Batch transfer device for metal wire manufacturing

Abstract

The present invention relates to the technical field of metal wire transfer, and specifically, to a batch transfer device for metal wire manufacturing, comprising: metal wires located at a discharge port of a wire drawing machine, a load carrier located at a side of the wire drawing machine and used for carrying and transporting foreign objects, a storage portion arranged on the load carrier, and a guiding mechanism arranged on the storage portion. The batch transfer device for metal wire manufacturing can transfer batches of metal wires at one time, has high transfer efficiency, and has good mechanical coordination with the outside world. It can automatically and orderly complete the storage and fixing of the metal wires, thereby greatly reducing the required manual intervention and further improving the transfer efficiency. At the same time, it provides a safe and reliable storage space and a stable transfer mode for the metal wires, effectively preventing the metal wires from falling, and better ensuring the overall manufacturing process of the metal wires.

Description

Technical Field

[0001] The present invention relates to the technical field of metal wire transfer, and in particular to a batch transfer device for metal wire manufacturing. Background Art

[0002] Metal wire refers to a long and thin wire material made of metal materials through a drawing process. Due to its unique shape and properties, metal wire has become a basic material in the field of industrial manufacturing and is widely used in many different industries and application scenarios, mainly including construction wire, soft and hard wire, welding wire, alloy steel wire, etc.

[0003] In the manufacturing process of metal wire, it usually needs to go through multiple processes, such as wire drawing, annealing, coating, etc., and the metal wire needs to be handled and transferred between each process. The traditional transportation method is mainly manual handling and the use of simple mechanical auxiliary equipment, such as trolleys and slings, etc. These traditional methods have many shortcomings.

[0004] First, manual handling is slow and easily limited by the operator's physical strength and skills, making it difficult to meet the needs of large-scale production. In particular, when the production line is long or there are many processes, the efficiency of manual handling is particularly prominent. In addition, metal wires are heavy, and manual handling is prone to safety accidents, such as sprains and injuries, which increases production costs. Secondly, although some existing simple mechanical auxiliary equipment (such as carts and slings) can reduce the manpower burden to a certain extent, when faced with large-scale and high-frequency transportation needs, the equipment itself lacks accuracy and stability, and there are high hidden dangers. For example, the sling may become unhooked or the rope may break during use, which will not only cause the metal wire to fall and injure people, but also cause quality problems during transportation. At the same time, when using some existing simple mechanical auxiliary equipment to transport metal wires, more manual intervention is still required, such as placing and fixing batches of wires on the equipment, and the efficiency is still limited. Summary of the invention

[0005] The object of the present invention is to provide a batch transfer device for metal wire manufacturing to solve the above problems.

[0006] In order to achieve the above-mentioned object, the present invention provides a batch transfer device for metal wire manufacturing, comprising: metal wire located at the discharge port of a wire drawing machine, a load carrier located at the side of the wire drawing machine and used for carrying and transporting foreign objects, a storage portion arranged on the load carrier, and a guide mechanism arranged on the storage portion;

[0007] The guiding mechanism is in contact with the metal wire, wherein:

[0008] The guiding mechanism is suitable for adsorbing the metal wire in sections so that the metal wire and the guiding mechanism are connected as one;

[0009] The guiding mechanism is driven to guide and transport the metal wire material forward cyclically, so as to continuously deliver the metal wire material into the storage portion;

[0010] The storage part is suitable for stably stacking and storing the metal wires in batches, and can sequentially and cyclically place the metal wires at multiple angles, so that the metal wires are arranged in an orderly manner;

[0011] The storage portion is driven to perform partial linear movement to move the metal wire material therein outward.

[0012] Furthermore, the guiding mechanism includes a right-angle positioning plate installed on the storage portion, a first long groove connected to the right-angle positioning plate at the back, a sliding block slidably installed in the first long groove, a first mounting plate connected to the sliding block, a first electromagnet integrally connected to the bottom of the first mounting plate, an extension platform connected to the side of the right-angle positioning plate, a motor arranged on the extension platform, an I-shaped wheel installed on the output shaft of the motor, a through groove provided on the first long groove along the moving direction of the sliding block, a round-headed upright rod installed on the sliding block and passing through the through groove upward, and a take-up cable connected at one end to the round-headed upright rod and at the other end to the I-shaped wheel;

[0013] The first electromagnet is rectangular and has a semicircular groove at the bottom;

[0014] The metal wire is in contact with the semicircular groove at the bottom of the first electromagnet.

[0015] Further, the storage portion includes two fence-type retaining members respectively installed on the front and rear sides of the load transport vehicle, a front side plate and a rear side plate respectively installed on the two fence-type retaining members, and the front side plate and the rear side plate are aligned, an outward-moving bearing seat arranged on the top of the load transport vehicle, and a receiving groove installed on the outward-moving bearing seat, and the receiving groove is in contact with the bottom surfaces of the front side plate and the rear side plate;

[0016] The right-angle positioning plate is installed on the top of the rear side plate;

[0017] The receiving slot is located between the two bar-type retaining members and is spaced apart from the two bar-type retaining members;

[0018] The first electromagnet is located directly above the receiving slot;

[0019] Both ends of the first long groove protrude from the receiving groove.

[0020] Furthermore, the guiding mechanism further includes a first through-hole plate installed on the side of the first mounting plate, a second through-hole plate with one end slidably inserted into the first through-hole plate, a second mounting plate connected to the other end of the second through-hole plate, a second electromagnet integrally connected to the bottom of the second mounting plate, a first spring located in the internal space of the first through-hole plate and having two ends respectively connected to the first mounting plate and the second mounting plate, and a stop plate installed on the second mounting plate;

[0021] The stop plate abuts against the outer wall of the wire drawing machine.

[0022] Furthermore, the guiding mechanism further includes a second spring, one end of which is connected to the sliding block and the other end of which is connected to the inner side wall of the first long groove;

[0023] The elastic coefficient of the second spring is greater than the elastic coefficient of the first spring.

[0024] Furthermore, the storage part further comprises two dome plates respectively mounted on the top ends of the front side plate and the rear side plate, two guide plates respectively hinged to the two dome plates, two swing devices respectively mounted on the front side plate and the rear side plate, and two control rods respectively mounted on the output ends of the two swing devices, and the two control rods are respectively connected to the two guide plates;

[0025] The first electromagnet and the second electromagnet are both centrally located above the gap between the two guide plates.

[0026] Further, the storage portion further includes two first electric push rods mirror-mounted on the bottom surface of the receiving slot, two groups of movable parts mounted on the bottom surface of the receiving slot and respectively located in front of the two first electric push rods, and two side panels respectively mounted on the two groups of movable parts;

[0027] The two side panels are respectively located on the left and right sides of the receiving groove, and the inner bottom surfaces of the two side panels are flush with the inner bottom surface of the receiving groove.

[0028] Further, the outward-moving bearing seat comprises two second long slots and a dielectric plate installed on the top of the load carrier, and the dielectric plate is located between the two second long slots, two supporting members fixedly installed on the bottom surface of the receiving slot and slidably installed in the two second long slots respectively, a cross bar installed between the two supporting members, and a second electric push rod arranged on the dielectric plate, and the output shaft of the second electric push rod is connected to the cross bar;

[0029] The cross bar and the second electric push rod are respectively located at two ends of the top of the load transport vehicle.

[0030] Further, the movable part includes a third through plate installed on the bottom surface of the receiving groove, and a load-bearing plate slidably installed in the third through plate;

[0031] The output shaft of the first electric push rod is connected to the load-bearing plate;

[0032] The side panels are mounted on the ends of the load-bearing flat plates.

[0033] Compared with the prior art, the present invention has the following beneficial effects:

[0034] The batch transfer device for metal wire manufacturing can carry the metal wires to perform transfer and transportation through the provided load carrier, thereby ensuring that the metal wires are automatically and accurately transferred in multiple processes in the metal wire manufacturing process;

[0035] The batch transfer device for metal wire manufacturing can temporarily store batches of metal wires in an orderly and neat manner through the storage part, and can fix the stored metal wires, thereby ensuring the stability of the metal wires during the transfer process, thereby effectively preventing the metal wires from having quality problems due to collisions during the transfer process. At the same time, the storage part can perform local linear motion, thereby splitting the overall shape, prompting the stored metal wires to move outward and expose, thereby facilitating the removal of the metal wires after they are transferred to the right place, thereby improving convenience.

[0036] The batch transfer device for metal wire manufacturing can be used in conjunction with machines corresponding to multiple processes in the manufacturing process of metal wires through a guiding mechanism. After the metal wires have completed the corresponding processes, they are adsorbed and gradually guided outward into the storage part, thereby automatically feeding the metal wires into the storage part in sequence, thereby realizing batch storage of the metal wires in the storage part.

[0037] The batch transfer device for metal wire manufacturing can transfer batches of metal wires at one time, has high handling efficiency, and has good mechanical coordination with the outside world. It can automatically and orderly complete the storage and fixation of metal wires, thereby greatly reducing the required manual intervention and further improving the handling efficiency. At the same time, it provides a safe and reliable storage space and a stable transfer mode for the metal wires, effectively preventing the metal wires from falling, and better ensuring the overall manufacturing process of the metal wires. BRIEF DESCRIPTION OF THE DRAWINGS

[0038] The present invention is further described below in conjunction with the accompanying drawings and embodiments.

[0039] Figure 1 A perspective view of the present invention is shown;

[0040] Figure 2A first partial perspective view of the present invention is shown;

[0041] Figure 3 A partial stereoscopic view of the present invention at another angle is shown;

[0042] Figure 4 A partial front view of the present invention is shown;

[0043] Figure 5 A partial right side view of the present invention is shown;

[0044] Figure 6 A partial stereoscopic view of the present invention at another angle is shown;

[0045] Figure 7 A second partial perspective view of the present invention is shown;

[0046] Figure 8 A partial stereogram of the present invention in another form is shown;

[0047] Fig. 9 The present invention is shown Figure 2 A magnified image of point A;

[0048] Fig.10 The present invention is shown Figure 3 Enlarged view of point B.

[0049] In the figures, the same reference numerals denote the same structural elements, wherein:

[0050] 1. Wire drawing machine; 2. Metal wire; 3. Load handling vehicle; 4. Storage unit; 41. Bar type retaining member; 42. Front side plate; 43. Rear side plate; 44. Outward-moving bearing seat; 441. Second long slot; 442. Medium plate; 443. Support member; 444. Crossbar; 445. Second electric push rod; 45. Receiving slot; 46. Dome plate; 47. Guide plate; 48. Swinging device; 49. Control rod; 491. First electric push rod; 492. Movable member; 4921. Third through plate; 4922. Load-carrying plate; 493, side panel; 5, guiding mechanism; 51, right-angle positioning plate; 52, first long groove; 53, sliding block; 54, first mounting plate; 55, first electromagnet; 56, extension platform; 57, motor; 58, I-shaped wheel; 59, through groove; 591, round-headed vertical pole; 592, tensioning cable; 593, first central through plate; 594, second central through plate; 595, second mounting plate; 596, second electromagnet; 597, first spring; 598, stop plate; 599, second spring. DETAILED DESCRIPTION

[0051] The present invention will now be described in further detail with reference to the accompanying drawings. These drawings are simplified schematic diagrams, which only illustrate the basic structure of the present invention in a schematic manner, and therefore only show the components related to the present invention.

[0052] like Figure 1-10 As shown, a batch transfer device for metal wire manufacturing comprises: a metal wire 2 located at a discharge port of a wire drawing machine 1, a load carrier 3 located at the side of the wire drawing machine 1 and used for carrying and conveying foreign objects, a storage portion 4 arranged on the load carrier 3, and a guide mechanism 5 arranged on the storage portion 4. The load carrier 3 can be an automatic guided vehicle or other machine that can automatically move along a predetermined route, so as to ensure that the metal wire 2 can be loaded in batches and flexibly and accurately transferred between multiple processes, thereby reducing manual intervention and improving efficiency.

[0053] The guiding mechanism 5 is attached to the metal wire 2, wherein:

[0054] The guiding mechanism 5 is suitable for adsorbing the metal wire 2 in sections, so that the metal wire 2 and the guiding mechanism 5 are connected as a whole;

[0055] The guiding mechanism 5 is driven to guide and transport the metal wire 2 forward cyclically, so as to continuously deliver the metal wire 2 to the storage portion 4;

[0056] The storage part 4 is suitable for stably stacking and storing the metal wires 2 in batches, and can sequentially and cyclically place the metal wires 2 at multiple angles, so that the metal wires 2 are arranged in an orderly manner;

[0057] The storage part 4 can be driven to perform local linear motion to move the metal wire 2 therein outward. The batch transfer device for metal wire manufacturing can carry the metal wire 2 to perform transfer and transportation through the load carrier 3, thereby ensuring that the metal wire 2 is automatically and accurately transferred in multiple processes in the metal wire 2 manufacturing process. The storage part 4 can temporarily store batches of metal wires 2 in an orderly and neat manner, and can complete the fixation of the stored metal wires 2, thereby ensuring the stability of the placement of the metal wires 2 during the transfer process, thereby effectively preventing the metal wires 2 from having quality problems due to collisions during the transfer process. At the same time, the storage part 4 can perform local linear motion, thereby splitting the overall shape, prompting the stored metal wires 2 to move outward and expose themselves, and then facilitating the transfer of the metal wires 2 after the metal wires 2 are transferred to the right place. The removal thereof improves convenience. Through the guiding mechanism 5, it can be used in conjunction with the corresponding machinery of multiple processes in the manufacturing process of the metal wire 2. After the metal wire 2 has completed the corresponding process, it is adsorbed and gradually guided outward into the storage portion 4, thereby automatically sending the metal wire 2 into the storage portion 4 in sequence, realizing batch storage of the metal wire 2 in the storage portion 4. The batch transfer device for metal wire manufacturing can transfer batches of metal wires 2 at one time, has high handling efficiency, and has good mechanical coordination with the outside world. It can automatically and orderly complete the storage and fixing of the metal wire 2, thereby greatly reducing the required manual intervention and further improving the handling efficiency. At the same time, it provides a safe and reliable storage space and a stable transfer mode for the metal wire 2, effectively preventing the metal wire 2 from falling, and better ensuring the overall manufacturing process of the metal wire 2.

[0058] Optionally, the guiding mechanism 5 includes a right-angle positioning plate 51 installed on the storage portion 4, a first long groove 52 connected to the right-angle positioning plate 51 at the back, a sliding block 53 slidably installed in the first long groove 52, a first mounting plate 54 connected to the sliding block 53, a first electromagnet 55 integrally connected to the bottom of the first mounting plate 54, an extension platform 56 connected to the side of the right-angle positioning plate 51, a motor 57 arranged on the extension platform 56, an I-shaped wheel 58 installed on the output shaft of the motor 57, a through groove 59 opened on the first long groove 52 along the moving direction of the sliding block 53, a round-headed vertical rod 591 installed on the sliding block 53 and passing through the through groove 59 upward, and a take-up cable 5 connected at one end to the round-headed vertical rod 591 and at the other end to the I-shaped wheel 58 92, when the metal wire 2 is processed in the wire drawing machine 1 and begins to be gradually produced outward, after the first electromagnet 55 is completely in contact with the metal wire 2, the first electromagnet 55 is energized to attach an electromagnetic force, thereby adsorbing the metal wire 2, and at the same time starting the motor 57 to drive the I-shaped wheel 58 to rotate, and the take-up cable 592 is wound at the same frequency as the output speed of the metal wire 2, so that the slider 53, the first mounting plate 54 and the first electromagnet 55 are pulled along the first long groove 52 at a uniform speed through the round head vertical rod 591, and then the metal wire 2 is gradually guided outward, until the metal wire 2 is separated from the wire drawing machine 1 and reaches a suitable position, the first electromagnet 55 is powered off, so that the electromagnetic force disappears, so that the metal wire 2 falls freely into the storage part 4 below, ensuring that the metal wire 2 is automatically transferred from the processing place to the transfer and storage place during the manufacturing process of the metal wire 2;

[0059] The first electromagnet 55 is rectangular and has a semicircular groove at the bottom;

[0060] The metal wire 2 is in contact with the semicircular groove at the bottom of the first electromagnet 55. Since the metal wire 2 is circular, the semicircular groove at the bottom of the first electromagnet 55 can fit it better and can contact the metal wire 2 over a larger area, thereby improving the adsorption effect on the metal wire 2 and ensuring that it is firmly sucked, so as to better transport the metal wire 2.

[0061] Optionally, the storage portion 4 includes two fence-type retaining members 41 respectively installed on the front and rear sides of the load transport vehicle 3, a front side plate 42 and a rear side plate 43 respectively installed on the two fence-type retaining members 41, and the front side plate 42 and the rear side plate 43 are aligned, an outward-moving bearing seat 44 arranged on the top of the load transport vehicle 3, and a receiving groove 45 installed on the outward-moving bearing seat 44, and the receiving groove 45 is in contact with the bottom surfaces of the front side plate 42 and the rear side plate 43;

[0062] The right-angle positioning plate 51 is installed on the top of the rear side plate 43;

[0063] The receiving slot 45 is located between the two bar-type retaining members 41 and is spaced apart from the two bar-type retaining members 41;

[0064] The first electromagnet 55 is located directly above the receiving slot 45, ensuring that after the guiding mechanism 5 guides the metal wire 2 to a suitable position and releases it, the metal wire 2 can enter the receiving slot 45 and reach the storage place during the transportation process, ensuring successful docking; the receiving slot 45 provides sufficient storage space, thereby ensuring that the metal wire 2 can be stored in batches to ensure the handling efficiency;

[0065] Both ends of the first long groove 52 protrude from the receiving groove 45 , so that both ends of the metal wire 2 protrude from the receiving groove 45 after entering the receiving groove 45 .

[0066] Optionally, the guiding mechanism 5 further includes a first through plate 593 installed on the side of the first mounting plate 54, a second through plate 594 with one end slidably inserted into the first through plate 593, a second mounting plate 595 connected to the other end of the second through plate 594, a second electromagnet 596 integrally connected to the bottom of the second mounting plate 595, a first spring 597 located in the internal space of the first through plate 593 and having two ends connected to the first mounting plate 54 and the second mounting plate 595 respectively, and a stop plate 598 installed on the second mounting plate 595. The appearance and function of the second electromagnet 596 are the same as those of the first electromagnet 55.

[0067] The stop plate 598 abuts against the outer wall of the wire drawing machine 1. When the metal wire 2 needs to be transported during its manufacturing process, the device is moved to a suitable position as a whole through the movement of the load carrier 3, that is, the stop plate 598 abuts against the wire drawing machine 1 or the corresponding processing machinery in other processes, so that the first electromagnet 55 and the second electromagnet 596 correspond to the output position of the metal wire 2, and the first spring 597 is pressed to a fully compressed state, thereby ensuring that the device can be used in conjunction with the processing machinery corresponding to multiple processes in the metal wire 2 manufacturing process to transport the metal wire 2; when the metal wire 2 starts to be produced and guided outward, as the first electromagnet 55 is pressed, the metal wire 2 is transported to the outside. As the metal wire 2 is gradually moved, the first spring 597 starts to rebound synchronously, so that the second through plate 594 gradually withdraws from the first through plate 593, until the first spring 597 rebounds completely or the distance between the first electromagnet 55 and the second electromagnet 596 reaches a suitable state, the second electromagnet 596 is energized to adsorb the metal wire 2 as well, thereby utilizing the first electromagnet 55 and the second electromagnet 596 to perform multi-stage adsorption of the metal wire 2, so that the adsorption points of the metal wire 2 are uniform, ensuring that the metal wire 2 is stably guided outward for transportation, to prevent the metal wire 2 from being adsorbed by only the first electromagnet 55, causing the rear section of the metal wire 2 to fall and bend, thereby affecting its quality and transportation.

[0068] Optionally, the guiding mechanism 5 further includes a second spring 599 connected to the sliding block 53 at one end and connected to the inner side wall of the first long groove 52 at the other end. In the process of guiding the metal wire 2 outward, as the sliding block 53 moves, the second spring 599 is gradually compressed. After the current metal wire 2 is fed into the receiving groove 45, the reverse starting motor 57 drives the I-shaped wheel 58 to rotate, and the take-up cable 592 is released. At this time, the second spring 599 rebounds synchronously with the release of the take-up cable 592 to return the sliding block 53 to the top until the sliding block 53 is reset, thereby guiding the next metal wire 2 for transportation again, so as to ensure that the metal wires 2 are transported in sequence, and the batch storage of the metal wires 2 into the receiving groove 45 is completed;

[0069] The elastic coefficient of the second spring 599 is greater than the elastic coefficient of the first spring 597, that is, the elastic force of the second spring 599 is greater than the elastic force of the first spring 597, thereby ensuring that when the second spring 599 rebounds, the first spring 597 can be compressed at the same time to restore the positions of the first electromagnet 55 and the second electromagnet 596 to their initial states.

[0070] Optionally, the storage portion 4 further includes two dome plates 46 respectively mounted on the top of the front side plate 42 and the rear side plate 43, two guide plates 47 respectively hinged to the two dome plates 46, two swing devices 48 respectively mounted on the front side plate 42 and the rear side plate 43, and two control rods 49 respectively mounted on the output ends of the two swing devices 48, and the two control rods 49 are respectively connected to the two guide plates 47, and the swing device 48 can specifically be a swing cylinder and a swing motor, etc., which can drive the control rod 49 to swing;

[0071] The first electromagnet 55 and the second electromagnet 596 are both centrally located above the gap between the two guide plates 47, driving one of the swinging devices 48, pushing the corresponding guide plate 47 forward around the hinge point through the corresponding control rod 49, and reversely driving the other swinging device 48 to swing the other guide plate 47 backward, so that the two guide plates 47 face one side of the receiving groove 45. When the first metal wire 2 is transported to the position and released, the metal wire 2 enters between the two guide plates 47 and falls into the designated position in the receiving groove 45 along the guide plates 47. Then, the angles of the two guide plates 47 are gradually adjusted, so that the subsequent metal wires 2 fall into the receiving groove 45 in an orderly manner, ensuring that the batches of metal wires 2 are neatly and orderly discharged in the receiving groove 45, so as to prevent the batches of metal wires 2 from being too messy in the receiving groove 45 and causing inconvenience for subsequent use.

[0072] Optionally, the storage portion 4 further includes two first electric push rods 491 mirror-mounted on the bottom surface of the receiving slot 45, two groups of movable parts 492 mounted on the bottom surface of the receiving slot 45 and respectively located in front of the two first electric push rods 491, and two side panels 493 respectively mounted on the two groups of movable parts 492;

[0073] The two side panels 493 are respectively located on the left and right sides of the receiving groove 45 and the inner bottom surfaces of the two side panels 493 are flush with the inner bottom surface of the receiving groove 45. When the metal wires 2 are transported in batches to the receiving groove 45, the two first electric push rods 491 are used to move the two side panels 493 away from the receiving groove 45 to ensure that the metal wires 2 will not contact the two side panels 493 when they fall. After the current batch of metal wires 2 are all transported to the receiving groove 45, the two first electric push rods 491 are synchronously started to pull the two side panels 493 back toward the receiving groove 45, so that the two side panels 493 are used to support the two ends of the batch of metal wires 2 in the receiving groove 45, thereby completing the fixation of the metal wires 2, ensuring that a safe and reliable storage space is provided for the metal wires 2, ensuring the stability of the placement of the metal wires 2 during transportation, and effectively preventing the metal wires 2 from having quality problems due to collisions during transportation.

[0074] Optionally, the outward-moving bearing seat 44 includes two second long grooves 441 and a dielectric plate 442 installed on the top of the load transport vehicle 3, and the dielectric plate 442 is located between the two second long grooves 441, two supporting members 443 fixedly installed on the bottom surface of the receiving groove 45 and slidably installed in the two second long grooves 441, a cross bar 444 installed between the two supporting members 443, and a second electric push rod 445 arranged on the dielectric plate 442, and the output shaft of the second electric push rod 445 is connected to the cross bar 444;

[0075] The cross bar 444 and the second electric push rod 445 are respectively located at the two ends of the top of the load transport vehicle 3. When the storage and fixation of the current batch of metal wires 2 are completed, the second electric push rod 445 is started and the two supporting members 443 are pulled along the two second long grooves 441 through the cross bar 444, so that the receiving groove 45, the two side panels 493 and the batch of metal wires 2 stored therein are separated from the front side panel 42 and the rear side panel 43, and the receiving groove 45, the two side panels 493 and the batch of metal wires 2 stored therein are gradually moved outward, thereby providing great convenience for the subsequent removal of the metal wires 2.

[0076] Optionally, the movable member 492 includes a third through plate 4921 mounted on the bottom surface of the receiving slot 45, and a load-bearing plate 4922 slidably mounted in the third through plate 4921;

[0077] The output shaft of the first electric push rod 491 is connected to the load-bearing plate 4922;

[0078] The side panel 493 is installed at the end of the loading plate 4922. The first electric push rod 491 drives the side panel 493 to move by pushing and pulling the loading plate 4922. At the same time, the loading plate 4922 relies on the third central plate 4921 and the receiving groove 45 to ensure that the batch of metal wires 2 can be stably loaded.

[0079] Optionally, it should be specifically stated that the second electric push rod 445, the two first electric push rods 491, the first electromagnet 55 and the second electromagnet 596 and other electrical components are all connected to the driving power supply on the load transport vehicle 3 to ensure that the above-mentioned electrical components can be used normally and function.

[0080] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. For those skilled in the art, the present invention may have various modifications and variations. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A batch transfer device for metal wire manufacturing, characterized in that: include: A metal wire (2) located at a discharge port of a wire drawing machine (1), a load carrier (3) located on a side of the wire drawing machine (1) and used for carrying and transporting foreign objects, a storage portion (4) disposed on the load carrier (3), and a guide mechanism (5) disposed on the storage portion (4); The guiding mechanism (5) is in contact with the metal wire (2), wherein: The guiding mechanism (5) is suitable for adsorbing the metal wire (2) in sections, so that the metal wire (2) and the guiding mechanism (5) are connected as a whole; The guiding mechanism (5) is driven to guide and transport the metal wire (2) forward in a cyclic manner, so as to continuously deliver the metal wire (2) into the storage portion (4); The storage portion (4) is suitable for stably stacking and storing the metal wires (2) in batches, and is capable of placing the metal wires (2) in a circular manner at multiple angles in sequence, so that the metal wires (2) are discharged in an orderly manner; Driving the storage portion (4) to move partially linearly to move the metal wire (2) therein outward; The guiding mechanism (5) comprises a right-angle positioning plate (51) mounted on the storage portion (4), a first long groove (52) connected to the right-angle positioning plate (51) at the back, a sliding block (53) slidably mounted in the first long groove (52), a first mounting plate (54) connected to the sliding block (53), a first electromagnet (55) integrally connected to the bottom of the first mounting plate (54), an extension platform (56) connected to the side of the right-angle positioning plate (51), a motor (57) arranged on the extension platform (56), an I-shaped wheel (58) mounted on the output shaft of the motor (57), a through groove (59) provided on the first long groove (52) along the moving direction of the sliding block (53), a round-headed vertical rod (591) mounted on the sliding block (53) and passing through the through groove (59) upwards, and a pulling rope (592) having one end connected to the round-headed vertical rod (591) and the other end connected to the I-shaped wheel (58); The first electromagnet (55) is rectangular and has a semicircular groove at the bottom; The metal wire (2) is in contact with the semicircular groove at the bottom of the first electromagnet (55); The guiding mechanism (5) further comprises a first through plate (593) mounted on a side of the first mounting plate (54), a second through plate (594) with one end slidably inserted into the first through plate (593), a second mounting plate (595) connected to the other end of the second through plate (594), a second electromagnet (596) integrally connected to the bottom of the second mounting plate (595), a first spring (597) located in the internal space of the first through plate (593) and with two ends respectively connected to the first mounting plate (54) and the second mounting plate (595), and a stop plate (598) mounted on the second mounting plate (595); The stop plate (598) abuts against the outer wall of the wire drawing machine (1); The guiding mechanism (5) further comprises a second spring (599) having one end connected to the sliding block (53) and the other end connected to the inner side wall of the first elongated groove (52); The elastic coefficient of the second spring (599) is greater than the elastic coefficient of the first spring (597).

2. The batch transfer device for metal wire manufacturing according to claim 1, characterized in that: The storage portion (4) comprises two bar-type retaining members (41) respectively mounted on the front and rear sides of the load transport vehicle (3), a front side plate (42) and a rear side plate (43) respectively mounted on the two bar-type retaining members (41), and the front side plate (42) and the rear side plate (43) are aligned, an outward-moving bearing seat (44) arranged on the top of the load transport vehicle (3), and a receiving groove (45) mounted on the outward-moving bearing seat (44), and the receiving groove (45) is in contact with the bottom surfaces of the front side plate (42) and the rear side plate (43); The right-angle positioning plate (51) is mounted on the top of the rear side plate (43); The receiving groove (45) is located between the two bar-type retaining members (41) and is spaced apart from the two bar-type retaining members (41); The first electromagnet (55) is located directly above the receiving slot (45); Both ends of the first long groove (52) protrude from the receiving groove (45).

3. The batch transfer device for metal wire manufacturing according to claim 2, characterized in that: The storage portion (4) further comprises two dome plates (46) respectively mounted on the top ends of the front side plate (42) and the rear side plate (43), two guide plates (47) respectively hinged to the two dome plates (46), two swing devices (48) respectively mounted on the front side plate (42) and the rear side plate (43), and two control rods (49) respectively mounted on the output ends of the two swing devices (48), and the two control rods (49) are respectively connected to the two guide plates (47); The first electromagnet (55) and the second electromagnet (596) are both centrally located above the gap between the two guide plates (47).

4. The batch transfer device for metal wire manufacturing according to claim 3, characterized in that: The storage portion (4) further comprises two first electric push rods (491) mounted in mirror image on the bottom surface of the receiving groove (45), two groups of movable parts (492) mounted on the bottom surface of the receiving groove (45) and respectively located in front of the two first electric push rods (491), and two side panels (493) respectively mounted on the two groups of movable parts (492); The two side panels (493) are respectively located on the left and right sides of the receiving groove (45), and the inner bottom surfaces of the two side panels (493) are flush with the inner bottom surface of the receiving groove (45).

5. The batch transfer device for metal wire manufacturing according to claim 4, characterized in that: The outward-moving bearing seat (44) comprises two second long grooves (441) and a dielectric plate (442) mounted on the top of the load transport vehicle (3), wherein the dielectric plate (442) is located between the two second long grooves (441), two supporting members (443) fixedly mounted on the bottom surface of the receiving groove (45) and slidably mounted in the two second long grooves (441), a cross bar (444) mounted between the two supporting members (443), and a second electric push rod (445) arranged on the dielectric plate (442), wherein the output shaft of the second electric push rod (445) is connected to the cross bar (444); The cross bar (444) and the second electric push rod (445) are respectively located at two ends of the top of the load transport vehicle (3).

6. The batch transfer device for metal wire manufacturing according to claim 5, characterized in that: The movable member (492) comprises a third through plate (4921) mounted on the bottom surface of the receiving groove (45), and a load-bearing plate (4922) slidably mounted in the third through plate (4921); The output shaft of the first electric push rod (491) is connected to the load-bearing plate (4922); The side panel (493) is mounted on the end of the load-bearing plate (4922).

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