CN114084750B - Double-station wire rewinding machine - Google Patents
Double-station wire rewinding machine Download PDFInfo
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- CN114084750B CN114084750B CN202111448393.9A CN202111448393A CN114084750B CN 114084750 B CN114084750 B CN 114084750B CN 202111448393 A CN202111448393 A CN 202111448393A CN 114084750 B CN114084750 B CN 114084750B
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- connecting shaft
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
- B65H—HANDLING THIN OR FILAMENTARY MATERIAL, e.g. SHEETS, WEBS, CABLES
- B65H67/00—Replacing or removing cores, receptacles, or completed packages at paying-out, winding, or depositing stations
- B65H67/04—Arrangements for removing completed take-up packages and or replacing by cores, formers, or empty receptacles at winding or depositing stations; Transferring material between adjacent full and empty take-up elements
- B65H67/044—Continuous winding apparatus for winding on two or more winding heads in succession
- B65H67/056—Continuous winding apparatus for winding on two or more winding heads in succession having two or more winding heads arranged in series with each other
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
- B65H—HANDLING THIN OR FILAMENTARY MATERIAL, e.g. SHEETS, WEBS, CABLES
- B65H54/00—Winding, coiling, or depositing filamentary material
- B65H54/02—Winding and traversing material on to reels, bobbins, tubes, or like package cores or formers
- B65H54/40—Arrangements for rotating packages
- B65H54/44—Arrangements for rotating packages in which the package, core, or former is engaged with, or secured to, a driven member rotatable about the axis of the package
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
- B65H—HANDLING THIN OR FILAMENTARY MATERIAL, e.g. SHEETS, WEBS, CABLES
- B65H67/00—Replacing or removing cores, receptacles, or completed packages at paying-out, winding, or depositing stations
- B65H67/04—Arrangements for removing completed take-up packages and or replacing by cores, formers, or empty receptacles at winding or depositing stations; Transferring material between adjacent full and empty take-up elements
- B65H67/0405—Arrangements for removing completed take-up packages or for loading an empty core
- B65H67/0411—Arrangements for removing completed take-up packages or for loading an empty core for removing completed take-up packages
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B65—CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
- B65H—HANDLING THIN OR FILAMENTARY MATERIAL, e.g. SHEETS, WEBS, CABLES
- B65H2701/00—Handled material; Storage means
- B65H2701/30—Handled filamentary material
- B65H2701/35—Ropes, lines
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E60/00—Enabling technologies; Technologies with a potential or indirect contribution to GHG emissions mitigation
- Y02E60/16—Mechanical energy storage, e.g. flywheels or pressurised fluids
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- Coiling Of Filamentary Materials In General (AREA)
Abstract
The invention relates to a double-station wire rewinding machine which comprises two wire rewinding groups of a rotary cylinder, wherein the rotary cylinder is arranged in the direction of the rotary cylinder, the rotary cylinder horizontally penetrates through a connecting axis and is intersected with a vertical axis of the rotary cylinder, the bottom of the rotary cylinder is in transmission connection with a driving group in a connecting transmission mode, and two wire rewinding groups in a steering mode are arranged at two ends of the rotary cylinder respectively. This duplex position admission machine adopts the duplex position, can realize unloading under the state of not shutting down, has practiced thrift the time of unloading, has further improved work efficiency, moreover, forms the tapering through the inner circular plate, can be convenient for the product and unload.
Description
Technical Field
The invention relates to a double-station wire rewinding machine, and belongs to the field of packaging production lines.
Background
In order to prevent the steel wire rope from collapsing in the transportation process and improve the appearance quality of products, the products need to be subjected to Z2 falling (the Z2 products are steel wire rope discs with regular rectangular sections relative to common steel wire rope discs, and the Z2 products have the advantages of being neat, attractive, not prone to collapsing and the like in appearance and stacking transportation), wherein a take-up machine is one of devices in a Z2 falling production line and is mainly used for winding the products.
The existing double-station wire rewinding machine consumes a large amount of time when frequently discharging in the working process, and reduces the working efficiency, so that the double-station wire rewinding machine needs to be designed in order to reduce the labor intensity of workers and improve the production efficiency.
Disclosure of Invention
The technical problem to be solved by the invention is as follows: in order to overcome the defects of the prior art, the double-station wire rewinding machine is provided.
The technical scheme adopted by the invention for solving the problems is as follows: the utility model provides a duplex position admission machine, includes gyration barrel and two receipts line subassemblies, the vertical setting of gyration barrel, the connecting axle is worn to be equipped with by the level on the gyration barrel, the axis of connecting axle intersects with the vertical axis of gyration barrel, the transmission is connected with drive assembly on the connecting axle, the bottom transmission of gyration barrel is connected with and turns to the motor, and two receipts line subassemblies set up the both ends at the connecting axle respectively.
Preferably, the two wire take-up assemblies are symmetrical about a vertical axis of the rotary cylinder.
As preferred, it includes sleeve pipe, clutch and fixed disk to receive the line subassembly, the coaxial movable sleeve of sleeve pipe is established on the connecting axle, the coaxial fixed cover of fixed disk is established on the sleeve pipe, the clutch includes pressure disk and flywheel, the flywheel is installed on the connecting axle, the flywheel is located the sheathed tube one side that is close to the rotary barrel body, the pressure disk is located between flywheel and the sleeve pipe, the pressure disk is installed in sheathed tube one end, be equipped with the clearance between pressure disk and the flywheel, the both ends of connecting axle all are provided with the blind hole coaxial with the connecting axle, be provided with spring and receipts line bearing in the blind hole, the inner wall connection of receiving line bearing and blind hole is passed through to the one end of spring, the other end and the bushing of spring, one side circumference of keeping away from rotary barrel body of fixed disk evenly is provided with a plurality of interior plectanes.
Preferably, the double-station take-up machine is further provided with an extrusion disc coaxial with the connecting shaft, the extrusion disc is located on one side, away from the rotary cylinder, of the inner circular plate, a first air cylinder coaxial with the connecting shaft is arranged on one side, away from the rotary cylinder, of the extrusion disc, and the extrusion disc is arranged at the telescopic end of the first air cylinder through a rotating bearing.
Preferably, the extrusion disc is provided with anti-skid lines.
Preferably, each connecting shaft is provided with two auxiliary assemblies, the auxiliary assemblies correspond to the fixed discs one to one, the auxiliary assemblies are located on one sides, away from the rotary cylinder, of the fixed discs, the inner circular plates are hinged to the fixed discs, and the auxiliary assemblies are connected with the inner circular plates.
As preferred, the auxiliary assembly includes second slider and fourth cylinder, the second slider cover is established on the sleeve pipe, be provided with a plurality of connecting rods on the second slider, a plurality of connecting rods and a plurality of interior crown plate one-to-one, interior crown plate is articulated with the fixed disk, interior crown plate passes through the connecting rod and is articulated with the second slider, the cylinder body and the bushing of fourth cylinder, be provided with the connecting block between the cylinder body of connecting axle and fourth cylinder, be equipped with the clearance between connecting block and the connecting axle, the piston of fourth cylinder, the one end of keeping away from the line receiving bearing of second slider and spring all are connected with the connecting block.
Preferably, the connecting block abuts against a cylinder body of the fourth cylinder.
Preferably, the driving assembly comprises a take-up driving wheel, a take-up driven wheel and a take-up driving belt, the take-up driven wheel is mounted on the connecting shaft, the take-up driving wheel is driven by a take-up motor, and the take-up driving wheel is connected with the take-up driven wheel through the take-up driving belt.
Preferably, the double-station wire rewinding machine comprises the following working steps: the direction close to the vertical axis of the rotary cylinder body is defined as the inner side, otherwise, the direction is defined as the outer side, the first air cylinder pushes the extrusion disc to move inwards, so that the extrusion disc is abutted against and extruded with the inner circular plate, a spool structure is formed, the first air cylinder continuously pushes the extrusion disc to move inwards, the inner circular plate drives the fixed disc to move inwards, the fixed disc drives the sleeve to move synchronously, the sleeve moves to drive the flywheel to move synchronously, when the flywheel is abutted against the pressure plate, the clutch is closed, meanwhile, the sleeve moves to deform the spring, the product is wound on the inner circular plate abutted against the extrusion disc around the axis of the connecting shaft, at the moment, the take-up motor drives the take-up driving wheel to rotate, the take-up driving wheel is driven by the take-up driving belt, and the rotation of the take-up driven wheel can drive the connecting shaft to rotate, the rotation of the connecting shaft drives the flywheel to synchronously rotate through the pressure plate, the rotation of the flywheel drives the sleeve to drive the fixed disc to rotate, the rotation of the fixed disc drives the inner circular plate to rotate and wind the product, the rotation of the connecting shaft cannot drive the fixed disc to rotate because the flywheel and the pressure plate are not closed, and the connecting shaft is prevented from driving the spring to synchronously rotate through the characteristic of the take-up bearing, so that one fixed disc drives the inner circular plate to rotate and wind the product and the inner circular plate on the other fixed disc is in a static state, when the product on the inner circular plate is saturated to be wound, the connecting shaft stops rotating, the extrusion disc is driven by the first air cylinder to move outwards, the extrusion disc is separated from the inner circular plate, the sleeve drives the fixed disc to move outwards through the elastic action of the spring, the flywheel is separated from the pressure plate, and then, the rotation degree of the rotary cylinder is changed by a steering motor, so that two fixed disks on the same connecting shaft can exchange positions, then the fixed disks of products which are not wound continue to wind the products through the inner circular plate, the saturated fixed disks of the wound products in a static state can realize discharging and enter the next process, the discharging time is saved, the working efficiency is improved, moreover, when the double-station wire-rewinding machine discharges the materials, the cylinder body of a fourth cylinder at the saturation position of the products is inflated, a piston of the fourth cylinder can drive a connecting block to move under the action of air pressure, a spring is deformed, the second sliding block is driven to synchronously move by the movement of the connecting block, the inner circular plate is driven to rotate on the fixed disk towards the direction close to the connecting shaft by the movement of the second sliding block through the connecting rod, so that the inner circular plate on the fixed disk forms a taper, the rolled products can be discharged, the cylinder body of the fourth cylinder exhausts after discharging is finished, at the moment, the piston of the fourth cylinder reversely moves to realize resetting by the elastic action of the spring, and the second sliding block reversely moves to realize the resetting by the connecting rod.
Compared with the prior art, the invention has the advantages that: the double-station take-up machine adopts double stations, can realize discharging in a non-stop state, saves discharging time, further improves working efficiency, and can facilitate product discharging by forming a taper through the inner circular plate;
drawings
FIG. 1 is a schematic structural view of a double-station wire rewinding machine according to the present invention;
fig. 2 is a schematic structural view of the wire take-up assembly.
Wherein: the double-station take-up machine 404, a rotary cylinder 404.1, a take-up assembly 404.2, a sleeve 402.21, a clutch 402.22, a pressure plate 402.221, a flywheel 402.222, a fixed disc 402.23, a blind hole 402.24, a spring 402.25, a take-up bearing 402.26, an inner circular plate 402.27, a connecting shaft 404.3, a driving assembly 404.4, a take-up driving wheel 404.41, a take-up driven wheel 404.42, a take-up driving belt 404.43, a take-up motor 404.44, a steering motor 404.5, a pressing disc 404.6, a first cylinder 404.7, an auxiliary assembly 404.8, a second slider 404.81, a fourth cylinder 404.82, a connecting rod 404.83, a connecting block 404.84, a rotary bearing 6262 and a rotary product 500 zxft.
Detailed Description
As shown in fig. 1-2, the double-station wire rewinding machine in this embodiment includes a rotary cylinder 404.1 and two wire rewinding assemblies 404.2, the rotary cylinder 404.1 is vertically arranged, a connecting shaft 404.3 horizontally penetrates through the rotary cylinder 404.1, an axis of the connecting shaft 404.3 intersects with a vertical axis of the rotary cylinder 404.1, the connecting shaft 404.3 is connected with a driving assembly 404.4 in a transmission manner, the bottom of the rotary cylinder 404.1 is connected with a steering motor 404.5 in a transmission manner, and the two wire rewinding assemblies 404.2 are respectively arranged at two ends of the connecting shaft 404.3.
The direction close to the vertical axis of the rotary cylinder 404.1 is defined as the inner side, otherwise, the direction is defined as the outer side, the first air cylinder 404.7 pushes the extrusion disc 404.6 to move inwards, so that the extrusion disc 404.6 is abutted against and extruded with the inner circular plate, a spool structure is formed, as the first air cylinder 404.7 continues to push the extrusion disc 404.6 to move inwards, the fixed disc is driven to move inwards by the inner circular plate, the fixed disc moves to drive the sleeve to move synchronously, the sleeve moves to drive the flywheel to move synchronously, when the flywheel abuts against the pressure plate, the clutch is closed, meanwhile, the spring 402.25 is deformed by the movement of the sleeve, the product 500 is wound on the inner circular plate abutted against the extrusion disc 404.6 around the axis of the connecting shaft 404.3, at this time, the take-up driving wheel is driven to rotate by the take-up motor, and the take-up driven wheel is driven by the take-up driving belt, the rotation of the take-up driven wheel can drive the connecting shaft 404.3 to rotate, the rotation of the connecting shaft 404.3 drives the flywheel to synchronously rotate through the pressure plate, the rotation of the flywheel drives the sleeve to drive the fixed disc to rotate, the rotation of the fixed disc drives the inner circular plate to rotate and wind the product 500, the other fixed disc on the connecting shaft 404.3 cannot drive the fixed disc to rotate because the flywheel and the pressure plate are not closed, and the connecting shaft 404.3 is prevented from driving the spring 402.25 to synchronously rotate through the characteristics of the take-up bearing, so that one fixed disc drives the inner circular plate to rotate and wind the product 500 and the inner circular plate on the other fixed disc is in a static state, when the product 500 on the inner circular plate is wound to saturation, the connecting shaft 404.3 stops rotating, and the extrusion disc 404.6 is driven to move outwards through the first air cylinder 404.7, the extrusion disc 404.6 is separated from the inner circular plate 402.27, the sleeve 404.21 drives the fixed disc 402.23 to move outwards through the elastic action of the spring 402.25, the flywheel 402.222 is separated from the pressure disc 402.221, then the rotary cylinder 404.1 is rotated 180 degrees through the steering motor 404.5, so that the two fixed discs 402.23 on the same connecting shaft 404.3 can exchange positions, then the fixed disc 402.23 of the uncoiled product 500 is made to continue coiling the product 500 through the inner circular plate 402.27, and the fixed disc 402.23 saturated with the coiled product 500 in a static state realizes the unloading and the product 500 enters the next procedure, the unloading time is saved, the working efficiency is improved, moreover, when the wire-coiling machine 404 unloads, the air is inflated into the fourth air cylinder 404.82 at the saturation position of the product 500, so that the fourth air cylinder 3226 of the fourth air cylinder at the saturation position of the product 500 can drive the double-station 3474 to move under the action of the piston 3474 xzft 3474 under the air pressure 3474, the spring 402.25 is deformed, the connecting block 404.84 moves to drive the second sliding block 404.81 to synchronously move, the second sliding block 404.81 moves to drive the inner circular plate 402.27 to rotate towards the direction close to the connecting shaft 404.3 on the fixed disc 402.23 through the connecting rod 404.83, so that the inner circular plate 402.23 on the fixed disc 402.23 forms a taper, the coiled product 500 is conveniently unloaded, after unloading is completed, the cylinder body of the fourth cylinder 402.23 is exhausted, at the moment, the piston of the fourth cylinder 402.23 is reversely moved to realize resetting through the elastic action of the spring 402.25, the connecting block 402.23 is driven to reversely move by the second sliding block 402.23 to realize resetting, and the resetting of the second sliding block 402.23 is realized by driving the connecting rod 58 zxft 6258 to reversely move the inner circular plate 6258.
Preferably, the two wire takeup assemblies 404.2 are symmetrical about the vertical axis of the rotary cylinder 404.1.
Preferably, the wire rewinding assembly 404.2 comprises a sleeve 404.21, a clutch 402.22 and a fixed plate 402.23, the sleeve 404.21 is coaxially movably sleeved on the connecting shaft 404.3, the fixed plate 402.23 is coaxially fixedly sleeved on the sleeve 404.21, the clutch 402.22 comprises a pressure plate 3575 and a flywheel 402.222, the flywheel 402.222 is mounted on the connecting shaft 404.3, the flywheel 402.222 is located on one side of the sleeve 404.21 close to the rotating cylinder 404.1, the pressure plate 5483 zxft 5683 is located between the flywheel 402.222 and the sleeve 39 zxft 7439, the pressure plate 402.221 is mounted on one end of the sleeve 404.21, the pressure plate 3235 zxft 3292 and 3292 are provided with a plurality of coaxial blind holes 3525 zxft Springs 35402, the connecting shaft 402 is provided with a plurality of coaxial blind holes 402, and the connecting shaft 402 is provided with a plurality of coaxial blind holes 3525 zxft 3525, and a plurality of coaxial blind holes 402, and a plurality of coaxial blind holes.
Preferably, the double-station wire rewinding machine 404 is further provided with an extrusion disc 404.6 coaxial with the connecting shaft 404.3, the extrusion disc 404.6 is located on one side, away from the rotary cylinder 404.1, of the inner circular plate 402.27, one side, away from the rotary cylinder 404.1, of the extrusion disc 404.6 is provided with a first cylinder 404.7 coaxial with the connecting shaft 404.3, and the extrusion disc 404.6 is arranged at the telescopic end of the first cylinder 404.7 through a rotating bearing 404.9.
Preferably, the pressing plate 404.6 is provided with anti-slip threads.
Preferably, each connecting shaft 404.3 is provided with two auxiliary components 404.8, the auxiliary components 404.8 correspond to the fixed disc 402.23 one to one, the auxiliary components 404.8 are located on one side, away from the rotary cylinder 404.1, of the fixed disc 402.23, the inner circular plate 402.27 is hinged to the fixed disc 402.23, and the auxiliary components 404.8 is connected to the inner circular plate 402.27.
Preferably, the auxiliary assembly 404.8 comprises a second sliding block 404.81 and a fourth cylinder 404.82, the second sliding block 404.81 is sleeved on a sleeve 404.21, the second sliding block 404.81 is provided with a plurality of connecting rods 404.83, a plurality of connecting rods 404.83 are in one-to-one correspondence with a plurality of inner circular plates 402.27, the inner circular plates 402.27 are hinged with a fixed plate 402.23, the inner circular plate 402.27 is hinged with the second sliding block 404.81 through a connecting rod 404.83, the cylinder body of the fourth cylinder 404.82 is connected with the sleeve 404.21, a connecting shaft 404.3 zxft And the cylinder body of the fourth cylinder 3978 zxft 5678 are provided with a connecting block 3239 zxft 3296, and a connecting block 3296 is provided with a connecting block 3296, and a connecting pin 3296, and a connecting block 3296 is provided with a connecting pin for connecting block 3296, and a connecting rod 3496 zxft 3496, and a connecting pin for connecting rod 3496 for connecting a connecting with a connecting block for connecting a connecting rod.
Preferably, the connecting block 404.84 abuts against the cylinder body of the fourth cylinder 404.82.
Preferably, the driving assembly 404.4 comprises a take-up driving wheel 404.41, a take-up driven wheel 404.42 and a take-up driving belt 404.43, the take-up driven wheel 404.42 is mounted on the connecting shaft 404.3, the take-up driving wheel 404.41 is driven by a take-up motor 404.44, and the take-up driving wheel 404.41 is connected with the take-up driven wheel 404.42 through a take-up driving belt 404.43.
Preferably, the double-station wire rewinding machine comprises the following working steps: the direction close to the vertical axis of the rotary cylinder 404.1 is defined as the inner side, otherwise, the direction is defined as the outer side, the first air cylinder 404.7 pushes the extrusion disc 404.6 to move inwards, so that the extrusion disc 404.6 is abutted against and extruded with the inner circular plate, a spool structure is formed, as the first air cylinder 404.7 continues to push the extrusion disc 404.6 to move inwards, the fixed disc is driven to move inwards by the inner circular plate, the fixed disc moves to drive the sleeve to move synchronously, the sleeve moves to drive the flywheel to move synchronously, when the flywheel abuts against the pressure plate, the clutch is closed, meanwhile, the spring 402.25 is deformed by the movement of the sleeve, the product 500 is wound on the inner circular plate abutted against the extrusion disc 404.6 around the axis of the connecting shaft 404.3, at this time, the take-up driving wheel is driven to rotate by the take-up motor, and the take-up driven wheel is driven by the take-up driving belt, the rotation of the take-up driven wheel can drive the connecting shaft 404.3 to rotate, the rotation of the connecting shaft 404.3 drives the flywheel to synchronously rotate through the pressure plate, the rotation of the flywheel drives the sleeve to drive the fixed disc to rotate, the rotation of the fixed disc drives the inner circular plate to rotate and wind the product 500, the other fixed disc on the connecting shaft 404.3 cannot drive the fixed disc to rotate because the flywheel and the pressure plate are not closed, and the connecting shaft 404.3 is prevented from driving the spring 402.25 to synchronously rotate through the characteristics of the take-up bearing, so that one fixed disc drives the inner circular plate to rotate and wind the product 500 and the inner circular plate on the other fixed disc is in a static state, when the product 500 on the inner circular plate is wound to saturation, the connecting shaft 404.3 stops rotating, and the extrusion disc 404.6 is driven to move outwards through the first air cylinder 404.7, the extrusion disc 404.6 is separated from the inner circular plate 402.27, the sleeve 404.21 drives the fixed disc 402.23 to move outwards through the elastic action of the spring 402.25, the flywheel 402.222 is separated from the pressure disc 402.221, then the rotary cylinder 404.1 is rotated 180 degrees through the steering motor 404.5, so that the two fixed discs 402.23 on the same connecting shaft 404.3 can exchange positions, then the fixed disc 402.23 of the uncoiled product 500 is made to continue coiling the product 500 through the inner circular plate 402.27, and the fixed disc 402.23 saturated with the coiled product 500 in a static state realizes the unloading and the product 500 enters the next procedure, the unloading time is saved, the working efficiency is improved, moreover, when the wire-coiling machine 404 unloads, the air is inflated into the fourth air cylinder 404.82 at the saturation position of the product 500, so that the fourth air cylinder 3226 of the fourth air cylinder at the saturation position of the product 500 can drive the double-station 3474 to move under the action of the piston 3474 xzft 3474 under the air pressure 3474, the spring 402.25 is deformed, the connecting block 404.84 moves to drive the second sliding block 404.81 to synchronously move, the second sliding block 404.81 moves to drive the inner circular plate 402.27 to rotate towards the direction close to the connecting shaft 404.3 on the fixed disc 402.23 through the connecting rod 404.83, so that the inner circular plate 402.23 on the fixed disc 402.23 forms a taper, the coiled product 500 is conveniently unloaded, after unloading is completed, the cylinder body of the fourth cylinder 402.23 is exhausted, at the moment, the piston of the fourth cylinder 402.23 is reversely moved to realize resetting through the elastic action of the spring 402.25, the connecting block 402.23 is driven to reversely move by the second sliding block 402.23 to realize resetting, and the resetting of the second sliding block 402.23 is realized by driving the connecting rod 58 zxft 6258 to reversely move the inner circular plate 6258.
In addition to the above embodiments, the present invention also includes other embodiments, and any technical solutions formed by equivalent transformation or equivalent replacement should fall within the scope of the claims of the present invention.
Claims (7)
1. The utility model provides a duplex position admission machine which characterized in that: the wire winding machine comprises a rotary cylinder (404.1) and two wire winding assemblies (404.2), wherein the rotary cylinder (404.1) is vertically arranged, a connecting shaft (404.3) horizontally penetrates through the rotary cylinder (404.1), the axis of the connecting shaft (404.3) is intersected with the vertical axis of the rotary cylinder (404.1), a driving assembly (404.4) is in transmission connection with the connecting shaft (404.3), a steering motor (404.5) is in transmission connection with the bottom of the rotary cylinder (404.1), and the two wire winding assemblies (404.2) are respectively arranged at two ends of the connecting shaft (404.3);
the two wire take-up assemblies (404.2) are symmetrical about a vertical axis of the rotary cylinder (404.1);
the wire take-up assembly (404.2) comprises a sleeve (404.21), a clutch (402.22) and a fixed disc (402.23), the sleeve (404.21) is coaxially movably sleeved on the connecting shaft (404.3), the fixed disc (402.23) is coaxially fixedly sleeved on the sleeve (404.21), the clutch (402.22) comprises a pressure disc (3575) and a flywheel (402.222), the flywheel (402.222) is installed on the connecting shaft (404.3), the flywheel (402.222) is positioned on the side, close to the rotating cylinder (404.1), of the sleeve (404.21), the pressure disc (5483) is positioned between (402.222) and the sleeve (34zxft 7439), the pressure plate (402.221) is installed at one end of a sleeve (404.21), a gap is formed between the pressure plate (402.221) and a flywheel (402.222), blind holes (402.24) coaxial with the connecting shaft (404.3) are formed in two ends of the connecting shaft (404.3), a spring (402.25) and a take-up bearing (402.26) are arranged in each blind hole (402.24), one end of the spring (402.25) is connected with the inner wall of each blind hole (402.24) through the take-up bearing (402.26), the other end of the spring (402.25) is connected with the sleeve (404.21), and a plurality of inner circular plates (402.27) are uniformly arranged on one side, far away from a rotary cylinder (404.1), of the fixed plate (402.23) in the circumferential direction;
the driving assembly (404.4) comprises a take-up driving wheel (404.41), a take-up driven wheel (404.42) and a take-up transmission belt (404.43), the take-up driven wheel (404.42) is installed on a connecting shaft (404.3), the take-up driving wheel (404.41) is driven by a take-up motor (404.44), and the take-up driving wheel (404.41) is connected with the take-up driven wheel (404.42) through the take-up transmission belt (404.43).
2. The double-station wire rewinding machine according to claim 1, characterized in that: the double-station wire rewinding machine (404) is further provided with an extrusion disc (404.6) coaxial with the connecting shaft (404.3), the extrusion disc (404.6) is located on one side, away from the rotary cylinder (404.1), of the inner circular plate (402.27), a first air cylinder (404.7) coaxial with the connecting shaft (404.3) is arranged on one side, away from the rotary cylinder (404.1), of the extrusion disc (404.6), and the extrusion disc (404.6) is arranged at the telescopic end of the first air cylinder (404.7) through a rotating bearing (404.9).
3. The double-station wire rewinding machine according to claim 2, characterized in that: the extrusion disc (404.6) is provided with anti-skid lines.
4. The double-station take-up machine according to claim 1, characterized in that: each connecting shaft (404.3) is provided with two auxiliary components (404.8), each auxiliary component (404.8) corresponds to the corresponding fixed disc (402.23) in a one-to-one mode, each auxiliary component (404.8) is located on one side, far away from the rotary cylinder (404.1), of each fixed disc (402.23), each inner circular plate (402.27) is hinged to the corresponding fixed disc (402.23), and each auxiliary component (404.8) is connected with the corresponding inner circular plate (402.27).
5. The double-station wire rewinding machine according to claim 4, characterized in that: the auxiliary assembly (404.8) comprises a second sliding block (404.81) and a fourth cylinder (404.82), the second sliding block (404.81) is sleeved on a sleeve (404.21), the second sliding block (404.81) is provided with a plurality of connecting rods (404.83), the plurality of connecting rods (404.83) correspond to a plurality of inner circular plates (402.27) in a one-to-one mode, the inner circular plate (402.27) is hinged to a fixed plate (402.23), the inner circular plate (402.27) is hinged to the second sliding block (404.81) through the connecting rods (404.83), the cylinder body of the fourth cylinder (404.82) is connected with the sleeve (35zxft 3283), the connecting shaft (404.3) is connected with the fourth sliding block (3828 zxft 3296), a connecting block (8678) is arranged between the cylinder body (3425) and a connecting block (8696), and a connecting block (8696) which is provided with a connecting block (3496, and a connecting block (3496) which is provided with a connecting block (3496).
6. The double-station wire rewinding machine according to claim 5, characterized in that: the connecting block (404.84) abuts against the cylinder body of the fourth cylinder (404.82).
7. The double-station wire rewinding machine according to any one of claims 1 to 6, characterized in that: the double-station wire rewinding machine comprises the following working steps: the direction close to the vertical axis of the rotary cylinder (404.1) is defined as the inner side, otherwise, the direction is defined as the outer side, the first air cylinder (404.7) pushes the extrusion disc (404.6) to move inwards, so that the extrusion disc (404.6) is abutted against and extruded by the inner circular plate (402.27), so that a spool structure is formed, as the first air cylinder (404.7) continues to push the extrusion disc (404.6) to move inwards, the inner circular plate (402.27) drives the fixed disc (402.23) to move inwards, the fixed disc (402.23) moves to drive the sleeve (404.21) to move synchronously, the sleeve (404.21) moves to drive the flywheel (402.222) to move synchronously, and when the flywheel (402.222) is abutted against the pressure disc (402.221), the closing of the clutch (3476) is realized, meanwhile, the movement of the sleeve (404.21) enables the spring (402.25) to generate deformation, the product (500) is wound on an inner circular plate (402.27) abutted against the extrusion disc (404.6) around the axis of the connecting shaft (404.3), at the moment, a wire take-up driving wheel (404.41) is driven to rotate by a wire take-up motor (404.44), a wire take-up driven wheel (404.42) is driven by a wire take-up driving belt (404.43), the rotation of the wire take-up driven wheel (404.42) can drive the connecting shaft (404.3) to rotate, the rotation of the connecting shaft (404.3) drives a flywheel (402.222) to synchronously rotate by a pressure plate (402.221), and the rotation of the sleeve (5678 zxft 5639 zxft 7439 drives a fixed disc (402.23) to rotate by the rotation of the sleeve (7439 zxft 5678), the rotation of the fixed disc (402.23) drives the inner circular disc (402.27) to rotate and wind the product (500), while the fixed disc (402.23) of the other fixed disc on the connecting shaft (404.3) cannot drive the fixed disc (3535) to rotate because the flywheel (402.222) and the pressure disc (402.221) are not closed, the connecting shaft (404.3) cannot drive the fixed disc (3535) to rotate, and the connecting shaft (404.3) is prevented from driving the spring (402.25) to synchronously rotate through the characteristics of the take-up bearing (3584), so that two fixed discs (402.23) on the same connecting shaft (404.3) are realized, one fixed disc (402.23) drives the inner circular disc (402.27) to rotate and wind the product (500), and the inner circular disc (402.27) on the other fixed disc (402.23) is in a static state, when the inner circular plate (3456) is saturated by winding the product (500) on the inner circular plate (3456) the connecting shaft (404.3) stops rotating and the first cylinder (404.7) drives the extrusion plate (404.6) to move outwards, so that the extrusion plate (404.6) is separated from the inner circular plate (3838) zxft 3838, and the sleeve (404.21) drives the fixed plate (402.23) to move outwards by the elastic action of the spring (402.25), and the flywheel (402.222) is separated from the pressure plate (402.221), and then the rotary cylinder (404.1) is rotated (180 degrees) by the steering motor (404.5), so that the two fixed plates (402.23) on the same connecting shaft (404.3) can be interchanged in position, and then, the fixed tray (402.23) of the unwound product (500) is made to continue to wind the product (500) through the inner circular plate (402.27), at the moment, the stationary fixed disc (402.23) which is saturated with the wound product (500) realizes unloading and enables the product (500) to enter the next working procedure, thereby saving the unloading time, improving the working efficiency, moreover, when the double-station wire-rewinding machine (404) discharges materials, the cylinder body of a fourth cylinder (404.82) at the saturation position of the product (500) is inflated, the piston of the fourth cylinder (404.82) can drive the connecting block (404.84) to move under the action of air pressure, and the spring (402.25) generates deformation, the movement of the connecting block (404.84) drives the second sliding block (404.81) to synchronously move, the movement of the second sliding block (404.81) drives the inner circular plate (402.27) to rotate on the fixed plate (402.23) towards the direction close to the connecting shaft (404.3) through the connecting rod (404.83), thereby forming the taper of the inner circular plate (402.27) on the fixed plate (402.23), so that the rolled product (500) can be unloaded conveniently, after the unloading is finished, the cylinder body of the fourth cylinder (404.82) exhausts, at the moment, the piston of the fourth cylinder (404.82) is moved reversely to realize the reset through the elastic action of the spring (402.25), the connecting block (404.84) drives the second sliding block (404.81) to move reversely to realize reset, and the reset of the second sliding block (404.81) drives the inner circular plate (402.27) to rotate reversely through the connecting rod (404.83) to realize reset.
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| CN202111448393.9A CN114084750B (en) | 2021-11-30 | 2021-11-30 | Double-station wire rewinding machine |
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| DE1267051B (en) * | 1964-04-27 | 1968-04-25 | Herborn Zweigniederlassung Der | Double spooler |
| CN204873153U (en) * | 2015-08-12 | 2015-12-16 | 东营宏源机械设备有限公司 | Novel automatic unwrapping wire device |
| CN105480778B (en) * | 2015-12-29 | 2019-03-26 | 江苏高和智能装备股份有限公司 | A kind of passive payingoff mechanism of rotary two-wheel |
| CN209242347U (en) * | 2018-11-08 | 2019-08-13 | 上海缆玥智能科技有限公司 | Double-station take-up |
| CN210907454U (en) * | 2019-09-16 | 2020-07-03 | 天津众意达管业有限公司 | Strip steel unwinding device for welded pipe production |
| CN214455729U (en) * | 2020-12-25 | 2021-10-22 | 西北机器有限公司 | Multifunctional wire rewinding machine |
| CN113200404A (en) * | 2021-06-09 | 2021-08-03 | 佛山市石牛机械有限公司 | Wire rod packing wire |
| CN214733427U (en) * | 2021-06-09 | 2021-11-16 | 佛山市石牛机械有限公司 | A take-up for on wire rod baling line |
| CN216836580U (en) * | 2021-11-30 | 2022-06-28 | 江阴泰阳成索业有限公司 | Duplex position admission machine |
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