Tray scanning method for warehouse electronic tag lock

Abstract

The invention relates to the technical field of logistics management and automatic identification, and discloses a tray scanning method for a warehouse electronic tag lock, and the method comprises the steps: building a warehouse data collection module, a warehouse data calculation module, a warehouse data early warning module and a warehouse data optimization module, and collecting data in the warehouse data collection module; a warehouse-in label and management system synchronization index Qz, an inventory state fault index Gz and an intelligent storage sequence error Tz are calculated in a warehouse data calculation module, and a warehouse data early warning module carries out early warning according to the warehouse-in label and management system synchronization index Qz range, the inventory state fault index Gz range and the intelligent storage sequence error Tz. A warning green light, a warning red light or a warning yellow light of the warehouse-out scanning data unit is automatically triggered, and the warehouse data optimization module carries out parameter adjustment or abnormity elimination on the warehouse-in scanning data unit, the warehouse storage data unit and the warehouse-out scanning data unit according to early warning information of the warehouse data early warning module. Therefore, the problems of weak inventory control capability and out-of-order inventory are solved.

Description

Technical Field

[0001] The present invention relates to the technical field of logistics management and automatic identification, and in particular to a pallet scanning method for a warehouse electronic tag lock. Background Art

[0002] With the rapid growth of the national economy, the volume of currency issuance business has increased year by year, resulting in a significant increase in the labor intensity of front-line warehouse management staff. In order to adapt to this change, the banking system needs to adopt fast and effective data management and operation methods on the basis of ensuring data security. RFID (radio frequency identification) technology has become a trend in the field of currency circulation due to its contactless, fast and accurate characteristics. Under this background, the traditional warehouse management method gradually cannot meet the business needs of modern banks, especially in terms of inventory control, there are obvious shortcomings, it is difficult to ship in order, and it will lead to expired or backlog of goods.

[0003] In warehouses using electronic seal locks, specially designed RFID reading equipment is needed to meet these new requirements. In the past, there was a lack of devices that could meet the above requirements, which restricted the modernization of warehouse management. Therefore, it has become an urgent technical need to develop a new type of scanning device specifically for identifying and processing RFID information in electronic tag locks. Summary of the invention

[0004] 1. Technical issues to be resolved

[0005] In view of the deficiencies in the prior art, the present invention provides a pallet scanning method for a warehouse electronic tag lock, which has the advantages of strong inventory control capability and no disorder, and solves the problems of weak inventory control capability and disordered inventory.

[0006] (II) Technical solution

[0007] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a pallet scanning method for a warehouse electronic tag lock, comprising a warehouse data collection module, a warehouse data calculation module, a warehouse data early warning module and a warehouse data optimization module;

[0008] The warehouse data collection module includes an entry scanning data unit, a warehouse storage data unit and an exit scanning data unit. The entry scanning data unit collects entry scanning data through RFID reader / writer, pallet scanning and image recognition technology, and after numbering, is connected to the warehouse data calculation module through the network. The warehouse storage data unit collects warehouse storage data through sensors and entry information, and after numbering, is connected to the warehouse data calculation module through the network. The exit scanning data unit collects exit scanning data through pallet scanning, barcode scanner and sensor, and numbers it. The warehouse data collection module is connected to the warehouse data calculation module through the network;

[0009] The warehouse data calculation module includes an incoming label management unit, an inventory status fault unit and an intelligent storage sequence unit. The incoming label management unit calculates the synchronization index Qz between the incoming label and the management system according to the incoming scanning data, the inventory status fault unit calculates the inventory status fault index Gz according to the warehouse storage data, and the intelligent storage sequence unit calculates the intelligent storage sequence error Tz according to the outgoing scanning data. The warehouse data calculation module and the warehouse data early warning module are connected via a network.

[0010] The warehouse data early warning module automatically triggers the warning green light, red light or yellow light of the incoming scanning data unit according to the range of the synchronization index Qz of the incoming label and the management system, automatically triggers the warning green light or red light of the warehouse storage data unit according to the range of the inventory status fault index Gz, and automatically triggers the warning green light or red light of the outgoing scanning data unit according to the intelligent storage sequence error Tz. The warehouse data early warning module and the warehouse data optimization module are connected through a network;

[0011] The warehouse data optimization module adjusts parameters or eliminates abnormalities on the incoming scanning data unit, the warehouse storage data unit and the outgoing scanning data unit according to the warning information of the warehouse data warning module.

[0012] Preferably, the incoming scanning data unit numbers the number of labels in the incoming scanning data, the number of labels in the management system, the number of difference labels, the number of invalid labels, the number of supplementary labels and the number of corrected labels according to the characteristics of the incoming scanning data, and the number of labels in the incoming scanning data, the number of labels in the management system, the number of difference labels, the number of invalid labels, the number of supplementary labels and the number of corrected labels are numbered M1, M2, M3, M4, M5 and M6.

[0013] Preferably, the entry label management unit calculates the synchronization index Qz between the entry label and the management system according to the entry scanning data, and the calculation formula is:

[0014]

[0015] In the formula, Qz represents the synchronization index between the incoming labels and the management system; M1, M2, M3, M4, M5, and M6 represent the number of labels in the incoming scan data, the number of labels in the management system, the number of difference labels, the number of invalid labels, the number of supplementary labels, and the number of corrected labels, respectively; (M3+M4) represents the difference between the number of incoming scanned labels without removing invalid labels and the number of labels in the management system.

[0016] Preferably, the warehouse storage data unit numbers the total data, damaged data, lost data or data with record errors in the warehouse according to the characteristics of the warehouse storage data, and the total data in the warehouse are numbered as M1, M2, M3, ... M n The damaged data, lost data or wrongly recorded data in the warehouse are numbered M. r 、M t 、M y .

[0017] Preferably, the inventory status failure unit calculates the inventory status failure index Gz according to the warehouse storage data, and the calculation formula is:

[0018]

[0019] In the formula, Gz represents the inventory status failure index, M1, M2, M3, ...M n Represents the total data in the warehouse, M r 、M t 、M y They respectively represent damaged data, lost data or incorrectly recorded data in the warehouse.

[0020] Preferably, the outbound scanning data unit numbers the item list A of the actual storage order and the item list B of the designed storage order according to the outbound scanning data characteristics, and the item list A of the actual storage order is numbered 1, 2, 3, ... A n , the list of items B in the design storage order is numbered 1, 2, 3, ... B n .

[0021] Preferably, the intelligent storage sequence unit calculates the intelligent storage sequence error Tz according to the outbound scanning data, and the calculation formula is:

[0022]

[0023] In the formula, Tz represents the intelligent storage sequence error, 1, 2, 3, ... A n A list of items in the actual storage order, 1, 2, 3, ... B n List B of items in the design storage order, (A i -B i ) 2 It represents the sum of squares of the differences in the order of the corresponding elements in the list A of the actual storage order and the list B of the designed storage order. n represents the total number of items.

[0024] Preferably, the warehouse data early warning module automatically triggers the warning green light, red light or yellow light of the incoming scanning data unit according to the range of the synchronization index Qz of the incoming label and the management system, and the warehouse data optimization module adjusts the parameters of the incoming scanning data unit or eliminates the abnormality according to the early warning information of the warehouse data early warning module. The process is:

[0025] When M3+M4 is greater than 0, it means that the actual number of labels entering the warehouse is less than the number recorded in the management system, that is, the synchronization index Qz between the entering labels and the management system is less than 0, and the warehouse data early warning module triggers the yellow warning light of the entering scanning data unit. After receiving the early warning information from the warehouse data early warning module, the warehouse data optimization module automatically checks the missing data between the actual number of labels entering the warehouse scanning data unit and the number recorded in the management system;

[0026] When M3+M4 is less than 0, it means that the actual number of labels entering the warehouse is greater than or equal to the number recorded in the management system, that is, the synchronization index Qz between the incoming labels and the management system is greater than 0, and the warehouse data early warning module triggers the red warning light of the incoming scanning data unit. After receiving the early warning information from the warehouse data early warning module, the warehouse data optimization module automatically checks the number of labels actually entering the warehouse in the incoming scanning data unit and the number recorded in the management system for missing data;

[0027] When M3+M4 is equal to 0, it means that the actual number of tags entering the warehouse fully matches the number recorded in the management system, that is, the synchronization index Qz between the incoming tags and the management system is equal to 1, and the warehouse data early warning module keeps the warning light of the incoming scanning data unit green.

[0028] Preferably, the warehouse data early warning module automatically triggers the warning green light or red light of the warehouse storage data unit according to the inventory status fault index Gz range, and automatically triggers the warning green light or red light of the outbound scanning data unit according to the intelligent storage sequence error Tz. The warehouse data optimization module adjusts the parameters of the warehouse storage data unit and the outbound scanning data unit or eliminates abnormalities according to the early warning information of the warehouse data early warning module. The process is as follows:

[0029] Inventory status failure index Gz:

[0030] When the inventory status fault index Gz>1, the warehouse data early warning module triggers the warning red light of the warehouse storage data unit. After receiving the warning information from the warehouse data early warning module, the warehouse data optimization module automatically deletes and corrects the damaged data, lost data or wrongly recorded data of the warehouse storage data unit;

[0031] When the inventory status fault index Gz≤1, the warehouse data warning module keeps the warning green light of the warehouse storage data unit;

[0032] Intelligent storage sequence error Tz:

[0033] When the intelligent storage order error Tz is close to 1, it means that the actual storage order of the item list A is consistent with the designed storage order of the item list B;

[0034] When the intelligent storage sequence error Tz is less than 1, it means that the item list A of the actual storage sequence is inconsistent with the item list B of the designed storage sequence. The warehouse data early warning module will trigger the red warning light of the outbound scanning data unit. After the warehouse data optimization module receives the early warning information from the warehouse data early warning module, it will automatically correct the reverse or disordered data in the storage process according to the information of the item list A of the actual storage sequence.

[0035] Preferably, a pallet scanning method for a warehouse electronic tag lock comprises the following steps:

[0036] Step 1: Establish a warehouse data collection module, a warehouse data calculation module, a warehouse data early warning module and a warehouse data optimization module;

[0037] Step 2: The warehouse data collection module is divided into an incoming scanning data unit, a warehouse storage data unit, and an outgoing scanning data unit.

[0038] Step 3: The warehouse data calculation module is divided into an incoming label management unit, an inventory status fault unit and an intelligent storage sequence unit, and calculates the synchronization index Qz between the incoming label and the management system, the inventory status fault index Gz and the intelligent storage sequence error Tz;

[0039] Step 4: The warehouse data warning module automatically triggers the warning green light, red light or yellow light of the incoming scanning data unit according to the synchronization index Qz range of the incoming label and the management system, automatically triggers the warning green light or red light of the warehouse storage data unit according to the inventory status fault index Gz range, and automatically triggers the warning green light or red light of the outgoing scanning data unit according to the intelligent storage sequence error Tz;

[0040] Step 5: The warehouse data optimization module adjusts parameters or eliminates abnormalities of the incoming scanning data unit, the warehouse storage data unit and the outgoing scanning data unit according to the warning information of the warehouse data warning module.

[0041] Compared with the prior art, the present invention provides a pallet scanning method for warehouse electronic tag locks, which has the following beneficial effects:

[0042] 1. The present invention calculates the synchronization index Qz between the incoming label and the management system to quantitatively compare the consistency between the incoming label data and the management system data. When the synchronization index Qz between the incoming label and the management system is equal to 0, it indicates that the incoming label data and the management system data are synchronized. When the synchronization index Qz between the incoming label and the management system is lower than or higher than 0, it indicates that the incoming label data and the management system data are not synchronized. The warehouse data early warning module notifies the warehouse data optimization module to adjust the parameters of the incoming scanner or correct the management system data, thereby solving the problem of weak system inventory control capability.

[0043] 2. The present invention evaluates the difference between the actual storage order of item list A and the designed storage order of item list B by calculating the intelligent storage order error Tz. The error helps the warehouse data early warning module to monitor the reverse or disordered situation of the information of the actual storage order of item list A in real time. After the warehouse data optimization module receives the early warning information, it automatically corrects the reverse or disordered data in the storage process. The above processing process is used to ensure the sequence accuracy of the inventory data. BRIEF DESCRIPTION OF THE DRAWINGS

[0044] Figure 1 It is a schematic diagram of the structure of the present invention; DETAILED DESCRIPTION

[0045] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0046] See also Figure 1 , a pallet scanning method for a warehouse electronic tag lock, including a warehouse data collection module, a warehouse data calculation module, a warehouse data early warning module and a warehouse data optimization module;

[0047] The warehouse data collection module includes an inbound scanning data unit, a warehouse storage data unit and an outbound scanning data unit. The inbound scanning data unit collects inbound scanning data through RFID readers, pallet scanning and image recognition technology, and after numbering, is connected to the warehouse data calculation module through the network. The warehouse storage data unit collects warehouse storage data through sensors and inbound information, and after numbering, is connected to the warehouse data calculation module through the network. The outbound scanning data unit collects outbound scanning data through pallet scanning, barcode scanner and sensor, and numbers it. The warehouse data collection module is connected to the warehouse data calculation module through the network.

[0048] The warehouse data calculation module includes an incoming label management unit, an inventory status fault unit and an intelligent storage sequence unit. The incoming label management unit calculates the synchronization index Qz between the incoming label and the management system according to the incoming scanning data. The inventory status fault unit calculates the inventory status fault index Gz according to the warehouse storage data. The intelligent storage sequence unit calculates the intelligent storage sequence error Tz according to the outgoing scanning data. The warehouse data calculation module and the warehouse data early warning module are connected through a network.

[0049] The warehouse data early warning module automatically triggers the warning green light, red light or yellow light of the incoming scanning data unit according to the synchronization index Qz range of the incoming label and the management system, automatically triggers the warning green light or red light of the warehouse storage data unit according to the inventory status fault index Gz range, and automatically triggers the warning green light or red light of the outgoing scanning data unit according to the intelligent storage sequence error Tz. The warehouse data early warning module and the warehouse data optimization module are connected through the network;

[0050] The warehouse data optimization module adjusts parameters or eliminates abnormalities of the incoming scanning data unit, the warehouse storage data unit and the outgoing scanning data unit according to the warning information of the warehouse data warning module.

[0051] The incoming scanning data unit numbers the number of labels in the incoming scanning data, the number of labels in the management system, the number of difference labels, the number of invalid labels, the number of supplementary labels and the number of corrected labels according to the characteristics of the incoming scanning data. The number of labels in the incoming scanning data, the number of labels in the management system, the number of difference labels, the number of invalid labels, the number of supplementary labels and the number of corrected labels are numbered M1, M2, M3, M4, M5 and M6.

[0052] The incoming label management unit calculates the synchronization index Qz between the incoming label and the management system based on the incoming scanning data. The calculation formula is:

[0053]

[0054] In the formula, Qz represents the synchronization index between the incoming labels and the management system; M1, M2, M3, M4, M5, and M6 represent the number of labels in the incoming scan data, the number of labels in the management system, the number of difference labels, the number of invalid labels, the number of supplementary labels, and the number of corrected labels, respectively; (M3+M4) represents the difference between the number of incoming scanned labels without removing invalid labels and the number of labels in the management system.

[0055] The advantages are: by calculating the synchronization index Qz between the incoming label and the management system, the consistency degree between the incoming label data and the management system data is quantitatively compared. When the synchronization index Qz between the incoming label and the management system is equal to 0, it indicates that the incoming label data and the management system data are synchronized. When the synchronization index Qz between the incoming label and the management system is lower or higher than 0, it indicates that the incoming label data and the management system data are not synchronized. The warehouse data early warning module notifies the warehouse data optimization module to adjust the parameters of the incoming scanner or correct the management system data, thereby solving the problem of weak system inventory control capabilities.

[0056] The warehouse storage data unit numbers the total data, damaged data, lost data or data with record errors in the warehouse according to the characteristics of the warehouse storage data. The total data in the warehouse is numbered as M1, M2, M3, ...M n The damaged data, lost data or wrongly recorded data in the warehouse are numbered M r 、M t 、M y .

[0057] The inventory status failure unit calculates the inventory status failure index Gz based on the warehouse storage data. The calculation formula is:

[0058]

[0059] In the formula, Gz represents the inventory status failure index, M1, M2, M3, ...M n Represents the total data in the warehouse, M r 、M t 、M y They respectively represent damaged data, lost data or incorrectly recorded data in the warehouse.

[0060] The advantages are: by statistically numbering the damaged, lost and erroneous data in the warehouse storage data unit and incorporating them into the calculation formula, it helps the system to evaluate the overall health of the warehouse data from a multi-dimensional perspective. The inventory status fault index Gz is calculated regularly through the inventory status fault unit. Warehouse managers can promptly discover damaged data, lost data or erroneous recording in the warehouse storage data unit, and feedback the fault situation to the warehouse data early warning module in real time, and then adjust parameters or eliminate abnormalities through the warehouse data optimization module, thereby reducing the system's potential inventory risks and increasing the system's warehouse control capabilities.

[0061] The outbound scanning data unit numbers the item list A of the actual storage order and the item list B of the designed storage order according to the outbound scanning data characteristics. The item list A of the actual storage order is numbered 1, 2, 3, ... A n , the list of items B in the design storage order is numbered 1, 2, 3, ... B n .

[0062] The intelligent storage sequence unit calculates the intelligent storage sequence error Tz based on the outbound scanning data, and the calculation formula is:

[0063]

[0064] In the formula, Tz represents the intelligent storage sequence error, 1, 2, 3, ... A n A list of items in the actual storage order, 1, 2, 3, ... B n List B of items in the design storage order, (A i -B i ) 2 It represents the sum of squares of the differences in the order of the corresponding elements in the list A of the actual storage order and the list B of the designed storage order. n represents the total number of items.

[0065] The advantages are: by calculating the intelligent storage order error Tz to evaluate the difference between the actual storage order of item list A and the designed storage order of item list B, this error helps the warehouse data early warning module to monitor the reverse or disordered information in the actual storage order in real time. After the warehouse data optimization module receives the early warning information, it automatically corrects the reverse or disordered data in the storage process. The above processing process is used to ensure the accuracy of the order of inventory data.

[0066] The warehouse data early warning module automatically triggers the warning green light, red light or yellow light of the incoming scanning data unit according to the range of the synchronization index Qz of the incoming label and the management system. The warehouse data optimization module adjusts the parameters of the incoming scanning data unit or eliminates the abnormality according to the early warning information of the warehouse data early warning module. The process is as follows:

[0067] When M3+M4 is greater than 0, it means that the actual number of labels entering the warehouse is less than the number recorded in the management system, that is, the synchronization index Qz between the entering labels and the management system is less than 0, and the warehouse data early warning module triggers the yellow warning light of the entering scanning data unit. After receiving the early warning information from the warehouse data early warning module, the warehouse data optimization module automatically checks the missing data between the actual number of labels entering the warehouse scanning data unit and the number recorded in the management system;

[0068] When M3+M4 is less than 0, it means that the actual number of labels entering the warehouse is greater than or equal to the number recorded in the management system, that is, the synchronization index Qz between the incoming labels and the management system is greater than 0, and the warehouse data early warning module triggers the red warning light of the incoming scanning data unit. After receiving the early warning information from the warehouse data early warning module, the warehouse data optimization module automatically checks the number of labels actually entering the warehouse in the incoming scanning data unit and the number recorded in the management system for missing data;

[0069] When M3+M4 is equal to 0, it means that the actual number of tags entering the warehouse fully matches the number recorded in the management system, that is, the synchronization index Qz between the incoming tags and the management system is equal to 1, and the warehouse data early warning module keeps the warning light of the incoming scanning data unit green.

[0070] The warehouse data early warning module automatically triggers the warning green light or red light of the warehouse storage data unit according to the inventory status fault index Gz range, and automatically triggers the warning green light or red light of the outbound scanning data unit according to the intelligent storage sequence error Tz. The warehouse data optimization module adjusts the parameters of the warehouse storage data unit and the outbound scanning data unit or eliminates abnormalities according to the early warning information of the warehouse data early warning module. The process is as follows:

[0071] Inventory status failure index Gz:

[0072] When the inventory status fault index Gz>1, the warehouse data early warning module triggers the warning red light of the warehouse storage data unit. After receiving the warning information from the warehouse data early warning module, the warehouse data optimization module automatically deletes and corrects the damaged data, lost data or wrongly recorded data of the warehouse storage data unit;

[0073] When the inventory status fault index Gz≤1, the warehouse data warning module keeps the warning green light of the warehouse storage data unit;

[0074] Intelligent storage sequence error Tz:

[0075] When the intelligent storage order error Tz is close to 1, it means that the actual storage order of the item list A is consistent with the designed storage order of the item list B;

[0076] When the intelligent storage sequence error Tz is less than 1, it means that the item list A of the actual storage sequence is inconsistent with the item list B of the designed storage sequence. The warehouse data early warning module will trigger the red warning light of the outbound scanning data unit. After the warehouse data optimization module receives the early warning information from the warehouse data early warning module, it will automatically correct the reverse or disordered data in the storage process according to the information of the item list A of the actual storage sequence.

[0077] A pallet scanning method for a warehouse electronic tag lock comprises the following steps:

[0078] Step 1: Establish a warehouse data collection module, a warehouse data calculation module, a warehouse data early warning module and a warehouse data optimization module;

[0079] Step 2: The warehouse data collection module is divided into an incoming scanning data unit, a warehouse storage data unit, and an outgoing scanning data unit.

[0080] Step 3: The warehouse data calculation module is divided into an incoming label management unit, an inventory status fault unit and an intelligent storage sequence unit, and calculates the synchronization index Qz between the incoming label and the management system, the inventory status fault index Gz and the intelligent storage sequence error Tz;

[0081] Step 4: The warehouse data warning module automatically triggers the warning green light, red light or yellow light of the incoming scanning data unit according to the synchronization index Qz range of the incoming label and the management system, automatically triggers the warning green light or red light of the warehouse storage data unit according to the inventory status fault index Gz range, and automatically triggers the warning green light or red light of the outgoing scanning data unit according to the intelligent storage sequence error Tz;

[0082] Step 5: The warehouse data optimization module adjusts parameters or eliminates abnormalities of the incoming scanning data unit, the warehouse storage data unit and the outgoing scanning data unit according to the warning information of the warehouse data warning module.

[0083] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A pallet scanning method for a warehouse electronic tag lock, characterized in that: It includes warehouse data collection module, warehouse data calculation module, warehouse data early warning module and warehouse data optimization module; The warehouse data collection module includes an entry scanning data unit, a warehouse storage data unit and an exit scanning data unit. The entry scanning data unit collects entry scanning data through RFID reader / writer, pallet scanning and image recognition technology, and after numbering, is connected to the warehouse data calculation module through the network. The warehouse storage data unit collects warehouse storage data through sensors and entry information, and after numbering, is connected to the warehouse data calculation module through the network. The exit scanning data unit collects exit scanning data through pallet scanning, barcode scanner and sensor, and numbers it. The warehouse data collection module is connected to the warehouse data calculation module through the network; The warehouse data calculation module includes an incoming label management unit, an inventory status fault unit and an intelligent storage sequence unit. The incoming label management unit calculates the synchronization index Qz between the incoming label and the management system according to the incoming scanning data, the inventory status fault unit calculates the inventory status fault index Gz according to the warehouse storage data, and the intelligent storage sequence unit calculates the intelligent storage sequence error Tz according to the outgoing scanning data. The warehouse data calculation module and the warehouse data early warning module are connected via a network. The warehouse data early warning module automatically triggers the warning green light, red light or yellow light of the incoming scanning data unit according to the range of the synchronization index Qz of the incoming label and the management system, automatically triggers the warning green light or red light of the warehouse storage data unit according to the range of the inventory status fault index Gz, and automatically triggers the warning green light or red light of the outgoing scanning data unit according to the intelligent storage sequence error Tz. The warehouse data early warning module and the warehouse data optimization module are connected through a network; The warehouse data optimization module adjusts parameters or eliminates abnormalities on the incoming scanning data unit, the warehouse storage data unit and the outgoing scanning data unit according to the warning information of the warehouse data warning module.

2. A pallet scanning method for a warehouse electronic tag lock according to claim 1, characterized in that: The incoming scanning data unit numbers the number of labels in the incoming scanning data, the number of labels in the management system, the number of difference labels, the number of invalid labels, the number of supplementary labels and the number of corrected labels according to the characteristics of the incoming scanning data. The number of labels in the incoming scanning data, the number of labels in the management system, the number of difference labels, the number of invalid labels, the number of supplementary labels and the number of corrected labels are numbered M1, M2, M3, M4, M5 and M6.

3. A pallet scanning method for a warehouse electronic tag lock according to claim 2, characterized in that: The entry label management unit calculates the synchronization index Qz between the entry label and the management system according to the entry scanning data, and the calculation formula is: In the formula, Qz represents the synchronization index between the incoming labels and the management system; M1, M2, M3, M4, M5, and M6 represent the number of labels in the incoming scan data, the number of labels in the management system, the number of difference labels, the number of invalid labels, the number of supplementary labels, and the number of corrected labels, respectively; (M3+M4) represents the difference between the number of incoming scanned labels without removing invalid labels and the number of labels in the management system.

4. A pallet scanning method for a warehouse electronic tag lock according to claim 1, characterized in that: The warehouse storage data unit numbers the total data, damaged data, lost data or data with record errors in the warehouse according to the characteristics of the warehouse storage data. The total data in the warehouse is numbered as M1, M2, M3, ...M n The damaged data, lost data or wrongly recorded data in the warehouse are numbered M. r 、M t 、M y .

5. A pallet scanning method for a warehouse electronic tag lock according to claim 4, characterized in that: The inventory status failure unit calculates the inventory status failure index G according to the warehouse storage data z , and its calculation formula is: In the formula, Gz represents the inventory status failure index, M1, M2, M3, ...M n Represents the total data in the warehouse, M r 、M t 、M y They respectively represent damaged data, lost data or incorrectly recorded data in the warehouse.

6. A pallet scanning method for a warehouse electronic tag lock according to claim 1, characterized in that: The outbound scanning data unit numbers the item list A of the actual storage order and the item list B of the designed storage order according to the outbound scanning data characteristics, and the item list A of the actual storage order is numbered 1, 2, 3, ... A n , the list of items B in the design storage order is numbered 1, 2, 3, ... B n .

7. A pallet scanning method for a warehouse electronic tag lock according to claim 6, characterized in that: The intelligent storage sequence unit calculates the intelligent storage sequence error T according to the outbound scanning data. z , and its calculation formula is: In the formula, Tz represents the intelligent storage sequence error, 1, 2, 3, ... A n A list of items in the actual storage order, 1, 2, 3, ... B n List B of items in the design storage order, (A i -B i ) 2 The sum of squares of the differences in the order of the corresponding elements in the list A of items in the actual storage order and the list B of items in the designed storage order, where n represents the total number of items.

8. The pallet scanning method for warehouse electronic tag lock according to claim 3 is characterized by: The warehouse data early warning module automatically triggers the warning green light, red light or yellow light of the incoming scan data unit according to the range of the synchronization index Qz of the incoming label and the management system. The warehouse data optimization module adjusts the parameters of the incoming scan data unit or eliminates the abnormality according to the early warning information of the warehouse data early warning module. The process is as follows: When M3+M4 is greater than 0, it means that the actual number of labels entering the warehouse is less than the number recorded in the management system, that is, the synchronization index Qz between the entering labels and the management system is less than 0, and the warehouse data early warning module triggers the yellow warning light of the entering scanning data unit. After receiving the early warning information from the warehouse data early warning module, the warehouse data optimization module automatically checks the missing data between the actual number of labels entering the warehouse scanning data unit and the number recorded in the management system; When M3+M4 is less than 0, it means that the actual number of labels entering the warehouse is greater than or equal to the number recorded in the management system, that is, the synchronization index Qz between the incoming labels and the management system is greater than 0, and the warehouse data early warning module triggers the red warning light of the incoming scanning data unit. After receiving the early warning information from the warehouse data early warning module, the warehouse data optimization module automatically checks the number of labels actually entering the warehouse in the incoming scanning data unit and the number recorded in the management system for missing data; When M3+M4 is equal to 0, it means that the actual number of tags entering the warehouse fully matches the number recorded in the management system, that is, the synchronization index Qz between the incoming tags and the management system is equal to 1, and the warehouse data early warning module keeps the warning light of the incoming scanning data unit green.

9. A pallet scanning method for a warehouse electronic tag lock according to claim 7, characterized in that: The warehouse data early warning module automatically triggers the warning green light or red light of the warehouse storage data unit according to the inventory status fault index Gz range, and automatically triggers the warning green light or red light of the outbound scanning data unit according to the intelligent storage sequence error Tz. The warehouse data optimization module adjusts the parameters of the warehouse storage data unit and the outbound scanning data unit or eliminates abnormalities according to the early warning information of the warehouse data early warning module. The process is as follows: Inventory status failure index Gz: When the inventory status fault index Gz>1, the warehouse data early warning module triggers the warning red light of the warehouse storage data unit. After receiving the warning information from the warehouse data early warning module, the warehouse data optimization module automatically deletes and corrects the damaged data, lost data or wrongly recorded data of the warehouse storage data unit; When the inventory status fault index Gz≤1, the warehouse data warning module keeps the warning green light of the warehouse storage data unit; Intelligent storage sequence error Tz: When the intelligent storage order error Tz is close to 1, it means that the actual storage order of the item list A is consistent with the designed storage order of the item list B; When the intelligent storage sequence error Tz is less than 1, it means that the item list A of the actual storage sequence is inconsistent with the item list B of the designed storage sequence. The warehouse data early warning module will trigger the red warning light of the outbound scanning data unit. After the warehouse data optimization module receives the early warning information from the warehouse data early warning module, it will automatically correct the reverse or disordered data in the storage process according to the information of the item list A of the actual storage sequence.

10. A pallet scanning method for a warehouse electronic tag lock according to claim 9, characterized in that: The following steps are involved: Step 1: Establish a warehouse data collection module, a warehouse data calculation module, a warehouse data early warning module and a warehouse data optimization module; Step 2: The warehouse data collection module is divided into an incoming scanning data unit, a warehouse storage data unit, and an outgoing scanning data unit. Step 3: The warehouse data calculation module is divided into an incoming label management unit, an inventory status fault unit and an intelligent storage sequence unit, and calculates the synchronization index Qz between the incoming label and the management system, the inventory status fault index Gz and the intelligent storage sequence error Tz; Step 4: The warehouse data warning module automatically triggers the warning green light, red light or yellow light of the incoming scanning data unit according to the synchronization index Qz range of the incoming label and the management system, automatically triggers the warning green light or red light of the warehouse storage data unit according to the inventory status fault index Gz range, and automatically triggers the warning green light or red light of the outgoing scanning data unit according to the intelligent storage sequence error Tz; Step 5: The warehouse data optimization module adjusts parameters or eliminates abnormalities of the incoming scanning data unit, the warehouse storage data unit and the outgoing scanning data unit according to the warning information of the warehouse data warning module.

Images