A production and filling system of a prebiotic syrup

Abstract

The application discloses a prebiotic syrup production and filling system, which comprises a bottom plate, left and right vertical columns arranged on the bottom plate, three left conveying belts arranged side by side on the bottom plate near the left vertical column and conveying from left to right, the three left conveying belts being arranged side by side in the front-rear direction, a right conveying belt arranged on the bottom plate near the right vertical column and conveying from left to right, a first sliding rod arranged along the action direction and fixed between the left and right vertical columns, a moving frame slidingly connected to the first sliding rod in the left-right direction, a driving assembly arranged between the left and right vertical columns and used for driving the moving frame to move in the left-right direction, two first electric push rods arranged side by side on the moving frame and vertically arranged, and the telescopic ends of the two first electric push rods being vertically downward and provided with a filling and clamping assembly. The prebiotic syrup production and filling system has a simple structure and can efficiently realize the filling of the prebiotic syrup.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of prebiotics, and particularly relates to a production and filling system of prebiotic syrup. BACKGROUND

[0002] Prebiotics are generally considered to be substances that induce the growth and activity of microorganisms in the human body or on the body surface, and have a beneficial effect on human health. Prebiotics can change the composition of intestinal flora by improving their presence in the intestine relative to other bacteria through selective fermentation of beneficial bacteria, etc., so as to selectively change the microbial action in the human intestine to achieve the absorption efficiency of nutrients and the growth of harmful substances and harmful bacteria in the intestine. With the development of economy and the progress of society, modern people pay more and more attention to personal health problems such as skin care, weight loss, etc., and realize that only by timely discharging harmful substances and excess nutrients in the body, keeping the five internal organs and the body clean, can the body be kept healthy and beautiful and the skin be kept beautiful. Therefore, more and more people choose to use prebiotic products to maintain the health of the human intestinal tract, so that prebiotic products are more and more popular among the public. Prebiotic syrup is a prebiotic food, and its sales increase year by year due to its convenience. However, the prebiotic syrup has the following problems in production at present:

[0003] 1. At present, the prebiotic syrup generally needs to be filled in a glass bottle, and then a cover is sealed. However, when the prebiotic syrup is injected into the glass bottle, a small amount of prebiotic syrup remaining in the nozzle will drop on the glass bottle in the process of withdrawing the nozzle from the glass bottle, which will affect the subsequent production.

[0004] 2. At present, the prebiotic syrup can only be filled by multiple nozzles on a glass bottle on a conveying belt during filling, so that the filling efficiency of the prebiotic syrup is low, and the demand of the production manufacturer for the yield cannot be met. SUMMARY

[0005] The present application aims to provide a production and filling system of prebiotic syrup, which is not only simple in structure but also can efficiently realize the filling of the prebiotic syrup.

[0006] In order to achieve the above object, the present application provides the following technical scheme: a probiotic syrup production and filling system, comprising a base plate, a left stand and a right stand are arranged on the base plate, three left conveying belts conveying from left to right are arranged side by side on the base plate near the left stand, and the three left conveying belts are arranged side by side in the front-rear direction; a right conveying belt conveying from left to right is arranged on the base plate near the right stand; a first sliding rod arranged in the left-right direction is fixed between the left stand and the right stand, a moving frame is slidably connected to the first sliding rod in the left-right direction, and a driving assembly for driving the moving frame to move in the left-right direction is arranged between the left stand and the right stand; two first electric push rods arranged vertically are arranged side by side on the moving frame, the extension ends of the two first electric push rods are arranged vertically downward, and a filling and clamping assembly is arranged at the extension ends; when the filling and clamping assembly is in a left end position, the filling and clamping assembly is used for filling glass bottles on the left conveying belt, and the filled glass bottles are clamped after filling is completed; when the filling and clamping assembly is in a right end position, the filling and clamping assembly is used for placing the filled glass bottles on the right conveying belt.

[0007] Further, the driving assembly comprises a first screw rod rotatably connected between the left stand and the right stand and parallel to the first sliding rod, the first screw rod is threadedly connected with the moving frame, and the first screw rod drives the moving frame to slide leftward or rightward along the first sliding rod when the first screw rod rotates; a first motor for driving the first screw rod to rotate is fixed on the left stand.

[0008] Further, the filling and clamping assembly comprises an intermediate plate, protruding shafts are arranged on the intermediate plate near the left and right ends, and the extension ends of the two first electric push rods are fixedly connected with the protruding shafts respectively; a left connecting plate is hingedly connected to the protruding shaft at the left end of the intermediate plate, a left mounting plate parallel to the intermediate plate is hingedly connected to the left connecting plate, a left first protruding tooth is arranged on the left mounting plate, and a left second protruding tooth meshing with the left first protruding tooth is arranged at the left end of the intermediate plate; a right connecting plate is hingedly connected to the protruding shaft at the right end of the intermediate plate, a right mounting plate parallel to the intermediate plate is hingedly connected to the right connecting plate, a right first protruding tooth is arranged on the right mounting plate, and a right second protruding tooth meshing with the right first protruding tooth is arranged at the right end of the intermediate plate; a middle rod parallel to the intermediate plate is hingedly connected between the left connecting plate and the right connecting plate, and a parallelogram structure is formed between the middle rod, the intermediate plate, the left connecting plate and the right connecting plate; a left protruding rod extending to the right is arranged on the left stand, and a right protruding rod extending to the left is arranged on the right stand; a plurality of filling nozzle assemblies are arranged on the intermediate plate, the left mounting plate and the right mounting plate.

[0009] Further, the left connecting plate is fixed with a left magnet and a right magnet, and the middle plate is fixed with a left second magnet and a right second magnet; when the filling and clamping assembly is at the left end position, the left protruding rod abuts against the left end of the middle rod, so that the middle rod moves to the right end position, at this time, the right first magnet and the right second magnet are attracted, and the left first magnet and the left second magnet are separated; the right mounting plate, the middle plate and the left mounting plate are arranged in sequence from front to back; the filling nozzle assemblies on the right mounting plate, the middle plate and the left mounting plate are located directly above the three left conveying belts; when the filling and clamping assembly is at the right end position, the right protruding rod abuts against the right end of the middle rod, so that the middle rod moves to the left end position, at this time, the left first magnet and the left second magnet are attracted, and the right first magnet and the right second magnet are separated; the right mounting plate, the middle plate and the left mounting plate are arranged in a straight line from right to left; the filling nozzle assemblies on the right mounting plate, the middle plate and the left mounting plate are located directly above the right conveying belt.

[0010] Further, the filling nozzle assembly comprises a filling head fixedly installed on the right mounting plate, the middle plate and the left mounting plate, the filling head is provided with a filling port with an open lower end, the blind end of the filling port is provided with a connecting column extending downward, the filling head and the connecting column are provided with a valve hole, the lower end of the valve hole is provided with a valve port, the upper end of the filling head is provided with a feeding port in communication with the valve hole; a valve core is slidably connected in the valve hole in the vertical direction to control the opening and closing of the valve port; a spray head cap is slidably connected in the filling port in the vertical direction, the spray head cap is fixedly connected with the valve core, and the filling port is provided above the spray head cap with a first spring for forcing the spray head cap to drive the valve core to close the valve port downward.

[0011] Further, when the filling nozzle assembly is filling the glass bottle, the spray head cap covers the upper end opening of the glass bottle, and as the filling head moves downward, the spray head cap drives the valve core to compress the first spring upward relative to the filling head, so that the valve core opens the valve port; when the filling nozzle assembly moves away from the glass bottle upward, the filling head moves upward, and the spray head cap drives the valve core to move downward relative to the filling head under the action of the first spring to close the valve port.

[0012] Further, the side walls in front of and behind the spray head cap are symmetrically provided with pins which are slidably connected in the radial direction and are used to extend into the clamping grooves in the upper end opening of the glass bottle, and the radial grooves are arranged in the filling head at each pin, and each radial groove is slidably connected with a moving block in the radial direction, and the moving block is provided with a protrusion which is used to extend into the filling opening, and a first magnet is fixedly arranged on the moving block; the filling head is provided with a positioning ball and a second spring which forces the positioning ball to abut against the moving block; the moving block is provided with a first positioning groove and a second positioning groove in which the positioning ball extends; when the positioning ball enters the first positioning groove, the moving block drives the protrusion to extend into the spray head cap and push the pins to extend into the clamping grooves in the upper end opening of the glass bottle; when the positioning ball enters the second positioning groove, the moving block drives the protrusion to retract into the filling head; the front and rear sides of each left conveying belt are fixedly provided with a left side plate, and the upper end of each left side plate is fixedly provided with a second magnet, and the first magnet and the second magnet repel each other; the front and rear sides of the right conveying belt are fixedly provided with a right side plate, and the upper end of each right side plate is fixedly provided with a third magnet, and the first magnet and the third magnet attract each other.

[0013] Further, the connecting column is provided with a vertical limiting sliding groove, and the spray head cap is fixedly provided with a pin column which penetrates through the vertical limiting sliding groove and is fixedly connected with the valve core.

[0014] Beneficial effects

[0015] Compared with the prior art, the technical scheme of the present application has the following advantages:

[0016] 1. By arranging the right mounting plate, the middle plate and the left mounting plate which can be folded and stretched, when the filling and clamping assembly is butted against the glass bottle, the right mounting plate, the middle plate and the left mounting plate are kept in the folded state, so that the filling and clamping assembly can butt against the glass bottles on the three left conveying belts; when the filling and clamping assembly completes the filling, the right mounting plate, the middle plate and the left mounting plate are stretched and deformed into a straight line, so that the filled glass bottles can be placed on a right conveying belt for subsequent processing, and at the same time, the glass bottles on the multiple left conveying belts can be filled, thereby improving the production efficiency.

[0017] 2. By arranging the moving block with the first magnet on the filling and clamping assembly, when the spray head cap is butted against the glass bottle, the three left conveying belts are provided with the second magnet, and since the first magnet and the second magnet repel each other, the moving block drives the pins to lock the spray head cap and the glass bottle, so that the glass bottle and the spray head cap are fixedly connected, thereby realizing the automatic connection of the spray head cap and the glass bottle; when the filling is completed, the moving block is on the right conveying belt, the third magnet and the first magnet attract each other, thereby controlling the moving block to move away from the pins and release the filled glass bottles on the right conveying belt, so that the cooperation of the filling and clamping assembly and the glass bottle is automatically completed, without the need for electric control, thereby saving cost and being convenient to operate.

[0018] 3. By setting the valve core with a tapered tip inside the filling clamping assembly, when the filling is completed, the valve core is extended, the probiotic syrup remaining in the valve port is pushed out, and the pushed-out syrup drips along the tapered tip of the valve core into the glass bottle, thereby preventing the probiotic syrup from dripping everywhere after the nozzle is removed, and affecting the subsequent processing. BRIEF DESCRIPTION OF DRAWINGS

[0019] Figure 1 is a sectional view of the present application;

[0020] Figure 2 is a sectional view of the present application Figure 1 in the A-A direction;

[0021] Figure 3 is a sectional view of the present application Figure 1 in the B-B direction;

[0022] Figure 4 is a sectional view of the present application Figure 1 in the C-C direction;

[0023] Figure 5 is a sectional view of the present application Figure 1 in the D-D direction;

[0024] Figure 6 is a sectional view of the present application Figure 1 in the E-E direction;

[0025] Figure 7 is a sectional view of the present application when the right mounting plate, the middle plate, and the left mounting plate are arranged in a straight line from right to left Figure 1 in the A-A direction. DETAILED DESCRIPTION

[0026] Please refer to Figures 1-7As shown, a prebiotic syrup production and filling system includes a base plate 2a, the base plate 2a is provided with a left stand 21 and a right stand 22, three left conveying belts 11 conveying from left to right are provided side by side on the base plate 2a near the left stand 21, the three left conveying belts 11 are provided side by side in the front-rear direction; a right conveying belt 14 conveying from left to right is provided on the base plate 2a near the right stand 22; a first sliding rod 42 is fixedly arranged between the left stand 21 and the right stand 22 and extends in the left-right direction, a moving frame 31 is slidably connected to the first sliding rod 42 in the left-right direction, a drive assembly is arranged between the left stand 21 and the right stand 22 and used to drive the moving frame 31 to move in the left-right direction; two first electric push rods 32 are provided side by side on the moving frame 31 and extend vertically, the extension ends of the two first electric push rods 32 extend vertically downward and are provided with a filling and clamping assembly, when the filling and clamping assembly is in a left end position, the filling and clamping assembly is used to fill glass bottles 7 on the left conveying belt 11, and after filling is completed, the filled glass bottles 7 are clamped; when the filling and clamping assembly is in a right end position, the filling and clamping assembly is used to place the filled glass bottles 7 on the right conveying belt 14.

[0027] In this embodiment, the drive assembly includes a first screw rod 41 rotatably connected between the left stand 21 and the right stand 22 and parallel to the first sliding rod 42, the first screw rod 41 is threadedly connected to the moving frame 31, and when the first screw rod 41 rotates, the moving frame 31 is driven to slide leftward or rightward along the first sliding rod 42; a first motor 4a is fixedly arranged on the left stand 21 and used to drive the first screw rod 41 to rotate.

[0028] In the embodiment, the filling and clamping assembly comprises a middle plate 51, the middle plate 51 is provided with a convex shaft 51a near the left and right ends, and the two convex shafts 51a are fixedly connected with the telescopic ends of the two first electric push rods 32 respectively; the convex shaft 51a at the left end of the middle plate 51 is hingedly connected with a left connecting plate 54, the left connecting plate 54 is hingedly connected with a left mounting plate 53 parallel to the middle plate 51, the left mounting plate 53 is provided with a left convex tooth 531, and the left end of the middle plate 51 is provided with a left convex tooth 512 engaged with the left convex tooth 531; the convex shaft 51a at the right end of the middle plate 51 is hingedly connected with a right connecting plate 55, the right connecting plate 55 is hingedly connected with a right mounting plate 52 parallel to the middle plate 51, the right mounting plate 52 is provided with a right convex tooth 521, and the right end of the middle plate 51 is provided with a right convex tooth 511 engaged with the right convex tooth 521; the left connecting plate 54 and the right connecting plate 55 are hingedly connected with a middle rod 56 parallel to the middle plate 51, and the middle rod 56, the middle plate 51, the left connecting plate 54 and the right connecting plate 55 form a parallelogram structure; the left upright column 21 is provided with a left convex rod 211 extending to the right, and the right upright column 22 is provided with a right convex rod 221 extending to the left; the middle plate 51, the left mounting plate 53 and the right mounting plate 52 are all provided with a plurality of filling nozzle assemblies.

[0029] The left connecting plate 54 is fixedly provided with a left magnet 541 and a right magnet 542, and the middle plate 51 is fixedly provided with a left magnet 513 and a right magnet 514; when the filling and clamping assembly is at the left end position, the left convex rod 211 abuts against the left end of the middle rod 56, so that the middle rod 56 moves to the right to the right end position, at this time, the right magnet 542 is attracted to the right magnet 514, the left magnet 541 is separated from the left magnet 513, and the right mounting plate 52, the middle plate 51 and the left mounting plate 53 are arranged in sequence from front to back; the filling nozzle assemblies on the right mounting plate 52, the middle plate 51 and the left mounting plate 53 are located directly above the three left conveying belts 11; when the filling and clamping assembly is at the right end position, the right convex rod 221 abuts against the right end of the middle rod 56, so that the middle rod 56 moves to the left to the left end position, at this time, the left magnet 541 is attracted to the left magnet 513, the right magnet 542 is separated from the right magnet 514, and the right mounting plate 52, the middle plate 51 and the left mounting plate 53 are arranged in sequence from right to left; the filling nozzle assemblies on the right mounting plate 52, the middle plate 51 and the left mounting plate 53 are located directly above the right conveying belt 14.

[0030] In the embodiment, the filling nozzle assembly comprises a filling head 61 fixedly installed on the right mounting plate 52, the middle plate 51 and the left mounting plate 53, the filling head 61 is internally provided with a filling port 6a with an open lower end, the blind end of the filling port 6a is provided with a connecting column 6b extending downward, the filling head 61 and the connecting column 6b are internally provided with a valve hole 612, the lower end of the valve hole 612 is provided with a valve port 61a, the upper end of the filling head 61 is provided with a feeding port 611 in communication with the valve hole 612; the valve hole 612 is slidably connected with a valve core 63 in the vertical direction for controlling the opening or closing of the valve port 61a; the filling port 6a is slidably connected with a shower cap 62 in the vertical direction, the shower cap 62 is fixedly connected with the valve core 63, the filling port 6a is provided above the shower cap 62 and is provided with a first spring 68 for forcing the shower cap 62 to drive the valve core 63 to close the valve port 61a downward. The connecting column 6b is internally provided with a vertical limiting sliding groove 6c, the shower cap 62 is fixedly provided with a pin column 6d penetrating through the vertical limiting sliding groove 6c and fixedly connected with the valve core 63. When the filling nozzle assembly is filling the glass bottle 7, the shower cap 62 is covered on the upper end opening of the glass bottle 7, and with the downward movement of the filling head 61, the shower cap 62 drives the valve core 63 to compress the first spring 68 upward relative to the filling head 61, so that the valve core 63 opens the valve port 61a; when the filling nozzle assembly moves upward away from the glass bottle 7, the filling head 61 moves upward, and the shower cap 62 drives the valve core 63 to move downward relative to the filling head 61 under the action of the first spring 68 to close the valve port 61a.

[0031] The side walls in front of and behind the shower cap 62 are symmetrically connected with pins 67 which are slidably connected in the radial direction, the pins 67 are used to extend into the clamping grooves 71 at the upper end opening of the glass bottle 7, the filling head 61 is internally provided with a radial groove 6e at each pin 67, each radial groove 6e is slidably connected with a moving block 64 in the radial direction, the moving block 64 is provided with a protrusion 64a which is used to extend into the filling opening 6a, the moving block 64 is fixedly provided with a first magnet 65; the filling head 61 is internally provided with a positioning ball 661 and a second spring 662 which forces the positioning ball 661 to abut against the moving block 64; the moving block 64 is provided with a first positioning groove 642 and a second positioning groove 641 for the positioning ball 661 to extend into; when the positioning ball 661 enters the first positioning groove 642, the moving block 64 drives the protrusion 64a to extend into the shower cap 62 and push the pin 67 to extend into the clamping groove 71 at the upper end opening of the glass bottle 7; when the positioning ball 661 enters the second positioning groove 641, the moving block 64 drives the protrusion 64a to retract into the filling head 61; the front and rear sides of each left conveying belt 11 are fixedly provided with a left side plate 111, the upper end of each left side plate 111 is fixedly provided with a second magnet 112, the first magnet 65 and the second magnet 112 repel each other; the front and rear sides of the right conveying belt 14 are fixedly provided with a right side plate 141, the upper end of each right side plate 141 is fixedly provided with a third magnet 142, the first magnet 65 and the third magnet 142 attract each other.

[0032] The production and filling system of the prebiotic syrup in the embodiment works including the following steps:

[0033] Step one, preparation

[0034] As Figure 1 the specific structure of the present application, when the present application is needed to be used to fill the prebiotic syrup, first of all, a proper amount of glass bottles 7 are placed on the three left conveying belts 11 respectively, then a hose is connected with the feeding port 611, so that when the prebiotic syrup is introduced into the hose, the prebiotic syrup can be guided into the filling head 61 through the hose, and the preparation work is completed.

[0035] Step two, feeding

[0036] When the preparation work is completed, start the three left conveying belts 11, the glass bottles 7 can be conveyed to the right through the three left conveying belts 11, and the glass bottles 7 can be positioned below the filling head 61 through the limiting plate 8 located at the right end of the left conveying belt 11, when there is a glass bottle 7 below each filling head 61 of the filling and clamping assembly, control the three left conveying belts 11 to stop, and the feeding step is completed.

[0037] Step three, lifting and filling of the glass bottle 7

[0038] When the glass bottle 7 is loaded, the first electric push rod 32 is controlled to move downward, so that the right mounting plate 52, the middle plate 51 and the left mounting plate 53 are lowered, and then the spray head cap 62 is buckled at the bottle mouth of the glass bottle 7. Since the first electric push rod 32 is continuously extended, the filling head 61 is followed to be lowered and the first spring 68 is compressed, and then the first magnet 65 is driven to be lowered and close to the second magnet 112. When the protrusion 64a and the pin 67 are aligned, the first magnet 65 and the second magnet 112 repel each other, and then the protrusion 64a is moved to the middle by the first magnet 65 pushing the moving block 64, so that the positioning ball 661 overcomes the second spring 662 to exit the second positioning groove 641 and is positioned in the first positioning groove 642 under the action of the second spring 662. At the same time, since the protrusion 64a moves to push the pin 67 to extend into the clamping groove 71, the glass bottle 7 and the spray head cap 62 are fixedly matched together. Since the protrusion 64a extends into the spray head cap 62 at this time, the spray head cap 62 is positioned. Since the spray head cap 62 and the valve core 63 are fixedly connected, the spray head cap 62 is fixed at a position relatively upwardly moving with the filling head 61, so as to drive the valve core 63 to be opened and positioned, and then the prebiotic syrup is introduced into the inlet 611, and then the prebiotic syrup is filled into the glass bottle 7 through the filling head 61. At the same time, the first electric push rod 32 is controlled to retract, so as to drive the right mounting plate 52, the middle plate 51 and the left mounting plate 53 to rise, and drive the glass bottle 7 to rise. When the right mounting plate 52, the middle plate 51 and the left mounting plate 53 rise to the initial position, the first motor 4a is started to drive the first screw rod 41 to rotate. Since the first screw rod 41 and the moving frame 31 are threadedly matched, the first slide rod 42 and the moving frame 31 are slidingly matched, so as to drive the moving frame 31 to move rightward, and the glass bottle 7 is lifted and filled and conveyed.

[0039] Step four, filling is completed and the equipment is reset

[0040] When the filling conveying step is completed, the moving frame 31 drives the right mounting plate 52, the middle plate 51 and the left mounting plate 53 to move rightwards. When the middle rod 56 and the right convex rod 221 touch, the right convex rod 221 pushes the middle rod 56 to move due to the continuous rightward movement of the moving frame 31. Since a parallelogram structure is formed between the middle rod 56, the middle plate 51, the left connecting plate 54 and the right connecting plate 55, the left connecting plate 54 and the right connecting plate 55 are driven to rotate by the middle rod 56 when it is pushed, and the rotation angles are equal. Due to the rotation of the left connecting plate 54, the right first magnet 542 and the right second magnet 514 are separated. Since the left first convex tooth 531 and the left second convex tooth 512 are engaged, and the right first convex tooth 521 and the right second convex tooth 511 are engaged, the left first magnet 541 and the left second magnet 513 are attracted when the left connecting plate 54 and the right connecting plate 55 rotate by 90°, and the first motor 4a stops rotating. At this time, the right mounting plate 52, the middle plate 51 and the left mounting plate 53 are arranged in a line from right to left, so that all the glass bottles 7 are arranged in a straight line and above the right conveying belt 14. Then the first electric push rod 32 is controlled to extend, driving the right mounting plate 52, the middle plate 51 and the left mounting plate 53 to descend, and placing the glass bottles 7 on the right conveying belt 14. Since the third magnet 142 attracts the first magnet 65, the moving block 64 is driven to move away from the nozzle cap 62, so that the positioning ball 661 overcomes the second spring 662 to exit the first positioning groove 642 and enter the second positioning groove 641 under the action of the second spring 662. Then the first electric push rod 32 is controlled to retract, driving the filling head 61 to rise. Since the convex 64a retreats, the first spring 68 pushes the nozzle cap 62 to descend, and drives the valve core 63 to descend, so that the filling head 61 is closed, the residual syrup in the filling head 61 is pushed out and falls into the glass bottle 7 through the tapered tip of the valve core 63. When the nozzle cap 62 and the glass bottle 7 are separated, the pin 67 is pushed out of the clamping groove 71 under the action of gravity, so that the glass bottle 7 after filling is placed on the right conveying belt 14 and conveyed rightwards through the right conveying belt 14. When the right mounting plate 52, the middle plate 51 and the left mounting plate 53 rise to the initial height, the first motor 4a is controlled to reverse, driving the moving frame 31 to move leftwards. When the left side of the middle rod 56 and the left convex rod 211 touch, the left convex rod 211 pushes the middle rod 56, driving the left connecting plate 54 and the right connecting plate 55 to reverse, so that the left first magnet 541 and the left second magnet 513 are separated. When the left connecting plate 54 and the right connecting plate 55 reverse by 90°, the right first magnet 542 and the right second magnet 514 are attracted. At this time, the right mounting plate 52, the middle plate 51 and the left mounting plate 53 are arranged in a line from front to back to return to the initial state, and the equipment is reset.

[0041] Step five, circulating work and subsequent conveying

[0042] Through continuously circulating steps two to four, the glass bottles 7 placed on the three left conveyors 11 can be filled with probiotic syrup, and the filled glass bottles 7 can be conveyed to the right through the right conveyor 14, thereby facilitating subsequent processing.

[0043] The above only describes the preferred embodiments of the present application, and it should be noted that those skilled in the art can make several improvements and refinements without departing from the technical principles of the present application, and these improvements and refinements should also be considered within the protection scope of the present application.

Claims

1. A production and filling system of a prebiotic syrup comprising a base floor, characterized in that, The bottom plate is provided with a left stand column and a right stand column, three left conveying belts conveying from left to right are provided side by side on the bottom plate near the left stand column, and the three left conveying belts are arranged side by side in the front-rear direction; a right conveying belt conveying from left to right is provided on the bottom plate near the right stand column; a first sliding rod arranged in the left-right direction is fixed between the left stand column and the right stand column, a moving frame is slidably connected to the first sliding rod in the left-right direction, and a driving assembly for driving the moving frame to move in the left-right direction is arranged between the left stand column and the right stand column; two first electric push rods arranged vertically are provided side by side on the moving frame, the extension ends of the two first electric push rods are vertically downward, and a filling and clamping assembly is arranged at the extension ends; when the filling and clamping assembly is in a left end position, the filling and clamping assembly is used for filling glass bottles on the left conveying belt, and the filled glass bottles are clamped after filling; when the filling and clamping assembly is in a right end position, the filling and clamping assembly is used for placing the filled glass bottles on the right conveying belt; The filling and clamping assembly comprises an intermediate plate, convex shafts are arranged on the intermediate plate near the left and right ends, and the extension ends of the two first electric push rods are fixedly connected to the two convex shafts respectively; a left connecting plate is hinged to the convex shaft at the left end of the intermediate plate, a left mounting plate parallel to the intermediate plate is hinged to the left connecting plate, a left convex tooth is arranged on the left mounting plate, and a left second convex tooth meshing with the left convex tooth is arranged at the left end of the intermediate plate; a right connecting plate is hinged to the convex shaft at the right end of the intermediate plate, a right mounting plate parallel to the intermediate plate is hinged to the right connecting plate, a right convex tooth is arranged on the right mounting plate, and a right second convex tooth meshing with the right convex tooth is arranged at the right end of the intermediate plate; an intermediate rod parallel to the intermediate plate is hinged between the left connecting plate and the right connecting plate, and a parallelogram structure is formed between the intermediate rod, the intermediate plate, the left connecting plate and the right connecting plate; a left convex rod extending to the right is arranged on the left stand column, and a right convex rod extending to the left is arranged on the right stand column; a plurality of filling nozzle assemblies are arranged on the intermediate plate, the left mounting plate and the right mounting plate; A left magnet and a right magnet are fixedly arranged on the left connecting plate, and a left second magnet and a right second magnet are fixedly arranged on the intermediate plate; when the filling and clamping assembly is in the left end position, the left convex rod abuts against the left end of the intermediate rod, so that the intermediate rod moves to the right end position, at this time, the right magnet and the right second magnet are attracted, the left magnet and the left second magnet are separated, and the right mounting plate, the intermediate plate and the left mounting plate are arranged side by side from front to back; the filling nozzle assemblies on the right mounting plate, the intermediate plate and the left mounting plate are located directly above the three left conveying belts; when the filling and clamping assembly is in the right end position, the right convex rod abuts against the right end of the intermediate rod, so that the intermediate rod moves to the left end position, at this time, the left magnet and the left second magnet are attracted, the right magnet and the right second magnet are separated, and the right mounting plate, the intermediate plate and the left mounting plate are arranged in a straight line from right to left; the filling nozzle assemblies on the right mounting plate, the intermediate plate and the left mounting plate are located directly above the right conveying belt.

2. The prebiotic syrup production and filling system according to claim 1, characterized in that, The driving assembly comprises a first screw rod rotatably connected between the left and right upright columns and parallel to the first slide rod, the first screw rod is threadedly connected with the moving frame, and the first screw rod drives the moving frame to slide leftward or rightward along the first slide rod when the first screw rod rotates; the left upright column is fixedly provided with a first motor for driving the first screw rod to rotate.

3. The prebiotic syrup production and filling system according to claim 2, characterized in that, The filling nozzle assembly comprises a filling head fixedly installed on the right mounting plate, the middle plate and the left mounting plate, the filling head is internally provided with a filling port with an open lower end, the blind end of the filling port is provided with a connecting column extending downward, the filling head and the connecting column are internally provided with a valve hole, the lower end of the valve hole is provided with a valve port, the upper end of the filling head is provided with a feeding port in communication with the valve hole; the valve hole is slidably connected with a valve core in the vertical direction, the valve core is used for controlling the valve port to be opened or closed; the filling port is slidably connected with a spray head cap in the vertical direction, the spray head cap is fixedly connected with the valve core, and the filling port is provided above the spray head cap and is provided with a first spring for forcing the spray head cap to drive the valve core to close the valve port downward.

4. The prebiotic syrup production and filling system according to claim 3, characterized in that, When the filling nozzle assembly fills the glass bottle, the spray head cap covers the upper end opening of the glass bottle, and as the filling head moves downward, the spray head cap drives the valve core to compress the first spring upward relative to the filling head, so that the valve core opens the valve port; when the filling nozzle assembly moves upward away from the glass bottle, the filling head moves upward, and the spray head cap drives the valve core to move downward relative to the filling head under the action of the first spring to close the valve port.

5. The prebiotic syrup production and filling system according to claim 4, characterized in that, The side walls before and behind the spray head cap are slidably connected with symmetrically arranged pins in the radial direction, the pins are used for extending into clamping grooves at the upper end opening of the glass bottle, the filling head is provided with a radial groove at each pin, each radial groove is slidably connected with a moving block in the radial direction, the moving block is provided with a protrusion used for extending into the filling port, and the moving block is fixedly provided with a first magnet; the filling head is provided with a positioning ball and a second spring for forcing the positioning ball to abut against the moving block; the moving block is provided with a first positioning groove and a second positioning groove for the positioning ball to extend into; when the positioning ball enters the first positioning groove, the moving block drives the protrusion to extend into the spray head cap and pushes the pins to extend into the clamping grooves at the upper end opening of the glass bottle; when the positioning ball enters the second positioning groove, the moving block drives the protrusion to retract into the filling head; the front and back sides of each left conveying belt are fixedly provided with a left side plate, the upper end of each left side plate is fixedly provided with a second magnet, the first magnet and the second magnet repel each other, the front and back sides of the right conveying belt are fixedly provided with a right side plate, the upper end of each right side plate is fixedly provided with a third magnet, and the first magnet and the third magnet attract each other.

6. The prebiotic syrup production and filling system according to claim 5, wherein The connecting column is internally provided with a vertical limiting sliding groove, and the spray head cap is fixedly provided with a pin column penetrating through the vertical limiting sliding groove and fixedly connected with the valve core.

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