Wheel blank stokehole intelligent logistics system and working method thereof
By designing a smart logistics system in front of the wheel blank furnace and using chain conveyors and robots and other equipment, the problem of unauthorized and inaccurate placement of wheel blanks in the existing technology has been solved, and efficient and safe wheel blank transportation and logistics optimization has been achieved.
Patent Information
- Application Number
- CN202411952021.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-27
- Publication Date
- 2025-05-13
AI Technical Summary
The existing wheel blank transportation system cannot achieve automated operation and the precise placement of wheel blanks cannot be achieved, which poses safety risks and is not suitable for the production needs of high-quality wheels.
A smart logistics system for front furnace of wheel blanks is designed, including loading system, transfer system, discharge system, return system and pre-furnace operating system. Through chain conveyors, robots and other equipment, the automatic loading and unloading of wheel blanks is realized, fixed-point transportation, intelligent warehouse area, automatic loading and unloading of furnaces is achieved.
It realizes the automated transportation and precise placement of wheel blanks, improves transportation safety and efficiency, is suitable for the production needs of high-quality wheels, and optimizes the logistics process.
Smart Images

Figure CN119990934A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of wheel production and transportation, and in particular to a wheel blank furnace front intelligent logistics system and a working method thereof. Background Art
[0002] Before wheel rolling, the blank needs to be cut into fixed lengths and sent to a heating furnace for heating.
[0003] At present, the wheel blanks cut into fixed lengths by the disc cold saw in the unloading area are lifted to the top of the chute with a certain slope to the ground by the door crane installed at the disc cold saw discharge port. The wheel blanks slide down the chute to the ground, and the crane operator lifts the wheel blanks to different set ground warehouses according to the wheel product specifications. When rolled to a certain wheel product specification, the crane operator lifts the wheel blanks of this specification in the ground warehouse into the push steel trough next to the heating furnace, and the hydraulic pusher pushes the wheel blank to the side of the heating furnace door. The wheel blank is clamped by a manually operated mobile forklift and sent to the heating furnace for heating. Then the manually operated mobile forklift sends the heated wheel blank to the receiving position in the rolling area to start the heating process.
[0004] The existing method of transporting wheel blanks by crane or forklift cannot be automated, cannot achieve accurate placement of wheel blanks, is time-consuming and labor-intensive, and poses a safety hazard. It cannot track individual wheel blanks well and is not suitable for the production of high-quality wheels. It requires intelligent transformation of the entire logistics system from the wheel unloading process to the heating process.
[0005] The existing patent document CN113023209A discloses a front-extruder intelligent aluminum bar warehouse logistics system, including a track support beam erected inside the aluminum bar warehouse, a storage grabbing device installed at the side of the track support beam, a truss also erected at the side of the track support beam, an aluminum bar material taking and loading device installed on the truss, and a transverse trolley, a feed roller, a return roller and a rod storage rack are arranged on the bottom surface of the aluminum bar warehouse. The present invention delivers the aluminum bars to the bottom of the track support beam by the feed roller, and then the aluminum bar material taking and loading device grabs the aluminum bars from the feed roller and puts them into the transverse trolley, the transverse trolley drives the aluminum bars to move, and the storage grabbing device grabs the aluminum bars and puts them into the rod storage rack for storage, thereby completing the stable clamping and precise transportation of the aluminum bars and improving the storage efficiency of the aluminum bars.
[0006] The technical solution disclosed in this patent document cannot realize the intelligent transportation and storage of wheel blanks.
[0007] Therefore, in order to improve or solve at least one of the above problems, a new wheel blank transportation system is needed. Summary of the invention
[0008] The purpose of the present invention is to provide a logistics system capable of improving the degree of automation of wheel transportation.
[0009] In order to achieve the above object, the technical solution adopted by the present invention is:
[0010] A wheel blank furnace front intelligent logistics system, comprising a loading system, a transfer system, a unloading system, a return system and a furnace front operating system;
[0011] The feeding system is connected to the unloading system through the transfer system, and the unloading system is used in conjunction with the furnace front operating system;
[0012] The unloading system is connected with the loading system through the return system;
[0013] The feeding system, the transfer system, the unloading system and the return system are distributed in a ring shape.
[0014] The feeding system includes a feeding platform, a feeding transfer machine and a first truss manipulator;
[0015] The transfer system includes a chain conveyor, a turntable and a transfer transfer machine;
[0016] The unloading system includes an unloading transfer machine, a walking beam transport unit and a second truss manipulator;
[0017] The furnace front operating system comprises a first rotary manipulator for grabbing the railway wheel blank at the end of the walking beam transport unit and placing the railway wheel blank in the heating furnace, and a second rotary manipulator for grabbing the railway wheel blank and moving the railway wheel blank out of the heating furnace;
[0018] The material return system comprises a fifth chain conveyor; the material unloading transfer machine is connected to the material loading system via the fifth chain conveyor.
[0019] The loading platform includes a first material platform, and the loading transfer machine includes a first lifting transfer machine and a second lifting transfer machine; the loading system also includes a first transfer conveyor; the first lifting transfer machine is connected to the second lifting transfer machine through the first transfer conveyor; the blank on the first material platform is transferred to the chain conveyor through the first lifting transfer machine, the first transfer conveyor and the second lifting transfer machine.
[0020] The loading platform also includes a second loading platform, and the loading transfer machine also includes a third lifting transfer machine and a fourth transfer machine; the loading system also includes a second transfer conveyor; the third lifting transfer machine is connected to the fourth transfer machine through the second transfer conveyor.
[0021] The blanks on the second material platform are transferred to the chain conveyor in sequence through the third lifting and transferring machine, the second transfer conveyor, the fourth transferring machine and the second lifting and transferring machine.
[0022] The return material system is connected to the first transfer conveyor through a first return material moving machine, and the return material system is connected to the second transfer conveyor through a second return material moving machine.
[0023] The chain conveyor includes a first chain conveyor, a second chain conveyor, a third chain conveyor and a fourth chain conveyor; the turntable includes a first turntable and a second turntable; the transfer transfer machine includes a fifth lifting transfer machine and a sixth lifting transfer machine; the first chain conveyor is connected to the second chain conveyor through the first turntable and the fifth lifting transfer machine; the second chain conveyor is connected to the third chain conveyor through the warehousing RGV trolley; the third chain conveyor is connected to the fourth chain conveyor; the fourth chain conveyor is connected to the second turntable through the outbound RGV trolley.
[0024] The transfer system also includes a vertical warehouse system, and the third chain conveyor is connected to the fourth chain conveyor through the vertical warehouse system.
[0025] The material unloading transfer machine includes a sixth lifting transfer machine; the second turntable is connected to the fifth chain conveyor through the sixth lifting transfer machine.
[0026] The wheel blank furnace front intelligent logistics system also includes a control system, which includes a detection module, the detection module is connected to the control module, and the control module is connected to the execution module.
[0027] A working method of the wheel blank furnace front intelligent logistics system, the working method comprising the following steps:
[0028] S1. Automatic storage of train wheel blanks;
[0029] S2, automatic delivery of train wheel blanks;
[0030] S3, railway wheel blanks automatically enter and exit the heating furnace;
[0031] S4. After unloading, the pallet automatically returns to its original working position.
[0032] The advantages of the present invention are:
[0033] The invention discloses a wheel billet furnace front intelligent logistics system and a working method thereof.
[0034] The wheel billet furnace front intelligent logistics system disclosed in the present invention can realize automatic unloading of wheel billets, fixed-point transportation, intelligent storage area, automatic loading and unloading in front of the furnace through the coordinated use of a loading system, a transfer system, an unloading system, a return system and a furnace front operating system, and seamlessly connect with the wheel billet heating and rolling system.
[0035] At the same time, through the setting of the return system, the pallets after unloading can be directly transported to the loading system, reducing the storage space of the vertical warehouse and optimizing the logistics process of the pallets.
[0036] In addition, the transfer system includes a chain conveyor; the chain conveyor replaces the traditional RGV trolley for transportation; the waiting time of the RGV trolley can be reduced, and the continuity of the blank transfer can be achieved. BRIEF DESCRIPTION OF THE DRAWINGS
[0037] The following is a brief description of the contents expressed in the drawings of the present invention and the symbols in the drawings:
[0038] Figure 1 It is a system layout diagram of the present invention.
[0039] The marks in the above figure are:
[0040] 1. The first truss manipulator, 2. The first material platform, 3. The second material platform, 4. The first jacking and transferring machine, 5. The second jacking and transferring machine, 6. The third jacking and transferring machine, 7. The fourth jacking and transferring machine, 8. The first chain conveyor, 9. The first turntable, 10. The fifth jacking and transferring machine, 11. The second chain conveyor, 12. The RGV trolley for inbound storage, 13. The third chain conveyor, 14. The fourth chain conveyor, 15. The RGV trolley for outbound storage, 16. The second turntable, 17. The sixth jacking and transferring machine, 18. The second truss manipulator, 19. The walking beam transport unit, 20. The first rotating manipulator, 21. The second rotating manipulator, 22. The fifth chain conveyor. DETAILED DESCRIPTION
[0041] The specific implementation of the present invention will be further explained in detail below by describing the optimal embodiment with reference to the accompanying drawings.
[0042] A wheel billet furnace front intelligent logistics system, including a loading system, a transfer system, a unloading system, a return system and a furnace front operating system; the loading system is connected to the unloading system through the transfer system, and the unloading system is used in conjunction with the furnace front operating system; the unloading system is connected to the loading system through the return system; the loading system, the transfer system, the unloading system and the return system are distributed in a ring; the loading system includes a loading platform, a loading transfer machine and a first truss manipulator 1; the transfer system includes a chain conveyor, a turntable and a transfer transfer machine; the unloading system includes an unloading transfer machine, a walking beam transport unit 19 and a second truss manipulator 18; the furnace front operating system includes A first rotating manipulator 20 for grabbing the train wheel blank at the end of the walking beam transport unit 19 and placing the train wheel blank in the heating furnace, and a second rotating manipulator 21 for grabbing the train wheel blank and moving the train wheel blank out of the heating furnace; the return system includes a fifth chain conveyor 22; the unloading transfer machine is connected to the loading system through the fifth chain conveyor 22; the wheel billet furnace front intelligent logistics system disclosed in the present invention can realize automatic unloading, fixed-point transportation, intelligent warehouse area, automatic loading and unloading in front of the furnace of the wheel billet through the coordinated use of the loading system, transfer system, unloading system, return system and furnace front operating system, and seamlessly connect with the wheel billet heating and rolling system.
[0043] At the same time, through the setting of the return material system, the pallet after unloading can be directly transported to the loading system, which reduces the storage space of the vertical warehouse 103 and optimizes the logistics process of the pallet.
[0044] In addition, the transfer system includes a chain conveyor; the chain conveyor replaces the traditional RGV trolley for transportation; the waiting time of the RGV trolley can be reduced, and the continuity of the blank transfer can be achieved.
[0045] The wheel billet furnace front intelligent logistics system disclosed in the present invention mainly includes a first truss manipulator 1 for grabbing train wheel billets before storage, a first material table 2 for receiving the train wheel billets grabbed by the first truss manipulator 1, and a second material table 3.
[0046] The first jacking and transferring machine 4 and the second jacking and transferring machine 5 transport the railway wheel blanks on the first material platform 2 to the first chain conveyor 8; the first jacking and transferring machine 4 is connected to the second jacking and transferring machine 5 through the first transfer conveyor 104; the loading platform includes the first material platform 2, and the loading transfer machine includes the first jacking and transferring machine 4 and the second jacking and transferring machine 5; the loading system also includes the first transfer conveyor 104; the first jacking and transferring machine 4 is connected to the second jacking and transferring machine 5 through the first transfer conveyor 104; the blanks on the first material platform 2 are transferred to the chain conveyor through the first jacking and transferring machine 4, the first transfer conveyor 104 and the second jacking and transferring machine 5.
[0047] The railway wheel blanks on the second material platform 3 are transported to the third lifting and transferring machine 6, the fourth lifting and transferring machine 7 and the second lifting and transferring machine 5 of the first chain conveyor 8; the loading platform also includes the second material platform 3, and the loading and transferring machine also includes the third lifting and transferring machine 6 and the fourth transfer machine; the loading system also includes a second transfer conveyor 105; the third lifting and transferring machine 6 is connected to the fourth transfer machine through the second transfer conveyor 105; the blanks on the second material platform 3 are transferred to the chain conveyor in sequence through the third lifting and transferring machine 6, the second transfer conveyor 105, the fourth transfer machine and the second lifting and transferring machine 5.
[0048] The chain conveyor disclosed in the present invention includes a first chain conveyor 8, a second chain conveyor 11, a third chain conveyor 13 and a fourth chain conveyor 14; the turntable includes a first turntable 9 and a second turntable 16; the transfer transfer machine includes a fifth jacking transfer machine 10 and a sixth jacking transfer machine 17; the first chain conveyor 8 is connected to the second chain conveyor 11 through the first turntable 9 and the fifth jacking transfer machine 10; the second chain conveyor 11 is connected to the third chain conveyor 13 through the warehousing RGV trolley 12; the third chain conveyor 13 is connected to the fourth chain conveyor 14; the fourth chain conveyor 14 is connected to the second turntable 16 through the outbound RGV trolley 15; the transfer system also includes a vertical warehouse system, and the third chain conveyor 13 is connected to the fourth chain conveyor 14 through the vertical warehouse system; the unloading transfer machine includes a sixth jacking transfer machine 17; The second turntable 16 is connected to the fifth chain conveyor 22 through the sixth jacking and transferring machine 17; the tail of the first chain conveyor 8 is connected to the first turntable 9 for changing the posture of the train wheel blank, the output end of the first turntable 9 is connected to the fifth jacking and transferring machine 10, the second chain conveyor 11, the RGV trolley 12 for entering the warehouse, the third chain conveyor 13, the fourth chain conveyor 14, the RGV trolley 15 for leaving the warehouse, the second turntable 16, the sixth jacking and transferring machine 17, the second truss manipulator 18 for grabbing the train wheel blank and placing the train wheel blank on the walking beam transport unit 19, the first rotating manipulator 20 for grabbing the train wheel blank at the end of the walking beam transport unit 19 and placing the train wheel blank in the heating furnace, and the second rotating manipulator 21 for grabbing the train wheel blank and moving the train wheel blank out of the heating furnace, and the fifth chain conveyor 22 for transporting the unloaded pallet back to the first material table 2 and the second material table 3.
[0049] In the present invention, the return material system is connected to the first transfer conveyor 104 through the first return displacement machine 101, and the return material system is connected to the second transfer conveyor 105 through the second return displacement machine 102; through the above design, it is convenient to transfer the pallets returned by the fifth chain conveyor 22 to the second material table 3 or the first material table 2.
[0050] Specifically, the first return moving machine 101 can be lifted and rotated, so that the pallet on the fifth chain conveyor 22 is transferred to the first transfer conveyor 104, and then the pallet on the first transfer conveyor 104 is removed by the first lifting moving machine 4, so that it falls on the first material platform 2; similarly, through the coordinated use of the second return moving machine 102 and the second transfer conveyor 105, a new return pallet can be arranged on the second material platform 3.
[0051] Furthermore, the wheel blank furnace intelligent logistics system in the present invention also includes a control system, the control system includes a detection module, the detection module is connected to a control module, and the control module is connected to an execution module; the detection module can be a barcode scanner and an electronic tag on a pallet; after scanning and identification, a signal is sent to the control module, the control module is mainly a controller or a traditional industrial computer, which is mainly used to receive the signal transmitted by the detection module; and identification and judgment are performed, and then instructions are issued, and each actuator performs corresponding actions according to the instructions of the control system; the execution module can be each operating unit in the system, such as the first and second truss manipulators 18; it can also be other operating units.
[0052] specific:
[0053] like Figure 1 As shown, the present invention provides a wheel billet furnace front intelligent logistics system, including a first truss manipulator 1 for grabbing train wheel billets before storage, a first material platform 2 for receiving the train wheel billets grabbed by the first truss manipulator 1, a second material platform 3, a first lifting and transferring machine 4 and a second lifting and transferring machine 5 for transporting the train wheel billets on the first material platform 2 to a first chain conveyor 8, a second lifting and transferring machine 5 and a third lifting and transferring machine 6, a fourth lifting and transferring machine 7 for transporting the train wheel billets on the second material platform 3 to the first chain conveyor 8, a first turntable 9 for changing the posture of the train wheel billets connected to the tail of the first chain conveyor 8, and a fifth lifting and transferring machine connected to the output end of the first turntable 9. The carrier 10, the second chain conveyor 11, the incoming RGV trolley 12, the third chain conveyor 13, the fourth chain conveyor 14, the outgoing RGV trolley 15, the second turntable 16, the sixth lifting and transferring machine 17, the second truss manipulator 18 for grabbing the train wheel blank and placing the train wheel blank on the walking beam transport unit 19, the first rotating manipulator 20 for grabbing the train wheel blank at the end of the walking beam transport unit 19 and placing the train wheel blank in the heating furnace, and the second rotating manipulator 21 for grabbing the train wheel blank and moving the train wheel blank out of the heating furnace, and the fifth chain conveyor 22 for transporting the unloaded pallet back to the first material table 2 and the second material table 3.
[0054] The first truss manipulator 1 is used to grab the cut train wheel blanks. The first truss manipulator 1 includes an X-axis translation module, a Y-axis lateral movement module, a Z-axis lifting module, and an electromagnetic chuck, which is hinged at the lower end of the Z-axis lifting module. The first truss manipulator 1 is interlocked with the sawing machine control system, responsible for grabbing the sawn blanks and transporting them to the feeding tray, and is responsible for communicating with the secondary system to obtain the single piece tracking number of the blank number and writing it into the tray RFID tag through the RFID reader / writer.
[0055] The first material platform 2 is a frame structure, which is welded from steel sections and steel plates. The first material platform 2 is located directly below the first truss manipulator 1 and on both sides of the first lifting and transferring machine 4. The first material platform 2 is used to store pallets loaded with railway wheel blanks.
[0056] The second material platform 3 is a frame structure, which is welded from steel sections and steel plates. The second material platform 3 is located directly below the first truss manipulator 1 and on both sides of the third jacking and transplanting machine 6. The second material platform 3 is used to store pallets loaded with railway wheel blanks.
[0057] The first lifting and transferring machine 4 realizes transferring the pallet storing the train wheel blanks on the first material platform 2 to the second lifting and transferring machine 5 or transporting the empty pallet to the first material platform 2, and includes a chain conveying mechanism and a lifting mechanism for driving the chain conveying mechanism to rise and fall. The lifting mechanism includes a scissor-type lifting assembly and a scissor-type driving mechanism, the chain conveying mechanism is installed at the upper end of the scissor-type lifting assembly, and the scissor-type driving mechanism is configured to drive the scissor-type lifting assembly to rise and fall, thereby driving the chain conveying mechanism directly above it that is transported in the X direction to rise and fall.
[0058] The second lifting and transferring machine 5 is used to transfer the pallet storing the railway wheel blanks to the first chain conveyor 8 or to transport the empty pallet to the first lifting and transferring machine 4 and the fourth lifting and transferring machine 7, and includes a chain conveying mechanism for conveying along the X direction, a chain conveying mechanism (a) along the Y direction and a lifting mechanism (a) for driving the chain conveying mechanism (a) along the Y direction, and a chain conveying mechanism (b) along the Y direction and a lifting mechanism (b) for driving the chain conveying mechanism (b) along the Y direction.
[0059] The lifting mechanism (a) drives the Y-direction chain conveying mechanism (a) to rise to a position higher than the upper end surface of the chain conveying mechanism for conveying in the X-direction or to descend to a position lower than the upper end surface of the chain conveying mechanism for conveying in the X-direction, and the lifting mechanism (b) drives the Y-direction chain conveying mechanism (b) to rise to a position higher than the upper end surface of the chain conveying mechanism for conveying in the X-direction or to descend to a position lower than the upper end surface of the chain conveying mechanism for conveying in the X-direction.
[0060] The lifting mechanism (a) includes a scissors-type lifting assembly and a scissors-type driving mechanism, the chain conveying mechanism (a) for conveying along the Y direction is installed at the upper end of the scissors-type lifting assembly, and the scissors-type driving mechanism is configured to be able to drive the scissors-type lifting assembly to rise and fall, thereby driving the chain conveying mechanism (a) for conveying along the Y direction directly above it to rise and fall, and the lifting mechanism (b) includes a scissors-type lifting assembly and a scissors-type driving mechanism, the chain conveying mechanism (b) for conveying along the Y direction is installed at the upper end of the scissors-type lifting assembly, and the scissors-type driving mechanism is configured to be able to drive the scissors-type lifting assembly to rise and fall, thereby driving the chain conveying mechanism (b) for conveying along the Y direction directly above it to rise and fall.
[0061] The third jacking and transferring machine 6 is used to transfer the pallet storing the railway wheel blanks on the second material platform 3 to the fourth jacking and transferring machine 7 or to transport the empty pallet to the second material platform 3, and includes a chain conveying mechanism and a jacking mechanism for driving the chain conveying mechanism to rise and fall. The jacking mechanism includes a scissors-type lifting assembly and a scissors-type driving mechanism. The chain conveying mechanism is installed at the upper end of the scissors-type lifting assembly, and the scissors-type driving mechanism is configured to drive the scissors-type lifting assembly to rise and fall, thereby driving the chain conveying mechanism directly above it that transports along the X direction to rise and fall.
[0062] The fourth lifting and transferring machine 7 is used to transfer the pallet storing the train wheel blank to the second lifting and transferring machine 5 or to transfer the empty pallet to the third lifting and transferring machine 6, and includes a chain conveying mechanism for conveying along the X direction, a chain conveying mechanism (a) along the Y direction and a lifting mechanism (a) for driving the chain conveying mechanism (a) along the Y direction, and a chain conveying mechanism (b) along the Y direction and a lifting mechanism (b) for driving the chain conveying mechanism (b) along the Y direction. The lifting mechanism (a) drives the Y-direction chain conveying mechanism (a) to rise to a position higher than the upper end surface of the chain conveying mechanism for conveying in the X direction or to descend to a position lower than the upper end surface of the chain conveying mechanism for conveying in the X direction, and the lifting mechanism (b) drives the Y-direction chain conveying mechanism (b) to rise to a position higher than the upper end surface of the chain conveying mechanism for conveying in the X direction or to descend to a position lower than the upper end surface of the chain conveying mechanism for conveying in the X direction. The lifting mechanism (a) includes a scissors-type lifting assembly and a scissors-type driving mechanism, the chain conveying mechanism (a) for conveying along the Y direction is installed at the upper end of the scissors-type lifting assembly, and the scissors-type driving mechanism is configured to be able to drive the scissors-type lifting assembly to rise and fall, thereby driving the chain conveying mechanism (a) for conveying along the Y direction directly above it to rise and fall, and the lifting mechanism (b) includes a scissors-type lifting assembly and a scissors-type driving mechanism, the chain conveying mechanism (b) for conveying along the Y direction is installed at the upper end of the scissors-type lifting assembly, and the scissors-type driving mechanism is configured to be able to drive the scissors-type lifting assembly to rise and fall, thereby driving the chain conveying mechanism (b) for conveying along the Y direction directly above it to rise and fall.
[0063] The first chain conveyor 8 realizes the intelligent transportation of the train wheel blank between the second lifting and transferring machine 5 and the first turntable 9, and is composed of a plurality of double-row chain conveyors connected in series, and the double-row chain conveyors include a frame, a conveyor chain arranged on the frame, and a driving mechanism that provides power to the conveyor chain. Position detection elements are arranged at both ends of the frame of each double-row chain conveyor for detecting the arrival signal of the train wheel blank.
[0064] The first turntable 9 rotates to adjust the transfer direction of the railway wheel blank pallet, and includes a chain conveying mechanism and a rotating mechanism for driving the chain conveying mechanism to rotate. The rotating mechanism includes a turntable assembly and a turntable driving mechanism. The chain conveying mechanism is installed at the upper end of the turntable assembly. The turntable driving mechanism is configured to drive the turntable assembly to rotate, thereby driving the chain conveying mechanism directly above it to rotate.
[0065] The fifth lifting and transferring machine 10 is used to transfer the pallet storing the train wheel blanks to the second chain conveyor 11, and includes a chain conveying mechanism for conveying along the X direction, a chain conveying mechanism for conveying along the Y direction, and a lifting mechanism for driving the chain conveying mechanism for conveying along the Y direction to rotate. The lifting mechanism can drive the chain conveying mechanism for conveying in the Y direction to rise to a position higher than the upper end surface of the chain conveying mechanism for conveying in the X direction or to fall to a position lower than the upper end surface of the chain conveying mechanism for conveying in the X direction. The lifting mechanism includes a scissor-type lifting assembly and a scissor-type driving mechanism. The chain conveying mechanism for conveying along the Y direction is installed at the upper end of the scissor-type lifting assembly, and the scissor-type driving mechanism is configured to drive the scissor-type lifting assembly to rise and fall, thereby driving the chain conveying mechanism for conveying along the Y direction directly above it to rise and fall.
[0066] The second chain conveyor 11 realizes the transfer of the train wheel blanks between the fifth lifting and transferring machine 10 and the storage RGV trolley 12. It is a double-row chain conveyor, which includes a frame, a conveyor chain arranged on the frame, and a driving mechanism for providing power to the conveyor chain. Position detection elements are arranged at both ends of the double-row chain conveyor frame for detecting the arrival signal of the train wheel blanks.
[0067] The warehouse RGV trolley 12 realizes the transfer of train wheel blanks between the second chain conveyor 11 and the third chain conveyor 13. The warehouse RGV trolley 12 includes a traveling body, a chain conveying structure fixedly arranged above the traveling body, a conveying track arranged below the traveling body, and a barcode reader and a barcode belt using barcode positioning. The barcode belt is installed on one side of the conveying track, and the barcode belt extends along the conveying track. The barcode reader is arranged on the body of the warehouse RGV trolley 12 corresponding to the side of the barcode belt. The warehouse RGV trolley 12 can travel on the conveying track, and the barcode reader just corresponds to the position of the barcode belt. The position of the warehouse RGV trolley 12 is monitored in real time through the barcode belt to realize the positioning of the warehouse RGV trolley 12.
[0068] The third chain conveyor 13 is a double-row chain conveyor used for transferring train wheel blanks between the storage RGV trolley 12 and the vertical warehouse 103; the third chain conveyor 13 includes a frame, a conveyor chain arranged on the frame, and a driving mechanism for providing power to the conveyor chain. Position detection elements are arranged at both ends of the frame for detecting the signal of the bracket being in place.
[0069] The vertical warehouse system includes a vertical warehouse 103, which is used for intelligent storage of train wheel blanks, including a warehouse management system (WMS), a warehouse equipment control system (WCS), a stacker and rows of high-rise shelves.
[0070] Several storage locations for pallets are provided on the rows of high-rise shelves.
[0071] Liku 103 integrates many functions of railway wheel blanks' inbound and outbound management, material correspondence, inventory counting, warehouse management, inventory statistics, etc. It effectively controls and tracks warehouse logistics, realizes complete blank pallet and blank ID information management, and can be connected with other information systems.
[0072] The stacker is a mature product that can complete the storage and retrieval operations of pallets.
[0073] The fourth chain conveyor 14 is a double-row chain conveyor used for transferring train wheel blanks between the vertical warehouse 103 and the outbound RGV trolley 15; the fourth chain conveyor 14 includes a frame, a conveyor chain arranged on the frame, and a driving mechanism for providing power to the conveyor chain. Position detection elements are arranged at both ends of the frame for detecting the signal of the tray being in place.
[0074] The outbound RGV trolley 15 transfers the train wheel blanks between the fourth chain conveyor 14 and the second turntable 16 .
[0075] The outbound RGV trolley 15 includes a traveling body, a chain conveying structure fixedly arranged above the traveling body, a conveying track arranged below the traveling body, and a barcode reader and a barcode belt using barcode positioning. The barcode belt is installed on one side of the conveying track and extends along the conveying track. The barcode reader is arranged on the outbound RGV trolley 15 body on the side corresponding to the barcode belt.
[0076] The outbound RGV trolley 15 can travel on the conveying track, and the code reader corresponds exactly to the position of the barcode tape. The position of the outbound RGV trolley 15 is monitored in real time through the barcode tape to achieve the positioning of the outbound RGV trolley 15.
[0077] The second turntable 16 rotates to adjust the transfer direction of the railway wheel blank pallet, including a chain conveying mechanism and a rotating mechanism for driving the chain conveying mechanism to rotate, the rotating mechanism including a turntable assembly and a turntable driving mechanism, the chain conveying mechanism is installed at the upper end of the turntable assembly, and the turntable driving mechanism is configured to drive the turntable assembly to rotate, thereby driving the chain conveying mechanism directly above it to rotate.
[0078] The sixth lifting and transferring machine 17 is used to transfer the pallet for storing the train wheel blank from the second turntable 16 to the unloading position directly below the second truss manipulator 18, and at the same time transfers the unloaded pallet to the fifth chain conveyor 22. The sixth lifting and transferring machine 17 includes a chain conveying mechanism for conveying along the X direction, a chain conveying mechanism for conveying along the Y direction, and a lifting mechanism for driving the chain conveying mechanism for conveying along the Y direction to rotate, and the lifting mechanism can drive the chain conveying mechanism for conveying in the Y direction to rise to a position higher than the upper end surface of the chain conveying mechanism for conveying in the X direction or to fall to a position lower than the upper end surface of the chain conveying mechanism for conveying in the X direction. The lifting mechanism includes a scissor-type lifting assembly and a scissor-type driving mechanism, and the chain conveying mechanism for conveying along the Y direction is installed at the upper end of the scissor-type lifting assembly, and the scissor-type driving mechanism is configured to drive the scissor-type lifting assembly to rise and fall, thereby driving the chain conveying mechanism for conveying along the Y direction directly above it to rise and fall.
[0079] The second truss manipulator 18 is used to grab the cut train wheel blanks. The second truss manipulator 18 includes an X-axis translation module, a Y-axis lateral movement module, a Z-axis lifting module, and an electromagnetic chuck. The electromagnetic chuck is hinged to the lower end of the Z-axis lifting module. The second truss manipulator 18 reads the RFID information of the pallet at the unloading position, completes the grabbing of the wheel blank, and puts the grabbed wheel blank into the walking beam transport unit 19. At the same time, the single tracking number of the single wheel is transmitted to the logistics transportation tracking system according to the wheel blank swing position;
[0080] The walking beam transport unit 19 is composed of a static beam, a moving beam, etc., and transports the wheel blank grasped by the second truss manipulator 18 to the receiving position of the first rotating manipulator 20.
[0081] The first rotary manipulator 20 and the second rotary manipulator 21 are hydraulic heavy-duty manipulators. The first rotary manipulator 20 is used to place the train wheel blank at the receiving position into the heating furnace, and the second rotary manipulator 21 is used to take the train wheel blank out of the heating furnace. The first rotary manipulator 20 and the second rotary manipulator 21 have the same structure, and a double parallel four-link structure is used to realize the position change of the clamp X-axis and Y-axis. The manipulator body is rotated around the C-axis through the bottom rotary mechanism, and pressure detection is used when the clamp mechanism clamps the blank.
[0082] The first rotary manipulator 20 and the second rotary manipulator 21 are based on a motion controller and are equipped with PLC control and screen monitoring. The PLC and the screen establish TCP / IP communication to realize remote monitoring of the operation room, and the PLC of the manipulator and other equipment on the production line use PROF I NET bus communication.
[0083] The fifth chain conveyor 22 realizes the intelligent transportation of the unloaded pallet between the sixth lifting and transferring machine 17 and the first truss manipulator 1, and is composed of a plurality of double-row chain conveyors connected in series, and the double-row chain conveyors include a frame, a conveyor chain arranged on the frame, and a driving mechanism for providing power to the conveyor chain. Position detection elements are arranged at both ends of each double-row chain conveyor frame for detecting the pallet arrival signal.
[0084] The intelligent logistics system for railway wheel blanks in front of a furnace of the present invention comprises a plurality of pallets, which are welded structural parts. Three supporting square tubes at the bottom of the pallet form equally spaced channels to facilitate the entry and exit of forks. Three "V"-shaped railway wheel blank storage slots are arranged side by side on the upper part of the pallet, and an RFID electronic tag is provided at the bottom of the pallet.
[0085] The present invention also provides a working method of a wheel blank furnace front intelligent logistics system, comprising the following steps:
[0086] S1. Automatic storage of train wheel blanks;
[0087] S2, automatic delivery of train wheel blanks;
[0088] S3, railway wheel blanks automatically enter and exit the heating furnace;
[0089] S4. After unloading, the pallet automatically returns to its original working position.
[0090] The above step S1 comprises:
[0091] S11. In the material-waiting state, the electromagnetic suction cup on the Z-axis lifting mechanism of the first truss manipulator 1 is located at the original zero position.
[0092] S12. After the first truss manipulator 1 receives the signal that the sawing machine has cut the blank, the electronic control unit gives a signal, the X-axis translation module and the Y-axis lateral movement module of the truss manipulator work, and the Z-axis lifting module is driven to move to the designated position for grabbing the blank. The Z-axis lifting module drives the electromagnetic chuck to descend to the working position for grabbing the train wheel blank, and the electromagnetic chuck is energized to suck the blank;
[0093] S13. The Z-axis lifting module of the first truss manipulator 1 rises, and the X-axis translation module and the Y-axis lateral movement module drive the Z-axis lifting module to move above the empty pallet placed on the first material table 2, and the Z-axis lifting mechanism descends to the set position, the electromagnetic chuck loses power, and the blank falls into the V-groove specified by the pallet;
[0094] Repeat steps S12 and S13. When the tray on the first material table 2 is filled with a set number of blanks, the first truss robot 1 starts loading the tray on the second material table 3.
[0095] S14. When the tray on the first material station 2 is filled with a set number of blanks, the electronic control unit sends a signal to the first lifting and transferring machine 4, and the lifting mechanism of the first lifting and transferring machine 4 drives its chain conveying mechanism to rise to a set height;
[0096] S15. The first lifting and shifting machine 4 chain conveying mechanism and the second lifting and shifting machine 5 chain conveying mechanism for conveying along the X direction work, and the pallet with the wheel blank is transported to the position where the center line of the first chain conveyor 8 is aligned, and the first lifting and shifting machine 4 chain conveying mechanism and the second lifting and shifting machine chain conveying mechanism for conveying along the X direction stop operating;
[0097] S16. The lifting mechanism (a) of the second lifting and transferring machine 5 drives the chain conveying mechanism (a) for conveying along the Y direction above it to rise to a set height, and the chain conveying mechanism (a) for conveying along the Y direction of the second lifting and transferring machine 5 and the first chain conveyor 8 work. After the pallet loaded with the wheel blank is separated from the chain conveying mechanism (a) for conveying along the Y direction of the second lifting and transferring machine 5, the lifting mechanism (a) of the second lifting and transferring machine 5 descends to its original position, the chain conveying mechanism (a) stops working, and the pallet loaded with the wheel blank moves forward along the first chain conveyor 8;
[0098] S17. When the pallet loaded with wheel blanks reaches the set position at the end of the first chain conveyor 8, the chain conveyor mechanism above the first turntable 9 works, and the pallet loaded with wheel blanks is transferred to the chain conveyor mechanism above the first turntable 9, and the first turntable 9 rotates 90 degrees in the set direction;
[0099] S18. When the first turntable 9 rotates in the set direction, the chain conveying mechanism of the fifth lifting and transferring machine 10 for conveying in the X direction works, and when the pallet loaded with the wheel blank is transferred to the chain conveying mechanism of the third lifting and transferring machine 610 for conveying in the X direction, the first turntable 9 rotates in the opposite direction to the original position, and the chain conveying mechanism on the first turntable 9 stops working;
[0100] S19. When the pallet loaded with wheel blanks reaches the set position at the end of the chain conveying mechanism of the fifth lifting and transferring machine 10 for conveying along the Y direction, the lifting mechanism of the fifth lifting and transferring machine 10 drives the chain conveying mechanism above it for conveying along the Y direction to rise to the set height, the chain conveying mechanism of the fifth lifting and transferring machine 10 for conveying along the Y direction and the second chain conveyor 11 work, and after the pallet loaded with wheel blanks is separated from the chain conveying mechanism of the fifth lifting and transferring machine 10 for conveying along the Y direction, the lifting mechanism of the fifth lifting and transferring machine 10 descends to its original position, the conveying mechanism stops working, and the pallet loaded with wheel blanks moves forward along the second chain conveyor 11;
[0101] S110. When the pallet with wheel blanks reaches the set position at the end of the second chain conveyor 11, the chain conveying structure above the body of the RGV trolley 12 starts to work, and the pallet with wheel blanks is transferred to the set position of the chain conveying structure of the RGV trolley 12, and the second chain conveyor 11 and the chain conveying structure of the RGV trolley 12 stop working;
[0102] S111. When the RGV trolley 12 receives the signal to start moving and moves to the set unloading position, that is, the feeding position of the third chain conveyor 13, the RGV trolley 12 stops moving;
[0103] S112. The chain conveying structure of the RGV trolley 12 and the third chain conveyor 13 work, the pallet with the wheel blank is transferred to the third chain conveyor 13, the chain conveying structure of the RGV trolley 12 stops working, and the RGV trolley 12 returns to its original position, ready to receive the next work instruction;
[0104] S113. When the pallet with the wheel blank moves one working step to the discharge position of the third chain conveyor 13, the third chain conveyor 13 stops working;
[0105] S114. The electronic control unit sends a receiving signal to the stacker 103 of the vertical warehouse, and the stacker moves horizontally to the discharge position of the third conveyor 13, the lifting mechanism rises, the fork extends to lift the pallet with the wheel blank and retracts to the original position, and the lifting mechanism returns to the zero position;
[0106] S115. The stacker moves horizontally to the designated position, the lifting mechanism rises to the set height, the fork extends to the designated storage location, the fork descends to the set height, retracts, the pallet with the wheel blank falls to the designated storage location, the fork continues to descend to the original position, and waits for the next work instruction;
[0107] S116. When the tray on the second material station 3 is filled with a set number of blanks, the electronic control unit sends a signal to the third lifting and transferring machine 6 for storage, and the lifting mechanism of the third lifting and transferring machine 6 drives the chain conveying mechanism to rise to a set height;
[0108] S117. The chain conveyor mechanism of the third lifting transfer machine 6 and the chain conveyor mechanism of the fourth lifting transfer machine 7 for conveying along the X direction work, and the pallet loaded with the wheel blank is transported from the third lifting transfer machine 6 to the fourth lifting transfer machine 7. At this time, the center line of the pallet is aligned with the center line of the first chain conveyor 8, and the chain conveyor mechanism of the third lifting transfer machine 6 and the chain conveyor mechanism of the fourth lifting transfer machine for conveying along the X direction stop operating;
[0109] S118. The lifting mechanism (a) of the fourth lifting and transferring machine 7 drives the chain conveying mechanism (a) for conveying along the Y direction above it to rise to a set height, and the lifting mechanism (a) of the second lifting and transferring machine 5 drives the chain conveying mechanism (a) for conveying along the Y direction above it to rise to a set height, and the chain conveying mechanism (a) for conveying along the Y direction of the fourth lifting and transferring machine 7, the chain conveying mechanism (a) for conveying along the Y direction of the second lifting and transferring machine 5 and the first chain conveyor 8 work, and the pallet loaded with wheel blanks is transferred to the first chain conveyor 8 by the chain conveying mechanism (a) for conveying along the Y direction of the fourth lifting and transferring machine 7 through the chain conveying mechanism (a) for conveying along the Y direction of the second lifting and transferring machine 5, and the lifting mechanisms (a) of the fourth lifting and transferring machine 7 and the second lifting and transferring machine 5 are respectively lowered to their original positions, and the chain conveying mechanism (a) stops working, and the pallet loaded with wheel blanks moves forward along the first chain conveyor 8;
[0110] Repeat steps S17, S18, S19, S110, S111, S112, S113, S114, and S115 to complete the storage of the tray filled with the set blanks on the second material table 3.
[0111] The above step S2 comprises:
[0112] S21. The electronic control unit sends a discharge signal to the stacker 103 of the vertical warehouse, and the stacker moves horizontally to the specified position, the lifting mechanism rises to the set height, and the fork extends to the designated location below the pallet with wheel blanks to be discharged;
[0113] S22. The stacker's lifting mechanism rises, the fork lifts the pallet and retracts to its original position, the lifting mechanism returns to zero position, and the stacker moves horizontally to the fourth conveyor feed position;
[0114] S23. The stacker's lifting mechanism rises, the fork extends, and the pallet with the wheel blank is lifted and moved to the top of the fourth conveyor. The stacker's fork drops to the set height, retracts to the original position, and the pallet falls onto the fourth conveyor. The lifting mechanism continues to drop to its original position, and the stacker moves horizontally to the set position, waiting for the next work instruction.
[0115] S24. The drive mechanism of the fourth conveyor works, driving the tray equipped with the train wheel blank to move a working step to reach the discharge position, and the drive mechanism stops working;
[0116] S25. After the outbound RGV trolley 15 receives the material receiving signal, the outbound RGV trolley 15 moves to the set material receiving position, that is, the material discharging position of the fourth conveyor 14, and the trolley stops moving;
[0117] S26. The chain conveyor structure of the outbound RGV trolley 15 works, and the pallet with the train wheel blank is transferred from the fourth conveyor 14 to the chain conveyor structure of the RGV trolley to the set position, and the chain conveyor structure of the fourth conveyor 14 and the RGV trolley stops working;
[0118] S27. The outbound RGV trolley 15 receives a signal to start moving, and the outbound RGV trolley 15 moves to the second turntable 16 where the material is received;
[0119] S28. The chain conveying structure of the outbound RGV trolley 15 and the chain conveyor of the second turntable 16 start working, and the pallet with the wheel blank is transferred to the set position of the chain conveying mechanism above the second turntable 16. The second turntable 16 rotates 90 degrees in the set direction, and the chain conveying structure of the outbound RGV trolley 15 and the chain conveying mechanism above the second turntable 16 stop working, and the outbound RGV trolley 15 returns to its original position, ready to receive the next work instruction;
[0120] S29. The sixth lifting and transplanting machine 17 is used for conveying the chain conveyor mechanism in the X direction. When the pallet with the wheel blank is transferred from the second turntable 16 above the chain conveyor mechanism to the sixth lifting and transferring machine 17 for conveying the chain conveyor mechanism in the X direction, the second turntable 16 is rotated in the opposite direction to the original position, and the chain conveyor mechanism on the second turntable 16 stops working;
[0121] S210. When the pallet loaded with wheel blanks reaches the sixth lifting and transferring machine 17 for conveying the chain conveying mechanism along the X direction to set the unloading position at the end, the sixth lifting and transferring machine 17 for conveying the chain conveying mechanism along the X direction stops working;
[0122] S211. After the second truss manipulator 18 receives the signal that the tray with the wheel blank has reached the unloading position, the second truss manipulator 18X-axis translation module and Y-axis lateral movement module work, driving the Z-axis lifting module to move to the designated position for grabbing the blank, and the Z-axis lifting module drives the electromagnetic chuck down to the working position for grabbing the train wheel blank, and the electromagnetic chuck is energized to suck the blank;
[0123] S212. The Z-axis lifting module of the second truss manipulator 18 rises, and the X-axis translation module and the Y-axis lateral movement module drive the Z-axis lifting module to move to a set position above the fixed beam of the stepping beam transport unit 19, and the electromagnetic chuck loses power, and the blank falls onto the fixed beam of the stepping beam transport unit 19;
[0124] S213. The Z-axis lifting module of the second truss manipulator 18 rises to the set position, and the X-axis translation module and the Y-axis lateral movement module drive the Z-axis lifting module to move to the original position, ready to receive the next work instruction;
[0125] S211. The walking beam transport unit 19 works to transport the train wheel blank to the unloading position, that is, the first rotating manipulator 20 grabs the blank position;
[0126] The above step S3 includes:
[0127] S31. After the first rotating manipulator 20 receives the charging signal to the heating furnace, the clamp opens, rotates to the front of the train wheel blank to be clamped, extends, and clamps the wheel blank;
[0128] S32..The clamp mechanism of the first rotating manipulator 20 is retracted and rotated to the charging furnace door of the heating furnace, and the clamp is extended to the set position in the furnace;
[0129] S33. The clamp of the first rotating manipulator 20 is opened, and the billet falls to the bottom of the furnace to set the position;
[0130] S34. The clamp of the first rotating manipulator 20 is withdrawn from the furnace door, closed, and returned to the original zero position;
[0131] S35. After the second rotating manipulator 20 receives the discharge signal to the heating furnace, the clamp opens and rotates to the front of the train wheel blank to be clamped, extends out, and clamps the heated wheel blank;
[0132] S36. The clamp mechanism of the second rotating manipulator 21 is retracted, rotated to the front of the wheel to be rolled billet receiving station, and extended to the set position;
[0133] S37. The clamp of the second rotating manipulator 21 is opened, and the hot wheel blank falls onto the blank receiving platform to be rolled;
[0134] S310. The clamping mechanism of the second rotary manipulator 21 withdraws, closes, and returns to the original zero position.
[0135] The above step S4 comprises:
[0136] S41. When the second truss manipulator 18 grabs the wheel blank on the tray below it, the electronic control unit sends a signal to the sixth lifting and transferring machine 17, and the sixth lifting and transferring machine 17 lifts the chain conveying mechanism along the Y direction to rise to a set height;
[0137] S42. The chain conveying mechanism of the sixth lifting and transferring machine 17 conveying in the Y direction and the fifth chain conveyor 22 work, and the pallet after unloading is transported to the fifth chain conveyor 22 by the chain conveying mechanism of the sixth lifting and transferring machine 17 conveying in the Y direction, and the chain conveying mechanism of the sixth lifting and transferring machine 17 conveying in the Y direction stops working, and the lifting mechanism descends to its original position;
[0138] S43. When the unloaded pallet reaches the set position at the end of the fifth chain conveyor 22, if the unloaded pallet is automatically transferred to the first material table 2, the lifting mechanism (b) of the second lifting and transferring machine 5 drives the chain conveying mechanism (b) for conveying along the Y direction above it to rise to the set height, and the chain conveying mechanism (b) of the second lifting and transferring machine 5 for conveying along the Y direction works. After the unloaded pallet leaves the fifth chain conveyor 22 and runs to the set position of the chain conveying mechanism (b) of the second lifting and transferring machine 5 for conveying along the Y direction, the chain conveying mechanism (b) of the second lifting and transferring machine 5 stops working, and the lifting mechanism (b) descends to its original position. During the descending process of the lifting mechanism (b), the unloaded pallet falls onto the chain conveying mechanism of the second lifting and transferring machine 5 for conveying along the X direction, and the chain conveying mechanism for conveying along the X direction starts working;
[0139] S44. The lifting mechanism of the first lifting and transferring machine 4 drives its chain conveying mechanism to rise to the set height, the chain conveying mechanism of the first lifting and transferring machine 4 starts to work, and the unloaded pallet is moved by the second lifting and transferring machine 5 to the set position of the chain conveying mechanism of the first lifting and transferring machine 4, the chain conveying mechanism of the second lifting and transferring machine 5 conveying along the X direction stops working, the chain conveying mechanism of the first lifting and transferring machine 4 stops working, and the lifting mechanism of the first lifting and transferring machine 4 descends to its original position. During the descent of the lifting mechanism, the unloaded pallet falls onto the first material platform 2;
[0140] S45. When the unloaded pallet reaches the set position at the end of the fifth chain conveyor 228, if the unloaded pallet is automatically transferred to the second material table 3, the lifting mechanism (b) of the second lifting and transferring machine 5 drives the chain conveying mechanism (b) above it for conveying along the Y direction to rise to the set height, and the chain conveying mechanism (b) of the second lifting and transferring machine 5 for conveying along the Y direction starts to work, and the lifting mechanism (b) of the fourth lifting and transferring machine 7 drives the chain conveying mechanism (b) above it for conveying along the Y direction to rise to the set height, and the chain conveying mechanism (b) of the fourth lifting and transferring machine 7 for conveying along the Y direction starts to work, and the unloaded pallet is separated from the fifth chain conveyor via the first lifting and transferring machine 7. The chain conveying mechanism (b) of the second lifting and transferring machine 5 for conveying along the Y direction runs to the set position of the chain conveying mechanism (b) of the fourth lifting and transferring machine 7 for conveying along the Y direction, the chain conveying mechanism (b) of the second lifting and transferring machine 5 stops working, the lifting mechanism (b) of the second lifting and transferring machine 5 descends to its original position, the chain conveying mechanism (b) of the fourth lifting and transferring machine 7 stops working, the lifting mechanism (b) of the fourth lifting and transferring machine 7 descends to its original position, during the descending process of the lifting mechanism (b) of the fourth lifting and transferring machine 7, the unloaded pallet falls onto the chain conveying mechanism of the fourth lifting and transferring machine 7 for conveying along the X direction, and the chain conveying mechanism for conveying along the X direction starts working;
[0141] S46. The lifting mechanism of the third lifting and transferring machine 6 drives its chain conveying mechanism to rise to the set height, the chain conveying mechanism of the third lifting and transferring machine 6 starts to work, and the pallet after unloading is moved by the fourth lifting and transferring machine 7 to the set position of the chain conveying mechanism of the third lifting and transferring machine 6, the chain conveying mechanism of the fourth lifting and transferring machine 7 transporting along the X direction stops working, the chain conveying mechanism of the third lifting and transferring machine 6 stops working, and the lifting mechanism of the third lifting and transferring machine 6 descends to its original position. During the descending process of the lifting mechanism, the pallet after unloading falls onto the second material table 3.
[0142] The present invention provides a wheel billet furnace front intelligent logistics system, comprising a first truss manipulator 1 for grabbing train wheel billets before storage, a first material platform 2 / a second material platform 3, a first / a second lifting and transferring machine 5, a third / a fourth lifting and transferring machine 7, a first chain conveyor 8, a first turntable 9, a fifth lifting and transferring machine 10, a second chain conveyor 11, a storage RGV trolley 12, a third chain conveyor 13, a fourth chain conveyor 14, a storage RGV trolley 15, a second turntable 16, a sixth lifting and transferring machine 17, a second truss manipulator 18 for grabbing train wheel billets and placing the train wheel billets on a walking beam transport unit 19, a walking beam transport unit 19, a first rotating manipulator 20 / a second rotating manipulator 21 for loading out of the furnace, and a fifth chain conveyor 22 for transporting the unloaded pallet back to the first material platform 2 / a second material platform 3.
[0143] The first truss robot 1 is interlocked with the sawing machine control system, responsible for grabbing the sawn blank and transporting it to the feeding tray, and is responsible for communicating with the secondary system to obtain the single piece tracking number of the blank number and write it into the tray RFID tag through the RFID reader / writer.
[0144] The second truss manipulator 18 reads the RFID information of the pallet at the unloading position, completes the grabbing of the wheel blank, and places the grabbed wheel blank on the walking beam transport unit 19, and at the same time transmits the single piece tracking number of the single piece wheel to the logistics transportation tracking system according to the wheel blank swing position;
[0145] The vertical warehouse 103 is used for the intelligent storage of wheel blanks, including a warehouse management system (WMS), a warehouse equipment control system (WCS), a stacker and a pair of high-rise shelves.
[0146] The rotary manipulator is a hydraulic heavy-duty manipulator, which adopts a motion controller as the core and is equipped with PLC control and HMI screen monitoring to realize remote monitoring of the operation room.
[0147] Pallets loaded with wheel blanks are transported in and out of the warehouse using chain conveyors, and the direction of the blanks is changed by the jacking transfer machine and turntable. Before a single wheel blank is put into the warehouse, it is transported by a walking beam unit, thus realizing the continuous transportation of wheel blanks and caching during transportation.
[0148] After unloading, the empty pallets are directly transported to the material platform, which reduces the storage space of the vertical warehouse 103 and optimizes the logistics process.
[0149] The wheel billet furnace front intelligent logistics system disclosed in the present invention can realize automatic unloading of wheel billets, fixed-point transportation, intelligent storage area, automatic loading and unloading in front of the furnace, and seamless connection with the wheel billet heating and rolling system.
[0150] The structure design is novel, the configuration is compact and reasonable, the degree of automation is high, the operation and maintenance are convenient, and the use is safe and reliable.
[0151] The wheel blanks are put into storage and taken out of storage by combining chain transportation and step-by-step transportation, which realizes the continuous transportation of wheel blanks and buffering during transportation, facilitates process assembly and improves transportation efficiency.
[0152] The unloaded pallets are directly transported to the material platform, which reduces the storage space of the vertical warehouse 103 and optimizes the logistics process.
[0153] Obviously, the specific implementation of the present invention is not limited to the above-mentioned methods. As long as various non-substantial improvements are made using the method concept and technical solution of the present invention, they are all within the protection scope of the present invention.
Claims
1. A wheel blank furnace front intelligent logistics system, characterized in that: Including loading system, transfer system, unloading system, return system and furnace front operating system; The feeding system is connected to the unloading system through the transfer system, and the unloading system is used in conjunction with the furnace front operating system; The unloading system is connected with the loading system through the return system; The feeding system, the transfer system, the unloading system and the return system are distributed in a ring shape.
2. The wheel blank furnace front intelligent logistics system according to claim 1 is characterized in that: The feeding system includes a feeding platform, a feeding transfer machine and a first truss manipulator; The transfer system includes a chain conveyor, a turntable and a transfer transfer machine; The unloading system includes an unloading transfer machine, a walking beam transport unit and a second truss manipulator; The furnace front operating system comprises a first rotating manipulator for grabbing the railway wheel blank at the end of the walking beam transport unit and placing the railway wheel blank in the heating furnace, and a second rotating manipulator for grabbing the railway wheel blank and moving the railway wheel blank out of the heating furnace; The material return system comprises a fifth chain conveyor; the material unloading transfer machine is connected to the material loading system via the fifth chain conveyor.
3. The wheel blank furnace front intelligent logistics system according to claim 2 is characterized in that: The loading platform includes a first material platform, and the loading transfer machine includes a first lifting transfer machine and a second lifting transfer machine; the loading system also includes a first transfer conveyor; the first lifting transfer machine is connected to the second lifting transfer machine through the first transfer conveyor; the blanks on the first material platform are transferred to the chain conveyor through the first lifting transfer machine, the first transfer conveyor and the second lifting transfer machine.
4. The wheel blank furnace front intelligent logistics system according to claim 3 is characterized in that: The loading platform also includes a second material platform, and the loading transfer machine also includes a third lifting transfer machine and a fourth transfer machine; the loading system also includes a second transfer conveyor; the third lifting transfer machine is connected to the fourth transfer machine through the second transfer conveyor; the blanks on the second material platform are transferred to the chain conveyor in sequence through the third lifting transfer machine, the second transfer conveyor, the fourth transfer machine and the second lifting transfer machine.
5. The wheel blank furnace front intelligent logistics system according to claim 4 is characterized in that: The return material system is connected to the first transfer conveyor through a first return material moving machine, and the return material system is connected to the second transfer conveyor through a second return material moving machine.
6. The wheel blank furnace front intelligent logistics system according to claim 4 is characterized in that: The chain conveyor includes a first chain conveyor, a second chain conveyor, a third chain conveyor and a fourth chain conveyor; the turntable includes a first turntable and a second turntable; the transfer transfer machine includes a fifth lifting transfer machine and a sixth lifting transfer machine; the first chain conveyor is connected to the second chain conveyor through the first turntable and the fifth lifting transfer machine; the second chain conveyor is connected to the third chain conveyor through the warehousing RGV trolley; the third chain conveyor is connected to the fourth chain conveyor; the fourth chain conveyor is connected to the second turntable through the outbound RGV trolley.
7. The wheel blank furnace front intelligent logistics system according to claim 6 is characterized in that: The transfer system also includes a vertical warehouse system, and the third chain conveyor is connected to the fourth chain conveyor through the vertical warehouse system.
8. The wheel blank furnace front intelligent logistics system according to claim 6 is characterized in that: The material unloading transfer machine includes a sixth lifting transfer machine; the second turntable is connected to the fifth chain conveyor through the sixth lifting transfer machine.
9. The wheel blank furnace front intelligent logistics system according to claim 6, characterized in that: The wheel blank furnace front intelligent logistics system also includes a control system, which includes a detection module, the detection module is connected to the control module, and the control module is connected to the execution module.
10. A working method of the wheel blank furnace front intelligent logistics system according to any one of claims 1 to 9, the working method comprising the following steps: S1. Automatic storage of train wheel blanks; S2, automatic delivery of train wheel blanks; S3, railway wheel blanks automatically enter and exit the heating furnace; S4. After unloading, the pallet automatically returns to its original working position.
Citation Information
Patent Citations
Intelligent aluminum bar warehouse logistics system in front of extruding machine
CN113023209A