Inventory prediction and dynamic distribution integrated equipment for cross-border e-commerce
By designing an integrated equipment for inventory forecasting and dynamic allocation, and utilizing a feeding mechanism and a dynamic inventory calculation module, the automated transfer and dynamic allocation of larger strip or columnar items have been achieved, solving the problem of the difficulty of manual handling and realizing accurate inventory forecasting and orderly allocation.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-12-31
- Publication Date
- 2026-03-27
AI Technical Summary
In existing technologies, large strip or columnar objects are extremely difficult to handle manually due to their large size, length, and weight. They require the use of large transfer equipment for transportation, and after transportation, they still need to be manually placed one by one. This makes it impossible to achieve automated and dynamic allocation of inventory replenishment.
An integrated inventory forecasting and dynamic allocation device was designed, including an inventory warehouse, a loading warehouse, a feeding warehouse, and a loading mechanism. It utilizes a feeding mechanism, a feeding cam drive, and an inventory dynamic calculation module to realize the automated transfer and dynamic allocation of items. Limit blocks and electromagnetic locks ensure the orderliness and accuracy of the items.
It achieves fully automated operation of large strip or columnar objects, avoiding manual handling and the use of traditional equipment, ensuring smooth transfer and seamless replenishment, and realizing accurate inventory forecasting and orderly dynamic allocation.
Smart Images
Figure CN121734838A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of intelligent warehouse management technology, specifically to an integrated device for inventory forecasting and dynamic allocation in cross-border e-commerce. Background Technology
[0002] With the acceleration of global economic integration and the rapid development of e-commerce technology, cross-border e-commerce has become an important part of international trade.
[0003] Furthermore, as the product categories covered by cross-border e-commerce become increasingly diverse, they have gradually expanded from traditional light industrial daily necessities and 3C electronic products to large items such as industrial parts, building materials, and packaging profiles. Among these, the trade demand for larger strip-shaped or columnar items (such as various pipes, profiles, long shaft parts, and large packaging rolls) continues to rise. These items are widely used in overseas infrastructure projects, industrial production, and home decoration. Inventory forecasting and dynamic allocation are core aspects of cross-border e-commerce supply chain management. Their core objective is to rationally allocate inventory resources at global warehousing nodes based on market demand forecasts, achieving precise inventory replenishment and efficient circulation, and reducing the risks of inventory backlog and stockouts.
[0004] Because large strip-shaped or columnar objects are generally large in volume, long in length, and heavy in weight, they are extremely difficult to handle manually. It is impossible to complete the inventory replenishment operation by conventional manpower. In the existing technology, enterprises need to use large transfer equipment such as forklifts and hydraulic pallet trucks to complete the transfer of such objects from the storage area to the inventory replenishment area. After the transfer is completed, it is still necessary to rely on manual labor to place the strip-shaped or columnar objects one by one into the designated discharge port position to ensure the subsequent dynamic allocation process. Summary of the Invention
[0005] In view of the problems existing in the prior art, the present invention is proposed.
[0006] Therefore, the purpose of this invention is to provide an integrated equipment for inventory forecasting and dynamic allocation in cross-border e-commerce. The problem it aims to solve is that large strip or columnar objects are too large, long, and heavy to be handled manually directly, making it extremely difficult to complete real-time inventory replenishment. Large transfer equipment is required for transfer, and after transfer, each object still needs to be placed manually at the designated discharge port.
[0007] To achieve the above objectives, the present invention provides the following technical solution: an integrated equipment for inventory forecasting and dynamic allocation in cross-border e-commerce, comprising an inventory warehouse and a loading warehouse, wherein the inventory warehouse is provided with a feeding mechanism for transferring items, and a feeding warehouse for guiding items is provided below the loading warehouse, wherein a loading mechanism for placing items is provided at one end of the feeding warehouse extending outside the loading warehouse, and an inventory dynamic calculation module for identifying items is provided above the loading warehouse; The storage bin has vertically distributed baffle side plates on one side, and a feeding port corresponding to the feeding bin is opened on the side of the storage bin away from the baffle side plates. One end of the object in the feeding port is connected to the baffle side plate. The storage bin is also equipped with a discharge rack corresponding to the feeding mechanism. The discharge rack extends to the outside of the storage bin and is distributed downwards. The feeding mechanism includes a storage rack that is bolted to the inner wall of the storage warehouse. A feeding rack driven by a feeding cam is also provided between the storage racks. The feeding rack and the storage rack are arranged to avoid each other. Both the storage rack and the feeding rack are provided with limiting blocks for separating objects.
[0008] As a preferred embodiment of the integrated inventory forecasting and dynamic allocation device for cross-border e-commerce described in this invention, the two sides of the inventory warehouse are respectively provided with cam drive components for driving the feeding cam, the cam part of the feeding cam is provided with an integrally formed positioning shaft, and the feeding racks are connected by a synchronous rotating rod, the two ends of the synchronous rotating rod extending to the outside of the feeding rack and connected to the positioning shaft.
[0009] As a preferred embodiment of the integrated inventory forecasting and dynamic allocation device for cross-border e-commerce described in this invention, wherein: the inventory rack and the feeding rack are respectively arranged with assembly slots corresponding to the limit blocks, and the limit blocks are provided with limit slots for restricting the movement of objects. The middle part of the feeding cam is connected to the power shaft in the cam drive, and the cam drive is electrically connected to the inventory dynamic calculation module.
[0010] As a preferred embodiment of the integrated inventory forecasting and dynamic allocation device for cross-border e-commerce described in this invention, the top of the feeding hopper is provided with an inlet slot for adding items, and the inlet slot is distributed along the axial direction of the feeding hopper. The feeding hopper is also provided with an inlet identification end corresponding to the inventory dynamic calculation module. The inlet identification end is provided with a card slot that restricts the movement of items on the side near the inlet slot, and the inventory dynamic calculation module is embedded in the card slot.
[0011] As a preferred embodiment of the integrated inventory forecasting and dynamic allocation device for cross-border e-commerce described in this invention, the feeding hopper has an inlet corresponding to the feeding port at one end near the storage hopper, and the inlet is correspondingly set with a limiting block on the end of the feeding rack.
[0012] As a preferred embodiment of the integrated inventory forecasting and dynamic allocation device for cross-border e-commerce described in this invention, the feeding mechanism includes a cylinder seat movably connected to the feeding bin, and a feeding push rod for driving the top material seat is fixedly installed on the cylinder seat. The horizontal end of the cylinder seat extends into the feeding bin, and the inclined end of the cylinder seat is fixedly connected to the feeding push rod. The top material seat is provided with a top material plate for separating the objects in the feeding bin, and the inner side of the top material seat is also provided with an electromagnetic lock that is electromagnetically connected to the piston rod on the feeding push rod. The piston rod on the feeding push rod passes through the outer end of the top material seat and is located in the feeding bin.
[0013] As a preferred embodiment of the integrated inventory forecasting and dynamic allocation device for cross-border e-commerce described in this invention, wherein: symmetrically distributed swing arms are provided on both sides of the inclined end of the cylinder seat, the bottom end of the swing arm is hinged to the cylinder seat through a bolt shaft, and the top end of the swing arm is hinged to a load-bearing arm distributed parallel to the inclined end of the cylinder seat, and the load-bearing arm is fixedly installed on the loading bin through an assembly bracket.
[0014] As a preferred embodiment of the integrated inventory forecasting and dynamic allocation device for cross-border e-commerce described in this invention, the feeding mechanism further includes a reset push rod for driving the cylinder seat, the piston rod of the reset push rod is fixedly mounted with a reset slider, and the inner side of the reset slider is provided with a guide groove for vertical sliding on the feeding bin. The reset slider is also provided with a transmission connecting rod that is hinged to the middle of the swing arm.
[0015] In summary, the present invention has at least one of the following beneficial effects: 1. This invention, through the coordinated operation of the top material separation structure of the feeding mechanism, the four-bar linkage feeding structure, and the synchronous intermittent transmission structure of the feeding mechanism, replaces the traditional manual handling, forklift transfer, and manual placement operation mode, realizing the fully automated operation of large strip or columnar objects from warehousing, feeding, transfer to dynamic allocation.
[0016] 2. This invention ensures that the feeding process is free from jamming, the feeding connection is seamless, and the transfer process is free from slippage and rolling by means of the guiding support and temporary limiting function of the electromagnetic lock, the unlocking and feeding function of the four-bar transmission structure, and the radial and circumferential limiting function of the limiting block.
[0017] 3. This invention collects information on incoming items through a dynamic inventory calculation module and achieves accurate inventory prediction based on a big data model. At the same time, it forms an electronically controlled linkage with the cam drive to regulate the feeding frequency. Combined with the single-segment limit design of the limit block, it achieves the orderliness of item transfer and the accuracy of dynamic allocation. Attached Figure Description
[0018] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in this invention. For those skilled in the art, other drawings can be obtained based on these drawings.
[0019] Figure 1 This is a three-dimensional structural diagram of the present invention; Figure 2 This is a cross-sectional perspective view of the present invention; Figure 3 This is a structural diagram showing the installation of the storage warehouse and the feeding mechanism of the present invention. Figure 4 This is a structural diagram of the feeding structure of the present invention; Figure 5 This is a structural diagram showing the assembly of the feeding hopper and the feeding mechanism of the present invention. Figure 6 This is a cross-sectional view of the feeding hopper of the present invention; Figure 7 This is a structural diagram of the feeding mechanism of the present invention.
[0020] Explanation of reference numerals in the attached figures: 1. Inventory bin; 11. Side plate for material blocking; 12. Feeding port; 13. Discharge rack; 2. Loading bin; 21. Storage trough; 22. Storage identification end; 221. Slot; 3. Feeding mechanism; 31. Inventory rack; 311. Feeding cam; 312. Positioning shaft; 32. Feeding rack; 321. Synchronous rotating rod; 33. Limiting block; 34. Cam drive component; 4. Feeding bin; 41. Storage port; 5. Loading mechanism; 51. Cylinder seat; 511. Swing arm; 512. Loading arm; 513. Assembly bracket; 52. Loading push rod; 53. Top material seat; 531. Electromagnetic lock; 54. Reset push rod; 541. Reset slider; 542. Transmission connecting rod; 6. Inventory dynamic calculation module. Detailed Implementation
[0021] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.
[0022] This invention discloses an integrated device for inventory forecasting and dynamic allocation in cross-border e-commerce. Example
[0023] Reference Figure 1-7This invention provides a first embodiment of an integrated inventory forecasting and dynamic allocation device for cross-border e-commerce. This integrated device includes an inventory warehouse 1 and a loading warehouse 2. The inventory warehouse 1 is equipped with a feeding mechanism 3 for transferring items, and a feeding hopper 4 for guiding items is located below the loading warehouse 2. The feeding hopper 4 extends to one end outside the loading warehouse 2 and is equipped with a loading mechanism 5 for placing items. Above the loading warehouse 2, an inventory dynamic calculation module 6 for identifying items is also provided. One side of the storage bin 1 is provided with a vertically distributed baffle side plate 11, and the side of the storage bin 1 away from the baffle side plate 11 is provided with a feeding port 12 corresponding to the feeding bin 4. One end of the object in the feeding port 12 is connected to the baffle side plate 11. The storage bin 1 is also provided with a discharge rack 13 corresponding to the feeding mechanism 3. The discharge rack 13 extends to the outside of the storage bin 1 and is distributed downwardly. The feeding mechanism 3 includes a storage rack 31 that is bolted to the inner wall of the storage bin 1. A feeding rack driven by a feeding cam 311 is also provided between the storage racks 31. 32, and the feeding rack 32 and the discharge rack 13 are arranged to avoid each other. Both the storage rack 31 and the feeding rack 32 are equipped with limiting blocks 33 for separating objects. The storage bin 1 serves as a storage and distribution unit. The axial positioning of strip-shaped or columnar objects can be achieved through the baffle side plate 11. The feeding port 12 enables precise docking between the storage bin 1 and the feeding bin 4, ensuring smooth object transfer. The discharge rack 13 tilts downward to utilize the object's own weight to assist in feeding. The feeding mechanism 3 is the core transfer component of the storage bin 1 and can be supported by the storage rack 31. The device has the functions of carrying and initially positioning the items, and drives the feeding frame 32 to perform intermittent transfer actions through the feeding cam 311. The limit block 33 can perform single-piece separation limit on the inventory items. The inventory dynamic calculation module 6 is the core of the integrated control of the equipment. It has built-in circuit elements such as identification, prediction, determination and management. It can identify and summarize the inventory items entering the warehouse and upload them to the cloud. Through big data model analysis, it can achieve accurate prediction and allocation of inventory items. By connecting inventory prediction and dynamic allocation instructions, it can realize intelligent control of automated operation of the equipment.
[0024] The two sides of the storage compartment 1 are also provided with cam drive components 34 for driving the feeding cam 311. The cam part of the feeding cam 311 is provided with an integrally formed positioning shaft 312, and the feeding racks 32 are connected by a synchronous rotating rod 321. The two ends of the synchronous rotating rod 321 extend to the outside of the feeding rack 32 and are connected to the positioning shaft 312. The cam drive component 34 provides a power source for the feeding cam 311. The feeding cam 311 realizes synchronous transmission between the cam end and the synchronous rotating rod 321 through the positioning shaft 312. The synchronous rotating rod 321 can synchronously transmit the rotational power of the feeding cams 311 on both sides to each feeding rack 32, so that multiple sets of feeding racks 32 keep moving at the same frequency, thereby orderly transferring the objects arranged on the discharge rack 13 through the feeding rack 32.
[0025] The inventory rack 31 and the feeding rack 32 are each equipped with an assembly slot corresponding to the limiting block 33. The limiting block 33 has a limiting groove for restricting the movement of objects. The middle part of the feeding cam 311 is connected to the power shaft in the cam drive 34, and the cam drive 34 is electrically connected to the inventory dynamic calculation module 6. The assembly slots on the inventory rack 31 and the feeding rack 32 provide a detachable assembly base for the limiting block 33, allowing it to be replaced according to different objects. The limiting groove has an arc-shaped or V-shaped adaptable structure that fits the outer contour of the strip-shaped or columnar object, effectively restricting the radial and circumferential movement of the object. To prevent items from slipping or rolling during transport, the feeding cam 311 and the cam drive 34 are coaxially connected, and the cam drive 34 is electrically linked with the inventory dynamic calculation module 6. This is the core electrical control link for realizing the integration of equipment inventory prediction and dynamic allocation. The inventory dynamic calculation module 6 can automatically output control commands to the cam drive 34 based on the order demand and inventory surplus prediction data of cross-border e-commerce, so as to realize the real-time adjustment of the speed and feeding frequency of the feeding cam 311 and complete the inventory replenishment and transfer as needed. The cam drive 34 can be a belt drive or chain drive in the existing transmission structure, and a tension adjustment structure is required.
[0026] The top of the feeding bin 2 is provided with an inlet slot 21 for adding objects, and the inlet slot 21 is distributed along the axial direction of the feeding bin 4. The feeding bin 2 is also provided with an inlet identification end 22 corresponding to the inventory dynamic calculation module 6. The inlet identification end 22 has a card slot 221 that restricts the movement of objects on the side near the inlet slot 21, and the inventory dynamic calculation module 6 is embedded in the card slot 221. The inlet slot 21 of the feeding bin 2 is adapted to the long axis characteristics of strip-shaped or columnar objects, and the objects can slide smoothly into the feeding bin 2 along the axial direction. The warehouse identification terminal 22 serves as the physical identification carrier for the inventory dynamic calculation module 6. The slot 221 enables the embedded and fixed installation of the inventory dynamic calculation module 6, which not only prevents the calculation module from being damaged by collisions during the transfer of items, but also ensures that the identification probe of the calculation module is facing the warehouse slot 21, so as to realize the real-time and accurate identification of the specifications, quantity and model of the warehouse items. The inventory dynamic calculation module 6 collects the warehouse entry data of items through the warehouse identification terminal 22 and automatically updates the inventory ledger, providing a real and real-time data source for inventory forecasting of cross-border e-commerce.
[0027] The feeding bin 4 has an inlet 41 at one end near the storage bin 1, which corresponds to the feeding port 12. The inlet 41 and the limiting block 33 at the end of the feeding rack 32 are set to correspond to each other. The inlet 41 of the feeding bin 4 and the feeding port 12 of the storage bin 1 are precisely aligned to form a seamless transfer channel from the feeding bin 4 to the storage bin 1. The corresponding setting of the inlet 41 and the limiting block 33 at the end of the feeding rack 32 enables the precise dropping of objects from the feeding rack 32 to the feeding bin 4. The limiting block 33 can accurately push a single object into the inlet 41 to prevent the feeding bin 4 from being blocked due to multiple objects entering the bin at the same time, and ensure the orderly arrangement of the four objects in the feeding bin.
[0028] The feeding mechanism 5 includes a cylinder seat 51 movably connected to the feeding bin 2, and a feeding push rod 52 for driving the top material seat 53 is fixedly installed on the cylinder seat 51. The horizontal end of the cylinder seat 51 extends into the feeding bin 2, and the inclined end of the cylinder seat 51 is fixedly connected to the feeding push rod 52. The top material seat 53 is provided with a top plate for separating the objects in the feeding bin 2, and the inner side of the top material seat 53 is also provided with an electromagnetic lock 531 that is electromagnetically connected to the piston rod on the feeding push rod 52. The piston rod on the feeding push rod 52 passes through the top material seat 53 and is located in the feeding bin 4. The horizontal end of the cylinder seat 51 can be engaged in the feeding bin 2 during the feeding operation, ensuring that the extension direction of the feeding push rod 52 is aligned with the axis of the feeding bin 4. In the same direction, the feeding push rod 52 provides linear pushing power to the top material seat 53, which can accurately push the strip or columnar objects in the feeding bin 4 to the limiting block 33 at the end of the feeding rack 32 through the inlet 41. The top material plate on the top material seat 53 can separate the objects in the feeding bin 4 into individual pieces, realizing orderly feeding of individual pieces. The electromagnetic lock 531 realizes the electromagnetic detachable connection between the piston rod of the feeding push rod 52 and the top material seat 53. During the pushing process, it can ensure the stability of the position of the top material seat 53, and guide the piston rod of the feeding push rod 52 when it is released. At the same time, by providing temporary support for the upper objects, it prevents the upper objects from falling onto the piston rod of the feeding push rod 52 due to gravity when the piston rod of the feeding push rod 52 moves back.
[0029] The cylinder seat 51 has symmetrically distributed swing arms 511 on both sides of the inclined end. The bottom end of the swing arm 511 is hinged to the cylinder seat 51 through a bolt shaft. The top end of the swing arm 511 is hinged to a load-bearing arm 512 that is parallel to the inclined end of the cylinder seat 51. The load-bearing arm 512 is fixedly installed on the feeding bin 2 through a mounting bracket 513. The swing arm 511, the cylinder seat 51, and the load-bearing arm 512 together form a four-bar linkage structure, which can realize the engagement and disengagement of the cylinder seat 51 from the feeding bin 4. After disengaging from the feeding bin 4, the temporary support for the upper layer of objects in the feeding bin 2 is released, so that the upper layer of objects can fall smoothly into the feeding bin 4 for the next feeding.
[0030] The feeding mechanism 5 also includes a reset push rod 54 for driving the cylinder seat 51. The piston rod of the reset push rod 54 is fixedly mounted with a reset slider 541, and the inner side of the reset slider 541 is provided with a guide groove for vertical sliding on the feeding bin 2. The reset slider 541 is also provided with a transmission link 542 that is hinged to the middle of the swing arm 511. The reset push rod 54 provides a power source for the four-bar linkage structure. After the object is replenished, the reset push rod 54 drives the reset slider 541 to perform vertical reciprocating motion, which drives the cylinder seat 51 and the top material seat 53 to reset, preparing for the next feeding. The transmission link 542 realizes the linkage transmission between the reset slider 541 and the swing arm 511, which can convert the linear motion of the reset slider 541 into the swing motion of the swing arm 511, thereby driving the cylinder seat 51 to complete the angle reset and position reset. The extension and retraction stroke of the reset push rod 54 can be precisely controlled by the inventory dynamic calculation module 6 to achieve precise connection between the reset action and the feeding action.
[0031] When using this device to predict and dynamically allocate inventory in cross-border e-commerce warehouses, before the equipment operates, larger strip-shaped or columnar items to be stored are smoothly fed into the storage slot 21 of the loading hopper 2 using a forklift or hoisting equipment. During the storage process, the inventory dynamic calculation module 6 collects information such as the specifications, quantity, and model of the items in real time and accurately through the identification probe embedded in the card slot 221 of the storage identification end 22. It automatically updates the inventory ledger and uploads it to the cloud. Relying on the built-in big data analysis model and circuit components for identification, prediction, and management, it comprehensively analyzes the cross-border e-commerce order demand, market circulation trends, and existing inventory balance to complete accurate inventory prediction. Based on the prediction results, it generates dynamic allocation and control instructions and transfers and allocates items according to the prediction results. After the inventory dynamic calculation module 6 outputs the feeding command, the horizontal end of the cylinder seat 51 is engaged with the feeding bin 2, so that the extension direction of the feeding push rod 52 is consistent with the axis of the feeding bin 4. The feeding push rod 52 outputs a linear thrust to drive the top material seat 53 to move forward. The top material plate on the top material seat 53 separates and limits the strip or columnar objects in the feeding bin 4 to prevent multiple objects from being pushed in a stack. At the same time, the electromagnetic lock 531 on the inner side of the top material seat 53 is electromagnetically connected to the piston rod of the feeding push rod 52 to ensure the stability of the position of the top material seat 53 during the pushing process and prevent deviation. The piston rod of the feeding push rod 52 passes through the top material seat 53 and accurately pushes the single object along the feeding bin 4 to the inlet 41, and drops it onto the limiting block 33 at the end of the feeding rack 32, completing the accurate feeding and placement of the single object without manual intervention. Simultaneously, during the pushing process, the electromagnetic lock 531 engages electromagnetically in the wet area after the piston rod extends to the designated position. This serves both as a guide for the piston rod and as temporary support for the upper-level objects in the loading bin 2, preventing them from falling onto the piston rod due to gravity and causing jamming. After a single object is pushed out, the electromagnetic lock re-engages and moves back synchronously with the piston rod. Power is provided by the reset push rod 54, which drives the reset slider 541 to rise and slide, coordinating with the transmission link 542 in conjunction with the swing arm 511, the load-bearing arm 512, and the cylinder. The four-bar linkage structure formed by seat 51 moves in conjunction under the constraint of the mounting bracket 513, causing the swing arm 511 to swing around the bolt shaft, which drives the inclined end of the cylinder seat 51 to rise, so that the horizontal end of the cylinder seat 51 is disengaged from the locking position of the feeding bin 2, releasing the temporary restriction on the upper layer of objects. The upper strip or columnar objects in the feeding bin 2 rely on their own gravity to slide smoothly down the axial direction of the inlet groove 21 into the feeding bin 4, completing the replenishment of objects in the feeding bin 4, storing materials for the next feeding operation, and realizing the seamless connection between feeding and replenishing. The feeding mechanism 3 starts the transfer operation according to the instructions of the inventory dynamic calculation module 6. The cam drive components 34 on both sides of the inventory bin 1 output power synchronously to drive the feeding cam 311 to rotate. The feeding cam 311 transmits the rotational power to each group of feeding racks 32 through the integrated positioning shaft 312 and synchronous rotating rod 321, so that multiple groups of feeding racks 32 maintain intermittent transmission at the same frequency. After the object at the limit block 33 at the end of the inventory rack 31 falls to the limit block 33 of the feeding rack 32, the objects on the next limit block 33 on the inventory rack 31 are transferred to the inventory rack one by one through the intermittent transmission at the same frequency. The object slides out using its own weight, which helps to dynamically allocate the object. The limiting block 33 on the feeding rack 32 limits the radial and circumferential movement of the object, preventing it from slipping or rolling during the transfer. During this process, the storage rack 31 bears the load and initial positioning of the object, ensuring the orderly placement of the object. This completes the precise transfer from the feeding bin 4 to the storage bin 1 and from the storage bin 1. The entire process does not require forklifts or other transfer equipment or manual handling, realizing the automated and intelligent operation of dynamic inventory allocation.
[0032] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit it. Although the present invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of the present invention without departing from the spirit and scope of the technical solutions of the present invention, and all such modifications or substitutions should be covered within the scope of the claims of the present invention.
Claims
1. An integrated device for inventory forecasting and dynamic allocation in cross-border e-commerce, characterized in that: It includes a storage warehouse (1) and a loading warehouse (2). The storage warehouse (1) is provided with a feeding mechanism (3) for transferring objects. The loading warehouse (2) is also provided with a feeding warehouse (4) for guiding objects. The feeding warehouse (4) extends to one end outside the loading warehouse (2) and is provided with a loading mechanism (5) for placing objects. The loading warehouse (2) is also provided with an inventory dynamic calculation module (6) for identifying objects. The storage bin (1) has a vertically distributed baffle side plate (11) on one side, and the storage bin (1) has a feeding port (12) corresponding to the feeding bin (4) on the side away from the baffle side plate (11). One end of the object in the feeding port (12) is connected to the baffle side plate (11). The storage bin (1) is also provided with a discharge rack (13) corresponding to the feeding mechanism (3). The discharge rack (13) extends to the outside of the storage bin (1) and is distributed downwards at one end. The feeding mechanism (3) includes a storage rack (31) that is bolted to the inner wall of the storage bin (1). A feeding rack (32) driven by a feeding cam (311) is also provided between the storage racks (31). The feeding rack (32) and the discharge rack (13) are arranged to avoid each other. Both the storage rack (31) and the feeding rack (32) are provided with limiting blocks (33) for separating objects.
2. The integrated inventory forecasting and dynamic allocation device for cross-border e-commerce according to claim 1, characterized in that, The storage bin (1) is provided with cam drive components (34) for driving the feeding cam (311) on both sides. The cam part of the feeding cam (311) is provided with an integrally formed positioning shaft (312). The feeding racks (32) are connected by a synchronous rotating rod (321). The two ends of the synchronous rotating rod (321) extend to the outside of the feeding rack (32) and are connected to the positioning shaft (312).
3. The integrated inventory forecasting and dynamic allocation device for cross-border e-commerce according to claim 2, characterized in that, The inventory rack (31) and the feeding rack (32) are respectively arranged with assembly slots corresponding to the limiting block (33), and the limiting block (33) is provided with a limiting slot for restricting the movement of the object; The middle part of the feeding cam (311) is connected to the power shaft in the cam drive (34) and the cam drive (34) is electrically connected to the inventory dynamic calculation module (6).
4. The integrated inventory forecasting and dynamic allocation device for cross-border e-commerce according to claim 1, characterized in that, The top of the feeding bin (2) is provided with an inlet slot (21) for adding objects, and the inlet slot (21) is distributed along the axial direction of the feeding bin (4). The feeding bin (2) is also provided with an inlet identification end (22) corresponding to the inventory dynamic calculation module (6). The inlet identification end (22) is provided with a card slot (221) that restricts the movement of objects on the side of the inlet slot (21), and the inventory dynamic calculation module (6) is embedded in the card slot (221).
5. The integrated inventory forecasting and dynamic allocation device for cross-border e-commerce according to claim 1, characterized in that, The feeding bin (4) has an inlet (41) at one end near the storage bin (1) that corresponds to the feeding port (12), and the inlet (41) and the limiting block (33) at the end of the feeding rack (32) are respectively set to correspond to each other.
6. The integrated inventory forecasting and dynamic allocation device for cross-border e-commerce according to claim 1, characterized in that, The feeding mechanism (5) includes a cylinder seat (51) movably connected to the feeding bin (2), and a feeding push rod (52) for driving the top material seat (53) is fixedly installed on the cylinder seat (51). The horizontal end of the cylinder seat (51) extends into the feeding bin (2), and the inclined end of the cylinder seat (51) is fixedly connected to the feeding push rod (52). The top material seat (53) is provided with a top material plate for separating the objects in the feeding bin (2), and the inner side of the top material seat (53) is also provided with an electromagnetic lock (531) that is electromagnetically connected to the piston rod on the feeding push rod (52). The piston rod on the feeding push rod (52) passes through the outside of the top material seat (53) and is located in the feeding bin (4).
7. The integrated inventory forecasting and dynamic allocation device for cross-border e-commerce according to claim 6, characterized in that, The cylinder seat (51) is provided with symmetrically distributed swing arms (511) on both sides of the inclined end. The bottom end of the swing arm (511) is connected to the cylinder seat (51) by a bolt shaft. The top end of the swing arm (511) is connected to a load-bearing arm (512) that is parallel to the inclined end of the cylinder seat (51). The load-bearing arm (512) is fixedly installed on the loading bin (2) by a mounting bracket (513).
8. The integrated inventory forecasting and dynamic allocation device for cross-border e-commerce according to claim 7, characterized in that, The feeding mechanism (5) also includes a reset push rod (54) for driving the cylinder seat (51). The piston rod of the reset push rod (54) is fixedly mounted with a reset slider (541). The inner side of the reset slider (541) is provided with a guide groove for vertical sliding on the feeding bin (2). The reset slider (541) is also provided with a transmission connecting rod (542) that is hinged to the middle of the swing arm (511).