Electronic component inventory intelligent optimization system and method

Abstract

The invention belongs to the technical field of electronic components, and particularly relates to an electronic component inventory intelligent optimization system and method, and the system comprises a data input end, a PC end, a cloud server and a mobile end. The data input end comprises a power supply I, a two-dimensional code read-write module, a position storage module, a processor I, a data sending module and a two-dimensional code label; the PC end comprises a power supply II, a local data storage module, an input module, a database, a display module I, a network module I, a data receiving module and a processor II; the cloud server comprises a power supply III, a cloud data storage module and a network module II; the mobile terminal comprises a fourth power supply, a second display module, a third network module, a screening module and a third processor. According to the electronic component management system, information input of electronic components is achieved through the two-dimensional code labels and the two-dimensional code read-write module, a worker inquires the position information of any electronic component and a warehouse where the electronic component is located through the PC terminal and the mobile terminal, and the problem that it takes a long time to find a designated electronic component in the prior art is solved.

Description

Technical Field

[0001] The present invention relates to the technical field of electronic components, and in particular to an intelligent optimization system and method for electronic component inventory. Background Art

[0002] With the rapid development of more and more intelligent electronic product technologies, the welding and debugging of hardware circuit PCB boards has become an indispensable link in many semiconductor integrated circuit research and development institutions and engineering colleges, which has led to increasingly complex component management in the laboratories of hardware research and development companies and engineering colleges.

[0003] At present, the management of electronic components in the laboratory is completed by one or several laboratory administrators. The manpower and time costs are very high, but the accuracy is not high. There are many types of electronic components, IC chips and package sizes in the laboratory. Manual registration and notes are not easy to complete. It takes a long time to find the specified electronic components, which greatly reduces the work efficiency of laboratory administrators. Summary of the invention

[0004] In order to solve the above technical problems, the present invention proposes an intelligent optimization system and method for electronic component inventory, which realizes the information entry of electronic components through QR code tags and QR code reading and writing modules. Staff can query any electronic component and its warehouse location information at any time through PC and mobile terminals.

[0005] The technical solution to achieve the purpose of the present invention is: an electronic component inventory intelligent optimization system, including a data entry terminal, a PC terminal, a cloud server and a mobile terminal;

[0006] The data entry terminal includes a power supply 1, a two-dimensional code reading and writing module, a position storage module, a processor 1, a data sending module and a two-dimensional code label;

[0007] The PC terminal includes a second power supply, a local data storage module, an input module, a database, a first display module, a first network module, a data receiving module and a second processor;

[0008] The cloud server includes a power supply 3, a cloud data storage module and a network module 2;

[0009] The mobile terminal includes a power supply four, a display module two, a network module three, a screening module and a processor three.

[0010] Preferably, the power supply 1 supplies power to the two-dimensional code reading and writing module, the position storage module, the processor 1 and the data sending module. The two-dimensional code label is attached to the surface of the electronic component. The two-dimensional code label contains the name, model, production date, storage date, storage location and outbound date of the electronic component. When the electronic component is put into storage, the two-dimensional code reading and writing module reads the content in the two-dimensional code label, identifies the name and model of the electronic component, and then sends the read data of the electronic component to the processor 1. At this time, the processor 1 reads the data of the free position in the inventory in the position storage module, arranges the storage location for the electronic component, and then sends the data of the storage location and storage time to the two-dimensional code reading and writing module and the position storage module. The two-dimensional code reading and writing module sends the storage location and storage time to the two-dimensional code reading and writing module. The data is written into the QR code tag. The position storage module sets the position storing the electronic component in the inventory to occupied according to the data sent by processor one, and records the warehousing time. When the electronic component is out of the warehouse, the QR code reading and writing module reads the QR code tag and sends the data to processor one. Processor one returns the data of the out-of-warehouse time to the QR code reading and writing module, so that the QR code reading and writing module writes the out-of-warehouse time into the QR code tag. At the same time, processor one sends the read warehousing position data to the position storage module. The position storage module sets the position storing the electronic component in the inventory to free according to the data sent by processor one, so as to facilitate the storage of the next electronic component. Processor one sends the information read by the position storage module and the QR code reading and writing module to the PC through the data sending module.

[0011] Preferably, the power supply 2 supplies power to the local data storage module, the input module, the database, the display module 1, the network module 1, the data receiving module and the processor 2. The data receiving module receives the name, model, production date, storage date, storage location, outbound date and inventory usage status recorded in the location storage module of the electronic components sent by the data sending module, and sends the data to the processor 2. The processor 2 sends the data to the database, so that the database is sorted according to the data information of the electronic components, stored in the local storage data storage module, and displayed through the display module 2. At the same time, a new classification method can be created in the database through the input module, and the storage method of the electronic components is processed and displayed through the display module 1. After the staff confirms the information, the data is recorded in the local data storage module through the processor 2. When there is new information about the electronic components, the local data storage module can be updated through the database. The network module 1 reads the data in the local data storage module through the processor 2 and sends the data to the cloud server.

[0012] Preferably, the power supply three supplies power to the cloud data storage module and the network module two, and the network module two receives the data in the network module one and stores the data in the cloud data storage module.

[0013] Preferably, the power supply 4 supplies power to the display module 2, the network module, the screening module and the processor 3, the network module 3 is connected to the network module 2, reads the data in the cloud data storage module, sends the data in the cloud data storage module to the processor 3, and then displays it through the display module 2, and selects the staff to view the target information through the classification method created in the input module through the screening module.

[0014] An intelligent optimization method for electronic component inventory includes the following steps:

[0015] Step 1: Inventory records;

[0016] Step 2: Data processing;

[0017] Step 3: Data backup;

[0018] Step 4: View the information.

[0019] Preferably, after the production of the electronic components in the first step is completed, a QR code label is attached to the surface of the electronic components, and the name, model, and production date of the electronic components are entered in the QR code label. When the electronic components are put into storage, the electronic components are delivered to the warehouse by a conveying device, and the name, model, and production date of the electronic components are read by a QR code reading and writing module in the data entry terminal, and the information is sent to the processor 1. At this time, the processor 1 reads the idle position in the position storage module, and selects the storage position according to the name or model or production date of the electronic component. After the storage position is determined, the storage position information is returned to the storage device. The data is returned to the QR code reading and writing module and the position storage module. The QR code reading and writing module writes the storage location into the QR code label, and the position storage module sets the location where the electronic components are stored as occupied. When the electronic components are shipped out of the warehouse, the QR code reading and writing module reads the content in the QR code label and sends the data to processor 1. Processor 1 returns the data of the shipping time to the QR code reading and writing module, allowing the QR code reading and writing module to write the shipping time into the QR code label. At the same time, processor 1 sends the read storage location data to the position storage module. The position storage module sets the location where the electronic components are stored in the inventory to free according to the data sent by processor 1.

[0020] Preferably, in the second step, when processor 1 processes the information in the QR code label on the electronic component, the data sending module will send the processing result to the data receiving module in real time, and send it to processor 2. The database reads the data, organizes the data, and then displays it through display module 1. At the same time, the data is stored in the local data storage module.

[0021] Preferably, in the third step, the data in the local data storage module is sent to the network module 2 via the network module 1, and the information is stored in the cloud data storage module via the network module 2 to back up the data.

[0022] Preferably, in the fourth step, the staff adjusts the display mode of the data through the input module information, and can create a new classification method in the database through the input module, process the storage method of the electronic components, and display it through the display module one. After the staff confirms the information, the data is recorded in the local data storage module through the processor two. When there is new information about electronic components, the local data storage module can be updated through the database. By connecting the network module three with the network module two, the data in the cloud data storage module is sent to the processor three, and then displayed through the display module two. The staff selects the classification method created in the input module through the screening module to view the target information.

[0023] Compared with the prior art, the present invention has the following significant advantages:

[0024] First, the present invention realizes the information entry of electronic components through QR code tags and QR code reading and writing modules. The staff can query the location information of any electronic components and their warehouses at any time through PC and mobile terminals, which solves the problems of low accuracy, time-consuming and labor-intensive management of the existing laboratory component entry and exit by manual means.

[0025] Second, in the present invention, network module 2 receives data from network module 1, stores the data in a cloud data storage module, and backs up the data in a cloud server to avoid data loss on the PC side, which may cause the data information of electronic components to be unable to be found.

[0026] Third: The present invention connects network module three with network module two, reads data in the cloud data storage module, sends the data in the cloud data storage module to processor three, and then displays it through display module two. Through the screening module, the staff selects the classification method created in the input module to view the target information, and the staff can view the information of electronic components in real time on the mobile terminal.

[0027] Fourthly, the present invention sends the data into a database through processor 2, so that the database is sorted according to the data information of the electronic components, stored in a local storage data storage module, and displayed through display module 2. At the same time, a new classification method can be created in the database through the input module, and the storage method of the electronic components is processed and displayed through display module 1. After the staff confirms the information, the data is recorded in the local data storage module through processor 2. When there is new information about the electronic components, the local data storage module can be updated through the database; it is convenient for the staff to view the information of the electronic components according to their needs, so that the inventory usage information is clear. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] The present invention will be further explained below in conjunction with the accompanying drawings and embodiments:

[0029] Figure 1 It is a structural schematic diagram of the electronic component inventory intelligent optimization system of the present invention;

[0030] Figure 2 It is a schematic diagram of the internal structure of the data entry terminal of the present invention;

[0031] Figure 3 It is a schematic diagram of the internal structure of the PC terminal of the present invention;

[0032] Figure 4 It is a schematic diagram of the internal structure of the cloud server of the present invention;

[0033] Figure 5 It is a schematic diagram of the internal structure of the mobile terminal of the present invention;

[0034] Figure 6 It is a step diagram of the method for intelligent optimization of electronic component inventory of the present invention. DETAILED DESCRIPTION

[0035] The present invention is described in detail below, and the technical solutions in the embodiments of the present invention are clearly and completely described. 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.

[0036] The present invention provides an electronic component inventory intelligent optimization system and method through improvement. The technical solution of the present invention is:

[0037] like Figure 1-Figure 5 As shown, an electronic component inventory intelligent optimization system includes a data entry terminal, a PC terminal, a cloud server and a mobile terminal;

[0038] The data entry terminal includes a power supply 1, a two-dimensional code reading and writing module, a position storage module, a processor 1, a data sending module and a two-dimensional code label;

[0039] The PC terminal includes a second power supply, a local data storage module, an input module, a database, a first display module, a first network module, a data receiving module and a second processor;

[0040] The cloud server includes a power supply 3, a cloud data storage module and a network module 2;

[0041] The mobile terminal includes a power supply four, a display module two, a network module three, a screening module and a processor three.

[0042] The power supply 1 supplies power to the two-dimensional code reading and writing module, the position storage module, the processor 1 and the data sending module. The two-dimensional code label is attached to the surface of the electronic component. The two-dimensional code label contains the name, model, production date, storage date, storage location and outbound date of the electronic component. When the electronic component is put into storage, the two-dimensional code reading and writing module reads the content in the two-dimensional code label, identifies the name and model of the electronic component, and then sends the read data of the electronic component to the processor 1. At this time, the processor 1 reads the data of the free position in the inventory in the position storage module, arranges the storage location for the electronic component, and then sends the data of the storage location and storage time to the two-dimensional code reading and writing module and the position storage module. The two-dimensional code reading and writing module sends the data of the storage location and storage time to the two-dimensional code reading and writing module and the position storage module. The data is written into the QR code tag, and the position storage module sets the position storing the electronic component in the inventory to occupied according to the data sent by the processor one, and records the storage time; when the electronic component is out of the warehouse, the QR code reading and writing module reads the QR code tag and sends the data to the processor one, and the processor one returns the data of the out-of-warehouse time to the QR code reading and writing module, so that the QR code reading and writing module writes the out-of-warehouse time into the QR code tag, and at the same time, the processor one sends the read storage position data to the position storage module, and the position storage module sets the position storing the electronic component in the inventory to free according to the data sent by the processor one, so as to facilitate the storage of the next electronic component, and the processor one sends the information read by the position storage module and the QR code reading and writing module to the PC through the data sending module;

[0043] The power supply 2 supplies power to the local data storage module, the input module, the database, the display module 1, the network module 1, the data receiving module and the processor 2. The data receiving module receives the name, model, production date, storage date, storage location, outbound date and inventory usage status recorded in the location storage module of the electronic components sent by the data sending module, and sends the data to the processor 2. The processor 2 sends the data to the database, so that the database is sorted according to the data information of the electronic components, stored in the local storage data storage module, and displayed through the display module 2. At the same time, a new classification method can be created in the database through the input module, and the storage method of the electronic components is processed and displayed through the display module 1. After the staff confirms the information, the data is recorded in the local data storage module through the processor 2. When there is new information about the electronic components, the local data storage module can be updated through the database; it is convenient for the staff to view the information of the electronic components according to the needs, so that the inventory usage information is clear. The network module 1 reads the data in the local data storage module through the processor 2 and sends the data to the cloud server;

[0044] The power supply 3 supplies power to the cloud data storage module and the network module 2. The network module 2 receives the data in the network module 1 and stores the data in the cloud data storage module. The data is backed up in the cloud server to avoid data loss in the PC end, which causes the data information of the electronic components to be unable to be found.

[0045] The power supply 4 supplies power to the display module 2, the network module, the screening module and the processor 3. The network module 3 is connected to the network module 2 to read the data in the cloud data storage module, send the data in the cloud data storage module to the processor 3, and then display it through the display module 2. The staff can view the target information through the classification method created in the input module through the screening module; the staff can view the information of electronic components and the usage status of inventory in real time through the mobile terminal.

[0046] The specific working method is: after the production of electronic components is completed, a QR code label is attached to the surface of the electronic components, and the name, model, and production date of the electronic components are entered in the QR code label. When the electronic components are put into storage, the electronic components are sent to the warehouse through the conveying equipment, and the name, model, and production date of the electronic components are read through the QR code reading and writing module in the data entry end, and the information is sent to the processor 1. At this time, the processor 1 reads the idle position in the position storage module, and selects the storage position according to the name or model or production date of the electronic components. After the storage position is determined, The storage location information is returned to the QR code reading and writing module and the position storage module. The QR code reading and writing module writes the storage location into the QR code tag. The position storage module sets the location where the electronic component is stored as occupied. When the electronic component is out of the warehouse, the QR code reading and writing module reads the content in the QR code tag and sends the data to the processor 1. The processor 1 returns the outgoing time data to the QR code reading and writing module, so that the QR code reading and writing module writes the outgoing time into the QR code tag. At the same time, the processor 1 sends the read storage location data to the position storage module. The position storage module stores the storage in the inventory according to the data sent by the processor 1. The position of the electronic component is set to be idle; when processor one processes the information in the QR code label on the electronic component, the data sending module will send the processing result to the data receiving module in real time, and send it to processor two, the database reads the data, organizes the data, and then displays it through display module one, and the data is stored in the local data storage module; the data in the local data storage module is sent to network module two through network module one, and the information is stored in the cloud data storage module through network module two to back up the data; the staff adjusts the display mode of the data through the input module information, and can create a new classification method in the database through the input module, process the storage mode of the electronic components, and display it through display module one. After the staff confirms the information, the data is recorded in the local data storage module through processor two. When there is new information about the electronic component, the local data storage module can be updated through the database, and the data in the cloud data storage module is sent to processor three by connecting network module three with network module two, and then displayed through display module two. The staff selects the classification method created by the input module through the screening module to view the target information.

[0047] like Figure 6 As shown, a method for intelligent optimization of electronic component inventory includes the following steps:

[0048] Step 1: Warehouse entry and exit records. After the production of electronic components is completed, a QR code label is attached to the surface of the electronic components, and the name, model, and production date of the electronic components are entered in the QR code label. When the electronic components are put into storage, the electronic components are sent to the warehouse through the conveying equipment, and the name, model, and production date of the electronic components are read by the QR code reading and writing module in the data entry terminal, and the information is sent to the processor 1. At this time, the processor 1 reads the idle position in the position storage module, and selects the storage position according to the name or model or production date of the electronic component. After the storage position is determined, the storage position information is returned to the storage unit. The two-dimensional code reading and writing module and the position storage module are returned. The two-dimensional code reading and writing module writes the storage position into the two-dimensional code label. The position storage module sets the position storing the electronic component as occupied. When the electronic component is out of the warehouse, the two-dimensional code reading and writing module reads the content in the two-dimensional code label and sends the data to the processor 1. The processor 1 returns the data of the out-of-warehouse time to the two-dimensional code reading and writing module, and asks the two-dimensional code reading and writing module to write the out-of-warehouse time into the two-dimensional code label. At the same time, the processor 1 sends the read storage position data to the position storage module. The position storage module sets the position storing the electronic component in the inventory to be free according to the data sent by the processor 1.

[0049] Step 2: Data processing. When processor 1 processes the information in the QR code label on the electronic component, the data sending module will send the processing result to the data receiving module in real time and send it to processor 2. The database reads the data, organizes the data, and then displays it through display module 1. At the same time, the data is stored in the local data storage module.

[0050] Step 3: Data backup, sending the data in the local data storage module to the network module 2 through the network module 1, and storing the information in the cloud data storage module through the network module 2 to back up the data;

[0051] Step 4: View information. The staff adjusts the display mode of data through the input module information. At the same time, they can create a new classification method in the database through the input module, process the storage method of electronic components, and display it through display module 1. After the staff confirms the information, they save the data to the local data storage module through processor 2. When there is new information about electronic components, the local data storage module can be updated through the database. By connecting network module 3 with network module 2, the data in the cloud data storage module is sent to processor 3, and then displayed through display module 2. The staff selects the classification method created in the input module through the screening module to view the target information.

[0052] The technical means disclosed in the solution of the present invention are not limited to the technical means disclosed in the above technical means, but also include technical solutions composed of equivalent replacement of the above technical features. Matters not covered in the present invention belong to the common knowledge of those skilled in the art.

Claims

1. An electronic component inventory intelligent optimization system, characterized by: Including data entry terminal, PC terminal, cloud server and mobile terminal; The data entry terminal includes a power supply 1, a two-dimensional code reading and writing module, a position storage module, a processor 1, a data sending module and a two-dimensional code label; The PC terminal includes a second power supply, a local data storage module, an input module, a database, a first display module, a first network module, a data receiving module and a second processor; The cloud server includes a power supply 3, a cloud data storage module and a network module 2; The mobile terminal includes a power supply four, a display module two, a network module three, a screening module and a processor three.

2. The electronic component inventory intelligent optimization system according to claim 1, characterized in that: The power supply 1 supplies power to the two-dimensional code reading and writing module, the position storage module, the processor 1 and the data sending module. The two-dimensional code label is attached to the surface of the electronic component. The two-dimensional code label contains the name, model, production date, storage date, storage location and outbound date of the electronic component. When the electronic component is put into storage, the two-dimensional code reading and writing module reads the content in the two-dimensional code label, identifies the name and model of the electronic component, and then sends the read data of the electronic component to the processor 1. At this time, the processor 1 reads the data of the free position in the inventory in the position storage module, arranges the storage location for the electronic component, and then sends the data of the storage location and storage time to the two-dimensional code reading and writing module and the position storage module. The two-dimensional code reading and writing module sends the data of the storage location and storage time to the two-dimensional code reading and writing module and the position storage module. The data is written into the QR code tag. The position storage module sets the position storing the electronic component in the inventory to occupied according to the data sent by processor one, and records the warehousing time; when the electronic component is out of the warehouse, the QR code reading and writing module reads the QR code tag and sends the data to processor one. Processor one returns the data of the out-of-warehouse time to the QR code reading and writing module, allowing the QR code reading and writing module to write the out-of-warehouse time into the QR code tag. At the same time, processor one sends the read warehousing position data to the position storage module. The position storage module sets the position storing the electronic component in the inventory to free according to the data sent by processor one, so as to facilitate the storage of the next electronic component. Processor one sends the information read by the position storage module and the QR code reading and writing module to the PC through the data sending module.

3. The electronic component inventory intelligent optimization system according to claim 1, characterized in that: The power supply 2 supplies power to the local data storage module, the input module, the database, the display module 1, the network module 1, the data receiving module and the processor 2. The data receiving module receives the name, model, production date, storage date, storage location, outbound date and inventory usage status recorded in the location storage module of the electronic components sent by the data sending module, and sends the data to the processor 2. The processor 2 sends the data to the database, so that the database is sorted according to the data information of the electronic components, stored in the local storage data storage module, and displayed through the display module 2. At the same time, a new classification method can be created in the database through the input module, and the storage method of the electronic components is processed and displayed through the display module 1. After the staff confirms the information, the data is recorded in the local data storage module through the processor 2. When there is new information about the electronic components, the local data storage module can be updated through the database. The network module 1 reads the data in the local data storage module through the processor 2 and sends the data to the cloud server.

4. The electronic component inventory intelligent optimization system according to claim 1, characterized in that: The power supply 3 supplies power to the cloud data storage module and the network module 2. The network module 2 receives the data in the network module 1 and stores the data in the cloud data storage module.

5. The electronic component inventory intelligent optimization system according to claim 1, characterized in that: The power supply 4 supplies power to the display module 2, the network module, the screening module and the processor 3. The network module 3 is connected to the network module 2, reads the data in the cloud data storage module, sends the data in the cloud data storage module to the processor 3, and then displays it through the display module 2. The staff can select the classification method created in the input module through the screening module to view the target information.

6. An electronic component inventory intelligent optimization method, which is applied to the electronic component inventory intelligent optimization system according to any one of claims 1 to 5, characterized in that: The following steps are involved: Step 1: Inventory records; Step 2: Data processing; Step 3: Data backup; Step 4: View the information.

7. The method for intelligent optimization of electronic component inventory according to claim 6, characterized in that: After the production of the electronic components in the first step is completed, a QR code label is attached to the surface of the electronic components, and the name, model, and production date of the electronic components are entered in the QR code label. When the electronic components are put into storage, the electronic components are sent to the warehouse through the conveying equipment, and the name, model, and production date of the electronic components are read by the QR code reading and writing module in the data entry end, and the information is sent to the processor 1. At this time, the processor 1 reads the idle position in the position storage module, and selects the storage position according to the name or model or production date of the electronic component. After the storage position is determined, the storage position information is returned to the processor 1. In the two-dimensional code reading and writing module and the position storage module, the two-dimensional code reading and writing module writes the storage location into the two-dimensional code label, and the position storage module sets the location for storing the electronic components as occupied. When the electronic components are shipped out of the warehouse, the two-dimensional code reading and writing module reads the content in the two-dimensional code label and sends the data to processor one. Processor one returns the data of the shipping time to the two-dimensional code reading and writing module, allowing the two-dimensional code reading and writing module to write the shipping time into the two-dimensional code label. At the same time, processor one sends the read storage location data to the position storage module. The position storage module sets the location for storing the electronic components in the inventory to be idle according to the data sent by processor one.

8. The method for intelligent optimization of electronic component inventory according to claim 7, characterized in that: In the second step, when processor 1 processes the information in the QR code label on the electronic component, the data sending module will send the processing result to the data receiving module in real time, and send it to processor 2. The database reads the data, organizes the data, and then displays it through display module 1. At the same time, the data is stored in the local data storage module.

9. The method for intelligent optimization of electronic component inventory according to claim 8, characterized in that: In the third step, the data in the local data storage module is sent to the network module 2 through the network module 1, and the information is stored in the cloud data storage module through the network module 2 to back up the data.

10. The method for intelligent optimization of electronic component inventory according to claim 9, characterized in that: In the fourth step, the staff can adjust the display mode of the data through the input module information, and can also create a new classification method in the database through the input module, process the storage mode of the electronic components, and display it through the display module one. After the staff confirms the information, the data is recorded in the local data storage module through the processor two. When there is new information about electronic components, the local data storage module can be updated through the database. By connecting the network module three with the network module two, the data in the cloud data storage module is sent to the processor three, and then displayed through the display module two. The staff selects the classification method created by the input module through the screening module to view the target information.

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