CN110947071A

CN110947071A - Core pipeline assembling device of automatic production line for anesthesia evaporator cores

Info

Publication number: CN110947071A
Application number: CN201911321009.1A
Authority: CN
Inventors: 钟南京
Original assignee: Individual
Current assignee: Individual
Priority date: 2019-12-19
Filing date: 2019-12-19
Publication date: 2020-04-03

Abstract

The invention discloses a core pipeline assembling device of an automatic production line of anesthesia evaporators and belongs to the technical field of medical equipment. According to the spine framework fixing device, the fixing motor works to drive the fixing gear to rotate, the fixing gear rotates to drive the two fixing toothed plates to move in the mounting groove, the two fixing toothed plates move to drive the two fixing rods to slide on the two sliding grooves in the mounting frame, the two fixing rods move to fix the spine framework, and the spine framework is prevented from moving in the processing process, so that the processing of the spine framework is influenced.

Description

Core pipeline assembling device of automatic production line for anesthesia evaporator cores

Technical Field

The invention relates to the technical field of medical equipment production equipment for anesthesia departments, in particular to a core pipeline assembling device of an automatic production line of anesthesia evaporators and cores.

Background

An anesthetic vaporizer (also known as an anesthetic evaporation tank) is an important component of an anesthesia machine, anesthetic drugs are changed into vaporized gas by utilizing the change of the temperature of the surrounding environment and a heat source, and a part of the vaporized gas carries away saturated anesthetic gas through a certain amount of carrier gas to form gas flow of anesthetic vapor with a certain concentration and directly enters an anesthesia loop. The free evaporation of the anesthetic liquid is not sufficient to provide a high concentration of anesthetic vapor and is not easily controlled, and therefore, a cartridge is generally installed in the evaporation chamber, at least a portion of which is immersed in the anesthetic liquid. The evaporation area is increased by the core, and high-concentration anesthetic vapor is obtained. The core comprises a core seat, a core pipeline, a fixing piece, inner-layer core cotton and outer-layer core cotton, and the assembling process of the traditional anesthetic evaporator core comprises the steps of manually assembling the core pipeline, welding the core pipeline and the fixing piece, fixing the welded core pipeline on the core seat, installing the outer-layer cotton core on the outer side of the core pipeline, and installing the inner-layer cotton core on the inner side; the core pipeline comprises a ridge beam framework and cotton cloth, the ridge beam framework is wrapped by the cotton cloth to form the core pipeline, and the ridge beam framework plays a supporting role, so that the core pipeline cannot be blocked due to collapse of the cotton cloth; the prior art backbone typically uses square springs.

However, when the existing device is used for assembling a core pipeline, firstly, the assembled ridge beam framework cannot be fixed, so that in the assembling process, the position of the ridge beam framework is moved to influence the assembling operation on the ridge beam framework, and secondly, the ridge beam framework and the wrapped cotton cloth cannot be timely adhered together, so that the cotton cloth falls off from the ridge beam framework when the device is used, and the subsequent use is influenced.

Disclosure of Invention

The invention aims to provide a core pipeline assembling device of an automatic production line of anesthesia evaporator cores, which aims to solve the technical problems that in the prior art, the position of a ridge beam framework moves, the assembling operation of the ridge beam framework is influenced, and the ridge beam framework and a wrapped cotton cloth cannot be timely adhered together.

The invention provides a core pipeline assembling device of an automatic production line of anesthetic evaporator cores, which comprises a mounting frame, a ridge beam framework fixing assembly, a spraying assembly, a cotton cloth wrapping assembly, a ridge beam framework feeding assembly, a ridge beam framework discharging assembly, a core pipeline conveying assembly and a drying assembly, wherein the mounting frame is vertically arranged, the ridge beam framework fixing assembly is arranged on the mounting frame and is in sliding fit with the mounting frame, the spraying assembly is arranged at the top of the mounting frame and is positioned at the side of the ridge beam framework fixing assembly, the cotton cloth wrapping assembly is arranged at the top of the mounting frame and is arranged corresponding to the ridge beam framework discharging assembly, the ridge beam framework feeding assembly and the ridge beam framework discharging assembly are respectively arranged at the two ends of the top of the mounting frame, the ridge beam framework feeding assembly and the ridge beam framework discharging assembly are symmetrically arranged, the core pipeline conveying assembly is arranged at the side of the mounting frame and is arranged corresponding to the ridge beam framework discharging assembly, the drying component is arranged at the top of the core pipeline conveying component and is vertically arranged downwards with the output end of the drying component.

Compared with the prior art, the invention has the beneficial effects that:

firstly, when the spine framework is fixed, the fixed motor works to drive the fixed gear to rotate, the fixed gear rotates to drive the two fixed toothed plates to move relatively and oppositely in the mounting groove, the two fixed toothed plates move to drive the two fixed rods to slide on the two sliding grooves in the mounting frame, and the two fixed rods move to fix the spine framework, so that the spine framework is prevented from moving in the processing process, and the processing of the spine framework is prevented from being influenced.

Secondly, according to the drying machine, the drying motor works to drive the rotating ring to rotate on the drying box, the rotating ring rotates to drive the first rotating rod to rotate, the first rotating rod rotates to drive the second rotating rod to rotate at the bottom of the fixed circular frame through the universal ball, the second rotating rod rotates to drive the drying fan to rotate, the drying fan works to convey hot air to the core pipeline, drying operation is conducted on the core pipeline, and the ridge beam framework and the cotton cloth are fully adhered together.

Thirdly, the external glue is conveyed to the plurality of spraying nozzles through the connecting pipe, the plurality of spraying nozzles convey the glue to the ridge beam framework, the first driving motor works to drive the first driving shaft to rotate on the mounting frame, the first driving shaft rotates to drive the connecting frame to rotate, the connecting frame rotates to drive the plurality of spraying nozzles to rotate, the glue is uniformly sprayed on the ridge beam framework, and the cotton cloth wrapping operation is facilitated after the glue is sprayed on the ridge beam framework.

Drawings

In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly described below, and it is obvious that the drawings in the following description are some embodiments of the present invention, and other drawings can be obtained by those skilled in the art without creative efforts.

FIG. 1 is a first perspective view of the present invention;

FIG. 2 is a schematic perspective view of the present invention;

FIG. 3 is a schematic perspective view of a core print loading assembly according to the present invention;

FIG. 4 is a schematic perspective view of an outer cotton core loading assembly of the present invention;

FIG. 5 is a partial perspective view of the first embodiment of the present invention;

FIG. 6 is a partial perspective view of the second embodiment of the present invention;

FIG. 7 is a schematic perspective view of the core tube machining mechanism of the present invention;

FIG. 8 is a third schematic view of a partial perspective structure of the present invention;

FIG. 9 is an enlarged view taken at A in FIG. 8;

FIG. 10 is an enlarged view at B in FIG. 8;

FIG. 11 is a side view of the core tube machining mechanism of the present invention;

FIG. 12 is a schematic perspective view of a cotton pack assembly of the present invention;

FIG. 13 is a schematic perspective view of the drying assembly of the present invention;

FIG. 14 is a schematic perspective view of an evaporator core of the present invention;

FIG. 15 is an exploded view of the evaporator core of the present invention.

Reference numerals:

the evaporator core 1, the core base 11, the outer cotton core 12, the inner cotton core 13, the core pipeline 14, the fixing plate 15, the temperature compensation unit 16, the conveying mechanism 2, the core base feeding and processing assembly 3, the first mounting base 31, the first rotating motor 32, the first rotating disc 33, the first lifting cylinder 34, the first rotating plate 35, the first four-jaw air clamp 36, the outer cotton core feeding assembly 4, the outer cotton core feeding and processing piece 41, the first fixed mounting frame 411, the first moving motor 412, the first rotating wheel 413, the second rotating wheel 414, the first moving plate 415, the first moving cylinder 416, the first belt 417, the outer cotton core feeding and mounting cylinder 418, the first mounting plate 419, the outer cotton core conveying piece 42, the first conveying frame 421, the outer cotton core moving plate 422, the first conveying motor 423, the first conveying screw rod 424, the conveying belt 425, the inner cotton core feeding assembly 5, the inner cotton core conveying piece 51, a second conveying frame 511, a first fixed seat 512, a second movable cylinder 513, an inner cotton core moving plate 514, a limit frame 515, an inner cotton core feeding workpiece 52, a second mounting seat 521, a second rotating motor 522, a second rotating disc 523, a second rotating plate 524, a second lifting cylinder 525, a four-jaw mounting air clamp 526, a core pipe mounting component 6, a third conveying frame 61, a second conveying motor 62, a second conveying screw 63, a second moving plate 64, a third lifting cylinder 65, a movable mounting suction cup 66, a core pipe processing mechanism 7, a mounting frame 71, a ridge beam framework fixing component 72, a fixed motor 721, a fixed gear 722, a fixed toothed plate 723, a fixed rod 724, a spraying component 73, a mounting frame 731, a first driving motor 732, a first driving shaft 733, a connecting frame 734, a connecting pipe 735, a spraying nozzle 736, a cotton cloth wrapping component 74, a supporting frame 741, a second driving motor 742, first gear 743, fluted disc 744, cotton storage roller 745, ridge beam skeleton material loading subassembly 75, ridge beam skeleton material unloading subassembly 76, unloading rotation piece 761, unloading motor 7611, rotation post 7612, motor wheel 7613, lead screw slip table 7614, unloading moving piece 762, telescopic seat 7621, telescopic motor 7622, rotating gear 7623, expansion plate 7624, press from both sides and get gas clamp 7625, tooth's socket 7626, core pipeline transport assembly 77, transfer frame 771, transfer motor 772, conveying roller 773, third belt 774, drying assembly 78, stoving case 781, swivel 782, stoving motor 783, fixed circle frame 784, first swivel rod 785, second swivel rod 786, universal ball 787, stoving fan 788, fixed sheet material loading installation device 8, fourth transport frame 81, sliding block 82, fourth lift cylinder 83, sliding cylinder 84, material loading installation dish 85, temperature compensation unit material loading installation mechanism 9.

Detailed Description

The technical solutions of the present invention will be described clearly and completely with reference to the accompanying drawings, and it should be understood that the described embodiments are some, but not all embodiments of the present invention.

The components of embodiments of the present invention generally described and illustrated in the figures herein may be arranged and designed in a wide variety of different configurations. Thus, the following detailed description of the embodiments of the present invention, presented in the figures, is not intended to limit the scope of the invention, as claimed, but is merely representative of selected embodiments of the invention.

All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.

In the description of the present invention, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc., indicate orientations or positional relationships based on the orientations or positional relationships shown in the drawings, and are only for convenience of description and simplicity of description, but do not indicate or imply that the device or element being referred to must have a particular orientation, be constructed and operated in a particular orientation, and thus, should not be construed as limiting the present invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance.

In the description of the present invention, it should be noted that, unless otherwise explicitly specified or limited, the terms "mounted," "connected," and "connected" are to be construed broadly, e.g., as meaning either a fixed connection, a removable connection, or an integral connection; can be mechanically or electrically connected; they may be connected directly or indirectly through intervening media, or they may be interconnected between two elements. The specific meanings of the above terms in the present invention can be understood in specific cases to those skilled in the art.

Referring to fig. 1 to 15, an embodiment of the present invention provides a core pipeline assembling device for an automatic production line of an anesthetic evaporator core, including a conveying mechanism 2, a core seat feeding and processing assembly 3, an outer layer cotton core feeding assembly 4, an inner layer cotton core feeding assembly 5, a core pipeline mounting assembly 6, and a core pipeline processing mechanism 7, wherein the conveying mechanism 2 is vertically disposed, the core seat feeding and processing assembly 3, the outer layer cotton core feeding assembly 4, the inner layer cotton core feeding assembly 5, and the core pipeline processing mechanism 7 are disposed on two sides of the conveying mechanism 2, the core seat feeding and processing assembly 3 is disposed at a feeding end of the conveying mechanism 2, the outer layer cotton core feeding assembly 4 includes an outer layer cotton core feeding workpiece 41 and an outer layer cotton core conveying workpiece 42, the outer layer cotton core conveying workpiece 42 is disposed at one end of the conveying mechanism 2, the outer layer cotton core feeding workpiece 41 is disposed at a side of the outer layer cotton core conveying workpiece 42 and corresponds to the outer layer cotton core conveying workpiece 42 The inner cotton core feeding assembly 5 comprises an inner cotton core conveying part 51 and an inner cotton core feeding workpiece 52, the inner cotton core conveying part 51 is arranged at the other end of the conveying mechanism 2, the inner cotton core feeding workpiece 52 is arranged beside the inner cotton core conveying part 51 and corresponds to the inner cotton core conveying part 51, the core pipeline mounting assembly 6 is arranged at the top of the conveying mechanism 2, a fixed sheet feeding mounting device 8 is arranged beside the core pipeline mounting assembly 6 and is positioned at the top of the conveying mechanism 2, and a discharging end of the conveying mechanism 2 is provided with a temperature compensation unit feeding mounting mechanism 9; when the anesthetic evaporator core 1 is assembled, firstly, the core base 11 is clamped and conveyed to the conveying mechanism 2 through the core base feeding and processing assembly 3, the outer-layer cotton core 12 is moved forwards through the outer-layer cotton core conveying piece 42, the outer-layer cotton core 12 on the outer-layer cotton core conveying piece 42 is clamped and conveyed to the core base 11 through the work of the outer-layer cotton core feeding and processing piece 41 after the movement, the outer-layer cotton core 12 is arranged on the core base 11, the inner-layer cotton core 13 is conveyed forwards through the inner-layer cotton core conveying piece 51, the outer-layer cotton core 12 is clamped and conveyed to the core base 11 through the inner-layer cotton core feeding and processing piece 52 after the movement, the inner-layer cotton core 13 is arranged, the conveying mechanism 2 continues to convey the anesthetic evaporator core 1 forwards, the core pipeline 14 is arranged on the core base 11 through the core pipeline installing assembly 6, and then the temperature compensation unit 16 is arranged on the core base 11 through the temperature compensation unit feeding and installing mechanism 9, the automatic assembling of the anesthetic evaporator core 1 is completed, the automation degree is high, the working efficiency is improved, and the working error is reduced.

Specifically, the core print feeding processing assembly 3 includes a first mounting seat 31, a first rotating motor 32, a first rotating disk 33, a first lifting cylinder 34 and a first rotating plate 35, the first mounting seat 31 is vertically disposed beside the feeding end of the conveying mechanism 2, the first rotating motor 32 is disposed in the first mounting seat 31, the output end of the first rotating motor 32 is vertically disposed upward, the first rotating disk 33 is horizontally disposed on the output end of the first rotating motor 32, the first lifting cylinder 34 is vertically disposed on the top of the first rotating disk 33, the output end of the first lifting cylinder 34 is vertically disposed upward, the first rotating plate 35 is horizontally disposed on the output end of the first lifting cylinder 34, and two ends of the bottom of the first rotating plate 35 are respectively provided with two first four-jaw air clamps 36; when getting the installation to core print 11, first four paws air clamp 36 gets core print 11 and gets, it drives first rotation disc 33 through first rotation motor 32 work and rotates to get the back to press from both sides, first rotation disc 33 rotates and drives first rotation disc 35 and rotate, carry core print 11 to the top of conveying mechanism 2, thereby the output through first lift cylinder 34 removes the top that drives first mounting panel 419 and remove to conveying mechanism 2, first four paws air clamp 36 puts core print 11 at conveying mechanism 2's top, can realize the automatic feeding processing operation to core print 11.

Specifically, the outer cotton core conveying element 42 includes a first conveying frame 421, an outer cotton core moving plate 422, two first conveying motors 423 and two first conveying screw rods 424, the first conveying frame 421 is arranged at the top of the conveying mechanism 2, the outer cotton core moving plate 422 is arranged at the top of the first conveying frame 421 and is in sliding fit with the first conveying frame 421, the two first conveying motors 423 are symmetrically arranged at two ends of the first conveying frame 421, two ends of each first conveying screw rod 424 are respectively connected with two ends of the first conveying frame 421 in a rotating manner, two output ends of the two first conveying motors 423 are respectively fixedly connected with one end of each first conveying screw rod 424, two ends of the outer cotton core moving plate 422 are respectively connected with the two first conveying screw rods 424 in a threaded manner, and a conveying belt 425 is arranged beside the first conveying frame 421; when the outer cotton core 12 moves, the two first conveying motors 423 work to drive the two first conveying screw rods 424 to rotate, the two first conveying screw rods 424 rotate to drive the outer cotton core moving plate 422 to move, and the outer cotton core moving plate 422 moves on the first conveying frame 421 to move the outer cotton core 12 to the conveying belt 425.

Specifically, the outer cotton core feeding workpiece 41 includes a first fixed mounting rack 71411, a first moving motor 412, a first rotating wheel 413, a second rotating wheel 414, a first moving plate 415, a first moving cylinder 416 and an outer cotton core feeding and mounting cylinder 418, the first fixed mounting rack 71411 is mounted at the top of the conveying mechanism 2, the first moving motor 412 is disposed on the side wall of the first fixed mounting rack 71411 and the output end of the first moving motor 412 is rotatably connected with the first fixed mounting rack 71411, the first rotating wheel 413 is disposed at one end of the first fixed mounting rack 71411 and is fixedly connected with the output end of the first moving motor 412, the second rotating wheel 414 is disposed at the other end of the first fixed mounting rack 411, a first belt 417 in transmission connection with the second rotating wheel 414 is disposed on the first rotating wheel 413, the first moving plate 415 is disposed at the top of the first fixed mounting rack 71411 and is in sliding fit with the first fixed mounting rack 71411, the bottom of the first moving plate 415 is fixedly connected with a first belt 417, the first moving cylinder 416 is arranged at the top of the first moving plate 415, the output end of the first moving cylinder 416 is vertically arranged downwards, a first mounting plate 419 which is horizontally arranged is arranged at the output end of the first moving cylinder 416, the outer cotton core feeding mounting cylinder 418 is arranged at the bottom of the first mounting seat 31, and the output end of the outer cotton core feeding mounting cylinder 418 is vertically arranged downwards; when the outer cotton core 12 is loaded, the output end of the first moving cylinder 416 moves to drive the outer cotton core loading and installing cylinder 418 to move so as to clamp the outer cotton core 12 on the conveying belt 425, the first moving motor 412 works to drive the first rotating wheel 413 to rotate, the first rotating wheel 413 rotates to drive the first belt 417 to rotate, the first belt 417 rotates to drive the second rotating wheel 414 to rotate, the first belt 417 rotates to drive the first moving plate 415 to move so as to drive the outer cotton core 12 to move, the outer cotton core 12 is moved to the upper side of the core base 11, and the outer cotton core 12 is installed on the core base 11 through the work of the outer cotton core loading and installing cylinder 418.

Specifically, the inner cotton core conveying element 51 comprises a second conveying frame 511, a first fixed seat 512, a second moving cylinder 513 and an inner cotton core moving plate 514, the second conveying frame 511 is arranged at the other end of the conveying mechanism 2, two symmetrically arranged limiting frames 515 are arranged at the top of the second conveying frame 511, the inner cotton core moving plate 514 is arranged at the top of the second conveying frame 511 and is in sliding fit with the second conveying frame 511, the first fixed seat 512 is arranged at one end of the second conveying frame 511, the second moving cylinder 513 is horizontally arranged at the top of the first fixed seat 512, and the output end of the second moving cylinder 513 is fixedly connected with the inner cotton core moving plate 514; the two limiting frames 515 are used for limiting the inner cotton cores 13, the first fixing seat 512 is used for installing and supporting the second moving cylinder 513, when the inner cotton cores 13 move, the output end of the second moving cylinder 513 moves to drive the inner cotton core moving plate 514 to move, and the inner cotton core moving plate 514 moves the inner cotton cores 13 on the top of the second conveying frame 511 forwards.

Specifically, the inner cotton core feeding workpiece 52 comprises a second mounting seat 521, a second rotating motor 522, a second rotating disc 523, a second rotating plate 524, a second lifting cylinder 525 and a four-jaw mounting air clamp 526, the second mounting seat 521 is disposed at a side of the second carriage 511, the second rotating motor 522 is disposed in the second mounting seat 521 and an output end of the second rotating motor 522 is disposed vertically upward, the second rotary disk 523 is provided on an output end of the second rotary motor 522, the second rotary plate 524 is vertically provided on the top of the second rotary disk 523, the second rotating plate 524 is of an L-shaped structure, the second lifting cylinder 525 is arranged at the top of the second rotating plate 524, the output end of the second lifting cylinder 525 is arranged vertically downwards, the four-jaw mounting air clamp 526 is arranged at the output end of the second lifting cylinder 525, and the output end of the four-jaw mounting air clamp 526 is vertically arranged downwards; when carrying out material loading and installation to inlayer cotton core 13, the output of second lift cylinder 525 removes and drives four claw installation air clamps 526 and removes and press from both sides inlayer cotton core 13 and get, it rotates to drive second rolling disc 523 through second rotation motor 522 work and rotates to get the back to press from both sides, second rolling disc 523 rotates and drives second rolling plate 524 and rotate, second rolling plate 524 rotates and drives, remove inlayer cotton core 13 to the top of core print 11, the output of second lift cylinder 525 removes and drives four claw installation air clamps 526 and remove, four claw installation air clamps 526 remove and install inlayer cotton core 13 on core print 11, can realize installing inlayer cotton core 13 on core print 11 automatically.

Specifically, core pipe processing agency 7 includes mounting bracket 71, ridge beam skeleton fixed subassembly 72, spraying subassembly 73, cotton cloth parcel subassembly 74, ridge beam skeleton material loading subassembly 75, ridge beam skeleton material unloading subassembly 76, core pipe conveying subassembly 77 and stoving subassembly 78, mounting bracket 71 is vertical setting, ridge beam skeleton fixed subassembly 72 sets up on mounting bracket 71 and with mounting bracket 71 sliding fit, spraying subassembly 73 sets up at the top of mounting bracket 71 and is located the side of ridge beam skeleton fixed subassembly 72, cotton cloth parcel subassembly 74 sets up at the top of mounting bracket 71 and corresponds the setting with ridge beam skeleton material unloading subassembly 76, ridge beam skeleton material loading subassembly 75 and ridge beam skeleton material unloading subassembly 76 set up respectively at the top both ends of mounting bracket 71 and ridge beam skeleton material loading subassembly 75 and ridge beam skeleton material unloading subassembly 76 symmetry set up, core pipe conveying subassembly 77 sets up at the side of mounting bracket 71 and corresponds the setting with ridge beam skeleton material unloading subassembly 76, the drying component 78 is arranged at the top of the core pipeline conveying component 77 and is vertically arranged downwards with the output end of the drying component 78; when processing core pipeline 14, at first carry the ridge roof beam skeleton to the top of mounting bracket 71 through ridge roof beam skeleton material loading subassembly 75, ridge roof beam skeleton fixed subassembly 72 work is fixed the ridge roof beam skeleton, prevent that the ridge roof beam skeleton from taking place the skew for the position when processing, after fixing, spraying assembly 73 will glue coating spraying on the ridge roof beam skeleton, cotton parcel assembly 74 work is wrapped up the cotton on the ridge roof beam skeleton, after wrapping up the skeleton that gathers materials, ridge roof beam skeleton unloading subassembly 76 presss from both sides core pipeline 14 and gets and remove to core pipeline transport assembly 77, core pipeline transport assembly 77 carries core pipeline 14, in-process carrying out the transport, drying assembly 78 weathers and dries core pipeline 14, can realize wrapping up the cotton on the ridge roof beam skeleton.

Specifically, the spine skeleton fixing assembly 72 comprises a fixing motor 721, a fixed gear 722, two fixing toothed plates 723 and two fixing rods 724, the fixing motor 721 is arranged at the bottom of the mounting frame 71, the output end of the fixing motor 721 is vertically arranged upwards, an installation groove is formed in the top of the mounting frame 71, the fixed gear 722 is arranged in the installation groove, the fixed gear 722 is arranged at the output end of the fixing motor 721, the two fixing toothed plates 723 are horizontally arranged in the installation groove and are in sliding fit with the installation groove, the two fixing toothed plates 723 are both meshed with the fixing toothed plates 723, the two fixing rods 724 are symmetrically arranged at one end of the two fixing toothed plates 723, the two fixing rods 724 are both vertically arranged, and sliding grooves in sliding fit with the two fixing rods 724 are respectively formed in the top of the mounting frame 71; when fixing the spine skeleton, fixed motor 721 work drives fixed gear 722 to rotate, and fixed gear 722 rotates and drives two fixed tooth plates 723 to move relatively and in opposite directions in the mounting groove, and two fixed tooth plates 723 move to drive two fixing rods 724 to slide on two sliding grooves on mounting bracket 71, and two fixing rods 724 move to fix the spine skeleton, prevent that the position of the spine skeleton from moving in the processing process, thereby influencing the processing of the spine skeleton.

Specifically, the spraying assembly 73 includes a mounting frame 731, a first driving motor 732, a first driving shaft 733, a connecting frame 734, a connecting pipe 735, and a plurality of spraying nozzles 736, the mounting frame 731 is disposed on the top of the mounting frame 71, the first driving shaft 733 is horizontally disposed on the mounting frame 731 and rotatably connected to the mounting frame 731, the first driving motor 732 is disposed on a side wall of the mounting frame 731 and fixedly connected to one end of the first driving shaft 733, two ends of the connecting frame 734 are respectively fixedly connected to the first driving shaft 733, the plurality of spraying nozzles 736 are disposed on the connecting frame 734 at equal intervals, and the connecting pipe 735 is disposed on the plurality of spraying nozzles 736; when wrapping up the cotton cloth on the ridge roof beam skeleton, need with the rubber coating spraying on the ridge roof beam skeleton, carry external rubber coating to a plurality of spraying mouthpiece 736 through connecting pipe 735 this moment, a plurality of spraying mouthpiece 736 carry the rubber coating to the ridge roof beam skeleton on, first driving motor 732 work drives first drive shaft 733 and rotates on installing frame 731, first drive shaft 733 rotates and drives the link 734 and rotate, the link 734 rotates and drives a plurality of spraying mouthpiece 736 and rotate, with the even spraying of rubber coating on the ridge roof beam skeleton, be favorable to the parcel operation of cotton cloth after spraying the rubber coating on the ridge roof beam skeleton.

Specifically, the cotton cloth wrapping assembly 74 includes a support frame 741, a second driving motor 742, a first gear 743, a gear disc 744 and a cotton cloth storage roller 745, the support frame 741 is disposed at the top of the mounting frame 71, the second driving motor 742 is disposed at the top of the support frame 741, an output end of the second driving motor 742 is disposed vertically downward, the first gear 743 is disposed at an output end of the second driving motor 742, the gear disc 744 is disposed at the bottom of the support frame 741 and rotatably connected to the support frame 741, the gear disc 744 is engaged with the first gear 743, and the cotton cloth storage roller 745 is fixedly disposed at the bottom of the gear disc 744; when wrapping up the cotton, the work of second driving motor 742 drives first gear 743 and rotates, and first gear 743 rotates and drives fluted disc 744 and rotates in the bottom of support frame 741, and fluted disc 744 rotates and drives the rotation of cotton storage roller 745, and the cotton parcel on the roller 745 is deposited to the cotton is on the ridge roof beam skeleton.

Specifically, the ridge beam framework feeding assembly 75 and the ridge beam framework discharging assembly 76 have the same structure, the spine frame blanking assembly 76 includes a blanking rotor 761 and a blanking moving member 762, the blanking rotating part 761 is provided on the mounting bracket 71 and is rotatably connected to the mounting bracket 71, the blanking moving member 762 is arranged on the moving end of the blanking rotating member 761, the blanking rotating member 761 comprises a blanking motor 7611, a rotating column 7612, a motor wheel 7613 and a screw rod sliding table 7614, the blanking motor 7611 is arranged at the bottom of the mounting frame 71 and the output end of the blanking motor 7611 is vertically arranged upwards, the motor wheel 7613 is provided at an output end of the blanking motor 7611, the rotating column 7612 is provided at a top of the mounting frame 71 and rotatably connected with the mounting frame 71, a second belt in transmission connection with the motor wheel 7613 is arranged on the rotating column 7612, and the screw rod sliding table 7614 is vertically arranged at the top of the rotating column 7612; when removing the ridge roof beam skeleton, unloading motor 7611 work drives the motor wheel 7613 and rotates, thereby the motor wheel 7613 rotates and drives the second belt rotation and drive rotation post 7612 and rotate on mounting bracket 71, rotates post 7612 and rotates and drive lead screw slip table 7614 and remove, and lead screw slip table 7614's slip table removes and drives unloading moving member 762 and remove, removes the ridge roof beam skeleton to core pipeline transport assembly 77 on.

Specifically, the blanking moving member 762 includes a telescopic seat 7621, a telescopic motor 7622, a rotating gear 7623, a telescopic plate 7624, and a clamping air clamp 7625, the telescopic seat 7621 is fixedly disposed on a sliding table of the screw rod sliding table 7614, the telescopic motor 7622 is disposed at the top of the telescopic seat 7621, the rotating gear 7623 is disposed at an output end of the telescopic motor 7622, the telescopic plate 7624 is horizontally disposed on the telescopic seat 7621 and is in sliding fit with the telescopic seat 7621, a tooth groove 7626 engaged with the telescopic plate 7624 is disposed on the telescopic plate 7624, and the clamping air clamp 7625 is horizontally and fixedly disposed at an end of the telescopic plate 7624; when the core pipeline 14 is moved, the telescopic motor 7622 works to drive the rotating gear 7623 to rotate, the rotating gear 7623 rotates to drive the toothed groove 7626 on the telescopic plate 7624 to move so as to drive the telescopic plate 7624 to move on the telescopic seat 7621, the telescopic plate 7624 moves to drive the clamping air clamp 7625 to move to the side of the ridge beam framework, and the clamping air clamp 7625 works to clamp the ridge beam framework.

Specifically, the core pipe conveying assembly 77 comprises a transfer frame 771, a transfer motor 772 and a plurality of conveying rollers 773, the transfer frame 771 is arranged beside the mounting frame 71, the plurality of conveying rollers 773 are arranged on the transfer frame 771 at equal intervals and are rotatably connected with the transfer frame 771, the transfer motor 772 is arranged on the side wall of the transfer frame 771, the output end of the transfer motor 772 is fixedly connected with one end of one of the conveying rollers 773, and a third belt 774 is sleeved at one end of the plurality of conveying rollers 773; when the core tubes 14 are conveyed, the conveying motor 772 works to drive one conveying roller 773 to rotate on the conveying frame 771, one conveying roller 773 rotates to drive the other conveying rollers 773 to rotate on the conveying frame 771 through the third belt 774, and the plurality of conveying rollers 773 rotate to convey the core holders 11 forward.

Specifically, the drying assembly 78 includes a drying box 781, a rotary ring 782, a drying motor 783, a fixed round frame 784, a first rotary rod 785, a second rotary rod 786, a universal ball 787 and a drying fan 788, the drying box 781 is arranged at the top of the transfer frame 771, the drying motor 783 is arranged at the top of the drying box 781, the output end of the drying motor 783 is arranged downwards, the fixed round frame 784 is arranged in the drying box 781 and is fixedly connected with the drying box 781, the rotating ring 782 is sleeved on the output end of the drying motor 783, the universal ball 787 is arranged at the bottom of the fixed round frame 784 and is in rotating fit with the fixed round frame 784, the first rotating rod 785 is arranged in an L shape, one end of the second rotating rod 786 is fixedly connected with the universal ball 787, the drying fan 788 is fixedly connected with the other end of the second rotating rod 786, and two ends of the first rotating rod 785 are respectively and fixedly connected with the rotating ring 782 and the second rotating rod 786; after wrapping up the cotton on the ridge beam skeleton, need dry the operation to core pipeline 14, stoving motor 783 work this moment drives swivel 782 and rotates on stoving case 781, swivel 782 rotates and drives first dwang 785 and rotates, first dwang 785 rotates and drives second dwang 786 and rotate in the bottom of fixed circle frame 784 through universal ball 787, second dwang 786 rotates and drives drying fan 788 and rotate, drying fan 788 work is carried hot-blast to core pipeline 14 on, dry the operation to core pipeline 14, make the abundant adhesion of ridge beam skeleton and cotton together.

Specifically, the core pipe installation assembly 6 includes a third conveying frame 61, a second conveying motor 62, a second conveying screw 63, a second moving plate 64, a third lifting cylinder 65 and a movable installation suction cup 66, the third conveying frame 61 is arranged at the top of the conveying mechanism 2, the second conveying motor 62 is arranged on the side wall of the third conveying frame 61, the output end of the second conveying motor 62 is rotatably connected with the third conveying frame 61, two ends of the second conveying screw 63 are respectively rotatably connected with the third conveying frame 61, one end of the second conveying screw 63 is fixedly connected with the output end of the second conveying motor 62, the second moving plate 64 is arranged at the top of the third conveying frame 61 and is in sliding fit with the third conveying frame moving plate 61, the second conveying screw 64 is in threaded connection with the second conveying screw 63, the third lifting cylinder 65 is arranged at the top of the second moving plate 64, and the output end of the third lifting cylinder 65 is arranged vertically downwards, the movable mounting sucker 66 is arranged on the output end of the third lifting cylinder 65; when the core pipeline 14 is installed, the output end of the third lifting cylinder 65 moves to drive the movable installation sucker 66 to move to suck the core pipeline 14, the second conveying motor 62 works to drive the second conveying screw 63 to rotate on the third conveying frame 61, the second conveying screw 63 rotates to drive the second moving plate 64 to move on the third conveying frame 61, the second moving plate 64 moves to move the core pipeline 14 to the top of the core base 11, and the output end of the third lifting cylinder 65 moves to drive the movable installation sucker 66 to move to install the core pipeline 14 on the core base 11.

Specifically, the fixed sheet feeding and mounting device 8 comprises a fourth conveying frame 81, a sliding block 82, a fourth lifting cylinder 83, a sliding cylinder 84 and a feeding mounting disc 85, wherein the fourth conveying frame 81 is arranged at the top of the conveying mechanism 2 and is positioned at the top of the third conveying frame 61, the sliding block 82 is arranged at the top of the fourth conveying frame 81 and is in sliding fit with the fourth conveying frame 81, the fourth lifting cylinder 83 is arranged at the top of the sliding block 82, the output end of the fourth lifting cylinder 83 is vertically arranged downwards, the feeding mounting disc 85 is arranged at the output end of the fourth lifting cylinder 83, the sliding cylinder 84 is horizontally arranged on the fourth conveying frame 81, and the output end of the sliding cylinder 84 is fixedly connected with the sliding block 82; when the fixing piece 15 is installed, the output end of the fourth lifting cylinder 83 moves to drive the feeding installation disc 85 to move, the fixing piece 15 is sucked through the output end of the sliding cylinder 84 to move to drive the sliding block 82 to move on the fourth conveying frame 81, the fixing piece 15 is moved to the position above the core base 11, the output end of the fourth lifting cylinder 83 moves to drive the feeding installation disc 85 to move, the fixing piece 15 is installed on the core base 11, and automatic installation operation of the fixing piece 15 can be achieved.

Specifically, the temperature compensation unit feeding installation mechanism 9 has the same structure as the core print feeding processing assembly 3; the temperature compensation unit loading installation mechanism 9 works to connect the temperature compensation unit 16.

The working principle of the invention is as follows: when the invention is used, when the core print 11 is clamped and installed, the first four-claw air clamp 36 clamps the core print 11, the first rotating disk 33 is driven to rotate by the work of the first rotating motor 32 after clamping, the first rotating disk 33 rotates to drive the first rotating disk 35 to rotate, the core print 11 is conveyed to the upper part of the conveying mechanism 2, the first mounting plate 419 is driven to move by the movement of the output end of the first lifting cylinder 34, so that the core print 11 moves to the top of the conveying mechanism 2, the core print 11 is placed on the top of the conveying mechanism 2 by the first four-claw air clamp 36, the automatic feeding and processing operation of the core print 11 can be realized, when the outer layer cotton core 12 is processed, the two first conveying motors 423 work to drive the two first conveying screw rods 424 to rotate, the two first conveying screw rods 424 rotate to drive the outer layer cotton core moving plate 422 to move, the outer layer cotton core moving plate 422 moves on the first conveying frame 421 to move the outer layer cotton core 12 to the conveying belt 425, when the outer cotton core 12 is fed, the output end of the first moving cylinder 416 moves to drive the outer cotton core feeding and mounting cylinder 418 to move, the outer cotton core 12 on the conveying belt 425 is clamped, the first moving motor 412 works to drive the first rotating wheel 413 to rotate, the first rotating wheel 413 rotates to drive the first belt 417 to rotate, the first belt 417 rotates to drive the second rotating wheel 414 to rotate, the first belt 417 rotates to drive the first moving plate 415 to move so as to drive the outer cotton core 12 to move, the outer cotton core 12 is moved to the position above the core base 11, the outer cotton core 12 is mounted on the core base 11 through the work of the outer cotton core feeding and mounting cylinder 418, when the inner cotton core 13 is machined, the output end of the second moving cylinder 513 moves to drive the inner cotton core 514 to move, the inner cotton core moving plate 514 moves the inner cotton core 13 on the top of the second conveying frame 511 forwards, when the inner cotton core 13 is loaded and installed, the output end of the second lifting cylinder 525 moves to drive the four-jaw installation air clamp 526 to move to clamp the inner cotton core 13, the second rotating motor 522 works to drive the second rotating disc 523 to rotate after clamping, the second rotating disc 523 rotates to drive the second rotating plate 524 to rotate, the second rotating plate 524 rotates to drive the inner cotton core 13 to move to the top of the core base 11, the output end of the second lifting cylinder 525 moves to drive the four-jaw installation air clamp 526 to move, the four-jaw installation air clamp 526 moves to install the inner cotton core 13 on the core base 11, the inner cotton core 13 can be automatically installed on the core base 11, when the core pipeline 14 is processed, the ridge beam framework is firstly conveyed to the top of the ridge beam framework loading assembly 75, the fixed motor 721 works to drive the fixed gear 722 to rotate, the fixed gear 722 rotates to drive the two fixed toothed plates 723 to move relatively and oppositely in the installation groove, the two fixed tooth plates 723 move to drive the two fixed rods 724 to slide on the two sliding grooves on the mounting frame 71, the two fixed rods 724 move to fix the ridge beam framework, so that the position of the ridge beam framework is prevented from moving in the processing process, and the processing of the ridge beam framework is influenced, when cotton cloth is wrapped on the ridge beam framework, glue is required to be sprayed on the ridge beam framework, at the moment, the external glue is conveyed to the plurality of spraying nozzles 736 through the connecting pipe 735, the glue is conveyed to the ridge beam framework by the plurality of spraying nozzles 736, the first driving motor 732 works to drive the first driving shaft 733 to rotate on the mounting frame 731, the first driving shaft 733 rotates to drive the connecting frame 734 to rotate, the connecting frame 734 rotates to drive the plurality of spraying nozzles 736 to rotate, the glue is uniformly sprayed on the ridge beam framework, and the cotton cloth wrapping operation is facilitated after the glue is sprayed on the ridge beam framework, when wrapping cotton cloth, the second driving motor 742 works to drive the first gear 743 to rotate, the first gear 743 rotates to drive the fluted disc 744 to rotate at the bottom of the supporting frame 741, the fluted disc 744 rotates to drive the cotton cloth storage roller 745 to rotate, cotton cloth on the cotton cloth storage roller 745 is wrapped on the ridge beam framework, when the core pipeline 14 moves, the telescopic motor 7622 works to drive the rotating gear 7623 to rotate, the rotating gear 7623 rotates to drive the toothed groove 7626 on the telescopic plate 7624 to move so as to drive the telescopic plate 7624 to move on the telescopic seat 7621, the telescopic plate 7624 moves to drive the clamping air clamp 7625 to move to the side of the ridge beam framework, the clamping air clamp 7625 works to clamp the ridge beam framework, after clamping, the blanking motor 7611 works to drive the motor 7613 to rotate, the motor 7613 rotates to drive the second belt to rotate so as to drive the rotating column 7612 to rotate on the mounting frame 71, the rotating column 7612 rotates to drive the screw rod sliding table 4 to move, the sliding table of the screw rod sliding table 7614 moves to drive the blanking moving member 762 to move, the ridge beam framework is moved to a plurality of conveying rollers 773, the transfer motor 772 works to drive one of the conveying rollers 773 to rotate on the transfer frame 771, one of the conveying rollers 773 rotates to drive the other conveying rollers 773 to rotate on the transfer frame 771 through the rotation of the third belt 774, the plurality of conveying rollers 773 rotate to convey the core seat 11 pipeline forwards, the drying motor 783 works to drive the rotating ring 782 to rotate on the drying box 781, the rotating ring 782 rotates to drive the first rotating rod 785 to rotate, the first rotating rod 785 rotates to drive the second rotating rod 786 to rotate at the bottom of the fixed circular frame 784 through the universal ball 787, the second rotating rod 786 rotates to drive the drying fan 788 to rotate, the drying fan 788 works to convey hot air to the core pipeline 14, the core pipeline 14 is dried, and the ridge beam framework and the cotton cloth are fully adhered together, when the core pipeline 14 is installed, the output end of the third lifting cylinder 65 moves to drive the movable installation sucker 66 to move to suck the core pipeline 14, the second conveying motor 62 works to drive the second conveying screw 63 to rotate on the third conveying frame 61, the second conveying screw 63 rotates to drive the second movable plate 64 to move on the third conveying frame 61, the second movable plate 64 moves to move the core pipeline 14 to the top of the core base 11, the output end of the third lifting cylinder 65 moves to drive the movable installation sucker 66 to move to install the core pipeline 14 on the core base 11, when the fixed sheet 15 is installed, the output end of the fourth lifting cylinder 83 moves to drive the feeding installation plate 85 to move, the fixed sheet 15 is sucked through the output end of the sliding cylinder 84 to move the sliding block 82 to move on the fourth conveying frame 81, the fixed sheet 15 is moved to the upper part of the core base 11, the output end of the fourth lifting cylinder 83 moves to drive the feeding mounting disc 85 to move, the fixing sheet 15 is mounted on the core base 11, the automatic mounting operation of the fixing sheet 15 can be realized, and the temperature compensation unit 16 can be mounted on the anesthesia evaporator core 1 by the aid of the feeding mounting mechanism 9 of the temperature compensation unit.

Finally, it should be noted that: the above embodiments are only used to illustrate the technical solution of the present invention, and not to limit the same; while the invention has been described in detail and with reference to the foregoing embodiments, it will be understood by those skilled in the art that: the technical solutions described in the foregoing embodiments may still be modified, or some or all of the technical features may be equivalently replaced; and the modifications or the substitutions do not make the essence of the corresponding technical solutions depart from the scope of the technical solutions of the embodiments of the present invention.

Claims

1. The utility model provides a core pipeline assembly quality of anesthesia evaporator core automatic production line which characterized in that: comprises a mounting frame (71), a ridge beam framework fixing component (72), a spraying component (73), a cotton cloth wrapping component (74), a ridge beam framework feeding component (75), a ridge beam framework discharging component (76), a core pipeline conveying component (77) and a drying component (78), wherein the mounting frame (71) is vertically arranged, the ridge beam framework fixing component (72) is arranged on the mounting frame (71) and is in sliding fit with the mounting frame (71), the spraying component (73) is arranged at the top of the mounting frame (71) and is positioned beside the ridge beam framework fixing component (72), the cotton cloth wrapping component (74) is arranged at the top of the mounting frame (71) and is arranged corresponding to the ridge beam framework discharging component (76), the ridge beam framework feeding component (75) and the ridge beam framework discharging component (76) are respectively arranged at two ends of the top of the mounting frame (71) and are symmetrically arranged with the ridge beam framework feeding component (75) and the ridge beam framework discharging component (76), core pipe conveyor components (77) set up the side of mounting bracket (71) and correspond the setting with ridge roof beam skeleton unloading subassembly (76), stoving subassembly (78) set up at the top of core pipe conveyor components (77) and with the vertical downward setting of the output of stoving subassembly (78).

2. The apparatus for assembling a core tube of an automatic manufacturing line of anesthetic evaporator cores as claimed in claim 1, wherein: the spine skeleton fixing component (72) comprises a fixed motor (721), a fixed gear (722), two fixed toothed plates (723) and two fixed rods (724), the fixed motor (721) is arranged at the bottom of the mounting rack (71), the output end of the fixed motor (721) is vertically arranged upwards, the top of the mounting frame (71) is provided with a mounting groove, the fixed gear (722) is arranged in the mounting groove and the fixed gear (722) is arranged at the output end of the fixed motor (721), the two fixed toothed plates (723) are horizontally arranged in the mounting groove and are in sliding fit with the mounting groove, the two fixed toothed plates (723) are respectively meshed with the fixed toothed plates (723), the two fixing rods (724) are symmetrically arranged at one ends of the two fixed toothed plates (723) and the two fixing rods (724) are vertically arranged, the top of the mounting frame (71) is respectively provided with a sliding groove in sliding fit with the two fixing rods (724).

3. The apparatus for assembling a core tube of an automatic manufacturing line of anesthetic evaporator cores as claimed in claim 1, wherein: the spraying subassembly (73) includes installing frame (731), first driving motor (732), first drive shaft (733), link (734), connecting pipe (735) and a plurality of spraying nozzle (736), installing frame (731) sets up the top at installing frame (71), first drive shaft (733) level set up on installing frame (731) and rotate with installing frame (731) and be connected, first driving motor (732) set up on the lateral wall of installing frame (731) and with the one end fixed connection of first drive shaft (733), the both ends of link (734) respectively with first drive shaft (733) fixed connection, a plurality of spraying nozzle (736) equidistant setting is on link (734), connecting pipe (735) sets up on a plurality of spraying nozzle (736).

4. The apparatus for assembling a core tube of an automatic manufacturing line of anesthetic evaporator cores as claimed in claim 1, wherein: cotton cloth parcel subassembly (74) includes that support frame (741), second driving motor (742), first gear (743), fluted disc (744) and cotton deposit roller (745), support frame (741) set up the top at mounting bracket (71), second driving motor (742) set up the vertical downward setting of output at the top of support frame (741) and second driving motor (742), first gear (743) set up on the output of second driving motor (742), fluted disc (744) set up in the bottom of support frame (741) and rotate with support frame (741) and be connected, fluted disc (744) and first gear (743) meshing, the fixed bottom that sets up at fluted disc (744) of roller (745) is deposited to the cotton.

5. The apparatus for assembling a core tube of an automatic manufacturing line of anesthetic evaporator cores as claimed in claim 1, wherein: the spine skeleton feeding assembly (75) and the spine skeleton discharging assembly (76) are identical in structure, the spine skeleton discharging assembly (76) comprises a discharging rotating piece (761) and a discharging moving piece (762), the discharging rotating piece (761) is arranged on the mounting frame (71) and is rotationally connected with the mounting frame (71), the discharging moving piece (762) is arranged at the moving end of the discharging rotating piece (761), the discharging rotating piece (761) comprises a discharging motor (7611), a rotating column (7612), a motor wheel (7613) and a screw rod sliding table (7614), the discharging motor (7611) is arranged at the bottom of the mounting frame (761) and vertically upwards at the output end of the discharging motor (7611), the motor wheel (3) is arranged at the output end of the discharging motor (7611), the rotating column (2) is arranged at the top of the mounting frame (71) and is rotationally connected with the mounting frame (71), the rotating column (7612) is provided with a second belt in transmission connection with the motor wheel (7613), and the screw rod sliding table (7614) is vertically arranged at the top of the rotating column (7612).

6. The apparatus for assembling a core tube of an automatic manufacturing line of anesthetic evaporator cores as claimed in claim 5, wherein: unloading moving member (762) include flexible seat (7621), flexible motor (7622), swing pinion (7623), expansion plate (7624) and press from both sides and get gas clamp (7625), flexible seat (7621) is fixed to be set up on the slip table of lead screw slip table (7614), flexible motor (7622) set up on the output of flexible motor (7622) at the top of flexible seat (7621) and swing pinion (7623), expansion plate (7624) level setting on flexible seat (7621) and with flexible seat (7621) sliding fit, be equipped with tooth's socket (7626) with expansion plate (7624) meshing on expansion plate (7624), press from both sides the tip that gas clamp (7625) horizontal fixation set up at expansion plate (7624).

7. The apparatus for assembling a core tube of an automatic manufacturing line of anesthetic evaporator cores as claimed in claim 1, wherein: core pipe transport subassembly (77) including transferring frame (771), transferring motor (772) and a plurality of conveying roller (773), it sets up the side at mounting bracket (71) to transfer frame (771), and is a plurality of conveying roller (773) equidistant setting is on transferring frame (771) and with transfer frame (771) rotation connection, it sets up on the lateral wall of transferring frame (771) and the one end fixed connection of the output of transferring motor (772) and one of them conveying roller (773), and is a plurality of one pot head of conveying roller (773) is equipped with third belt (774).

8. The apparatus for assembling a core tube of an automatic manufacturing line of anesthetic evaporator cores as claimed in claim 7, wherein: the drying assembly (78) comprises a drying box (781), a rotating ring (782), a drying motor (783), a fixed round frame (784), a first rotating rod (785), a second rotating rod (786), a universal ball (787) and a drying fan (788), the drying box (781) is arranged at the top of a transferring frame (771), the drying motor (783) is arranged at the top of the drying box (781) and the output end of the drying motor (783) is arranged downwards, the fixed round frame (784) is arranged in the drying box (781) and is fixedly connected with the drying box (781), the rotating ring (782) is sleeved on the output end of the drying motor (783), the universal ball (787) is arranged at the bottom of the fixed round frame (784) and is in running fit with the fixed round frame (784), the first rotating rod (785) is arranged in an L shape, one end of the second rotating rod (786) is fixedly connected with the universal ball (787), drying fan (788) and the other end fixed connection of second dwang (786), the both ends of first dwang (785) respectively with swivel ring (782) and second dwang (786) fixed connection.