray assembly (10) for arranging and plating the cut dough roll. The conveyor assembly is provided with a lifting machine (1) at its head end along its conveying direction for lifting the dough as a whole upward and sending it to the vacuum dividing mechanism. A feeding machine (4) is provided between the dough rounding machine (3) and the proofing machine (5) to orderly feed the dough into the proofing machine (5), wherein the feeding machine (4) is provided with a transition mechanism (22) that can orderly transfer and feed the dough.

2. The high-moisture toast bread forming production equipment according to claim 1, characterized in that: The hoist (1) includes a base (101) and a carriage (103). A rotating bracket (107) is provided on the hoist (1). A lifting column (102) is provided on the hoist (1) to drive the rotating bracket (107) to move up and down. A lifting slider is provided on the lifting column (102). A rotary motor (106) is fixedly provided on the lifting slider to drive the rotating bracket (107) to rotate up and down. A dough bucket (111) is provided on the carriage (103). A plug-in structure that can be detachably connected to the carriage (103) is provided on the rotating bracket (107). A vacuum divider (2) is provided on one side of the hoist (1). The plug-in structure includes two parallel plug rods (108), one end of which is fixedly connected to the rotating bracket (107), and the other end of which forms a pointed tip. A plug cylinder (105) for inserting the plug rods (108) is fixedly provided on the seat (103), and a positioning groove (110) for positioning the seat (103) is provided on the seat (103). The bottom side of the seat (103) is provided with three or more movable wheels (104), the upper side of the seat (103) is provided with a push handle (112), and the upper other side of the seat (103) is provided with a guide slide plate (109). The cross-sectional shape of the guide slide plate (109) is arc-shaped. The vacuum divider (2) includes a divider body (201), a funnel (202) is provided on the upper side of the divider body (201), a discharge port is formed on the divider body (201), and a first discharge conveyor (203) is provided at the discharge port.

3. The high-moisture toast bread forming production equipment according to claim 1, characterized in that: The dough rounding machine (3) includes a support base (301), with support feet (302) at the four corners of the support base (301). A rounding roller (305) is rotatably mounted on the support base (301). A first motor (313) for driving the rounding roller (305) to rotate is mounted on the support base (301). Several blade seats (306) are spirally distributed around the outer side of the rounding roller (305) with its rotation axis as the center. Several rounding plates (307) are mounted on each blade seat (306). A gap adjustment structure (304) for adjusting the gap between the blade seat (306) and the rounding roller (305) is mounted on one side of each blade seat (306). The outer side of the rounding roller (305) is provided with four or more columns (303) evenly distributed around its central axis. An upper seat plate (310) is provided between the top ends of the columns (303). The gap adjustment structure (304) is provided on the columns (303). The gap adjustment structure (304) includes an adjustment sleeve (304b), an adjustment sleeve (304e) is provided at one end of the adjustment sleeve (304b) facing the blade seat (306), an adjustment shaft (304f) is slidably arranged inside the adjustment sleeve (304e), a push plate (304g) is fixedly arranged at the upper end of the adjustment shaft (304f) for fixed support to the bottom side of the blade seat (306), an adjustment slider is slidably arranged inside one end of the adjustment sleeve (304b) and fixedly connected to the adjustment sleeve (304e), an adjustment screw (304c) is rotatably arranged inside the adjustment sleeve (304e) and threadedly connected to the adjustment slider, and a knob (304d) is provided at the end of the adjustment screw (304c). Each rounding plate (307) is mounted on the blade seat (306) by a locking structure (312), and the rounding plate (307) has rounding patterns (311) formed on the side surface facing the rounding roller (305). The locking structure (312) includes two locking plates with an arc shape. The ends of the two locking plates that are opposite to each other are fixedly connected to the blade seat (306) and the rounding plate (307) respectively. The ends of the two locking plates that are close to each other are provided with an arc-shaped locking groove. A locking bolt that can pass through the arc-shaped locking groove is provided between the two locking plates for locking and fixing. A hopper (308) is provided at the uppermost section of the rounding plate (307). The hopper (308) is fixedly mounted on the column (303) by a crossbar (309). The cross-sectional shape of the hopper (308) is U-shaped.

4. The high-moisture toast bread forming production equipment according to claim 1, characterized in that: The feeding machine (4) includes a feeding frame (401). Two parallel first chain drive mechanisms are arranged within the feeding frame (401). Between the two first chain drive mechanisms, several sets of feeding bowls (405) are evenly distributed along their transmission direction. Each set includes several feeding bowls (405). Each feeding bowl (405) has a bowl fixing plate (410) fixed between the two first chain drive mechanisms on one side. Each feeding bowl (405) is rotatably mounted on the corresponding bowl fixing plate (410) via a bowl rotation shaft (416). On the 0), a locking structure is provided between adjacent feeding bowls (405). On the straight section of the chain (404) of the first chain drive mechanism, the feeding bowls (405) can be rotated downward by ninety degrees through the bowl rotation shaft (416). On the lower straight section of the chain (404), the feeding bowls (405) can keep their positions from rotating through the locking structure. The feeding frame (401) is provided with a dropping support structure that enables the partial feeding bowls (405) that move on the upper straight section of the chain (404) to be rotated. The first chain drive mechanism includes two first sprockets (403), which are connected to each other by a first chain (404). The first sprockets (403) at the same end of the two first chain drive mechanisms are connected to each other by a connecting shaft. A guide wheel (412) is provided between the first sprockets (403) at the same end, which can realize the reset of the feeding bowl (405). A second motor (402) capable of driving the shaft to rotate is provided at the end of one of the connecting shafts. The material feeding support structure includes several material feeding support guide rails (408) that are arranged in a cross-over manner. A material feeding notch (409) is formed between two adjacent material feeding support guide rails (408). Rollers (411) are rotatably arranged on the feeding bowl (405) through a wheel shaft (417). The rollers (411) on two adjacent feeding bowls (405) are distributed on opposite sides. The number of feeding bowls (405) in each group is consistent with the number of material feeding notches (409). The rollers (411) on each group of feeding bowls (405) and the material feeding notches (409) correspond to each other one by one. Each of the material dropping notch slots (409) is provided with a corresponding material guide slot (406) below it. Each material guide slot (406) is fixedly connected to each other by a fixing rod (407), and the fixing rod (407) is fixedly installed on the feeding frame (401). The feeding bowl (405) has an opening on the side near its upper roller (411), and the feeding bowl (405) has protrusions (414) on both sides of the opening. The bowl fixing plate (410) is fixedly provided with a locking rod (413) that cooperates with the locking protrusion (414) for locking. The feeding bowl (405) has an angle support block (415) on the side near the wheel shaft (417) that can be limited to the bowl fixing plate (410).

5. The high-moisture toast bread forming production equipment according to claim 1, characterized in that: The proofing machine (5) includes a proofing frame (501), and two parallel second chain drive mechanisms are provided inside the proofing frame (501). A plurality of proofing storage structures are evenly distributed between the two second chain drive mechanisms along their transmission direction. The proofing frame (501) is provided with a discharge port, and a feeding mechanism is provided at the discharge port. When the second chain drive mechanism drives the proofing storage structure to move to the discharge port, the feeding mechanism can realize the proofing storage structure to flip over and export the dough. The second chain drive mechanism includes a plurality of second sprockets (502) rotatably disposed within the proofing frame (501). The second sprockets (502) are meshed with each other and connected by a second chain (503). The corresponding second sprockets (502) of the two second chain drive mechanisms are connected to each other by a drive shaft, and the end of one of the drive shafts is driven to rotate by a third motor (505) fixedly disposed on the proofing frame (501). The proofing and storage structure includes two parallel bowl support rods (506), and a number of proofing bowls (504) are evenly distributed between the two bowl support rods (506). The ends of the two bowl support rods (506) are fixedly connected to each other with end plates (507). Each end plate (507) is provided with a T-shaped follower (508). The T-shaped follower (508) is rotatably connected to the second chain (503) through a hanging shaft (509). The feeding mechanism includes a feeding frame (511) fixedly mounted on a proofing frame (501). A fixing strip (522) is fixedly mounted on the feeding frame (511). A first stop wheel (524), a second stop wheel (525), a third stop wheel (526), ​​and a fourth stop wheel (527) are rotatably mounted on the fixing strip (522) along its length. A stop box (510) is fixedly mounted on the fixing strip (522). A rotary shaft (523) is rotatably mounted on the stop box (510). One end of the rotary shaft (523) is provided with a limit sliding shaft (521). An arc-shaped guide groove (520) is provided on the stop box (510) for guiding the sliding of the limit sliding shaft (521). The other end of the rotary shaft (523) is... The end is provided with a rotary rod (519) for rotating and resetting the T-shaped follower (508). When the second chain (503) drives the proofing storage structure to move to the discharge port, the rotary rod (519), the first stop wheel (524), the second stop wheel (525), the third stop wheel (526) and the fourth stop wheel (527) can enable the T-shaped follower (508) to drive the proofing bowl (504) to flip up and down and reset. Below the feeding mechanism, there is a feeding chute (515) that can receive the dough when the proofing bowl (504) is flipped. Each feeding chute (515) has two unloading claws (516) on its bottom side. The feeding frame (511) is provided with an opening and closing drive assembly that can drive the unloading claws (516) to open and close. The opening and closing drive assembly includes two parallel opening and closing shafts (517). A first gear structure is provided between one end of the two opening and closing shafts (517). The first gear structure includes two meshing first gears (518). A deflection rod (513) is fixedly connected to the other end of one of the opening and closing shafts (517). A first cylinder (512) for deflecting drive is provided on one side of the deflection rod (513). A material unloading conveyor (514) is provided below the unloading claw (516).

6. The high-moisture toast bread forming production equipment according to claim 1, characterized in that: The roller press (6) includes a roller press conveyor (602), which is provided in sequence along its conveying direction with a centering and straightening mechanism (601) for adjusting and centering the position of the dough, a flattening mechanism (603) for initially flattening the dough, and a roller pressing mechanism for pressing the dough into a flat cake. The centering and straightening mechanism (601) includes a straightening bracket (601a), on which two straightening belt structures are arranged in a figure-eight shape. The straightening belt structure includes two pulleys (601b), and a first straightening belt (601c) is connected between the two pulleys (601b). One of the pulleys (601b) of each straightening belt structure is driven to rotate by a straightening motor (601d) fixedly installed on the straightening bracket (601a). The flattening mechanism (603) includes a flattening cover (603b), a flattening roller (603c) is rotatably disposed on the lower side of the flattening cover (603b), and a flattening motor (603a) for driving the flattening roller (603c) to rotate is disposed on the flattening cover (603b). The roller pressing mechanism includes a roller press housing (604), on which three or more sets of roller press cylinders are provided. Each set of roller press cylinders consists of a first roller press cylinder (607) and a second roller press cylinder (608). A roller pressing transmission structure (609) capable of synchronously rotating in opposite directions is provided between the first roller press cylinder (607) and the second roller press cylinder (608). A roller pressing motor (605) capable of driving the first roller press cylinder (607) to rotate through the roller pressing transmission structure (609) is provided on the roller press housing (604).

7. The high-moisture toast bread forming production equipment according to claim 1, characterized in that: The rolling machine (7) includes a rolling lower conveyor (701), and the rolling lower conveyor (701) is provided with a rolling net (707) for rolling the dough into rolls and a rolling upper conveyor (702) for pressing the dough into rolls along its conveying direction. The winding conveyor (702) is provided with first support frames (705) at both ends along its transmission direction, and two limit bars (709) are provided in parallel between the two first support frames (705). An adjustment groove (713) is provided on the upper side of the first support frame (705). The length direction of the adjustment groove (713) is consistent with the width direction of the rolling lower conveyor (701). Two hanging rods (714) corresponding to the limit stop (709) are slidably arranged in the adjustment groove (713). The lower end of the hanging rod (714) is fixedly connected to the limit stop (709). The rolling conveyor (701) is provided with a rolling frame (703), and the rolling net (707) is disposed between the rolling frame (703) and the first support frame (705) located on the front side. The lower conveyor (701) is provided with a flipping structure that can flip the upper conveyor (702); The flipping structure includes a fixed frame (715), the upper conveyor (702) is mounted on the fixed frame (715), a rolling frame (703) is mounted above the fixed frame (715), and a spacing adjustment component is mounted on the rolling frame (703) to adjust the distance between the fixed frame (715) and the frame. One side of the rolling frame (703) is hinged to the lower conveyor (701) via a hinge seat (711), and the other side of the rolling frame (703) is detachably connected to the lower conveyor (701) via a buckle (708). The spacing adjustment assembly includes an adjustment screw (712) threadedly connected to the rolling frame (703), the upper end of the adjustment screw (712) is provided with a handwheel (704), the lower end of the adjustment screw (712) is rotatably connected to the fixing frame (715), and the rolling lower conveyor (701) is provided with a nitrogen spring (710) that can assist in the flipping drive of the rolling frame (703).

8. The high-moisture toast bread forming production equipment according to claim 1, characterized in that: The forming and correcting machine (8) includes a forming and correcting frame and a third chain drive mechanism inside it for lifting the face roll from bottom to top. A face roll feeding structure for feeding material to the bottom side of the third chain drive mechanism is provided. A transition roller (806) is provided between the third chain drive mechanism and the second straightening belt (9). A correcting mechanism for correcting the position of the face roll is provided on the third chain drive mechanism. A vision camera (805) for detecting the face roll on the third chain drive mechanism is provided on the forming and correcting frame. A pawl assembly for folding and bending the face roll is provided above the transition roller (806). The dough roll feeding structure includes a rotating roller (813). One end of the rotating roller (813) is driven to rotate by a sixth motor (811) fixedly mounted on the forming correction frame. The outer side of the rotating roller (813) is provided with several sets of transition claws (808) evenly distributed around its central axis. Each set includes several transition claws (808) evenly distributed along the axial direction of the rotating roller (813). The third chain drive mechanism has two parallel distributions. The third chain drive mechanism includes two third sprockets (801). The two third sprockets (801) are meshed and connected to each other by a third chain (802). A number of chain driven plates (826) are evenly distributed between the two third chains (802) along their transmission direction. The chain driven rod (826) is provided with a roll lifting hanger (803) that can be adjusted by moving along the axial direction of the third sprocket (801) under the drive of the correction mechanism. The roll lifting hanger (803) has a J-shaped cross-section. The roll lifting hanger (803) has a number of evenly distributed first gap grooves (812) that cooperate one-to-one with the transition claws (808) along the axial direction of the third sprocket (801). The correction mechanism includes a lead screw (822) rotatably disposed between two third sprockets (801), a lead screw nut (823) disposed on the lead screw (822), an active push plate (824) fixedly disposed on the lead screw nut (823), a driven push plate (821) distributed on both sides of the active push plate (824) disposed on the roll lifting hanging plate (803), and a positioning motor (804) disposed on the forming correction frame. The output shaft end of the positioning motor (804) is connected to one end of the lead screw (822) through a gear transmission mechanism (820). The forming correction frame is provided with a fourth motor (807) for driving the transition roller (806) to rotate. The deflector assembly includes a deflector (819) hinged on the forming correction frame. The forming correction frame is provided with a second cylinder (818) for driving the deflector (819) to rotate hingedly. The stop pawl (819) has two first turntables (816) symmetrically distributed around it on both sides. The two first turntables (816) are arranged in an inclined figure-eight shape. Each first turntable (816) has two pawls (817) symmetrically distributed around its rotation axis. The pawls (817) have a J-shaped outline. The two first turntables (816) are respectively provided with a linear adjustment structure (809) for adjusting the distance between them on opposite sides. The push rod head of the linear adjustment structure (809) is rotatably connected to the first turntable (816) through a rotary joint (814). The forming correction frame is provided with a fifth motor (825) for driving the first turntable (816) to rotate. The output shaft of the fifth motor (825) is connected to the first turntable (816) through a toothed belt drive structure. The first turntable (816) and the driven shaft of the toothed belt drive structure are connected to each other by a universal joint (815). The stop claw (819) has two arc-shaped guide plates (810) symmetrically distributed on both sides with the stop claw (819) as the center. The arc-shaped guide plates (810) are fixedly mounted on the forming correction frame.

9. The high-moisture toast bread forming production equipment according to claim 1, characterized in that: The second alignment belt (9) includes an alignment frame, in which an alignment bracket (901) is provided. A swing support shaft (904) for supporting and rotating the alignment bracket (901) is provided on one side of the bottom of the alignment bracket (901). A deflection drive mechanism for reciprocating and deflecting the alignment bracket (901) around the swing support shaft (904) is provided on the other side of the bottom of the alignment bracket (901). A lower swing transmission machine (907) is provided on the upper side of the alignment bracket (901). Side swing transmission machines (902) are provided on both sides of the lower swing transmission machine (907). The two side swing transmission machines (902) are arranged in a figure-eight shape with their wide ends facing the forming and correcting machine (8). A cutting machine (906) for cutting the roll is provided at the wide end opening of the two side swing transmission machines (902). Two guide plates (908) are provided at the narrow end opening of the two side swing transmission machines (902). A rotating support beam (905) is fixedly installed on the straightening frame, and the swing support shaft (904) is rotatably connected to the rotating support beam (905) through a bearing; The deflection drive mechanism includes a swing motor (903), the output shaft of which is connected to a second turntable (909). The eccentric position of the second turntable (909) is rotatably connected to one end of a drive push rod (910), and the other end of the drive push rod (910) is rotatably connected to the leveling bracket (901). The bottom side of the leveling bracket (901) is provided with two or more support wheels (911) for rolling support of its swing. The tray arrangement assembly (10) includes a tray frame (1001), within which a front baffle (1002) and a rear baffle (1004) are respectively arranged. A plurality of evenly distributed partitions (1005) are arranged between the front baffle (1002) and the rear baffle (1004), with each partition (1005) positioned on the rear baffle (1004). A translation rod (1007) is provided on each of the opposite sides of the front baffle (1002) and the rear baffle (1004). A base plate (1006) is provided on the bottom side of each of the two translation rods (1007). The tray frame (1001)... 1) A third cylinder (1003) is provided on the plate for adjusting the distance between the two translation rods (1007). The plate frame (1001) is provided with two or more guide rods (1008) for guiding the translation rods (1007) to move. The translation rods (1007) have guide holes at both ends for guiding the guide rods (1008) to slide. When the push rod of the third cylinder (1003) reaches the minimum stroke, the two bottom plates (1006) abut against each other and close. When the push rod of the third cylinder (1003) reaches the maximum stroke, the two bottom plates (1006) move away from each other and open.

10. The high-moisture toast bread forming production equipment according to claim 1, characterized in that: The transition mechanism (22) includes a transition frame (2001), in which a transition wheel (2002) and several dial wheels (2003) are rotatably arranged. The outer side of the transition wheel (2002) is provided with four or more transition material slots (2010) evenly distributed around its rotation axis. The outer side of the transition wheel (2002) is provided with a second gap slot (2012) corresponding to the dial wheel (2003) along its axis. The rotation axis of the dial wheel (2003) is provided with a dial wheel shaft (2004). The transition frame (2001) is provided with an eighth motor (2011). The output shaft end of the eighth motor (2011) is connected to one of the shaft ends of the transition wheel (2002) through a fourth chain transmission mechanism (2008). The other shaft end of the transition wheel (2002) is connected to the end of the dial wheel shaft (2004) through a fifth chain transmission mechanism (2009). The transition wheel (2002) is provided with side barriers (2005) on both sides along its axial direction, and a front barrier (2006) is provided on the side opposite to the dial wheel (2003). The side barriers (2005) and the front barrier (2006) are respectively provided with position adjustment structures (2007) for adjusting their positions. The position adjustment structure (2007) includes an adjustment slide (2007a), an opening groove (2007b) on the adjustment slide (2007a), and a settling bolt (2007c) at the opening groove (2007b) to achieve a tight connection between the adjustment slide (2007a) and the transition frame (2001).

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