A test monitoring method and system

Abstract

This invention provides a test monitoring method and system. The method includes: constructing a test monitoring file when a first identification module located in a test object temporary storage area identifies first identification information of the object under test; determining the test process based on the first identification information; analyzing the test process to determine the test equipment; determining the current time as the starting point when a second identification module located on one side of the test equipment identifies the object under test; acquiring and analyzing the operating data of the test equipment to determine the cutoff time; and editing the monitoring images captured by the first monitoring terminal corresponding to the test equipment to obtain test monitoring images. This test monitoring method, by constructing a test monitoring file before testing, retrieving the object under test from the test object temporary storage area, and saving image monitoring during the testing process, enables enterprises to understand the testing process of the testing organization and assists enterprises in analyzing the causes of product anomalies.

Description

Technical Field

[0001] This invention relates to the field of computer technology, and in particular to a test monitoring method and system. Background Technology

[0002] During the production process, enterprises need to test standard parts and products. For example, product testing; when there is no equipment in the factory to perform the testing, it needs to be sent to a specialized testing agency. Usually, the testing agency will return test data or test reports. When the test data or test reports are abnormal, because the enterprise cannot grasp the testing process, it is impossible to conduct a comprehensive and objective analysis of the cause of the abnormality. Therefore, there is an urgent need for a test monitoring method to enable enterprises to understand the testing process of the testing agency and to assist enterprises in analyzing the causes of abnormalities in products, etc. Summary of the Invention

[0003] One of the objectives of this invention is to provide a test monitoring method. By constructing a test monitoring file before testing, retrieving the test object from the test object temporary storage area, and saving the image monitoring during the testing process, the enterprise can understand the testing process of the testing organization and assist the enterprise in analyzing the causes of abnormalities in products, etc.

[0004] An embodiment of the present invention provides a test monitoring method, comprising:

[0005] When the first identification information of the test object is identified by the first identification module set in the temporary storage area of ​​the test object, a test monitoring file is constructed.

[0006] Based on the initial identification information, determine the testing process;

[0007] Analyze the test process and determine the test equipment;

[0008] When the object under test is identified by the second identification module set on one side of the test equipment, the current moment is determined as the starting point;

[0009] Acquire and parse the operating data of the test equipment to determine the cutoff time.

[0010] Based on the start and end times, the monitoring images collected by the first monitoring terminal corresponding to the test equipment are edited to obtain the test monitoring images;

[0011] Store the test monitoring images to the test monitoring archive.

[0012] Preferably, the test monitoring method also includes:

[0013] Obtain the movement path between the temporary storage area of ​​the test object and the test device;

[0014] Determine the time monitoring threshold range based on the movement path;

[0015] Determine whether the time difference between the starting point and the time point for constructing the monitoring file is within the time monitoring threshold range. If not, output an early warning message to the test monitoring file.

[0016] Preferably, the test monitoring method also includes:

[0017] The test data and runtime data between the start and end times are acquired through the data acquisition module connected to the test equipment.

[0018] Associate test data and runtime data with test monitoring images and store them in the test monitoring archive.

[0019] Preferably, the test monitoring method also includes:

[0020] After the test monitoring profile is built, determine the current usage status of the test equipment;

[0021] When the current usage status of the test equipment is "in use", determine the remaining usage time and the movement time from the temporary storage area of ​​the test object to the test equipment.

[0022] When the remaining usage time exceeds the travel time, a preset reminder message is output through the reminder device set in the temporary storage area of ​​the test object.

[0023] Preferably, the test monitoring method also includes:

[0024] After the test monitoring file is constructed, the movement route is determined based on the first setting location of the test equipment and the second setting location of the temporary storage area of ​​the test object.

[0025] Acquire monitoring images from each of the second monitoring terminals set up along the mobile line.

[0026] Edit the monitoring images from each of the second monitoring terminals to obtain moving monitoring images;

[0027] Store the mobile surveillance images to the output test surveillance file;

[0028] This includes editing the monitoring images from each of the second monitoring terminals to obtain motion monitoring images, including:

[0029] Based on the personnel portrait of the test subject extracted from the temporary storage area of ​​the test subject, the first editing of each monitoring image is performed to extract the first monitoring segment containing the personnel portrait;

[0030] Construct the first clip timeline;

[0031] Each first monitoring segment is mapped to the first editing timeline to identify multiple first overlapping parts;

[0032] Based on the time points on the first editing timeline, the images of the first overlapping part are associated and grouped to obtain multiple first associated groups;

[0033] Determine the size of the personnel region and the size of the object to be tested in each first image of each first association group;

[0034] The first priority value is determined based on the size of the personnel area;

[0035] The second priority value is determined based on the size of the region of the object to be tested;

[0036] Delete all images in each first association group except the image with the largest sum of the first priority value and the second priority value;

[0037] Images from the first clip timeline are combined to form a moving surveillance image.

[0038] Preferably, when multiple first monitoring terminals are capturing images of the test equipment, the monitoring images captured by the first monitoring terminals corresponding to the test equipment are edited based on the start and end times to obtain test monitoring images, including:

[0039] The images collected by each primary monitoring terminal are first edited to extract secondary monitoring segments containing personnel.

[0040] Construct a second editing timeline;

[0041] Each second monitoring segment is mapped to the second editing timeline to identify multiple second overlapping portions;

[0042] Based on the time points on the second editing timeline, the images of the second overlapping part are associated and grouped to obtain multiple second associated groups;

[0043] Determine the size of the personnel region and the size of the object to be tested in each second image of each second association group;

[0044] The first priority value is determined based on the size of the personnel area;

[0045] The second priority value is determined based on the size of the region of the object to be tested;

[0046] Delete all images in each second association group except the one with the largest sum of the first and second priority values;

[0047] Identify the missing sections in the second clip timeline;

[0048] The missing part is filled in by the image collected by the first monitoring terminal corresponding to the first image before the missing part.

[0049] The images on the second clip timeline are integrated to form a test monitoring image.

[0050] The present invention also provides a test monitoring system, comprising:

[0051] The building module is used to build a test monitoring file when the first identification information of the test object is identified by the first identification module set in the test object temporary storage area;

[0052] The first determining module is used to determine the test process based on the first identification information;

[0053] The second determination module is used to analyze the test process and determine the test equipment;

[0054] The starting point determination module is used to determine the current moment as the starting point when the object under test is identified by the second identification module set on one side of the test equipment;

[0055] The deadline determination module is used to acquire and parse the operating data of the test equipment to determine the deadline.

[0056] The test image acquisition module is used to acquire and edit the monitoring images collected by the first monitoring terminal corresponding to the test equipment based on the start point and the end time point to obtain the test monitoring image.

[0057] The storage module is used to store test monitoring images into the test monitoring archive.

[0058] Preferably, the test monitoring system also includes: an early warning module;

[0059] The early warning module performs the following operations:

[0060] Obtain the movement path between the temporary storage area of ​​the test object and the test device;

[0061] Determine the time monitoring threshold range based on the movement path;

[0062] Determine whether the time difference between the starting point and the time point for constructing the monitoring file is within the time monitoring threshold range. If not, output an early warning message to the test monitoring file.

[0063] Preferably, the test monitoring system also includes: an associated storage module;

[0064] The associated storage module performs the following operations:

[0065] The test data and runtime data between the start and end times are acquired through the data acquisition module connected to the test equipment.

[0066] Associate test data and runtime data with test monitoring images and store them in the test monitoring archive.

[0067] Preferably, the test monitoring system also includes: an alert module;

[0068] After the test monitoring profile is built, determine the current usage status of the test equipment;

[0069] When the current usage status of the test equipment is "in use", determine the remaining usage time and the movement time from the temporary storage area of ​​the test object to the test equipment.

[0070] When the remaining usage time exceeds the travel time, a preset reminder message is output through the reminder device set in the temporary storage area of ​​the test object.

[0071] Other features and advantages of the invention will be set forth in the description which follows, and will be apparent in part from the description, or may be learned by practicing the invention. The objects and other advantages of the invention may be realized and obtained by means of the structures particularly pointed out in the written description, claims, and drawings.

[0072] The technical solution of the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. Attached Figure Description

[0073] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used in conjunction with embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0074] Figure 1 This is a schematic diagram of a test monitoring method according to an embodiment of the present invention;

[0075] Figure 2 This is a schematic diagram of a test monitoring system according to an embodiment of the present invention. Detailed Implementation

[0076] The preferred embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are for illustration and explanation only and are not intended to limit the present invention.

[0077] This invention provides a test monitoring method, such as... Figure 1 As shown, it includes:

[0078] Step S1: When the first identification information of the test object is identified by the first identification module set in the test object temporary storage area, a test monitoring file is constructed;

[0079] Step S2: Determine the test process based on the first identification information;

[0080] Step S3: Analyze the test process and determine the test equipment;

[0081] Step S4: When the object under test is identified by the second identification module set on one side of the test equipment, the current time is determined as the starting point;

[0082] Step S5: Obtain and parse the operating data of the test equipment to determine the cutoff time.

[0083] Step S6: Based on the start and end times, the monitoring images collected by the first monitoring terminal corresponding to the test equipment are edited to obtain the test monitoring images;

[0084] Step S7: Store the test monitoring images to the test monitoring archive.

[0085] The working principle and beneficial effects of the above technical solution are as follows:

[0086] The test monitoring method of this invention involves the following steps: After receiving the test object (product or device) from the enterprise, the testing organization first places the test object in a temporary storage area. A second monitoring terminal is set up around the temporary storage area to photograph the test object and monitor its status within the storage area, allowing for timely detection of any abnormalities. Furthermore, a first identification module is installed near or within the temporary storage area to identify the first identification information of the test object. Upon identification, a test monitoring file is constructed. After the enterprise delivers the test object to the testing organization, the testing organization constructs the test monitoring file. The testing process of the test object within the testing organization is recorded in the form of images, data, etc., enabling the enterprise to understand the testing process and assisting in the analysis of the causes of product anomalies. To determine the start and end times of the test monitoring images, a second identification module is installed on one side of the test equipment. Before testing, the tester scans the object under test on the second identification module. The time when the tester scans through the second identification module is taken as the start time. Images are acquired by a first monitoring terminal around the test equipment. By analyzing the operating data of the test equipment, the time when the test is completed is determined as the end time. Based on the start and end times, the images from the first monitoring terminal are edited, achieving automatic image editing and saving. This ensures automatic test monitoring without human intervention and guarantees the validity and authenticity of the monitoring data. Furthermore, the first and second identification modules can be implemented as RFID readers. RFID tags are affixed to the object under test. These tags are created when the enterprise and testing organization personnel hand over the product; the testing organization staff writes data into the tags based on the specific details of the object under test and attaches them. The written data includes the product name and the items to be tested. Therefore, based on the first identification information, the testing process is determined. Specifically, by querying a pre-defined test process table based on the items to be tested, the testing process is determined. The testing process specifies the testing equipment required, so the corresponding testing equipment for the object under test can be obtained directly through parsing. Additionally, personnel identification can be performed on the test monitoring images to identify and record the testing personnel in the archives.

[0087] In one embodiment, the test monitoring method further includes:

[0088] Obtain the movement path between the temporary storage area of ​​the test object and the test device;

[0089] Determine the time monitoring threshold range based on the movement path;

[0090] Determine whether the time difference between the starting point and the time point for constructing the monitoring file is within the time monitoring threshold range. If not, output an early warning message to the test monitoring file.

[0091] The working principle and beneficial effects of the above technical solution are as follows:

[0092] By determining the movement path between the temporary storage area of ​​the test object and the test equipment, it can be determined whether the time spent by the tester traversing the movement path is within the permitted time monitoring threshold, thus confirming that no abnormalities occurred during the movement of the test object.

[0093] To enable the recording of test data and runtime data, in one embodiment, the test monitoring method further includes:

[0094] The test data and runtime data between the start and end times are acquired through the data acquisition module connected to the test equipment.

[0095] Associate test data and runtime data with test monitoring images and store them in the test monitoring archive.

[0096] In one embodiment, the test monitoring method further includes:

[0097] After the test monitoring profile is built, determine the current usage status of the test equipment;

[0098] When the current usage status of the test equipment is "in use", determine the remaining usage time and the movement time from the temporary storage area of ​​the test object to the test equipment.

[0099] When the remaining usage time exceeds the travel time, a preset reminder message is output through the reminder device set in the temporary storage area of ​​the test object.

[0100] The working principle and beneficial effects of the above technical solution are as follows:

[0101] By determining the status of the test equipment when the tester extracts the test object, the tester is reminded to extract the test object, ensuring that the test of the test object is carried out reasonably and effectively, and ensuring that the test object can be monitored continuously and that the editing of the monitoring video is carried out in an orderly manner.

[0102] In one embodiment, the test monitoring method further includes:

[0103] After the test monitoring file is constructed, the movement route is determined based on the first setting location of the test equipment and the second setting location of the temporary storage area of ​​the test object.

[0104] Acquire monitoring images from each of the second monitoring terminals set up along the mobile line.

[0105] Edit the monitoring images from each of the second monitoring terminals to obtain moving monitoring images;

[0106] Store the mobile surveillance images to the output test surveillance file;

[0107] This includes editing the monitoring images from each of the second monitoring terminals to obtain motion monitoring images, including:

[0108] Based on the personnel portrait of the test subject extracted from the temporary storage area of ​​the test subject, the first editing of each monitoring image is performed to extract the first monitoring segment containing the personnel portrait;

[0109] Construct the first clip timeline;

[0110] Each first monitoring segment is mapped to the first editing timeline to identify multiple first overlapping parts;

[0111] Based on the time points on the first editing timeline, the images of the first overlapping part are associated and grouped to obtain multiple first associated groups;

[0112] Determine the size of the personnel region and the size of the object to be tested in each first image of each first association group;

[0113] The first priority value is determined based on the size of the personnel area; specifically, the first priority value can be determined through a preset area size and first priority value comparison table.

[0114] The second priority value is determined based on the size of the region of the object to be tested; specifically, the second priority value can be determined through a preset region size and second priority value comparison table.

[0115] Delete all images in each first association group except the image with the largest sum of the first priority value and the second priority value;

[0116] Images from the first clip timeline are combined to form a moving surveillance image.

[0117] The working principle and beneficial effects of the above technical solution are as follows:

[0118] The testing organization sets up second monitoring terminals in locations such as the passageway between the temporary storage area of ​​the test object and the testing equipment. By editing and merging the monitoring images from each second monitoring terminal, a complete moving monitoring image of the test object during its movement is extracted. During the editing process, the size of the personnel area and the size of the test object are comprehensively analyzed to determine the first priority value and the second priority value. The larger the personnel area and the larger the test object, the more important the criteria for selecting images, thereby ensuring the video quality of the monitoring images.

[0119] To achieve the editing of test monitoring images, in one embodiment, when multiple first monitoring terminals are capturing images of the test equipment, the monitoring images captured by the first monitoring terminals corresponding to the test equipment are edited based on the start and end times to obtain test monitoring images, including:

[0120] The images collected by each primary monitoring terminal are first edited to extract secondary monitoring segments containing personnel.

[0121] Construct a second editing timeline;

[0122] Each second monitoring segment is mapped to the second editing timeline to identify multiple second overlapping portions;

[0123] Based on the time points on the second editing timeline, the images of the second overlapping part are associated and grouped to obtain multiple second associated groups;

[0124] Determine the size of the personnel region and the size of the object to be tested in each second image of each second association group;

[0125] The first priority value is determined based on the size of the personnel area;

[0126] The second priority value is determined based on the size of the region of the object to be tested;

[0127] Delete all images in each second association group except the one with the largest sum of the first and second priority values;

[0128] Identify the missing sections in the second clip timeline;

[0129] The missing part is filled in by the image collected by the first monitoring terminal corresponding to the first image before the missing part.

[0130] The images on the second clip timeline are integrated to form a test monitoring image.

[0131] This invention also provides a test monitoring system, such as... Figure 2 As shown, it includes:

[0132] Module 1 is used to build a test monitoring file when the first identification information of the object under test is identified by the first identification module set in the temporary storage area of ​​the test object.

[0133] The first determining module 2 is used to determine the test process based on the first identification information;

[0134] The second determining module 3 is used to analyze the test process and determine the test equipment;

[0135] The starting point determination module 4 is used to determine the current moment as the starting point when the object under test is identified by the second identification module set on one side of the test equipment;

[0136] Module 5, which determines the cutoff time, is used to acquire and parse the operating data of the test equipment to determine the cutoff time.

[0137] The test image acquisition module 6 is used to acquire and edit the monitoring images collected by the first monitoring terminal corresponding to the test equipment based on the start point and the end time point to obtain the test monitoring image.

[0138] Storage module 7 is used to store test monitoring images to test monitoring archives.

[0139] Preferably, the test monitoring system also includes: an early warning module;

[0140] The early warning module performs the following operations:

[0141] Obtain the movement path between the temporary storage area of ​​the test object and the test device;

[0142] Determine the time monitoring threshold range based on the movement path;

[0143] Determine whether the time difference between the starting point and the time point for constructing the monitoring file is within the time monitoring threshold range. If not, output an early warning message to the test monitoring file.

[0144] Preferably, the test monitoring system also includes: an associated storage module;

[0145] The associated storage module performs the following operations:

[0146] The test data and runtime data between the start and end times are acquired through the data acquisition module connected to the test equipment.

[0147] Associate test data and runtime data with test monitoring images and store them in the test monitoring archive.

[0148] Preferably, the test monitoring system also includes: an alert module;

[0149] After the test monitoring profile is built, determine the current usage status of the test equipment;

[0150] When the current usage status of the test equipment is "in use", determine the remaining usage time and the movement time from the temporary storage area of ​​the test object to the test equipment.

[0151] When the remaining usage time exceeds the movement time, a preset reminder message is output through the reminder device set in the temporary storage area of ​​the test object.

[0152] Preferably, the test monitoring system also includes: a mobile monitoring image editing module;

[0153] The mobile surveillance image editing module performs the following operations:

[0154] After the test monitoring file is constructed, the movement route is determined based on the first setting location of the test equipment and the second setting location of the temporary storage area of ​​the test object.

[0155] Acquire monitoring images from each of the second monitoring terminals set up along the mobile line.

[0156] Edit the monitoring images from each of the second monitoring terminals to obtain moving monitoring images;

[0157] Store the mobile surveillance images to the output test surveillance file;

[0158] This includes editing the monitoring images from each of the second monitoring terminals to obtain motion monitoring images, including:

[0159] Based on the personnel portrait of the test subject extracted from the temporary storage area of ​​the test subject, the first editing of each monitoring image is performed to extract the first monitoring segment containing the personnel portrait;

[0160] Construct the first clip timeline;

[0161] Each first monitoring segment is mapped to the first editing timeline to identify multiple first overlapping parts;

[0162] Based on the time points on the first editing timeline, the images of the first overlapping part are associated and grouped to obtain multiple first associated groups;

[0163] Determine the size of the personnel region and the size of the object to be tested in each first image of each first association group;

[0164] The first priority value is determined based on the size of the personnel area;

[0165] The second priority value is determined based on the size of the region of the object to be tested;

[0166] Delete all images in each first association group except the image with the largest sum of the first priority value and the second priority value;

[0167] Images from the first clip timeline are combined to form a moving surveillance image.

[0168] Preferably, when multiple first monitoring terminals are capturing images of the test equipment, the test image acquisition module 6, based on the start and end time points, edits the monitoring images captured by the first monitoring terminals corresponding to the test equipment to obtain the test monitoring image, and performs the following operations:

[0169] The images collected by each primary monitoring terminal are first edited to extract secondary monitoring segments containing personnel.

[0170] Construct a second editing timeline;

[0171] Each second monitoring segment is mapped to the second editing timeline to identify multiple second overlapping portions;

[0172] Based on the time points on the second editing timeline, the images of the second overlapping part are associated and grouped to obtain multiple second associated groups;

[0173] Determine the size of the personnel region and the size of the object to be tested in each second image of each second association group;

[0174] The first priority value is determined based on the size of the personnel area;

[0175] The second priority value is determined based on the size of the region of the object to be tested;

[0176] Delete all images in each second association group except the one with the largest sum of the first and second priority values;

[0177] Identify the missing sections in the second clip timeline;

[0178] The missing part is filled in by the image collected by the first monitoring terminal corresponding to the first image before the missing part.

[0179] The images on the second clip timeline are integrated to form a test monitoring image.

[0180] Obviously, those skilled in the art can make various modifications and variations to this invention without departing from its spirit and scope. Therefore, if these modifications and variations fall within the scope of the claims of this invention and their equivalents, this invention also intends to include these modifications and variations.

Claims

1. A test monitoring method, characterized in that, include: When the first identification information of the test object is identified by the first identification module set in the temporary storage area of ​​the test object, a test monitoring file is constructed. Based on the first identification information, the testing process is determined; Analyze the test process to determine the test equipment; When the object under test is identified by the second identification module located on one side of the test equipment, the current moment is determined as the starting point; Obtain and parse the operating data of the test equipment to determine the cutoff time. Based on the starting point and the ending time point, the monitoring images collected by the first monitoring terminal corresponding to the test equipment are edited to obtain the test monitoring images; Store the test monitoring images into the test monitoring file; After the test monitoring file is constructed, the movement path is determined based on the first setting location of the test equipment and the second setting location of the temporary storage area of ​​the test object; Acquire monitoring images from each of the second monitoring terminals set along the movement path. The monitoring images from each of the second monitoring terminals are edited to obtain moving monitoring images; Store the mobile surveillance images into the output test surveillance file; The process of editing the monitoring images from each of the second monitoring terminals to obtain moving monitoring images includes: Based on the personnel portrait of the test subject extracted from the temporary storage area of ​​the test subject, the first editing of each monitoring image is performed to extract the first monitoring segment containing the personnel portrait. Construct the first clip timeline; Each first monitoring segment is mapped to the first editing timeline to determine multiple first overlapping parts; Based on the time points on the first editing timeline, the images of the first overlapping part are associated and grouped to obtain multiple first associated groups; Determine the size of the personnel region and the size of the object to be tested in each first image of each first association group; The first priority value is determined based on the size of the personnel area; The second priority value is determined based on the size of the region of the object to be tested; Delete all images in each first association group except the image with the largest sum of the first priority value and the second priority value; The images on the first editing timeline are integrated to form the mobile surveillance image.

2. The test monitoring method as described in claim 1, characterized in that, Also includes: Obtain the movement path between the temporary storage area of ​​the test object and the test device; Based on the movement path, determine the time monitoring threshold range; Determine whether the time difference between the starting point and the time point at which the test monitoring file is constructed is within the time monitoring threshold. If not, output an early warning message to the test monitoring file.

3. The test monitoring method as described in claim 1, characterized in that, Also includes: The test data and running data between the start point and the end time point are acquired by the data acquisition module connected to the test equipment. The test data and the running data are associated with the test monitoring image and stored in the test monitoring file.

4. The test monitoring method as described in claim 1, characterized in that, Also includes: After the test monitoring profile is built, determine the current usage status of the test equipment; When the current usage status of the test equipment is "in use", determine the remaining usage time and the movement time from the temporary storage area of ​​the test object to the test equipment; When the remaining usage time is greater than the travel time, a preset reminder message is output through the reminder device set in the temporary storage area of ​​the test object.

5. The test monitoring method as described in claim 1, characterized in that, When multiple first monitoring terminals are capturing images of the test equipment, the monitoring images captured by the first monitoring terminals corresponding to the test equipment are edited based on the start point and the end time point to obtain test monitoring images, including: The images collected by each primary monitoring terminal are first edited to extract secondary monitoring segments containing personnel. Construct a second editing timeline; Each second monitoring segment is mapped to the second clip timeline to identify multiple second overlapping portions; Based on the time points on the second editing timeline, the images of the second overlapping part are associated and grouped to obtain multiple second associated groups; Determine the size of the personnel region and the size of the object to be tested in each second image of each second association group; The first priority value is determined based on the size of the personnel area; The second priority value is determined based on the size of the region of the object to be tested; Delete all images in each second association group except the one with the largest sum of the first and second priority values; Identify the missing sections in the second clip timeline; The missing part is filled in by the image collected by the first monitoring terminal corresponding to the first image before the missing part. The images on the second clip timeline are integrated to form the test monitoring image.

6. A test monitoring system, characterized in that, include: The building module is used to build a test monitoring file when the first identification information of the test object is identified by the first identification module set in the test object temporary storage area; The first determining module is used to determine the test process based on the first identification information; The second determining module is used to parse the test process and determine the test equipment; The starting point determination module is used to determine the current moment as the starting point when the object under test is identified by the second identification module set on one side of the test equipment; The deadline determination module is used to acquire and parse the operating data of the test equipment to determine the deadline. The test image acquisition module is used to acquire and edit the monitoring images collected by the first monitoring terminal corresponding to the test equipment based on the start point and the end time point to obtain the test monitoring image; The storage module is used to store the test monitoring images into the test monitoring file; The construction module, after the test monitoring file is constructed, is used to: determine the movement path based on the first setting location of the test equipment and the second setting location of the test object temporary storage area; Acquire monitoring images from each of the second monitoring terminals set along the movement path. The monitoring images from each of the second monitoring terminals are edited to obtain moving monitoring images; Store the mobile surveillance images into the output test surveillance file; The process of editing the monitoring images from each of the second monitoring terminals to obtain moving monitoring images includes: Based on the personnel portrait of the test subject extracted from the temporary storage area of ​​the test subject, the first editing of each monitoring image is performed to extract the first monitoring segment containing the personnel portrait. Construct the first clip timeline; Each first monitoring segment is mapped to the first editing timeline to determine multiple first overlapping parts; Based on the time points on the first editing timeline, the images of the first overlapping part are associated and grouped to obtain multiple first associated groups; Determine the size of the personnel region and the size of the object to be tested in each first image of each first association group; The first priority value is determined based on the size of the personnel area; The second priority value is determined based on the size of the region of the object to be tested; Delete all images in each first association group except the image with the largest sum of the first priority value and the second priority value; The images on the first editing timeline are integrated to form the mobile surveillance image.

7. The test monitoring system as described in claim 6, characterized in that, Also includes: Early warning module; The early warning module performs the following operations: Obtain the movement path between the temporary storage area of ​​the test object and the test device; Based on the movement path, determine the time monitoring threshold range; Determine whether the time difference between the starting point and the time point at which the test monitoring file is constructed is within the time monitoring threshold. If not, output an early warning message to the test monitoring file.

8. The test monitoring system as described in claim 6, characterized in that, Also includes: Associated storage module; The associated storage module performs the following operations: The test data and running data between the start point and the end time point are acquired by the data acquisition module connected to the test equipment. The test data and the running data are associated with the test monitoring image and stored in the test monitoring file.

9. The test monitoring system as described in claim 6, characterized in that, Also includes: Reminder module; After the test monitoring profile is built, determine the current usage status of the test equipment; When the current usage status of the test equipment is "in use", determine the remaining usage time and the movement time from the temporary storage area of ​​the test object to the test equipment; When the remaining usage time is greater than the travel time, a preset reminder message is output through the reminder device set in the temporary storage area of ​​the test object.

Images