CN118427253A - Template configuration device and configuration method - Google Patents

Abstract

The template configuration device and template configuration method of the present invention relate to the application field of detection. It is difficult to upload thermal imaging files to a database in the prior art; the template configuration device of the present invention comprises: a configuration unit for displaying the configured ledger template and the associated information of the detection data, and the user can configure the corresponding relationship of the attribute name of the detected body information or the attribute information of the detected body information according to the ledger template; a large number of thermal imaging files can be quickly sorted, solving the problems of the prior art.

Description

Template configuration device and configuration method

Technical Field

The template configuration device and configuration method of the present invention relate to the application field of detection data processing.

Background technique

At present, in order to associate the information of the object under test with the detection data, a task package file with the information of the object under test can be pre-made according to the detection task. For example, a detection device such as a thermal imaging device can read and display the information of the object under test in the task package. Through the selection during shooting, the thermal image file obtained by shooting can contain the information of the object under test. The information of the object under test can include multiple attribute information, such as substation 1-220KV-102 switch-102 rheology-A phase.jpg, and the file name contains multiple attribute information.

The data processing system (such as a database) is used to process the detection files. A large number of files obtained by shooting can be batch processed through the data processing system, including batch uploading, batch analysis, batch diagnosis, etc.

For example, the data processing system has pre-stored ledger information related to the object under test. When the attribute information in "Substation 1-220KV-102 Switch-102 Rheology-Phase A.jpg" meets the matching conditions, such as the keywords "Substation 1, 220KV, 102 Switch, 102 Rheology, Phase A" contained in the ledger information, it means that the file matches the ledger information. The thermal image file can be uploaded (imported) into the data processing system. The upload (import) method is, for example, to associate the file name of the test data with the matching ledger information. Data processing system

At present, the task package files used on-site by the thermal imaging device adopt the EXEAL format in an agreed manner, such as being exported from the data processing system and loaded into the on-site instrument. When the file is tested and stored, a file name that meets the requirements, such as "Substation 1-220KV-102 Switch-102 Flow Rheology-Phase A.jpg", can be generated. The generation link of the task package, the storage link during shooting, and the batch upload or recording link constitute the current implementation method.

With the large-scale application and promotion of this technology, there are some problems:

1) The level and number of ledgers in different industries or professions may be different, which makes it difficult to establish ledgers in the data processing system;

For example, in the electric power industry, the ledger is composed of five levels of information such as "substation, equipment area voltage level, equipment area name, equipment site name, and phase difference"; when the user uses it for line detection, the ledger is composed of five levels of information such as "line name, tower number, outgoing line, component name, and phase difference". Therefore, when uploading data in the same data processing system, it is very difficult to upload data due to different levels. Even if it is uploaded, it is very awkward to use because the attribute names of the ledger are not professional for the line.

When users provide services for hotels and other users, similar problems are encountered in the ledgers such as "hotel name, floor, equipment name, and location";

2) The diversity of task packages makes it difficult to batch process files associated with the measured object information;

A unit's standardized task production, for example, includes information on "substation, equipment area voltage level, equipment area name, equipment name, phase difference". In actual use, it may not be possible to use the standardized task package;

In one example, the user may make a temporary task package for a special inspection of the equipment, which is not so standardized. The order and number of levels may not fully meet the requirements of the specification. For example, the equipment site name is in front and the equipment area name is in the back, "102 rheology-A phase-102 switch; usually there is no agreement or annotation on the type or name of the hierarchical attribute information in the file, so it is difficult to reliably upload the data processing system;

Automatic identification can be used, but it is not easy in practice, because the device area and device name in the file name both contain the words "switch" and "rheological", so how does the computer determine whether the device name is "switch" or "rheological"? Within a certain range, the number may be repeated, which increases the difficulty of computer judgment.

In another example, if there is no prior record data in the data processing system, for example, based on the on-site new equipment: the on-site personnel temporarily create a new task, and the generated file is "102 switch-103 rheology-A phase.JPG", then it will be more difficult to upload such a file; unless the record data is re-produced, but doing so will lead to complexity and more connection work, because the data processing system maintenance personnel may not be able to understand the status of the newly built equipment in a timely manner.

2) Data migration and sharing between different users;

If different user units share big data of detection data, and if the data processing systems of different units have different records, then such sharing will obviously not be easy to achieve the purpose.

For example, for a high-demand refined substation and an ordinary substation, even if the objects to be measured are similar, due to different requirements, the amount of attribute information of the object to be measured in the task package is very different, resulting in problems in data sharing.

The current solution, for example, includes ID numbers in the test object information of the task package and the ledger of the data processing system, so that the device has a unique identity number, but this method requires a unified cloud platform or a unified platform in the industry to assign an ID number to each device in advance. But the problem is that in the ordinary single-computer version of the data processing system, it is impossible to obtain an accurate ID number in time unless the unified platform information is synchronized regularly; but even with a unified large platform, there is a situation where the ID number cannot be updated in time.

Broad recognition within a certain range can be used, but errors are difficult to avoid; currently, even a very small amount of erroneous data may trigger frequent false alarms in big data diagnosis, leading to the failure of triggering emergency repairs.

Therefore, a template configuration device is needed to solve the problems of the prior art.

Summary of the invention

The invention provides a template configuration device and configuration method to solve the problems of the prior art.

To this end, the present invention adopts the following technical solutions:

The template configuration device comprises:

A detection data determination unit, used for determining a plurality of detection data files to be processed;

The configuration unit is used to control the display of the subject information and/or the subject information sample; the subject information is obtained from the respective associated subject information based on the determined detection data files; the subject information sample is a sample obtained from the subject information;

An operation unit, through which a user can configure a ledger template; the configuration unit controls the display of the configured ledger template and the measured body information;

The control unit processes the information of the tested object and/or multiple test data files to be processed according to the configured ledger template.

The template configuration device has a detection unit for obtaining detection data and is a portable detection device.

Another embodiment of the present invention is a template configuration device, comprising:

A configuration unit, used to display the associated information of the detection data; wherein the associated information includes one of the following:

1) Multiple attribute information of the measured object;

2) multiple attribute information of the measured object information and the attribute names corresponding to the attribute information;

The user can configure the ledger template according to the attribute name of the measured object information or the attribute information of the measured object information. A ledger template includes multiple levels of ledger attribute names and/or auxiliary information;

The user can configure the attribute name and level of the ledger template, or the attribute name and level of the ledger template, the measured object information, and the attribute information level of the measured object information accordingly; the configuration includes the adjustment or modification of the level, ledger attribute name, and measured object information attribute name;

The control unit performs one of the following processes:

1)Store the configured ledger template;

2) storing the attribute information of the measured object information with corresponding relationship in a storage medium;

3) storing the attribute information of the object to be tested that is configured with the corresponding relationship in a storage medium; and storing the detection data in association with the attribute information;

4) According to the configured correspondence, re-arrange the attribute information of the measured object information of the configured correspondence, and/or the correspondence with the ledger template, and associate the detection data associated with the measured object information with the associated record;

5) According to the format of the adjusted ledger template, the attribute information of the measured object information of the configuration correspondence is uploaded to the basic database of the data processing system to be saved as a ledger entry, and the attribute name of the ledger template is uploaded as the keyword included in the ledger name;

6) According to the format of the adjusted ledger template, the attribute information of the measured object information configured with the corresponding relationship is saved in the data processing system as a ledger strip, or a storage medium callable by the data processing system; and the detection data associated with the measured object information is associated with the ledger strip and saved;

7) The test data associated with the ledger template before configuration is associated with the measured object information in the adjusted ledger template format according to the corresponding relationship after configuration.

The configuration method of the present invention comprises:

A detection data determination step, used to determine a plurality of detection data files to be processed;

Configuration step, used to control the display of the measured body information and/or the measured body information sample; the measured body information is obtained from the respectively associated measured body information based on the determined detection data files; the measured body information sample is the sample obtained from the measured body information;

Operation steps: the user can configure the ledger template through the operation unit; the configuration unit controls the display of the configured ledger template and the measured body information;

The control step processes the information of the tested object and/or the multiple test data files to be processed according to the configured ledger template.

The template configuration device has a detection unit for obtaining detection data and is a portable detection device.

In a further solution, the user can configure the ledger template according to the attribute name of the measured body information and/or the attribute information of the measured body information; a ledger template includes multiple levels of ledger attribute names and/or auxiliary information;

The user can configure the corresponding relationship between the attribute name and level of the ledger template, or the attribute name and level of the ledger template, the measured object information, and the attribute information level of the measured object information; the configuration includes the adjustment or modification of the level, ledger attribute name, and measured object information attribute name;

A further solution configures the measured object information corresponding to the ledger template, including one of the following methods: generating a new file name, appending new additional information or related information, new index information or index file.

A further solution is a configuration unit, which is used to display the ledger template, and the sample of the measured body information or the attribute information or attribute name of the measured body information in a step-by-step manner.

A further solution has a task generation unit that can generate a new task file with the measured body information configured with the corresponding relationship;

A detection unit, used for acquiring detection data;

The recording unit records the detection data and the detected body information with corresponding relationships configured therein in association.

In a further solution, the measured body information includes one of the following:

Multiple attribute information of the measured object information; multiple attribute information of the measured object information, and attribute names corresponding to the attribute information;

The user can configure the corresponding relationship between the attribute name of the measured object information and/or the attribute information of the measured object information according to the ledger template.

A further solution has a determination unit for determining the subject information to be processed; the subject information to be processed can be determined by selecting the detection data, or selecting the subject information associated with the detection data, or selecting the subject information to be processed, or the index file or index information of the detection data, or the index file or index information of the subject information;

When multiple pieces of measured object information are determined, the configuration unit may only display one of the measured object information and/or its attribute name.

Other aspects and advantages of the present invention will be apparent from the following description.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a block diagram of the electrical structure of a tidying device according to an embodiment.

FIG. 2 is an external view of the finishing device of the embodiment.

FIG. 3 is a diagram of the main interface of the tidying device of the embodiment.

Figure 4 is an example of a configuration interface.

FIG. 5 is an example of a ledger template.

Figure 6 is an example of the configuration interface before and after configuring the "Line Ledger Template".

FIG7 is an example of a main interface diagram of a finishing device;

Figure 8 is an example of the configuration interface before and after configuring the "Hotel Ledger Template".

FIG9 is an example of a main interface diagram of a finishing device;

FIG. 10 is another example of the configuration interface before and after configuration.

Figure 11 shows an example of a ledger before uploading data

Figure 12 is an example of the configuration interface before and after the configuration of the ledger data to be uploaded.

FIG. 13 is a control flow chart showing the first embodiment.

FIG. 14 is a block diagram of the electrical structure of the detection device of Example 2.

Figure 15 is an appearance diagram of the detection device of Example 2.

FIG. 16 is a display interface of the subject information display column before the detection device of Example 2 is configured.

FIG. 17 is a display interface of the test subject information display column after the detection device of Example 2 is configured.

FIG. 18 is a control flow chart showing the second embodiment.

Detailed ways

The embodiments to be described below are for better understanding of the present invention and may be changed into various forms within the scope of the present invention without limiting the scope of the present invention.

The following is an introduction to an embodiment of the present invention. Although the present invention, in the embodiment, exemplifies a collating device 1 for processing detection data (such as detection files), such as a personal computer, a personal digital processing device and other processing devices, it can also be applied to processing devices such as cloud servers, and can also be applied to portable detection devices with detection functions to sort detection files or ledgers. The detection device can be a variety of devices for obtaining detection data, such as ultraviolet, infrared, visible light, acoustics, partial discharge and other functions or a portable detection device with multiple sensors at the same time, which can sort multiple detection files or multiple ledger files.

1 is a block diagram showing an electrical structure of an organizing device 1 of the present invention. The organizing device 1 of this embodiment includes a CPU 2 for overall control, a RAM 3, a display unit 4, a hard disk 5, an auxiliary storage unit 6, an operation unit 7, and a communication unit 8 connected to the CPU 2 via a bus.

Referring to the appearance diagram of the arranging device 1 shown in FIG. 2 , the arranging device 1 may be a computer, a PDA, a dedicated display processing device or a dedicated arranging device 1 .

RAM3 temporarily stores various data generated by CPU2 executing programs.

The display unit 4 is a liquid crystal display, which performs display based on the control of the CPU 2. The display unit 4 can also be other displays connected to the arranging device 1, and the electrical structure of the arranging device 1 itself may not have a display.

The hard disk 5 stores a program for control and various data used in the control. For example, the program of the data processing system is stored, for example, the ledger data is stored; wherein the ledger data is a number of information related to the object to be measured, such as identity information representing the specific attributes of the object to be measured, such as the location of the object to be measured, the type of equipment, the number, etc.; refer to the table shown in FIG3 to illustrate an example of the stored ledger data, which includes several ledger data record strips (hereinafter referred to as ledger strips), each of which contains information representing the object to be measured, including "affiliated unit, location of the object to be measured" "substation, equipment area, equipment name, phase difference" and other information; further, it may include equipment model, ID number, voltage level, importance level, manufacturer, performance and characteristics, past shooting or maintenance history, manufacturing batch or date, service life and other information. Preferably, according to the specific application of the detection data of various detection devices, such as infrared thermal imaging, it may further include information related to the analysis and diagnosis of the object to be measured, and shooting requirements, such as information on the analysis area, analysis mode, diagnosis rules, part angle information and other information. Depending on the application, the ledger data can have various different compositions. In an embodiment, information on the ledger template can also be stored;

Preferably, in the data processing system, the tolerance of the ledger data should be considered. For example, when adapting to matching, the object information corresponding to the same object being matched may have the same meaning but different character information. Taking the current transformer of power equipment type as an example, the information with the same meaning includes: "current transformer", "rheology", "CT", etc.; a variety of equipment types with the same meaning but different character information should be prepared in advance to be suitable for the tolerance of the matching similarity.

In a storage medium such as a hard disk 5, the ledger data related to the object to be tested is stored; it can be stored in the form of various data files, etc., and there can be one or more data files; preferably, the ledger data related to the object to be tested is stored in a form that is easy to call by the data processing system.

The storage medium can be a storage medium in the organizing device 1, such as a non-volatile storage medium such as a hard disk 5, a volatile storage medium such as a RAM 3; it can also be other storage media connected to the organizing device 1 by wire or wirelessly, such as other devices connected to the communication unit 8 by wire or wirelessly, such as other storage devices, thermal imaging devices, computers, etc., or storage media at a network destination.

Auxiliary storage unit 6, such as storage media such as CD-ROM, memory card and related interfaces.

The operation unit 7 is used for the user to issue instructions to the sorting device 1 or input setting information. The CPU 8 executes the corresponding program according to the operation signal of the operation unit 7. The operation unit 7 is composed of, for example, a keyboard, a mouse, etc., but is not limited thereto. A touch screen or a voice component can also be used to implement the operation.

The communication unit 8 is a communication device that connects the organizing device 1 to an external device in accordance with a communication standard such as USB, 1394, network, 4G, or 5G.

The CPU 2 controls the overall operation of the sorting device 1, and the control program stored in the hard disk 5 enables the CPU 2 to perform corresponding processing. For example, the program and data related to the operation of the data processing system are stored;

Various detection devices can obtain different detection data; for example, data frames, analog or digital data (such as numerical data, etc.);

Data frames, such as image frames, such as image data obtained by infrared, ultraviolet, visible light, acoustic, partial discharge and other sensors; the image frames are in the form of, for example, picture files (each file contains one image frame), multi-picture files (for example, each file contains one image frame of multiple different sensors), such as dynamic files (each file contains multiple image frames, such as image video files, image data stream files, etc.), other forms of image frames such as compressed packages, folders, etc.; the image frames may contain AD value data of the image, and may also contain image data in the form of RGB, etc., or compressed data of these, etc.

Detection data; such as analog or digital data obtained by partial discharge, ultraviolet, infrared and other sensors; not necessarily in the form of data frames; when the detection device saves the detection data, it can be in the form of a general or dedicated data file.

The following text takes thermal imaging frames (which may also be replaced by other types of detection data, detection data files, image frames) as an example; the thermal imaging frames may be in the form of, for example, thermal imaging picture files (each file contains one thermal imaging frame), multi-picture thermal imaging files (each file contains multiple thermal imaging frames, or multiple image frames), such as thermal imaging dynamic files (each file contains multiple thermal imaging frames, such as thermal imaging video files, thermal imaging data stream files, etc.), other forms of thermal imaging frames such as compressed packages, folders, etc.; the thermal imaging frames may include AD value data of thermal imaging, image data of infrared thermal imaging, array data of temperature values related to thermal imaging, or compressed data of these, etc.

CPU2 is used as a test object information determination unit to determine the test object information to be processed;

The object information associated with the detection data may be, for example, the identity information of the object such as the location, type, and number of the object; in the present embodiment, the object information includes the location, device name (such as number + device type including rheology, switch, etc.) and other information representing the object. The association between the object information and the detection data may be implemented in a variety of ways. In one example, it may be implemented during filming, such as selecting the object information to be associated with the recorded detection data; in another example, it may be implemented during sorting after filming, such as first keeping or freezing the detection data and then selecting the object information to be associated with the maintained detection data for recording. The specific manner of association may include, for example, storing the object information in a specific area of the detection data file, using the object information as the file name of the detection data file, or associating the object information with the index information of the detection data file.

Generally speaking, the attribute information of the object being measured in the shooting task package is less than the attribute information of the ledger item in the ledger data, but there are also cases where the attribute information is equal to or more than the ledger item.

The subject information can be the subject information associated with the detection data, or it can be the subject information that needs to be imported into the data processing system, such as the subject information ledger in EXEAL format; according to different implementation methods of associating the detection data with the subject information, or different implementation methods of the subject information, the subject information to be processed can be determined by selecting the detection data, or selecting the subject information associated with the detection data, or selecting the subject information to be processed, or the index file or index information of the detection data, or the index file or index information of the subject information; in one example, the determined subject information is used for subsequent configuration of corresponding relationships (at least one of them is used as a sample), recording and other processing.

CPU2 serves as a detection data determination unit, and is used to determine the detection data to be processed;

In a certain implementation mode, in one example, CPU2 is used to select a thermal imaging frame; including selecting a file, a data packet, a storage address containing a thermal imaging frame, or an index file, index data, an address where index information of the thermal imaging frame is stored; the selection method can be selected based on the user's operation, or automatically selected;

For example, a thermal imaging file and/or a collection of thermal imaging files to be processed may be selected from a storage medium such as an auxiliary storage unit 6 or a hard disk 5; a thermal imaging file such as a thermal imaging picture file, a thermal imaging dynamic file; a collection of thermal imaging files such as a folder, a compressed package, etc. Preferably, the selection unit may select one or more thermal imaging frames in different file formats; for example, the selection unit may select one or more thermal imaging picture files, and/or one or more thermal imaging dynamic files; one or more folders may be selected; in addition, thermal imaging frames may be selected from a communication unit 8 connected to an external device by wire or wireless connection, such as an external storage device or a thermal imaging device connected to the sorting device 1 to obtain the thermal imaging picture file to be processed. Among the multiple selected thermal imaging frames, different thermal imaging frames may each be associated with different subject information, or associated with the same subject information, or partially associated with the same subject information and partially associated with different subject information;

Refer to Figure 3 to illustrate the main interface of the organizing device 1, wherein the display interface includes the following components: a ledger keyword hierarchy display area (area 301, representing a tree structure that is easy to operate), a query item operation area 302, a statistical item operation area 303, a report item operation area 304, a ledger bar display area 305, and a display area 306 for information columns such as infrared thermal images and analysis data, shooting parameters, etc.

As shown in the display area 301 in Figure 3, CPU2 serves as the ledger keyword level display control unit, which is used to display a specified number of attribute information of the measured object corresponding to the ledger keyword level; the specified number may include a certain number of ledger data obtained based on the ledger data. It should be noted that the attribute information of the ledger keyword level may correspond to part or all of the attributes of the ledger data; generally, it is less than the number of attributes of the ledger data, and may only include commonly used keyword attribute information. In other examples, the tree may contain a management hierarchy, and the ledger may or may not contain it;

As shown in FIG3 , there are a query item operation area (area 302), a statistics item operation area 303 (area 303), and a report item operation area 304 (area 304). Moreover, the CPU 2, as a query unit, a statistics unit, a report unit, and a comparison and analysis unit, can implement corresponding query, statistics, report, and comparison and analysis functions according to one or more combinations of specified conditions such as "device name", "device type", "analysis result", "detection time", etc.

As shown in the display area 305 of FIG3 , the ledger bar is associated with the thermal image frame, and the information corresponding to the thermal image frame, such as the detection time, the equipment signal, the maintenance record, etc., can be displayed. The user can further select the information corresponding to the thermal image frame from the display area 305. In another embodiment, according to the specified query condition, a specified number of ledger bars that meet the query condition can be displayed.

As shown in the display area 306 of FIG3 , CPU2 serves as a display control unit, which is used to display the infrared thermal images obtained from the thermal imaging frames associated with or related to the ledger line, and/or the analysis results, shooting parameters and other information related to the thermal imaging frames according to the selection of the ledger line; for example, to display the infrared thermal images of the same group of three phases; and can also make a default selection based on the user's selection of the ledger keyword hierarchy information displayed in the display area 301.

CPU2 is used as a configuration unit to control the display of the account templates to be edited and created, and the thermal image frame related information, so that the user can configure the corresponding relationship;

CPU2 is used as a ledger template determination unit to determine the ledger template; the ledger template can be determined automatically or manually, and the automatic determination includes automatic determination according to conditions (such as automatic determination according to keywords in the subject information) or default; the ledger template can be pre-stored in a storage medium, such as a ledger template stored in a data processing system; or the ledger template can be obtained through the communication unit;

The ledger template represents the format composition requirements for the measured object information; in one example, it represents the composition requirements for the attribute information of the measured object information to be processed, such as the number of attribute information, etc.; in one example, it represents the composition requirements for the composition and/or order of the attribute information of the measured object information to be processed, such as the number of attribute information and the order of arrangement, etc. The ledger template can be used to configure the corresponding relationship to standardize the composition of the measured object information;

The ledger template should comply with the format requirements related to the processing; according to different applications, a ledger template can have multiple uses, or multiple ledger templates can be prepared for different uses; different ledger templates can be configured according to different application needs; the ledger template at least includes the format composition of some keywords that are essential for the relevant processing; to adapt to data uploading (importing), exporting, recording, displaying and other processing;

In one example, at least the format of some keywords that are essential for uploading to the data processing system is included; it is applied to the link of importing the test data (such as image files) into the data processing system (or its callable storage medium); in particular, the attribute information of the test object information associated with the test data does not correspond to the original ledger attribute of the data processing system, and can be used to standardize the format of the test object information that is subsequently or immediately imported by configuring the corresponding relationship with the selected ledger template; it can enable the test data to be uploaded to the data processing system or stored in the storage medium; there may be a variety of different ledger templates to meet different requirements;

In one example, the ledger template applied to the ledger data is configured to be applicable to the ledger information required for task detection, or to associate the detection data (such as a data file) with the attribute information of the measured object in a standardized format when storing the detection data; the ledger data in the data processing system is output to different task files (task packages) according to the requirements of the ledger template; so as to be applicable to different detection task requirements;

In one example, in the link of importing detection data packets into a data processing system (or its callable storage medium), when migrating data between different data processing systems, the ledger information and/or detection data packets of the providing end can be configured according to the ledger template of the receiving end; for example, the detection data packets processed from the detection data of other data processing systems can be imported, and by configuring the corresponding relationship with the selected ledger template, the detection data packets processed in other data processing systems can be imported, if the detected body information composition is different from that of the current data processing system, without causing data confusion;

In one example, it is applied to the link of importing ledger data of different formats into a data processing system (or its callable storage medium); the ledger template represents the format requirements of the ledger data; the new ledger data can be imported by configuring the corresponding relationship with the selected ledger template, such as the information composition of the measured body is different from that of the current data processing system, without causing data confusion; the ledger template can have attribute names and/or auxiliary information of keywords at multiple levels, and there can be multiple implementation methods; a (ledger template includes multiple levels of attribute names and/or auxiliary information; in one example, the ledger template includes ledger attribute names of multiple attributes; it does not necessarily have to have a hierarchical order; the attribute information of these attributes can be read for the information composition of the measured body, and subsequent processing can also be accelerated;

In one example, preferably, multiple attribute names of the ledger template can be displayed in hierarchical order; the ledger template shown in FIG. 4 includes a hierarchy 401 and an attribute name 402 .

In one example, the ledger template may be multiple levels of auxiliary information, such as explanation information, etc.; annotation information as shown in FIG5A;

In one example, the ledger template can be based on the attribute information of the actual ledger entry, such as the level of the ledger template combined with the corresponding keywords in the existing ledger entry as sample auxiliary information to represent the ledger template, as shown in FIG5B ; because it contains the measured body information and the hierarchical relationship, the user can understand it, so it can be used as an example of the ledger template;

In one example, multiple attribute name information of the ledger template can be displayed in hierarchical order, or multiple attribute information of the ledger item can be displayed in hierarchical order of the ledger template. The implicit hierarchical information does not necessarily have to be displayed; as shown in FIG5C

In a preferred example, a ledger template is pre-stored, including attribute names and levels, and can be called; preferably, a variety of ledger templates can be prepared, and can be selected for import and call; for example, ledger templates for different professions;

Preferably, the ledger template is obtained based on the selected node; the corresponding node may correspond to the corresponding ledger template; the node may be a certain level in the tree hierarchy, or may be a certain attribute information in the ledger item;

For example, in Figure 3, the ledger template corresponding to substation 1 can be obtained based on the selection of the node substation 1 in the tree structure; in other examples, the corresponding ledger template can also be obtained based on the selection of the attribute name in the ledger data or the attribute information of the ledger item; the selection method, as shown in Figure 3, first select "Substation 1", and then the function bar 307 pops up, from which you can choose to call the template, configure the correspondence, upload data, etc., and you can design a call ledger template; for example, select "Call template" to display the ledger template corresponding to substation 1, for example, select "Configure correspondence", and you can import the ledger template in the interface of the configuration correspondence relationship; for example, select "Upload data", after selecting the data to be uploaded, you can directly enter the configuration interface and automatically select the default ledger template, as shown in Figure 4.

The ledger template can be a global ledger template or a specified range ledger template. For example, if you select "Substation 1" for a global ledger template, the ledger template includes: unit name, substation name, equipment area voltage, equipment area name, equipment name, and phase difference; or it can only include a ledger template with a node as the starting point (first level), for example; if you select "Substation 1", the ledger template only includes: substation name, equipment area voltage, equipment area name, equipment name, and phase difference;

In one example, the attribute name and level of the new ledger template can also be created based on the attribute information of the measured object.

In one example, the user can also modify the existing ledger template or create a new ledger template according to the application situation or requirements;

CPU2 is used to parse the detected object information associated with the detection data, or to identify and obtain the detected object information (such as identifying the detected object in the detection data image to obtain the detected object information, identifying the detected object information obtained by barcode, etc.); the detection data, such as a data file, a picture file, a dynamic file, one or more frames in a dynamic file, etc., one or more thereof;

The measured object information associated with the detection data can be obtained through the information related to the detection data. There are many ways to associate the measured object information with the detection data, etc. For example, for a detection file, such as an image file, the measured object information can be stored in the file name, the storage area in the image, the index file of the image file, etc.; for a dynamic image file, the measured object information can be stored in the file name, the storage area of the image frame, the index area of the frame information, the index file of the dynamic image file, etc.

In one example, the information of the object being tested is obtained by parsing the file name of the image file;

In one example, the subject information is obtained by parsing from a specific storage area of the image file;

In one example, the subject information is obtained by parsing from an index file associated with an image file; for example, a plurality of thermal imaging image files and their index files are stored in a memory card, and the index file contains the index information of the thermal imaging frame and the subject information corresponding to the thermal imaging frame; the subject information and the file name of the thermal imaging image file corresponding to the subject information can be obtained by parsing the index file, thereby obtaining the subject information corresponding to each of the plurality of thermal imaging image files.

In one example, the measured object information is obtained by parsing the file name of a dynamic file, which usually means that all frames of the dynamic file are associated with the measured object information;

In one example, the measured object information is obtained by parsing from a specific storage area of a dynamic file; for example, the measured object information corresponding to each frame is obtained by parsing from a specific storage area of the frame;

In one example, the measured object information is obtained by parsing from the index information or index file associated with the dynamic file. For example, the index file contains multiple measured object information, the frame timing or storage address of the thermal image frame corresponding to each measured object information in the dynamic file, such as the frame number; the index file may contain one or more measured object information corresponding to one or more thermal image frames. The measured object information corresponding to the thermal image frame can be obtained by parsing;

The information related to the thermal imaging frame is not limited to being stored in the same storage medium as the thermal imaging frame. The subject information does not necessarily need to be obtained from the thermal imaging frame, but the subject information corresponding to the thermal imaging frame can be obtained by parsing the index file; for example, the information related to the thermal imaging frame, such as the index file, contains the storage medium and storage address related information of the corresponding thermal imaging frame. If the user selects or automatically reads the index file from the storage medium, such as the index file obtained by connecting the communication unit 8 to an external device, it includes connecting to an external storage device or a thermal imaging device to obtain the index file; and the thermal imaging frame is stored in an external storage medium. After the configuration processing of the correspondence between the subject information in the index file and the ledger template is completed, the sorting device obtains the thermal imaging frame corresponding to the selected subject information from the storage medium of the external device, and associates the record with the ledger entry obtained according to the correspondence between the subject information and the ledger template.

In one example, the thermal image frame associated information includes one of the following:

1) Multiple attribute information of the associated measured object information;

In one example, the file name of the thermal image file contains multiple attribute information;

In one example, a specific storage area of a thermal image frame includes multiple attribute information;

CPU2 is used as a configuration unit to control the display of the determined ledger template and the sample of the measured body information; or, the configuration unit is used to control the display of the determined ledger template and the measured body information, wherein the measured body information includes a plurality of attribute information and/or corresponding attribute names;

Among them, the subject information sample is the subject information obtained based on the determined detection data to be processed, which is obtained from the subject information and can be automatically or manually selected; there can be one or more samples; in another example, multiple subject information can also be displayed for configuring corresponding relationships, and samples are not necessarily required.

In one example, there are also multiple different pieces of measured body information associated with multiple detection data (such as thermal imaging files); one of them can be displayed because when the user selects the detection data to be processed (such as thermal imaging files), he usually selects detection data (such as thermal imaging files) with the same attribute information format as the measured body information; the corresponding relationship of the sample is configured, which can be understood as the corresponding relationship with the ledger template is also configured for other measured body information. For example, when multiple detection data (such as thermal imaging files) are selected at one time, the associated information of at least one detection data (such as thermal imaging files) can be displayed as a sample, which can be automatically applied to all other selected detection data according to its corresponding relationship with the ledger template. Therefore, the associated information of one of the selected multiple detection data can be obtained. In other examples, the associated information of the selected multiple thermal imaging frames can also be displayed in sequence, and the corresponding relationship of the ledger template can be configured separately, or the corresponding relationship can be reconfigured according to the previous configuration, or after the verification.

For example, when a thermal imaging frame that mixes multiple different formats of measured object information is selected, in order to distinguish the measured object information in different formats, it can also be designed to detect the format of the attribute information of the measured object information, and provide a reconfirmation of the correspondence between the measured object information in different formats and the ledger template; or an implementation method for reconfirming the correspondence between each measured object information and the ledger template;

For example, when test data that mixes multiple different formats to constitute the measured body information is selected, or when the measured body information is mixed with multiple different formats, in order to distinguish the measured body information composed of different formats, it can also be designed to detect the format composition of the measured body information, and provide separate configuration of the correspondence between the measured body information in different formats and the ledger template, or reconfirmation after the configuration of the correspondence; or an implementation method for reconfirming the correspondence between each measured body information and the ledger template; measured body information in different formats, for example, the number of attribute information in the measured body information is different from the requirements of the ledger template, or some attribute information may not correspond to the attribute name of the ledger template, to improve accuracy;

When the user selects multiple thermal imaging frames at one time, even if these thermal imaging frames are usually associated with different object information, they can be automatically applied to all selected thermal imaging frames or object information to be processed according to the correspondence between one of them (sample) and the ledger template; or, according to the correspondence between the samples, they can be displayed one by one during configuration for the user to reconfirm; if the number of attribute information or the number of levels of object information associated with multiple thermal imaging frames is different, a prompt can also pop up to see whether to reconfirm or store it in another area, such as another folder, for subsequent processing.

According to the correspondence relationship of the sample configuration, it can be applied to other subject information to be processed (which can be part or all of it); taking the ledger template (there are 5 attribute names) and the subject information in Figure 17 as an example, it is assumed that there are 5 attribute information and 3 attribute information in the determined subject information to be processed; the subject information (or sample) with 5 attribute information and the subject information (or sample) with 3 attribute information can be configured with the ledger template in a corresponding relationship respectively; for example, the user is notified that there are two types of subject information in different formats, so that the user can choose to configure one of them, or configure both together; or, when the sample of the subject information is 5 attribute information, after the corresponding relationship is configured, it can be applied to all other subject information, or it can be applied only to the subject information with 5 attribute information.

Preferably, after configuring the correspondence of the sample, it is applied to other subject information. For example, other subject information is arranged and displayed according to the correspondence so that the user can confirm the correctness of the correspondence. For example, by clicking "Confirm" to confirm the correspondence of the currently displayed subject information, a "Switch subject information" button can be added to the interface so that the user can switch to other subject information display.

2) Multiple attribute information of the associated measured object information and the attribute names corresponding to the attribute information; for example, the detection data is associated with the attribute information of the measured object information and the attribute names corresponding to the attribute information; then the attribute information and the attribute names corresponding to the attribute information can be obtained; at this time, the sample of the measured object information can be the attribute information or the attribute name corresponding to the attribute information;

Among them, the hierarchy or display order of the attribute information of the measured object information can be obtained in multiple ways;

In one example, it can be determined according to a sorting rule, such as by the sorting in the naming, or by the sorting in the attribute information storage area;

In another example, the hierarchical information contained or implied in the measured body information can be in reverse or forward order;

The display and correspondence configuration of the measured object information and the ledger template can be implemented in a variety of ways: in one example, as shown in FIG4 , the configuration interface includes a ledger template display bar 41 and a measured object information attribute information display bar 42 (the measured object information attribute information display bar, hereinafter referred to as the attribute information display bar); it is usually suitable for the organization of the detection files obtained by the detection device (the detection files are usually not associated with the attribute names of the measured object information). The ledger template display bar 41 displays the hierarchy 401 and attribute name 402 of the ledger template; the attribute information display bar 42 displays the hierarchy 403 and attribute information 404 of the measured object information.

As shown in FIG12 , the configuration interface includes a ledger template display column 41, a test object information attribute information display column 42, and a test object information attribute name display column 43 (the test object information attribute name display column, hereinafter referred to as the attribute name display column); the attribute name display column 43 displays the attribute name of the test object information and the hierarchy of the attribute name. It is usually applicable to data with test object information and attribute names, such as ledger data that need to be configured, and the migration of data packets with detection files between data processing systems.

The level or order of the attribute information in the measured object information can be determined according to a specific sorting rule or a default sorting. For the file "Substation 1-220KV-102 Switch-102 Rheology-Phase A.JP G", preferably, for example, the sorting method in the file name is "Substation 1, 220KV, 102 Switch, 102 Rheology, Phase A"; the user can choose a customary sorting method; for example, sorting "102 Switch, 102 Rheology, 220KV, Phase A, Substation 1" according to numbers combined with letters or Chinese Pinyin letters, for example, sorting according to the mark of the storage area of the attribute information in the file, etc.

An operation unit, through which the user can configure the corresponding relationship between the ledger template and the measured body information sample or the measured body information;

For example, the user can adjust the attribute name and level of the ledger template, or configure the corresponding relationship between the attribute name and level of the measured object information or the attribute information and level of the measured object information; make the attribute information of the measured object information partially or completely correspond to the attribute name and level of the ledger template; adjust the correspondence;

Specifically, as shown in FIG10 , in one example, the attribute information of the ledger template and the measured object information do not correspond, as shown in FIG10A ; the user adds the attribute name “model” to the ledger template according to the attribute information, as shown in FIG10B ; and then adjusts the up and down arrow keys of the measured object information attribute column to make corresponding adjustments, and obtains the corresponding relationship shown in FIG10C ; for example, the adjustment can also be made by dragging the mouse;

In another example, when adjusting the corresponding relationship, the ledger template display column, attribute information display column, and attribute name display column can also be deleted, cleared, edited, and modified. The user can manually configure the corresponding relationship based on his or her own understanding of the object being tested or the recording paper during the test; among them, all manual configuration or partial manual configuration is possible. As shown in Figure 4, the corresponding relationship is automatically configured for the substation, equipment area voltage, phase difference, etc. that are easy to configure by computer, while the equipment area name, equipment name, etc. that are difficult for computer to recognize are manually configured;

As shown in Figure 10, in one example, corresponding to the 1st and 2nd levels of the ledger template, the 1st and 2nd level attribute information of the measured object information column is empty, so the 1st and 2nd levels of the ledger template display column, and the 1st and 2nd levels of the attribute information can be deleted; or the 1st and 2nd levels of the ledger template display column can be cleared; in one example, the attribute name or the content in the attribute information can be modified, or a level can be deleted or inserted, etc.

It should be noted that files containing information about the object being tested obtained by the detection device are generally not accompanied by attribute names, hierarchies or orders; while detection file data packets downloaded from the data processing system are usually associated with attribute name and hierarchy information; and when new information about the object being tested is uploaded, it is usually accompanied by the attribute name and hierarchy of the object being tested information as shown in Figure 10, such as ledger information downloaded from the production management system.

As shown in Figure 6, in one example, it is assumed that the uploaded inspection files are multiple thermal image files of line 1, including "Line 1 - Tower No. 5 - Large Side - Wire Clamp - Phase A.JPG" as a configuration sample, which is completely incompatible with the original ledger template "Substation Name, Equipment Area Voltage, Equipment Area Name, Equipment Name, Phase"; therefore, the user creates a new ledger template "Line Name, Tower Number, Outgoing Line, Component Name, Phase" to achieve a one-to-one correspondence between the attribute information and the hierarchy of the measured object information; to facilitate user understanding, when displaying the attribute name of the ledger template, related auxiliary information can be further displayed or edited.

As shown in FIG7 , an example of an interface for uploading the configured ledger template and the thermal image file of the measured object information detected by line 1 to the data processing system;

As shown in FIG8 ; in one example, it is assumed that multiple detection files of Hotel 1 to be processed, including “Hotel 1-10th Floor-Switch Cabinet 1-Upper.JPG” as a configuration sample, are completely incompatible with the original ledger template “Substation Name, Equipment Area Voltage, Equipment Area Name, Equipment Name, Phase”; therefore, the user creates a new ledger template “Unit, Floor, Equipment Name, Part” to achieve a one-to-one correspondence between the attribute information and the level of the measured object information; it should be noted that since the hotel 1 served is not a subordinate of unit 1, in the example, it can be mounted under the main node and be at the same level as unit 1;

As shown in FIG9 , an example of an interface for uploading the configured ledger template and the test file of the test object information detected by Hotel 1 to the data processing system;

As shown in Figure 10; in one example, assuming that the test file to be processed is a special inspection file based on the model, including "KG/2201-102 Rheology-Phase A-102 Switch.JPG", the ledger template adds a model level, and after configuration, the attribute information of the measured object information "102 Switch, 102 Rheology, KG/2201, Phase A" may partially correspond to the level of the ledger template, and the corresponding part can be made into a corresponding relationship, and the rest can be left blank or automatically filled; the attribute information of the measured object information may be less than the level of the ledger template. After adjustment according to the ledger template, the attribute information and/or level part of the measured object information can be It is assumed to be empty to achieve the corresponding relationship; in one example, it can also be automatically filled, merged or overwritten according to the previous ledger information. Assuming that the data is uploaded based on substation 1, the original ledger entry has "220KV, 102 switch, 102 rheology, A phase", and the configured "102 switch, 102 rheology, KG/2201, A phase" can be automatically filled with "220KV, 102 switch, 103 rheology, KG/2201, A phase" and mounted under substation 1, where the equipment area voltage comes from the equipment area voltage 220KV corresponding to the same equipment area name "102 switch" in the previous ledger entry. "102 switch, 103 rheology, KG/2201, A phase" can be mapped to "substation name, equipment area voltage, equipment area name, equipment name, phase", and after configuration, it can be "substation 1, 220KV, 102 switch, 103 rheology, KG/2201, A phase", and saved as a ledger entry. In one example, as shown in the ledger data in Figure 11, the attribute information of the measured object information may have more levels than the original ledger template, and also carry attribute name and other information; as shown in Figure 12; the corresponding relationship can be achieved based on the modified ledger template; in other examples, the attribute information and/or levels of the measured object information can also be merged or skipped,

It should be noted that when the corresponding ledger template contains more information about the measured object than the ledger template, it can be omitted or deleted during configuration to meet the format requirements of the ledger template. Generally, information that exceeds the ledger template can be saved with the file or added to the ledger data later.

When the information of the measured object corresponding to the ledger template is less than the ledger template, it can be left blank, or automatically searched and filled in the ledger data according to the ledger template combined with the keywords of the measured object information.

The ledger template or data processing system can also be configured with a synonym library of attribute names. For example, the equipment area name and interval name in Figure 12 have the same meaning in a certain application field. When configuring, they can be automatically or manually classified into synonyms to facilitate subsequent automatic recognition, and they do not necessarily have to be manually configured. However, since it is not easy for users in different applications to unify their terms, the synonym library can be gradually improved through the configuration of the corresponding relationship of the ledger template.

During configuration, the above examples are the ledger template, attribute information and level of the measured object information, which are displayed in comparison; for example, some or all attributes of the two are displayed in comparison step by step; preferably, all attribute information is displayed in comparison together; but it is not limited to being displayed together. In other examples, they can also be displayed in sequence; for example, an attribute information of the measured object information is displayed, and then a corresponding attribute name, auxiliary information, level, etc. are selected from the options available in the ledger template, and the next attribute information of the measured object information is displayed after confirmation, and a corresponding attribute name, auxiliary information, level, etc. in the options are selected again. Such configuration can also achieve the configuration of the corresponding relationship.

An operation unit, through which the user can configure the ledger template; the configuration unit controls the display of the configured ledger template and the measured body information; the user can configure the corresponding relationship between the ledger template and the measured body information and/or the measured body information sample;

When the user confirms that the configuration is complete, he can click "Save New Template" to save the newly configured ledger template;

Click the "Automatic Match Upload" button to automatically match and upload the test data. If the ledger template is configured according to the measured object information and the corresponding relationship is obtained, but it does not involve the adjustment of the measured object information, you can press this button;

Or click the "Upload by Adjustment" button to confirm the configured ledger template and the corresponding relationship of the configuration, and upload it;

In the above interface, buttons such as "Confirm Correspondence" can also be added to confirm the configured correspondence;

As the control unit, CPU2 can perform one of the following processes:

1) Storing the configured ledger template, and/or uploading the ledger template to the data processing system, or sending it through the communication unit;

2) storing the measured body information with corresponding relationships in a storage medium or sending it through a communication unit;

3) Associating the measured body information configured with the corresponding relationship with the detection data and/or processed data corresponding to or associated with the measured body information before configuration, storing it in a storage medium, or sending it through a communication unit;

4) According to the configured correspondence, the attribute information of the measured object information with the configured correspondence is rearranged, and/or the correspondence with the ledger template is associated with the detection data and/or processed data associated with the measured object information before the configuration correspondence, and stored in a storage medium, or sent through a communication unit;

5) According to the format of the configured ledger template, the measured body information with the configured corresponding relationship or the attribute information with the configured corresponding relationship in the measured body information is uploaded to the basic database of the data processing system to be saved as a ledger entry, and the attribute name of the ledger template is uploaded as the keyword included in the ledger name;

6) According to the format of the configured ledger template, the attribute information of the measured object information configured with the corresponding relationship is saved to the data processing system as a ledger strip, or a storage medium callable by the data processing system; and the detection data associated with the measured object information before the corresponding relationship is configured is associated with the ledger strip, stored in the storage medium, or sent through the communication unit;

7) The test data associated with the ledger template before configuration is associated with the measured object information in the adjusted ledger template format according to the corresponding relationship after configuration;

8) According to the correspondence between the measured object information and/or sample and the ledger template configuration, it is applied to other measured object information to be processed.

There are many ways to configure the measured body information corresponding to the ledger template, including generating a new file name, appending new additional information or associated information, new index information or index file; to meet the requirements of the corresponding relationship of the ledger template, or in subsequent processing, by reading this information, to obtain the measured body information that meets the corresponding relationship of the ledger template, or to read the attribute information according to the corresponding relationship;

In one example, information with a recognizable ledger template is attached, such as information about the composition of the ledger template and the corresponding relationship; in one example, the composition of the sample of the subject information is attached, and the composition information of the sample after the corresponding relationship is configured; in one example, the corresponding relationship is marked, such as the attribute name of the ledger template is attached and corresponds to the attribute information of the subject information; in a preferred example, the subject information is rearranged according to the corresponding relationship, such as adjusting the order and quantity of the attribute information of the subject information in the file name to generate a new file name; in a preferred example, according to the corresponding relationship, the attribute information in the subject information is read and rearranged according to the corresponding relationship. Generate the measured object information and store the measured object information in the index information or index file of the detection data; note that the measured object information configured with the corresponding relationship with the ledger template does not necessarily include all the attribute information of the measured object information before the corresponding relationship is configured, and can be partial (such as part of the attribute information configured with the corresponding relationship) or all (such as all the attribute information is configured with the corresponding relationship; such as part of the attribute information is configured with the corresponding relationship, while the other part of the attribute information does not necessarily have the corresponding relationship); in the recording, uploading and other processing, the measured object information involved may be all the attribute information or part of the attribute information.

In one example, when a new ledger template is configured, such as editing a ledger template or creating a new ledger template, the newly configured ledger template needs to be recorded in a storage medium; for example, it is saved in a storage medium callable by a data processing system, preferably, it is associated and stored in a certain node, and the mounted node is associated and recorded with the ledger template; for example, it is mounted under a certain node of the ledger data, preferably, it is mounted under the first-level node in the corresponding ledger template in the ledger;

In one example, according to the format of the ledger template and the configured corresponding relationship, the corresponding attribute information in the measured body information is recorded in the storage medium; for example, the attribute information that meets the corresponding relationship is stored in the storage medium that can be called by the data processing system;

In one example, it is saved in the ledger database of the data processing system as a ledger entry; taking the measured object information of Figure 6 as an example, according to the corresponding relationship after configuration as shown in Figure 6, "Line 1, Tower 5, Large Side, Wire Clamp, Phase A" corresponds to the ledger template "Line Name, Tower Number, Outgoing Line, Component Name, Phase" and is saved as a ledger entry. In one example, it is stored in a specific storage area and called when needed;

Among them, for the empty information, a variety of processing methods can be adopted. In one example, taking the measured object information of Figure 10 as an example, the level continues to remain empty; the attribute name and level of the ledger template corresponding to "102 switch, 102 rheology, KG/2201, A phase" of "substation name, equipment area voltage, equipment area name, equipment name, model, phase" are configured as "empty, empty, 102 switch, 102 rheology, KG/2201, A phase", and saved as a ledger item. If it is assumed that data upload is based on substation 1, the configured "102 switch, 102 rheology, KG/2201, A phase" can be mounted under substation 1, where the equipment area voltage is default and configured as "substation 1, empty, 102 switch, 102 rheology, KG/2201, A phase".

In one example, the previous ledger information is merged or overwritten. Taking the measured object information in Figure 10 as an example, assuming that data is uploaded based on substation 1, and assuming that the original ledger entry has "220KV, 102 switches, 102 rheology, A phase", the configured "102 switches, 102 rheology, KG/2201, A phase" can be automatically filled with "220KV, 102 switches, 102 rheology, KG/2201, A phase" and mounted under substation 1, where the equipment area voltage comes from the equipment area voltage 220KV corresponding to the same equipment area name "102 switch" in the previous ledger entry. "102 switch, 102 rheology, KG/2201, A phase" can be matched to "substation name, equipment area voltage, equipment area name, equipment name, phase", and after configuration, it can be "substation 1, 220KV, 102 switch, 103 rheology, KG/2201, A phase", and saved as a ledger entry. 2) According to the format of the ledger template and the corresponding relationship after configuration, the attribute information of the corresponding measured object information is stored in a storage medium that can be called (such as a data processing system); and the selected detection data such as thermal imaging frames, the attribute information read from the measured object information associated with the detection data, or the ledger obtained based on the read attribute information, or the correspondence between the ledger template and the attribute information of the measured object information, one or more of them are associated and saved.

In one example, according to the corresponding relationship configured in the ledger template, the attribute information of the measured object information configured with the corresponding relationship is stored in the storage medium; and the detection data is associated with the attribute information and saved;

Taking the thermal image frame of the measured body information in FIG10 as an example, the ledger entry obtained by reading the configuration correspondence relationship is associated with the thermal image frame and saved to a storage medium to facilitate the call of a data processing system, etc. The stored data can be provided for data call by various data processing systems.

In one example, the measured body information associated with the selected data frame is rearranged according to the configuration information and recorded in association with the data frame.

For example, rearrange “KG/2201, 103 rheology-phase A-102 switch.JPG” to “102 switch-103 rheology-KG/2201-phase A.JPG”.

CPU2 acts as a recording unit. When the user selects multiple thermal imaging frames at one time, even if these thermal imaging frames are usually associated with different information of the subject, they can be automatically applied to all selected thermal imaging frames according to the correspondence between one of them (sample) and the ledger template; or, according to the correspondence between the samples, they can be displayed one by one during configuration for the user to reconfirm; if the number of levels of the subject information associated with multiple thermal imaging frames is different, a prompt can also pop up to see whether to reconfirm or store them in another area, such as another folder, for subsequent processing.

In other implementations, the selected multiple thermal image frames are configured with attribute information of corresponding relationships according to the ledger template, and some of them may have matching ledger items in the data processing system, while some of them do not have the same or matching ledger items in the data processing system; for example, assuming that the "substation 1, 220KV, 102 switches, 102 rheology, phase A" obtained after configuration matches the existing ledger item, while the "substation 1, 220KV, 102 switches, 103 rheology, phase A" obtained after configuration is a newly built device, and there is no matching ledger item in the data processing system;

Then, CPU2 acts as a comparison unit: according to the format (attribute level) of the ledger template, it reads the attribute information and level of the corresponding measured object information, and compares it with the ledger entry of the data processing system; if the matching conditions of the two are met, the thermal image frame corresponding to "substation 1, 220KV, 102 switches, 102 rheology, phase A" is associated and saved with the matched ledger entry attribute information; the matching conditions may correspond to some or all of the keywords; such as "substation 1, 220KV, 102 switches, 102 rheology, phase A" obtained after configuration, the same attribute information may not be uploaded, and only different parts such as detection time and other attribute information may be uploaded; but all of them may also be uploaded.

If the matching conditions are not met, it means that the two do not match, and the record is made and the following processing is performed:

In one example, the attribute information of the corresponding measured object information is recorded to a storage medium according to the format (attribute level) of the ledger template; for example, it is read and saved to the storage medium, and uploaded to the ledger database of the data processing system to be saved as ledger data (newly added ledger entry);

In one example, attribute information of corresponding measured object information is saved to a storage medium according to the format of a ledger template; for example, it is saved to a storage medium callable by a data processing system as ledger data; and the thermal imaging data is associated with entries of the corresponding ledger data and saved, wherein the ledger entry is obtained after configuration based on the measured object information associated with the thermal imaging data.

In one example, the associated information of the selected thermal imaging frame is reorganized according to the configuration information to perform the measured body information. The information is stored in a storage medium, such as a specified storage area (an example of the first storage unit) of the hard disk 5. In another embodiment, the thermal imaging frame is subjected to specific processing, such as the analysis result obtained by the analysis processing is associated with the ledger data corresponding to the thermal imaging frame; in another embodiment, the thermal imaging frame is subjected to specific processing, such as the thermal imaging AD data obtained by decompression and the like, and is associated with the corresponding ledger data.

Preferably, the thermal imaging frames of the object information that does not correspond to the ledger template are recorded in another specified storage area (an instance of the second storage unit) of the hard disk 5; this makes it convenient for the user to make corresponding configurations for the object information associated with the thermal imaging frames. Preferably, the uncorresponding thermal imaging frames are stored in a specific folder, such as a specific folder under the uploading node.

The first storage unit and the second storage unit mentioned above may also be different storage media. For example, the first storage unit is the hard disk 5, and the second storage unit is a storage medium of the auxiliary storage unit such as a memory card.

Among them, according to the ledger template, the measured object information recorded after the attribute information is adjusted can replace the previous measured object information, or retain the previous measured object information.

CPU2 is used as an analysis unit to analyze the thermal image frame, and the subject information associated with the thermal image frame has a corresponding relationship with the ledger template configuration; preferably, the thermal image frame is analyzed according to the analysis mode associated with the keyword of the ledger entry according to the corresponding ledger information; and the recording unit is used to associate and record the thermal image frame with the corresponding ledger entry, the analysis result of the thermal image frame, and the keyword of the ledger entry. This is convenient for the subsequent application of infrared image browsing, query, statistics, reporting and other functions.

Example 1

Embodiment 1 is described with reference to FIG8 , FIG9 , and FIG11 ;

Taking the daily operation and maintenance test of the substation conducted by the power company as an application scenario, the maintenance service for key user units in the jurisdiction is newly added. After the task package of Hotel 1 is temporarily prepared and the detection service is carried out, the obtained detection files need to be sorted and uploaded to the processing system. When the processing system is processed, it is designed with the following processing rules:

1) If the attribute names and levels of the ledger template and the measured object information can all correspond one to one; or if the attribute names and levels of the measured object information can all find corresponding items in the ledger template, the user is prompted to choose automatic processing (such as automatically uploading according to the ledger template);

2) In other cases, the user will be prompted to enter the configuration interface to configure and confirm;

As shown in Figure 8, multiple detection files of Hotel 1 to be processed, including "Hotel 1-10th Floor-Switch Cabinet 1-Upper.JPG" as a configuration sample, are completely incompatible with the original ledger template "Substation Name, Equipment Area Voltage, Equipment Area Name, Equipment Name, Phase"; therefore, the user creates a new ledger template "Unit, Floor, Equipment Name, Part" to achieve a one-to-one correspondence between the attribute information and the level of the measured object information; it should be noted that since the hotel 1 served is not a subordinate of unit 1, in the example, it can be mounted under the main node and be at the same level as unit 1;

As shown in FIG9 , an example of an interface for uploading the configured ledger template and the test file of the test object information detected by Hotel 1 to the processing system;

The control flow of the first embodiment is described with reference to FIG. 11 .

After the detection device 1 is started, the CPU 2 implements its control and displays the corresponding interface, as shown in FIG. 3 ;

Step A01, selecting a thermal image frame to be processed, or selecting the measured object information associated with the thermal image frame;

The user can determine the thermal imaging frame to be processed by selecting multiple image files stored in the auxiliary storage unit 6 or the hard disk 5, or by selecting a folder containing the above files, and the infrared thermal image obtained by the thermal imaging frame may not be displayed.

In other examples, the communication unit 8 can be connected to an external device to select thermal image frames, including connecting to an external storage device or a thermal imaging device to obtain thermal image frames to be processed. In one embodiment, a specified number of thermal image frames are automatically selected from a storage medium without displaying a processing interface, for example, the thermal image files in the storage card of the auxiliary storage unit 6 are automatically selected. The user can select one or more thermal image files; in addition, a specified number of thermal image files in a specified storage medium can also be automatically selected.

Preferably, the node "Substation 1" in FIG. 3 or the attribute information in a certain ledger item can be selected as the mounting point, and then the detection file to be uploaded, such as a thermal image file, can be selected;

Step A02: Configure the corresponding relationship according to the ledger template;

Assuming that the node "Substation 1" is selected to obtain the ledger template, the ledger template and the measured object information obtained by the selected thermal imaging frame can be displayed together. The user feels that the ledger template and the measured object information associated with the detection file cannot correspond, so the template is re-edited, or the hierarchy of the ledger template or attribute information is adjusted to achieve a corresponding relationship; as shown in Figure 8.

In another example, the processing system can also determine whether the attribute names of the ledger template and the detection file have a specific correspondence. If they meet the specific correspondence, they are automatically matched and uploaded; if they do not meet the specific correspondence, the user is automatically prompted to enter the configuration interface for configuration and confirmation.

In short, the user can enter the configuration interface when he feels that the ledger template and the information of the object to be processed do not correspond and needs to configure the corresponding relationship. The processing system can also determine whether the ledger template and the information of the object to be processed or its attribute name have a specific corresponding relationship. If they meet the specific corresponding relationship, they are automatically matched and uploaded. If they do not meet the specific corresponding relationship, the user is automatically prompted to enter the configuration interface for configuration and confirmation.

In this embodiment, when multiple thermal imaging image files are selected, the selected multiple thermal imaging image files can be analyzed, configured, and processed in sequence; preferably, CPU2 selects one of the multiple thermal imaging image files as the thermal imaging frame to be processed, and then applies it to other thermal imaging image files according to the corresponding relationship configured according to the ledger template.

As shown in Figures 6-8, when multiple thermal imaging image files are selected, if there are multiple different levels of subject information, preferably, CPU2 selects one of the multiple thermal imaging image files with the same level format as the subject information sample to be processed, and then automatically or according to user instructions, applies the corresponding relationship configured according to the ledger template to other subject information or thermal imaging image files with the same level format; then, the subject information of other different levels, or their thermal imaging frames, are configured and processed in turn.

Step A03, recording unit, performing recording processing;

According to the configured corresponding relationship, the selected thermal image frame and the attribute information of the measured object that meets the corresponding relationship are associated and recorded, or uploaded to the data processing system;

For example, the thermal imaging file is stored in a specified area of the hard disk 5, and the file name or index information of the thermal imaging file is associated with the ledger entry of the read attribute information, such as generating a new record in the data processing system or generating data of a specific structure in a data file.

As described above, by configuring the thermal imaging frame-associated object information through the ledger template, it is convenient to upload the thermal imaging frame and the ledger entries that meet the requirements of the ledger template, which solves the difficulties in archiving data of various formats of object information in the prior art, and greatly saves manual workload; for example, it is convenient to upload batches of thermal imaging frames to the data processing system, achieving the beneficial effect of batch sorting.

For the organization of thermal imaging dynamic files, the same processing as the above steps can be performed according to the object information associated with the thermal imaging frames in the thermal imaging dynamic file; when some thermal imaging frames are associated with the object information, the object information respectively associated with the partial thermal imaging frames can be parsed, and the corresponding relationship can be configured with the ledger template, and the thermal imaging frames can be associated with the ledger entries obtained after the configuration for record; for example, thermal imaging frames are extracted from the thermal imaging dynamic file and associated with the corresponding ledger entries; for example, the storage address of the thermal imaging dynamic file, the file name of the thermal imaging dynamic file, and the frame timing of the thermal imaging frame (such as the frame number in the thermal imaging dynamic file) are associated with the corresponding ledger entry for record; for example, the file name of the thermal imaging dynamic file (such as all frames of the thermal imaging dynamic file are associated with the same object information) is associated with the corresponding ledger entry. Furthermore, in one embodiment, the data can be processed sequentially, for example, sequentially according to the frame timing; in another embodiment, the thermal imaging dynamic file is associated with an index file, which contains the subject information associated with the thermal imaging frame and the frame timing information of the thermal imaging frame in the thermal imaging dynamic file; the subject information associated with the thermal imaging frame can also be obtained through the index file, and subsequent corresponding relationship configuration and record processing can be performed.

This embodiment is not limited to processing devices, but can also be applied to portable detection devices, and can also be applied to various mounted detection devices (such as robots, drones, etc.). Other modifications and changes can be made to the disclosed embodiments without departing from the concept of the present invention, and these modifications included in the scope of the claims should be considered as part of the present invention. In short, Example 1 is a preferred embodiment. Of course, any product implementing the embodiments of the present invention does not necessarily need to achieve all of the advantages described above at the same time.

Example 2

9-16 , the second embodiment is described, taking a portable thermal imaging device 13 with a photographing function as an example of a detection device.

Taking the daily inspection of substations by the power company, the inspection of some models of equipment in substation 1 is added as an example as an application scenario.

In this example, the detection device includes:

The object information obtaining unit is used to obtain the object information, wherein the object information includes a plurality of attribute information, or a plurality of attribute information and corresponding attribute names and levels;

The configuration section is used to configure the ledger template, the attributes and levels of the measured object information, and display them; the user can configure the corresponding relationship of the measured object information according to the ledger template;

The recording unit stores the attribute information of the corresponding measured object information in the storage medium according to the format of the ledger template and the corresponding relationship after configuration.

For portable detection devices, the configuration of the correspondence between the ledger template and the detected object information can be performed on the detected object information contained in the task package before the detection;

In another example, the corresponding relationship between the measured body information associated with the recorded thermal image file can also be configured after shooting, so as to meet the format requirements of uploading through the communication unit or subsequently uploading to a specific data processing system. The electrical structure of the detection device of Example 2 is shown in Figure 14. After removing the sensor for obtaining the detection data, the function is similar to that of Figure 1. Since it is similar to Example 1, the description is omitted.

The structure of the thermal imaging device 13 of the second embodiment is described with reference to FIG. 12 .

The thermal imaging device 13 includes a shooting part 1, an image processing part 2, a display control part 3, a display part 4, a communication I/F 5, a temporary storage part 6, a memory card I/F 7, a memory card 8, a flash memory 9, an operation part 10, and a control part 11. The control part 11 is connected with the above-mentioned corresponding parts through a control and data bus 12 and is responsible for the overall control of the thermal imaging device 13.

The shooting unit 1 is composed of optical components, lens driving components, infrared detectors, signal preprocessing circuits, etc., which are not shown in the figure. The optical components are composed of infrared optical lenses, which are used to focus the received infrared radiation onto the infrared detector. The lens driving component drives the lens to perform focusing or zooming according to the control signal of the control unit 11, or it can also be a manually adjusted optical component. The infrared detector, such as a cooled or uncooled type infrared focal plane detector, converts the infrared radiation passing through the optical components into an electrical signal. The signal preprocessing circuit performs signal processing such as sampling on the electrical signal output from the infrared detector within a specified period, and converts it into digital thermal imaging data through an AD conversion circuit. The thermal imaging data is, for example, 14-bit or 16-bit binary data (also called thermal imaging AD value data). In Example 1, the shooting unit 1 is used as an acquisition unit to acquire thermal imaging data.

The image processing unit 2 is used to perform prescribed processing on the thermal imaging data obtained by the shooting unit 1. The processing of the image processing unit 2, such as correction, interpolation, pseudo color, synthesis, compression, decompression, etc., is converted into data suitable for display, recording, etc. For example, the image processing unit 2 performs prescribed processing such as pseudo color processing on the thermal imaging data obtained by the shooting unit 1 to obtain infrared thermal image data. The image processing unit 2 can be implemented, for example, by using a DSP or other microprocessor or a programmable FPGA.

The display control unit 3 generates and outputs a video signal from the image data for display stored in the temporary storage unit 6 according to the control of the control unit 11 . The video signal can be displayed on the display unit 4 .

The communication I/F5 is an interface for connecting the thermal imaging device 13 with external devices such as personal computers, servers, PDAs (personal digital assistants), other thermal imaging devices, visible light shooting devices, etc. and exchanging data according to communication specifications such as USB, 1394, and networks.

The temporary storage unit 6, such as a volatile memory such as RAM, DRAM, etc., serves as a buffer memory for temporarily storing the thermal imaging data output by the shooting unit 1. At the same time, it acts as a working memory for the image processing unit 2 and the control unit 11, temporarily storing data processed by the image processing unit 2 and the control unit 11.

The memory card I/F7 serves as an interface for the memory card 8. The memory card 8, which is a rewritable non-volatile memory, is connected to the memory card I/F7 and can be freely installed in the card slot of the thermal imaging device 13 body to record thermal imaging data and other data according to the control of the control unit 11.

Flash memory 9 stores programs for control and various data used in the control of each part. For example, the measured body information shown in FIG9 is stored;

The operation unit 10 is used for the user to perform various operations. The control unit 11 executes the corresponding program according to the operation signal of the operation unit 10. Referring to FIG. 7 , the operation unit 10 is described. The keys provided for the user to operate include a record key, an analysis key, etc.; it is not limited thereto, and the touch screen 3, etc. can also be used to implement the related operations.

The control unit 11 controls the overall action of the thermal imaging device 13, and stores a program for control and various data used in the control of each part in a storage medium such as a flash memory 9. The control unit 11 is implemented by, for example, a CPU, an MPU, a SOC, a programmable FPGA, etc.; the image processing unit 2 and the display control unit 3 can also be a processor integrated with the control unit 11.

The control unit 11 serves as a subject information selection unit, and is used to select subject information; preferably, it controls to display a specified amount of subject information together with the infrared thermal image for selection by the user.

The storage medium may be a storage medium in the thermal imaging device 13, such as a non-volatile storage medium such as a flash memory 9, a memory card 8, or a volatile storage medium such as a temporary storage unit 6; it may also be other storage media connected to the thermal imaging device 13 by wire or wirelessly, such as a storage medium in other devices connected by wire or wirelessly to the communication I/F5, such as other storage devices, thermal imaging devices, organizing devices, etc., or a storage medium at a network destination.

The specific operation and control flow of Example 2 are described in detail below. This application scenario is, for example, to photograph the object to be measured in a substation. After the power is turned on, the control unit 11 initializes the internal circuit, and then enters the shooting mode, that is, the shooting unit 1 shoots and obtains thermal imaging data, the image processing unit 2 performs prescribed processing on the thermal imaging data obtained by the shooting unit 1, and stores it in the temporary storage unit 6, and the control unit 11 controls the display control unit 3, so that the display unit 4 continuously displays the infrared thermal image in the form of a dynamic image, and can display the selection column of the object information when the task package is loaded.

The control steps will be described with reference to the flowchart of FIG. 10 .

B01, obtain the information of the tested object;

In the shooting mode, the display unit 4 displays a dynamic infrared thermal image, and displays a specified amount of measured object information according to the measured object information stored in the storage medium; at this time, the on-site personnel find that the hierarchical ledger may not meet the format requirements of the subsequent upload data processing system, or may not meet the usage habits, as shown in Figure 16. The display interface schematic diagram for displaying and selecting measured object information. So press the configuration button to enter the next step; in another example, the detection device can also determine that the original ledger template and the attribute information of the newly imported measured object information cannot correspond, and automatically prompt the user to enter the configuration interface.

B02, configure according to the ledger template; the interface before configuration as shown in FIG10A is displayed;

The user can import the ledger template pre-stored in the storage medium through the "Import" button, and configure the corresponding relationship of the measured object information according to the ledger template. The user can adjust the ledger template, the attribute information or level of the measured object information, or the level of the attribute name so that it can correspond to the ledger template; the level of the attribute information and the level of its attribute name are usually linked.

After configuration, the interface after configuration is shown in Figure 10B; after the user confirms, the next step is entered; it should be noted that the ledger template usually adopts a standard format that meets the requirements of subsequent batch processing, or a format that is easy for subsequent batch processing systems to automatically convert or recognize. In other examples, model KG/2201 can be displayed as a prompt message, or displayed at the end, or left blank, etc.

B03, the recording unit, stores the attribute information that meets the corresponding relationship in the storage medium according to the corresponding relationship configured by the ledger template; preferably, the configured ledger template is also recorded in the storage medium.

Alternatively, the attribute information of the measured object information is rearranged according to the configured corresponding relationship, for example, saved as a new task package;

Subsequently, the measured body information of the newly obtained task ledger can be displayed, as shown in FIG17 ;

The user can select the measured object information and associate it with the thermal image data. In this case, for example, "Substation 1-220KV-102 Switch-KG/2201-103 Rheology-Phase A.JPG" is generated, which can meet the format required for uploading to the data processing system. In other examples of records, the model KG/2201 can be stored in other storage areas as auxiliary attribute information or omitted.

Specifically, in one example, in response to the recording instruction operation of the operating unit 10, the control unit 11 controls the infrared detector to read the signal, obtain thermal imaging data, and make the image processing unit 2 perform the specified thermal imaging data compression processing on the thermal imaging data, or perform the specified processing such as correction, interpolation, etc. on the thermal imaging data and then perform compression processing, so that the information related to the selected object information in the temporary storage unit 6 is associated with the compressed thermal imaging data, and a thermal imaging picture file is generated and recorded in the storage card 8, thereby terminating the processing.

In another example, the recording unit continuously records the thermal imaging data obtained by shooting and generates a thermal imaging dynamic file, wherein when there is a recording indication related to the measured object information, the control unit 11 controls the infrared detector to read the signal to obtain the thermal imaging data for compression processing, so that the information related to the selected measured object information in the temporary storage unit 6 and the compressed thermal imaging data are associated and stored in the thermal imaging dynamic file, wherein the frame timing position of the frame of thermal imaging data can be associated with the information of the specified keyword related to the selected measured object information and stored in the index area of the thermal imaging dynamic file; and the subsequent dynamic recording processing continues.

The information related to the selected measured object information, for example, can be all the information of the measured object information as the selected measured object information, or part of the information therein, but at least contains the specified keywords. The specified keywords are used to match with the ledger data. For example, the specified keywords are "substation 1, 220KV, 102 switches, 102 rheology, phase A", and another example is the specified keywords "substation 1, 220KV, 102 switches, KG/2201, 102 rheology, phase A". Preferably, the attribute name contained in the ledger template can be used as a pointer to the keyword.

In addition, the associated record processing can also record the information related to the selected object information in an information file or index file associated with the thermal imaging image file, and the control unit 11 can generate the information file or index file; in addition, the thermal imaging image file name can also be generated according to the object information selected during the detection.

This embodiment is not limited to portable thermal imaging devices, but can also be applied to various mounted thermal imaging devices; and it is not indispensable for the function of obtaining thermal imaging data by shooting in the present invention, but can also be applied to a collating device that receives and processes thermal imaging data from the outside, and a collating device (such as a computer, a personal digital assistant, a display device used in conjunction with a thermal imaging device with shooting function, etc.).

Other embodiments;

Obviously, the above embodiments can be applied to the processing of files, ledger data, task packages used by portable detection devices or instruments, and other applications (such as backup, upload, organization, migration, etc.).

Aspects of the present invention can also be implemented by a computer (or a device such as a CPU, MPU, etc.) of a system or device that executes the functions of the above-described embodiments by executing a program recorded on a storage device, and a method by which the computer of the system or device performs the functions of the above-described embodiments by, for example, reading out and executing a program recorded on a storage device. For this purpose, the program is provided to the computer, for example, via a network or from various types of recording media (e.g., computer-readable media) used as a storage device.

The present invention provides a computer program, wherein a digital signal constituted by the computer program is recorded in a computer-readable recording medium, such as a hard disk, a memory, and the like.

Although the functional blocks in the drawings can be implemented by hardware, software or a combination thereof, it is generally not necessary to set a structure that implements the functional blocks in a one-to-one correspondence; for example, multiple functional blocks can be implemented by one software or hardware unit, or one functional block can be implemented by multiple software or hardware units. In addition, the processing and control functions of some or all parts of the embodiments of the present invention can also be implemented by a dedicated circuit or a general-purpose processor or a programmable FPGA.

In addition, the embodiments use the measured object application in the power industry as an example of a scenario, which is also applicable to various industries of infrared detection. The composition of the measured object information and the ledger template in the above embodiments is only an example, and the composition of the measured object information and the ledger template can be determined according to different applications, and there are various different composition situations.

The above description is only a specific implementation of the invention. The various examples do not limit the essential content of the invention. After reading the description, technicians in the relevant field may make other modifications and changes to the specific implementation without departing from the essence and scope of the invention.

Claims (9)

1. Template configuration device, including: A detection data determination unit, used for determining a plurality of detection data files to be processed; The configuration unit is used to control the display of the subject information and/or the subject information sample; the subject information is obtained from the respective associated subject information based on the determined detection data files; the subject information sample is a sample obtained from the subject information; An operation unit, through which a user can configure a ledger template; the configuration unit controls the display of the configured ledger template and the measured body information; The control unit processes the information of the tested object and/or multiple test data files to be processed according to the configured ledger template. The template configuration device has a detection unit for obtaining detection data and is a portable detection device. 2. Template configuration device, including: A detection data determination unit, used for determining a plurality of detection data files to be processed; The configuration unit is used to control the display of the subject information and/or the subject information sample; the subject information is obtained from the respective associated subject information based on the determined detection data files; the subject information sample is a sample obtained from the subject information; An operation unit, through which the user can configure the ledger template; the configuration unit controls the display of the configured ledger template and the measured body information; the user can configure the corresponding relationship between the ledger template and the measured body information and/or the measured body information sample; The control unit processes the object information and/or the multiple detection data files to be processed before the corresponding relationship is configured according to the configured corresponding relationship. The template configuration device has a detection unit for obtaining detection data and is a portable detection device. 3. Template configuration device, including: The subject information determining unit is used to determine a plurality of subject information to be processed; A configuration unit, used for controlling the display of the subject information and/or the subject information sample; the subject information sample is a sample obtained from the subject information; An operation unit, through which the user can configure the ledger template; the configuration unit controls the display of the configured ledger template and the measured body information; the user can configure the corresponding relationship between the ledger template and the measured body information and/or the measured body information sample; The control unit processes the information of the object to be processed according to the configured corresponding relationship; The template configuration device has a detection unit for obtaining detection data and is a portable detection device. 4. Template configuration device, including: A detection data determination unit, used for determining a plurality of detection data to be processed; The configuration unit is used to control the display of the measured body information and/or the measured body information sample; the measured body information is obtained from the respectively associated measured body information based on the determined detection data; the measured body information sample is a sample obtained from the measured body information; An operation unit, through which the user can configure the ledger template; the configuration unit controls the display of the configured ledger template, and the subject information and/or the subject information sample; the user can perform configuration operations on the corresponding relationship between the ledger template and the subject information and/or the subject information sample; The control unit performs one of the following processes: 1) Storing the configured ledger template, and/or uploading the ledger template to the data processing system, or sending it through the communication unit; 2) storing the measured body information with corresponding relationships in a storage medium or sending it through a communication unit; 3) Associating the measured body information configured with the corresponding relationship with the detection data and/or processed data corresponding to or associated with the measured body information before configuration, storing it in a storage medium, or sending it through a communication unit; 4) According to the configured correspondence, the attribute information of the measured object information with the configured correspondence is rearranged, and/or the correspondence with the ledger template is associated with the detection data and/or processed data associated with the measured object information before the configuration correspondence, and stored in a storage medium, or sent through a communication unit; 5) According to the format of the configured ledger template, the measured body information of the configured corresponding relationship is uploaded to the basic database of the data processing system and saved as a ledger entry; 6) According to the format of the configured ledger template, the information of the object to be tested configured with the corresponding relationship is saved in the data processing system as a ledger strip, or a storage medium callable by the data processing system; and the detection data associated with the object information before the corresponding relationship is configured is associated with the ledger strip, stored in the storage medium, or sent through the communication unit; 7) The test data associated with the ledger template before configuration is associated with the measured object information in the adjusted ledger template format according to the corresponding relationship after configuration; 8) According to the correspondence between the subject information and/or sample and the ledger template configuration, it is applied to other subject information to be processed, and/or, applied to other test data to be processed and/or data obtained after processing the test data. 5. Template configuration device, including: A configuration unit, used for displaying the subject information to be processed, wherein the subject information includes a plurality of attribute information and/or attribute names corresponding to the attribute information; An operation unit, through which the user can configure the ledger template; the configuration unit controls the display of the configured ledger template and the measured body information; the user can configure the corresponding relationship between the ledger template and the measured body information; The control unit performs one of the following processes: 1) Storing the configured ledger template, and/or uploading the ledger template to the data processing system, or sending it through the communication unit; 2) storing the measured body information with corresponding relationships in a storage medium or sending it through a communication unit; 3) Associating the measured body information configured with the corresponding relationship with the detection data and/or processed data corresponding to or associated with the measured body information before configuration, storing it in a storage medium, or sending it through a communication unit; 4) According to the configured correspondence, the attribute information of the measured object information with the configured correspondence is rearranged, and/or the correspondence with the ledger template is associated with the detection data and/or processed data associated with the measured object information before the configuration correspondence, and stored in a storage medium, or sent through a communication unit; 5) According to the format of the configured ledger template, the measured object information with the configured corresponding relationship or the attribute information with the configured corresponding relationship in the measured object information is uploaded to the basic database of the data processing system to be saved as a ledger entry; 6) According to the format of the configured ledger template, the attribute information of the measured object information configured with the corresponding relationship is saved to the data processing system as a ledger strip, or a storage medium callable by the data processing system; and the detection data associated with the measured object information before the corresponding relationship is configured is associated with the ledger strip, stored in the storage medium, or sent through the communication unit; 7) The test data associated with the ledger template before configuration is associated with the measured object information in the adjusted ledger template format according to the corresponding relationship after configuration; 8) According to the correspondence between the measured object information and/or sample and the ledger template configuration, it is applied to other measured object information to be processed. 6. Template configuration device, including: A configuration unit, used for displaying the subject information to be processed, wherein the subject information includes a plurality of attribute information and/or attribute names corresponding to the attribute information; An operation unit, through which a user can configure a ledger template; the configuration unit controls the display of the configured ledger template and the measured body information; The control unit performs one of the following processes: 1) Storing the configured ledger template, and/or uploading the ledger template to the data processing system, or sending it through the communication unit; 2) storing the measured body information with corresponding relationships in a storage medium or sending it through a communication unit; 3) Associating the measured body information configured with the corresponding relationship with the detection data and/or processed data corresponding to or associated with the measured body information before configuration, storing it in a storage medium, or sending it through a communication unit; 4) According to the configured correspondence, the attribute information of the measured object information with the configured correspondence is rearranged, and/or the correspondence with the ledger template is associated with the detection data and/or processed data associated with the measured object information before the configuration correspondence, and stored in a storage medium, or sent through a communication unit; 5) According to the configured ledger template, the measured body information of the configuration correspondence is uploaded to the basic database of the data processing system and saved as a ledger entry; 6) According to the format of the configured ledger template, the attribute information of the measured object information configured with the corresponding relationship is saved to the data processing system as a ledger strip, or a storage medium callable by the data processing system; and the detection data associated with the measured object information before the corresponding relationship is configured is associated with the ledger strip, stored in the storage medium, or sent through the communication unit; 7) The test data associated with the ledger template before configuration is associated with the measured object information in the adjusted ledger template format according to the corresponding relationship after configuration; 8) According to the correspondence between the measured object information and/or sample and the ledger template configuration, it is applied to other measured object information to be processed. 7. The template configuration device according to any one of claims 1 to 6, characterized in that: The configuration section is used to compare and display the ledger template, and the sample of the measured object information or the attribute information or attribute name of the measured object information. The control unit rearranges the measured body information according to the corresponding relationship, and generates a new file name for the arranged measured body information. 8. The template configuration device according to any one of claims 1 to 6, characterized in that: A ledger template includes multiple levels of attribute names and/or auxiliary information. 9. Configuration methods, including: A detection data determination step, used to determine a plurality of detection data to be processed; Configuration step, used to control the display of the measured body information and/or the measured body information sample; the measured body information is obtained from the respectively associated measured body information based on the determined detection data; the measured body information sample is a sample obtained from the measured body information; Operation steps: the user can configure the ledger template through the operation unit; the configuration unit controls the display of the configured ledger template, and the measured body information and/or the measured body information sample; the user can configure the corresponding relationship between the ledger template and the measured body information and/or the measured body information sample; Control step, perform one of the following processing: 1) Storing the configured ledger template, and/or uploading the ledger template to the data processing system, or sending it through the communication unit; 2) storing the measured body information with corresponding relationships in a storage medium or sending it through a communication unit; 3) Associating the measured body information configured with the corresponding relationship with the detection data and/or processed data corresponding to or associated with the measured body information before configuration, storing it in a storage medium, or sending it through a communication unit; 4) According to the configured correspondence, the attribute information of the measured object information with the configured correspondence is rearranged, and/or the correspondence with the ledger template is associated with the detection data and/or processed data associated with the measured object information before the configuration correspondence, and stored in a storage medium, or sent through a communication unit; 5) According to the format of the configured ledger template, the measured body information of the configured corresponding relationship is uploaded to the basic database of the data processing system and saved as a ledger entry; 6) According to the format of the configured ledger template, the information of the object to be tested configured with the corresponding relationship is saved in the data processing system as a ledger strip, or a storage medium callable by the data processing system; and the detection data associated with the object information before the corresponding relationship is configured is associated with the ledger strip, stored in the storage medium, or sent through the communication unit; 7) The test data associated with the ledger template before configuration is associated with the measured object information in the adjusted ledger template format according to the corresponding relationship after configuration; 8) According to the correspondence between the subject information and/or sample and the ledger template configuration, it is applied to other subject information to be processed, and/or, applied to other test data to be processed and/or data obtained after processing the test data.