Stone storage management system

Abstract

A stone warehouse management system comprises a plurality of electronic tags, a first tag reading unit and a digital management unit, the electronic tags are respectively arranged on a plurality of stone plates, and each electronic tag comprises a tag code. The first tag reading unit comprises a first reading module used for reading the tag code corresponding to any electronic tag, an operation module used for inputting data and a first control module electrically connected with the first reading module and the operation module, and the digital management unit comprises a stone database. The stone database comprises a plurality of stone information sets respectively corresponding to the label codes, and each stone information set has a record code corresponding to the respective label code and a storage location number corresponding to the record code, so that the instant information of the stone slab can be instantly updated, and the management convenience is improved.

Description

TECHNICAL FIELD

[0001] The present application relates to a warehouse management system, in particular to a stone warehouse management system. BACKGROUND

[0002] The existing stone is stored in the warehouse after being made, and the inventory location of the stone is recorded by manual paper transcription. However, since the inventory location of the stone is frequently changed, if the record is not modified in time, the inventory cannot be grasped in time, and problems such as inventory stagnation of actual inventory but no data filling, or shipment error of taking wrong stone, etc. may occur. Therefore, it is necessary to improve it. SUMMARY

[0003] The present application aims to provide a stone warehouse management system which overcomes the shortcomings of the background art.

[0004] The stone warehouse management system of the present application is applied to a stone warehouse, the stone warehouse has a plurality of stone storage locations, each stone storage location can be used to stack a plurality of stone slabs, the stone warehouse management system comprises a plurality of electronic tags, a first tag reading unit, and a digital management unit, the electronic tags are respectively arranged on the stone slabs, each electronic tag includes a tag code, the first tag reading unit includes a first reading module for reading the corresponding tag code of any electronic tag, an operation module for inputting data, a first wireless transmission module for transmitting data, and a first control module electrically connected to the first reading module, the operation module and the first wireless transmission module, the digital management unit includes a stone database and a second wireless transmission module, the stone database includes a plurality of stone information sets corresponding to the tag codes respectively, each stone information set has a record code corresponding to the respective tag code and a storage location number corresponding to the record code, and the second wireless transmission module transmits data with the first wireless transmission module through wireless signal transmission.

[0005] The stone warehouse management system of the present application, the first control module displays a storage location input prompt on the operation module after the first reading module reads any tag code, and the first control module transmits the input storage location number to the digital management unit through the first wireless transmission module after the input storage location number is input on the operation module, and the digital management unit updates the input storage location number in the storage location number of the stone information set with the same record code and tag code.

[0006] The stone storage management system, the transport of each stone slab is carried out by the transport vehicle, the stone storage management system further comprises an induction module arranged on the moving route of the transport vehicle and generating an induction signal when the transport vehicle passes, and a second label reading unit arranged in the stone warehouse, the second label reading unit comprises a second reading module for reading the corresponding label code of any electronic label, a third wireless transmission module for transmitting data, and a second control module electrically connected with the second reading module and the third wireless transmission module, the second control module controls the second reading module to read after receiving the induction signal, and the second control module transmits the label code to the digital management unit through the third wireless transmission module after the second reading module successfully reads the label code of any label.

[0007] The stone storage management system, the stone database further comprises an in-out warehouse information set, and each stone information set further comprises transport information, the digital management unit compares the label code with the in-out warehouse information set after receiving the label code transmitted through the third wireless transmission module, and records the current time in the transport information of the stone information set with the same record code and label code when the label code is consistent with the data in the in-out warehouse information set.

[0008] The stone storage management system, the induction module has an infrared emitter for emitting infrared rays and an infrared sensor for receiving the infrared rays, and the induction module generates the induction signal when the infrared rays are blocked.

[0009] The stone storage management system, the electronic label at least has a waterproof and dustproof level of IP66 international protection level certification, and passes the test of 85 degrees Celsius and 85% RH for 168 hours, and the static electricity test of greater than or equal to 2kV.

[0010] The stone storage management system, the sensing frequency band of the electronic label is between 800-1200MHz, and the maximum sensing distance is not less than 5 meters.

[0011] The stone storage management system, the electronic label at least has a waterproof and dustproof level of IP66 international protection level certification, and passes the test of 85 degrees Celsius and 85% RH for 168 hours, and the static electricity test of greater than or equal to 2kV. BRIEF DESCRIPTION OF DRAWINGS

[0012] Figure 1 is an embodiment of the stone storage management system of the present application applied to the use of stone warehouse;

[0013] Figure 2 is a system block diagram of the embodiment. DETAILED DESCRIPTION

[0014] The present application will be described in detail below with reference to the accompanying drawings and embodiments.

[0015] Reference Figure 1 and Figure 2 An embodiment of the stone material warehouse management system is applied to a stone material warehouse 9, the stone material warehouse 9 has a plurality of stone material storage locations 91, each stone material storage location 91 is used for stacking a plurality of stone slabs 92. The transportation of each stone slab 92 is performed by a carrier 93.

[0016] The stone material warehouse management system comprises a plurality of electronic tags 2, a first tag reading unit 3, a digital management unit 4, a sensing module 5, and a second tag reading unit 6.

[0017] The electronic tags 2 are respectively arranged on the stone slabs 92. Each electronic tag 2 comprises a tag code 21. In this embodiment, the electronic tags 2 are arranged on the side edges of the stone slabs 92 and staggered with each other to avoid mutual interference and sensing discrimination omission. The electronic tags 2 are tags using radio-frequency identification (RFID) technology, the electronic tags 2 at least have a waterproof and dustproof level of IP66 international protection level certification, and pass the test of 85 degrees Celsius and 85% RH relative humidity for 168 hours, and pass the static electricity test of greater than or equal to 2kV. The sensing frequency band of the electronic tags 2 is between 800-1200MHz, and the maximum sensing distance is not less than 5 meters.

[0018] The first tag reading unit 3 comprises a first reading module 31 for reading the corresponding tag code 21 of any electronic tag 2, an operation module 32 for inputting data, a first wireless transmission module 33 for transmitting data, and a first control module 34 electrically connected to the first reading module 31, the operation module 32 and the first wireless transmission module 33. In this embodiment, the operation module 32 can display a picture and be used for inputting data, but is not limited to physical buttons or touch screens.

[0019] The digital management unit 4 comprises a stone database 41 and a second wireless transmission module 42. The stone database 41 comprises a plurality of stone information sets 411 corresponding to the tag codes 21 respectively, and a warehouse information set 412. Each stone information set 411 has a record code 413 corresponding to the respective tag code 21, a storage location number 414 corresponding to the record code 413, and a delivery information 415. The second wireless transmission module 42 transmits data with the first wireless transmission module 33 through wireless signal transmission.

[0020] The first control module 34 displays a warehouse location input prompt on the operation module 32 after the first reading module 31 reads any tag code 21.

[0021] The first control module 34 transmits the input warehouse location number to the digital management unit 4 through the first wireless transmission module 33 after the input warehouse location number is input on the operation module 32. The digital management unit 4 updates the input warehouse location number in the storage location number 414 of the stone information set 411 with the same record code 413 and tag code 21.

[0022] The induction module 5 is arranged on the moving route of the carrier vehicle 93 and generates an induction signal when the carrier vehicle 93 passes through. The induction module 5 has an infrared emitter 51 emitting infrared rays and an infrared sensor 52 receiving the infrared rays, and generates the induction signal when the infrared rays are blocked.

[0023] The second tag reading unit 6 is arranged in the stone warehouse 9. The second tag reading unit 6 comprises a second reading module 61 for reading the tag code 21 of any electronic tag 2, a third wireless transmission module 62 for transmitting data, and a second control module 63 electrically connected to the second reading module 61 and the third wireless transmission module 62.

[0024] In this embodiment, the first wireless transmission module 33, the second wireless transmission module 42, and the third wireless transmission module 62 perform network transmission in Wi-Fi mode, but are not limited thereto.

[0025] The second control module 63 controls the second reading module 61 to read after receiving the induction signal. The second control module 63 transmits the tag code 21 to the digital management unit 4 through the third wireless transmission module 62 after the second reading module 61 successfully reads any tag code 21.

[0026] The digital management unit 4, after receiving the tag code 21 transmitted via the third wireless transmission module 62, compares the tag code 21 with the warehouse entry and exit information set 412. When the tag code 21 matches the data in the warehouse entry and exit information set 412, the digital management unit 4 records the current time in the transport information 415 of the stone information set 411 with the same record code 413 and tag code 21.

[0027] When the stone slab 92 is completed, the electronic tag 2 is placed on the side of the stone slab 92 and hung on any stone warehouse position 91 with an empty space. The user can hold the first tag reading unit 3 to read the tag code 21 of the electronic tag 2 on any stone slab 92, and input the input warehouse position number corresponding to the stone warehouse position 91 into the operation module 32 according to the warehouse position input prompt on the operation module 32. After transmitting data to the digital management unit 4 through the first wireless transmission module 33, the storage warehouse position number 414 of the stone information set 411 with the same record code 413 and tag code 21 is updated to the input warehouse position number, so that the inventory position of the stone slab 92 can be recorded in the corresponding stone information set 411. It should be noted that the stone information set 411 corresponding to the electronic tag 2 to be placed on the stone slab 92 is already pre-established in the stone database 41.

[0028] When any stone slab 92 is moved, the electronic tag 2 on the moved stone slab 92 is read by the first tag reading unit 3, and the storage warehouse position number 414 corresponding to the electronic tag 2 is updated according to the same process as described above, to ensure the accuracy of the stone information set 411.

[0029] In addition, before the warehouse entry and exit operation, the user will input the tag codes 21 corresponding to all the stone slabs 92 to be entered or exited into the warehouse entry and exit information set 412 in the stone database 41. When the trolley 93 passes the induction module 5 and the induction module 5 sends the induction signal, the second tag reading unit 6 reads the electronic tag 2 on the stone slab 92 on the trolley 93 below, and compares the tag code 21 with the warehouse entry and exit information set 412. When the record code 413 in the warehouse entry and exit information set 412 matches the tag code 21, the digital management unit 4 records the current time in the corresponding transport information 415 for storage and inquiry.

[0030] Since the electronic tags 2 are arranged on the stone slabs 92 and the corresponding input storage location numbers are stored in the corresponding storage location numbers 414, the positions of all the stone slabs 92 can be quickly checked, the inconvenience of paper work can be greatly reduced, and the latest status of all the stone slabs 92 can be recorded in real time. By instantly knowing the inventory, storage location and stone slab information of the stone slabs 92, the expensive stone slabs 92 can be prevented from being missed and accumulated in the stone warehouse 9, thereby avoiding waste, improving the problem of inventory of finished products, increasing sales and profits, and increasing the business income of the company.

[0031] In summary, by arranging the electronic tags 2, the first tag reading unit 3 and the digital management unit 4, the real-time information of the stone slabs 92 can be updated in real time, the convenience and accuracy of management can be improved, and the purpose of the present application can be achieved.

Claims

1. A stone storage management system applied to a stone warehouse, the stone warehouse having a plurality of stone storage locations, each of the stone storage locations being capable of stacking a plurality of stone slabs, characterized in that: The stone material warehouse management system comprises a plurality of electronic tags, a first tag reading unit, and a digital management unit. The electronic tags are respectively arranged on the stone slabs. Each electronic tag comprises a tag code. The first tag reading unit comprises a first reading module for reading the tag code of any electronic tag, an operation module for inputting data, a first wireless transmission module for transmitting data, and a first control module electrically connected to the first reading module, the operation module, and the first wireless transmission module. The digital management unit comprises a stone material database and a second wireless transmission module. The stone material database comprises a plurality of stone material information sets corresponding to the tag codes. Each stone material information set has a record code corresponding to the respective tag code and a storage location number corresponding to the record code. The second wireless transmission module transmits data with the first wireless transmission module through a wireless signal transmission mode.

2. The stone material warehouse management system according to claim 1, characterized in that: After the first reading module reads any tag code, the first control module displays a storage location input prompt on the operation module. After the operation module inputs an input storage location number, the first control module transmits the input storage location number to the digital management unit through the first wireless transmission module. The digital management unit updates the input storage location number in the storage location number of the stone material information set with the same record code and tag code.

3. The stone management system of claim 1, wherein: The transportation of each stone slab is carried out by a carrier vehicle. The stone material warehouse management system further comprises an induction module arranged on the moving route of the carrier vehicle and generating an induction signal when the carrier vehicle passes through, and a second tag reading unit arranged in the stone warehouse. The second tag reading unit comprises a second reading module for reading the tag code of any electronic tag, a third wireless transmission module for transmitting data, and a second control module electrically connected to the second reading module and the third wireless transmission module. After receiving the induction signal, the second control module controls the second reading module to read. After the second reading module successfully reads any tag code, the second control module transmits the tag code to the digital management unit through the third wireless transmission module.

4. The stone management system of claim 3, wherein: The stone material database further comprises an in-out warehouse information set. Each stone material information set further comprises transportation information. After receiving the tag code transmitted through the third wireless transmission module, the digital management unit compares the tag code with the in-out warehouse information set. When the tag code matches the data in the in-out warehouse information set, the digital management unit records the current time in the transportation information of the stone material information set with the same record code and tag code.

5. The stone management system of claim 3, wherein: The induction module has an infrared emitter for emitting infrared rays and an infrared sensor for receiving the infrared rays. The induction module generates the induction signal when the infrared rays are blocked.

6. The stone management system of claim 1, wherein: The electronic tag at least has a waterproof and dustproof level of IP66 international protection level certification, and passes the test of 85 degrees Celsius and 85% RH for 168 hours, and the static electricity test of greater than or equal to 2kV.

7. The stone management system of claim 1, wherein: The sensed frequency band of the electronic tag is between 800-1200MHz, and the maximum sensing distance is not less than 5 meters.

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