CN115535589A - A kind of multi-chamber bead production equipment - Google Patents

Abstract

The invention belongs to the technical field of bead production, and discloses a multi-chamber bead production equipment, including a first production device for producing first bead and a second production device for producing second bead, and also includes: bead position adjustment device; the bead position adjustment device is arranged between the first production device and the second production device; the bead position adjustment device includes a bearing mechanism and an adjustment mechanism, and after the first bead falls into the bearing mechanism, the adjustment mechanism adjusts The distance between two adjacent first beads is such that the first beads accurately fall into the cavity of the second beads on the second production device when the carrying mechanism is opened. The multi-chamber bead production equipment of the present invention is designed by setting a bead position adjustment device between the first production device and the second production device, so that the first bead can accurately fall into the cavity of the second bead, thereby obtaining The multi-cavity beads in which the first beads are located in the second beads and the first beads can move in the second beads meet market demands.

Description

A kind of multi-chamber bead production equipment

technical field

The invention belongs to the technical field of bead production, and in particular relates to a multi-cavity bead production equipment.

Background technique

Laundry beads, also known as laundry beads, are an innovative laundry product. They are called laundry beads because they look like beads. Laundry beads, specially designed for machine washing, easy to operate, convenient and not dirty hands, a small laundry beads can wash a tube of clothes. Fragrant smell, soft and thick texture, mild in nature and not harmful to clothes, unique low-foam concentrated color-locking formula, easier to rinse, condensed beads dissolve in water without residue, and can effectively and quickly remove stubborn stains to make clothes clean as new.

The existing laundry pods generally have a single-layer structure, that is, there is only one cavity for containing materials. The cavity is generally formed by sealing two films. The laundry pods with this structure have a single structure and cannot meet the needs of the market. For this reason, a multi-cavity bead is specially designed (as shown in Figure 1). The multi-cavity bead includes two bead, one large and one small. Bead A can move in the large bead B, but the existing bead production equipment cannot produce the multi-chamber bead.

Therefore, the prior art needs to be improved and developed.

Contents of the invention

The object of the present invention is to provide a multi-chambered bead production equipment capable of producing multi-cavity bead in which the first bead is located in the second bead and the first bead can move in the second bead.

The present invention provides a multi-chamber bead production equipment, including a first production device for producing the first bead and a second production device for producing the second bead, and also includes:

A bead position adjustment device; the bead position adjustment device is arranged between the first production device and the second production device;

The bead position adjustment device includes a bearing mechanism and an adjustment mechanism. After the first bead falls into the bearing mechanism, the adjustment mechanism adjusts the distance between two adjacent first bead, so that The first bead is accurately dropped into the cavity of the second bead on the second production device when the carrying mechanism is opened.

The multi-chamber bead production equipment provided by the present invention is designed to set a bead position adjustment device between the first production device and the second production device, so that the multi-chamber bead production equipment can produce the first bead positioned at the second bead position. The multi-cavity beads in which the first beads can move in the second beads can meet the needs of the market.

Further, the above-mentioned bead position adjustment device also includes a material guide mechanism, the material guide mechanism is located between the first production device and the carrying mechanism, and the material guide mechanism is used to accurately place the first bead Import the carrier.

In the present invention, a material guide mechanism is arranged between the first production device and the carrying mechanism, so that the first beads produced by the first production device can accurately fall into the carrying mechanism.

Further, the above-mentioned adjustment mechanism includes a plurality of adjustment blocks, a plurality of connection blocks, and a material-moving drive member; the plurality of adjustment blocks are arranged in sequence, each of the adjustment blocks has an adjustment part, and the adjustment part is slidably set On the carrying mechanism; the plurality of connecting blocks are respectively arranged on the plurality of adjusting blocks, and two adjacent connecting blocks abut against each other; the output end of the material shifting drive is connected to the plurality of One of the two adjustment blocks located on both sides of the adjustment block.

The present invention adjusts the distance between two adjacent adjustment blocks through the cooperation of the material shifting driving part and a plurality of connecting blocks, and has simple structure and convenient adjustment.

Further, the number of the above-mentioned material-shifting driving parts is two, and the plurality of adjustment blocks are divided into two groups, and the two output ends of the two material-moving driving parts are respectively connected to two groups of the adjustment blocks located on both sides. One of the two adjustment blocks.

Further, the above-mentioned adjustment mechanism further includes a stopper, and the stoppers move respectively against the two connecting blocks arranged on two adjacent adjustment blocks between two groups of the adjustment blocks.

Further, the above adjustment mechanism further includes a guide, and the plurality of adjustment blocks are all connected to the guide.

Further, the above-mentioned material guide mechanism includes a plurality of material guide grooves arranged side by side, and the distance between two adjacent material guide grooves is the same as the distance between two adjacent first beads on the first production device. The spacing between them is equal, and the upper surface of each of the guide grooves is an inclined surface.

Further, the above-mentioned material guide mechanism includes a plurality of material guide grooves arranged side by side and a plurality of material guide pushers, and the distance between two adjacent material guide grooves is the same as that of two adjacent material guide grooves on the first production device. The distance between the first beads is equal, and the material guide pusher can slide in the material guide groove to push the first beads in the material guide groove into the carrying mechanism.

Further, the bearing mechanism includes a bearing driver and a bearing plate; the bearing plate is connected to the output end of the bearing driver, and the bearing driver drives the bearing plate to open or close.

Further, the above-mentioned first production device and the second production device both include a forming mold, a preheating mechanism, a bottom film conveying mechanism, a filling mechanism, a top film conveying mechanism, a sealing mechanism and a cutting mechanism; the first The bottom film conveying mechanism, preheating mechanism, filling mechanism, top film conveying mechanism, sealing mechanism and cutting mechanism of the production device are arranged on the rotation path of the forming mold of the first production device in sequence, and the second The bottom film conveying mechanism, preheating mechanism, filling mechanism, top film conveying mechanism, sealing mechanism and cutting mechanism of the production device are sequentially arranged on the rotation path of the forming mold of the second production device.

As can be seen from the above, the multi-cavity bead production equipment of the present invention is designed by setting the bead position adjustment device between the first production device and the second production device, so that the adjustment mechanism can adjust the two adjacent beads falling on the carrying mechanism. The distance between the first beads is adjusted so that the first beads can accurately fall into the cavity of the second beads produced by the second production device when the bearing mechanism is opened, so that the first beads are located in the second bead. The multi-cavity beads in which the first beads can move in the second beads can meet the needs of the market.

Additional features and advantages of the invention will be set forth in the description which follows, and in part will be apparent from the description, or may be learned by practice of the invention. The objectives and other advantages of the invention may be realized and attained by the structure particularly pointed out in the written description and appended drawings.

Description of drawings

Fig. 1 is a schematic structural diagram of a multi-chambered bead provided by an embodiment of the present invention.

Fig. 2 is a schematic structural diagram of a multi-chamber bead production device provided by an embodiment of the present invention.

Fig. 3 is a schematic diagram of the front structure of a bead position adjustment device provided by an embodiment of the present invention.

Fig. 4 is a schematic diagram of the back structure of a bead position adjustment device provided by an embodiment of the present invention.

Fig. 5 is a schematic structural diagram of a bead position adjustment device provided by an embodiment of the present invention in an open state.

Fig. 6 is a schematic structural diagram of an adjustment mechanism provided by an embodiment of the present invention.

Explanation of symbols: 10. First production device; 101. Forming mold; 102. Bottom film conveying mechanism; 103. Preheating mechanism; 104. Filling mechanism; 105. Top film conveying mechanism; 106. Sealing mechanism; 107. Cutting mechanism Cutting mechanism; 1071, cross-cutting component; 1072, slitting component; 20, second production device; 30, bead position adjustment device; 301, adjusting mechanism; 3011, adjusting block; 30111, adjusting part; 3012, connecting block; 3013, material shifting driver; 3014, limiter; 3015, guide; 302, bearing mechanism; 3021, bearing driver; 3022, bearing plate; 303, guide mechanism; 3031, guide groove; Pushing piece; 30321, material guiding push cylinder; 30322, material guiding push rod.

detailed description

Embodiments of the present invention are described in detail below, examples of which are shown in the drawings, wherein the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below by referring to the figures are exemplary only for explaining the present invention and should not be construed as limiting the present invention.

The following disclosure provides many different embodiments or examples for implementing different structures of the present invention. To simplify the disclosure of the present invention, components and arrangements of specific examples are described below. Of course, they are only examples and are not intended to limit the invention. Furthermore, the present disclosure may repeat reference numerals and/or reference letters in different instances, such repetition is for simplicity and clarity and does not in itself indicate a relationship between the various embodiments and/or arrangements discussed.

As shown in Figure 2, a kind of multi-cavity bead production equipment provided by the present invention comprises the first production device 10 for producing the first bead, the second production device 20 and the bead position for producing the second bead Adjustment device 30 . The bead position adjusting device 30 is located between the first production device 10 and the second production device 20 .

In a specific application, the bead position adjustment device 30 includes a carrying mechanism 302 and an adjusting mechanism 301. After the first bead produced by the first production device 10 falls into the carrying mechanism 302, the adjusting mechanism 301 pairs two adjacent beads on the carrying mechanism 302. The spacing between the first beads is adjusted so that the spacing between the adjacent two first beads is equal to the spacing between the adjacent two second beads produced by the second production device 20 , so that the first bead accurately falls into the cavity of the second bead on the second production device 20 when the carrying mechanism 302 is opened.

It should be noted that the above-mentioned cavity of the second bead refers to the effect of the bottom film of the second bead on the forming mold 101 of the second production device 20 during the production of the second bead by the second production device 20. Formed below is a non-closed structure with an opening that is the same shape as the cavity of the molding die 101, the first bead falls into the non-closed structure from the opening, and after the first bead enters the non-closed structure, the second bead The top membrane of the second bead is sealed with the bottom membrane of the second bead to obtain a multi-chamber bead in which the first bead is located in the second bead and the first bead can move in the second bead.

Through this technical solution, the multi-chamber bead production equipment can accurately drop the first bead produced by the first production device 10 into the cavity of the second bead produced by the second production device 20, so that the first bead located in A multi-chambered bead in which the first bead can move within the second bead.

Specifically, the adjustment mechanism 301 may use a robot arm. That is to say, after the first beads fall into the carrying mechanism 302, the manipulator adjusts the distance between the adjacent two first beads so that the distance between the adjacent two first beads is the same as the distance between the second beads. The distance between two adjacent second beads produced by the production device 20 is equal.

As shown in FIG. 3 , FIG. 4 , FIG. 5 and FIG. 6 , in some preferred embodiments, the adjustment mechanism 301 includes a plurality of adjustment blocks 3011 , a plurality of connection blocks 3012 and a material-moving driving member 3013 . A plurality of adjustment blocks 3011 are arranged in sequence, and each adjustment block 3011 has an adjustment portion 30111 , and the adjustment portion 30111 is slidably disposed on the carrying mechanism 302 . A plurality of connection blocks 3012 are respectively arranged on the plurality of adjustment blocks 3011, and two adjacent connection blocks 3012 are movably abutted. The output end of the material shifting drive member 3013 is connected to one of the two adjustment blocks 3011 located on both sides of the plurality of adjustment blocks 3011 .

It should be noted that the arrangement of multiple adjustment blocks 3011 in sequence means that the multiple adjustment blocks 3011 are arranged in the shape of a "one", and the two adjustment blocks 3011 located on both sides refer to the arrangement of multiple adjustment blocks 3011 in the shape of a "one". The leftmost and rightmost adjustment blocks 3011 among the adjustment blocks 3011.

In a specific application, in the default state, the bead position adjustment device is closed (as shown in Figure 3 ), at this time, the distance between two adjacent adjustment parts 30111 is the same as that between two adjacent adjustment parts 30111 on the first production device 10 The spacing between the first beads is equal, and the first beads falling into the bearing mechanism 302 are located in the adjustment part 30111. When the bead position adjustment device adjusts the distance between two adjacent first beads, the materials will The driving member 3013 generates a driving force to drive the adjustment block 3011 connected to its output end to move. During the movement of the adjustment block 3011, the other adjustment blocks 3011 in the plurality of adjustment blocks 3011 are driven by the connection block 3012 to move, and the two adjacent adjustment blocks 3011 are changed. The spacing between them is such that the spacing between two adjacent adjustment parts 30111 is adjusted to be equal to the spacing between two adjacent second beads. shown), the first bead can accurately fall into the cavity of the second bead under the action of its own gravity. Specifically, the material-moving driving member 3013 can be an air cylinder.

Through this technical solution, the distance between two adjacent adjustment parts 30111 can be equal to the distance between two adjacent second beads, so that the first beads can accurately fall into the cavity of the second beads , compared with the use of expensive manipulators, it saves costs, and compared with the manipulator can only adjust the position of one first bead at a time, this technical solution can simultaneously adjust the position of multiple first bead Make adjustments so that the adjustment speed is increased.

Specifically, the adjustment part 30111 is a through "U"-shaped structure or a "mouth"-shaped structure. When the adjustment mechanism 301 adjusts the distance between two adjacent first beads, the adjustment part 30111 can play a role in adjusting the first The role of the bead limit makes the first bead can only move within the range of the adjustment part 30111, so that the first bead can fall accurately when the adjustment part 30111 corresponds to the cavity of the second bead. into the cavity of the second bead.

In some preferred embodiments, the number of the above-mentioned material shifting driving parts 3013 is two, and the plurality of adjustment blocks 3011 are divided into two groups. One of the two adjustment blocks 3011 on both sides. In a specific application, by designing the number of material shifting driving parts 3013 into two and dividing the plurality of adjustment blocks 3011 into two groups, the two material moving driving parts 3013 can drive two groups of adjustment blocks 3011 to both sides at the same time. The spacing adjustment shortens the time for adjusting the spacing of multiple adjustment blocks 3011, thereby improving efficiency.

In some preferred embodiments, the adjustment mechanism 301 further includes a limiting member 3014 . The limiters 3014 are respectively movable against the two connection blocks 3012 provided on the two adjacent adjustment blocks 3011 between the two groups of adjustment blocks 3011 . In a specific application, the two adjacent connecting blocks 3012 between the two sets of adjustment blocks 3011 are limited by the limiter 3014, so that the two adjacent adjustment blocks 3011 between the two sets of adjustment blocks 3011 are moved. The spacing is equal to the spacing between two adjacent second condensation beads, so that the adjustment part 30111 corresponds to the cavity of the second condensation beads, so as to ensure that the first condensation beads in the adjustment part 30111 accurately fall into the second condensation beads inside the cavity of the bead. Specifically, the limiting member 3014 has two oppositely arranged limiting parts, the distance between the two limiting parts is equal to the distance between two adjacent second beads, and the opposite sides of the two limiting parts are movable. Abut against two connecting blocks 3012 provided on two adjacent adjusting blocks 3011 between two groups of adjusting blocks 3011 .

In some preferred embodiments, the adjustment mechanism 301 further includes a guide 3015 , and the plurality of adjustment blocks 3011 are connected to the guide 3015 . Through this technical solution, the multiple adjustment blocks 3011 play a guiding role, ensuring that the adjustment blocks 3011 move along a straight line. Specifically, the guide 3015 is a linear guide rail. Specifically, the number of guides 3015 is two, and the two guides 3015 are arranged in parallel. A part of the adjustment blocks 3011 in the plurality of adjustment blocks 3011 is connected to one of the two guide members 3015, and the other part of the plurality of adjustment blocks 3011 The adjustment block 3011 is connected to the other of the two guide pieces 3015 . Compared with only one guide piece 3015, the number of adjustment blocks 3011 connected to each guide piece 3015 is reduced by using two guide pieces 3015, so that the force is more uniform, so as to achieve better guiding effect. Specifically, the adjustment block 3011 connecting one of the two guides 3015 in the plurality of adjustment blocks 3011 is spaced from the adjustment block 3011 of the plurality of adjustment blocks 3011 connected to the other guide 3015 in the two guides 3015 set up. For example, the two guides 3015 are respectively the first guide and the second guide, and the number of adjustment blocks 3011 is four, which are respectively the first adjustment block, the second adjustment block, the third adjustment block and the fourth adjustment block, The first adjustment block, the second adjustment block, the third adjustment block and the fourth adjustment block are arranged in the shape of "one" in sequence. If the first adjustment block and the third adjustment block are connected to the first guide, the second adjustment block and the The fourth adjustment block is connected with the second guide piece, and so on.

In some preferred embodiments, the bearing mechanism 302 includes a bearing driver 3021 and a bearing plate 3022 . The bearing plate 3022 is connected to the output end of the bearing driver 3021 , and the bearing driver 3021 is driven so that the bearing plate 3022 moves corresponding to the plurality of adjustment parts 30111 . In a specific application, the carrying driver 3021 drives the carrying plate 3022 to move directly below the plurality of adjustment parts 30111 and abut against the bottoms of the plurality of adjustment parts 30111. At this time, the carrying mechanism 302 is in a closed state and falls into the first A bead is located in the accommodation cavity formed by the adjustment part 30111 and the bearing plate 3022; after the adjustment mechanism 301 adjusts the distance between two adjacent first beads, the bearing driver 3021 drives the bearing plate 3022 away from the multiple adjustments part 30111 so that the carrying plate 3022 does not abut against the bottoms of a plurality of adjusting parts 30111. At this time, the carrying mechanism 302 is in an open state, and the first bead in the adjusting part 30111 falls on the ground under the action of its own gravity. Inside the cavity of the second bead. Specifically, the bearing driver 3021 may be an air cylinder.

In some preferred embodiments, the above-mentioned bead position adjustment device 30 further includes a material guide mechanism 303 . The material guiding mechanism 303 is located between the first production device 10 and the carrying mechanism 302 , and the material guiding mechanism 303 is used to accurately guide the first bead into the carrying mechanism 302 . In a specific application, the first beads produced by the first production device 10 fall into the material guide mechanism 303, and the material guide mechanism 303 guides the first beads into the carrying mechanism 302 accurately, so that the first beads are located between the adjustment part 30111 and the bearing plate 3022 The formed accommodating cavity facilitates subsequent adjustment of the position of the first bead.

In some preferred embodiments, the above-mentioned material guide mechanism 303 includes a plurality of material guide grooves 3031 arranged side by side. The spacing between the beads is equal, and the upper surface of each feed groove 3031 is an inclined surface. Through this technical solution, the first beads produced by the first production device 10 can accurately slide down along the inclined surface into the accommodating cavity formed by the adjustment part 30111 and the bearing plate 3022 under the action of its own gravity.

In some other preferred embodiments, the above-mentioned material guide mechanism 303 includes a plurality of material guide grooves 3031 arranged side by side and a plurality of material guide pushers 3032, and the distance between two adjacent material guide grooves 3031 is the same as that of the first production device 10 The distance between two adjacent first beads on the top is equal, and the material guide pusher 3032 can slide in the material guide groove 3031 to push the first beads in the material guide groove 3031 into the carrying mechanism 302 . In a specific application, the first beads produced by the first production device 10 fall into the material guide groove 3031, and the material guide pusher 3032 pushes the first beads in the material guide groove 3031 into the adjustment part 30111 and the bearing plate 3022 to form a In the accommodating chamber, avoid the situation that the first bead stays in the material guide groove 3031. Specifically, the material guide pusher 3032 includes a material guide push cylinder 30321 and a material guide push rod 30322, the guide material push rod 30322 is connected to the output end of the material guide push cylinder 30321, the shape of the guide material push rod 30322 is consistent with the shape of the material guide groove 3031 Matching to fully ensure that the material guide push rod 30322 can push the first bead in the material guide groove 3031 into the accommodating cavity formed by the adjustment part 30111 and the bearing plate 3022 .

In some preferred embodiments, the first production device 10 and the second production device 20 above all include a forming mold 101, a bottom film conveying mechanism 102, a preheating mechanism 103, a filling mechanism 104, a top film conveying mechanism 105, a sealing mechanism 106 and cutting mechanism 107. The bead position adjusting device 30 is located between the molding die 101 of the first production device 10 and the molding die 101 of the second production device 20 .

In a specific application, the first production device 10 and the second production device 20 operate at the same time, and the operating principles of the first production device 10 and the second production device 20 are consistent. The first production device 10 is taken as an example below to specifically describe the first production device. 10 and the operating principle of the second production unit 20.

When the first production device 10 is in operation, at first, the bottom film conveying mechanism 102 transports the bottom film to the station of the forming mold 101, so that the bottom film corresponds to the mold cavity of the forming mold 101, and the mold cavity will suck the corresponding bottom film into the mold cavity , the bottom film is deformed into a non-closed structure with an opening that is the same shape as the mold cavity, and the bottom film conveying mechanism 102 first passes through the preheating mechanism 103 during the process of conveying the bottom film to the station of the forming mold 101, and the preheating mechanism 103 is on the bottom. The film is preheated to make the bottom film easier to deform; secondly, the forming mold 101 transmits the deformed bottom film to the station of the filling mechanism 104, so that the opening of the bottom film corresponds to the discharge port of the filling mechanism 104, and the filling mechanism 104 fills the material into the bottom film; again, the top film conveying mechanism 105 transports the top film to correspond to the bottom film after filling the material, and the sealing mechanism 106 seals the bottom film and the top film to obtain a piece of First beads; finally, the forming mold 101 sends the connected first beads through the cutting mechanism 107, and the cutting mechanism 107 divides the connected first beads into individual first beads.

It should be noted that, during the operation of the second production device 20, before the bottom film of the second bead is sealed with the top film of the second bead, the first bead produced by the first production device 10 first passes through the bead The position adjustment device 30 performs position adjustment, and then falls into the non-closed structure formed by the bottom film of the second coagulation bead. After the first coagulation bead falls into the non-closed structure formed by the bottom film of the second coagulation bead, the second coagulation The bottom membrane of the bead is then sealed with the top membrane of the second bead, thereby obtaining a multi-chamber bead in which the first bead is located in the second bead and the first bead can move in the second bead.

Specifically, the material filled by the filling mechanism 104 may be liquid, powder or granule. In this embodiment, the material in the second bead is liquid washing liquid, and the material in the first bead is granular fragrance beads. In this way, a multi-chamber bead can clean clothes and Guaranteed long-lasting fragrance after washing clothes.

Specifically, both the bottom film conveying mechanism 102 and the top film conveying mechanism 105 adopt conveying roller sets in the prior art.

Specifically, the sealing mechanism 106 is a pressure roller. When the top film and the bottom film filled with materials pass by the sealing mechanism 106, the sealing mechanism 106 can seal the part of the bottom film that is not sucked into the mold cavity and the top film on the top film. Together. It should be noted that the top film and the bottom film are subjected to humidity conditioning treatment by a humidity control device before sealing, so that the top film and the bottom film can be sealed at normal temperature.

Specifically, the suction of the base film into the mold cavity can be achieved by vacuuming.

Specifically, in this embodiment, the forming mold 101 of the first production device 10 is a drum-shaped mold, and the forming mold 101 of the second production device 20 is a conveyor belt-shaped mold.

Specifically, the preheating mechanism 103 may adopt a roller with a heating tube embedded inside. During the conveying process of the bottom film, the outer surface of the roller contacts the bottom film, so that the bottom film is more likely to be deformed after being heated.

Specifically, the filling mechanism 104 can adopt a filling nozzle, which is connected to an external material supply device through a pipeline, and the material provided by the material supply equipment is filled into the non-closed structure formed by the bottom film through the pipeline and the filling nozzle in turn.

Specifically, the cutting mechanism 107 includes a cross-cutting assembly 1071 and a longitudinal cutting assembly 1072, the cross-cutting assembly 1071 includes a cross-cutting knife, the cross-cutting knife is fixed relative to the molding die 101, and the cross-cutting knife horizontally separates the beads that are connected into one piece. cutting, so that the beads that are connected into one piece become multiple rows of beads. The slitting assembly 1072 includes a slitting knife and a slitting driving cylinder. The slitting knife is connected to the output shaft of the slitting driving cylinder. On the conveying path, when the forming mold 101 conveys multiple rows of beads and moves to the station of the slitting assembly 1072, the slitting driving cylinder drives the slitting knife to cut the multiple rows of beads, so that the multiple rows of beads become individual of beads. It should be noted that the beads mentioned here refer to the first beads or multi-chambered beads.

In summary, the multi-chamber bead production equipment of the present invention is designed by setting the bead position adjustment device 30 between the first production device 10 and the second production device 20, so that the adjustment mechanism 301 can adjust the position of the bead position on the carrying mechanism 302. Adjust the distance between two adjacent first beads on the upper surface, so that the first beads can accurately fall into the cavity of the second beads produced by the second production device 20 when the carrying mechanism 302 is opened, and then A multi-chambered bead in which the first bead is located in the second bead and the first bead can move in the second bead is obtained, so as to meet market demand.

What have been described above are only some embodiments of the present invention. For those skilled in the art, without departing from the inventive concept of the present invention, several modifications and improvements can be made, and these all belong to the protection scope of the present invention.

Claims (10)

1. a multi-cavity bead production equipment, comprising the first production device for producing the first bead and the second production device for producing the second bead, it is characterized in that, also includes: A bead position adjustment device; the bead position adjustment device is arranged between the first production device and the second production device; The bead position adjustment device includes a bearing mechanism and an adjustment mechanism. After the first bead falls into the bearing mechanism, the adjustment mechanism adjusts the distance between two adjacent first bead, so that The first bead is accurately dropped into the cavity of the second bead on the second production device when the carrying mechanism is opened. 2. The multi-chamber bead production equipment according to claim 1, characterized in that, the bead position adjustment device also includes a material guide mechanism, and the material guide mechanism is located between the first production device and the carrying mechanism In between, the material guiding mechanism is used to accurately guide the first beads into the carrying mechanism. 3. The multi-chamber bead production equipment according to claim 1, wherein the adjustment mechanism comprises a plurality of adjustment blocks, a plurality of connection blocks and a material transfer drive; the plurality of adjustment blocks are arranged in sequence , each of the adjustment blocks has an adjustment part, and the adjustment part is slidably arranged on the bearing mechanism; the plurality of connection blocks are respectively arranged on the plurality of adjustment blocks, and two adjacent connection blocks Active abutment; the output end of the material shifting drive is connected to one of the two adjustment blocks located on both sides of the plurality of adjustment blocks. 4. The multi-cavity bead production equipment according to claim 3, characterized in that, the number of the moving parts is two, the plurality of adjustment blocks are divided into two groups, and the two moving parts are driven The two output ends of the component are respectively connected to one of the two adjustment blocks located on both sides of the two groups of adjustment blocks. 5. The multi-chamber bead production equipment according to claim 4, characterized in that, the adjustment mechanism further comprises a stopper, and the stoppers move respectively against two adjacent sets of adjustment blocks. The two connecting blocks set on the first adjusting block. 6 . The multi-chamber bead production device according to claim 3 , wherein the adjustment mechanism further comprises a guide, and the plurality of adjustment blocks are all connected to the guide. 7 . 7. The multi-cavity bead production equipment according to claim 2, characterized in that, said material guide mechanism comprises a plurality of material guide grooves arranged side by side, and the distance between adjacent two said material guide grooves is the same as said material guide groove. The distance between two adjacent first beads on the first production device is equal, and the upper surface of each feed groove is an inclined surface. 8. The multi-cavity bead production equipment according to claim 2, wherein the material guide mechanism comprises a plurality of material guide grooves arranged side by side and a plurality of material guide pushers, and two adjacent material guides The distance between the grooves is equal to the distance between two adjacent first beads on the first production device, and the material guide pusher can slide in the material guide groove to move the The first beads in the material guide groove are pushed into the carrying mechanism. 9. The multi-chamber bead production equipment according to claim 1, characterized in that, the carrying mechanism comprises a carrying drive and a carrying plate; the carrying plate is connected to the output end of the carrying drive, and the carrying drive Components drive the carrier plate open or close. 10. The multi-cavity bead production equipment according to claim 1, characterized in that, the first production device and the second production device all comprise a molding die, a bottom film conveying mechanism, a preheating mechanism, and a filling mechanism , top film conveying mechanism, sealing mechanism and cutting mechanism; the bottom film conveying mechanism, preheating mechanism, filling mechanism, top film conveying mechanism, sealing mechanism and cutting mechanism of the first production device are arranged in sequence On the rotation path of the forming mold of the first production device, the bottom film conveying mechanism, preheating mechanism, filling mechanism, top film conveying mechanism, sealing mechanism and cutting mechanism of the second production device are arranged in sequence On the rotation path of the forming mold of the second production device.

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