An intelligent management system for new energy heat dissipation testing

Abstract

The present invention discloses an intelligent management system for heat dissipation testing of new energy, and relates to the field of new energy technology. A formulation module is used to determine a target object for heat dissipation testing, and a plurality of heat dissipation testing schemes are formulated corresponding to the target object. A configuration module is connected with the formulation module, and is used to set a heat dissipation test base point, and the heat dissipation test base point is configured corresponding to a plurality of heat dissipation testing schemes according to the target object. A test module is connected with the configuration module, and is used to respectively correspond the target object to a plurality of target object test networks for heat dissipation testing. A comparison module is connected with the test module, and is used to compare the heat dissipation test result with the heat dissipation requirement information of the corresponding test environment information, and obtain a comparison result. The present invention can better correspond to the configuration of adaptive heat dissipation measurement for targets at different positions, has a better matching relationship, and has better heat dissipation test flexibility.

Description

Technical Field

[0001] The present invention relates to the field of new energy technology, and in particular to an intelligent management system for new energy heat dissipation testing. Background Art

[0002] New energy heat dissipation testing is one of the important directions for the development of the new energy industry. With the continuous advancement of new energy technology and the continuous expansion of market demand, the application of intelligent management systems for new energy heat dissipation testing not only helps to improve the heat dissipation performance and reliability of new energy products, but also reduces energy consumption and environmental pollution; this is of great significance for promoting the development of the new energy industry and achieving sustainable development goals. However, it is currently difficult to conduct adaptability tests for multiple environments during new energy heat dissipation testing, and the flexibility of the test cannot be guaranteed. Summary of the invention

[0003] The purpose of the present invention is to provide an intelligent management system for new energy heat dissipation testing to solve the shortcomings of the background technology.

[0004] In order to achieve the above object, the present invention provides the following technical solution: an intelligent management system for new energy heat dissipation testing, comprising:

[0005] A formulation module, used to determine a target object for heat dissipation testing, and formulate multiple heat dissipation testing plans corresponding to the target object, wherein the heat dissipation testing plans include test environment information corresponding to the target object and heat dissipation requirement information corresponding to the test environment information;

[0006] A configuration module, connected to the formulation module, is used to set a heat dissipation test base point, configure the heat dissipation test base point corresponding to a plurality of heat dissipation test schemes according to the target object, and obtain a plurality of target object test networks corresponding to the heat dissipation test schemes;

[0007] The test module is connected to the configuration module and is used to respectively correspond the target object to a plurality of target object test networks to perform heat dissipation tests and obtain heat dissipation test results;

[0008] The comparison module is connected to the test module and is used to compare the heat dissipation test results with the heat dissipation requirement information of the corresponding test environment information to obtain a comparison result, and to treat the target object corresponding to the comparison result that does not meet the preset conditions as a target object that fails the heat dissipation test.

[0009] In a preferred embodiment, the formulation module includes:

[0010] A determination unit, used to determine a target object for heat dissipation testing, and collect working parameters and heat generation information of the target object as basic information of the target object;

[0011] A formulation unit is used to formulate multiple test environment information corresponding to the target object and heat dissipation requirement information corresponding to the test environment information as multiple heat dissipation test schemes based on the basic information of the target object, wherein the test environment information corresponding to the target object includes test scenarios and test working parameters within the scope of the basic information of the target object.

[0012] In a preferred embodiment, the configuration module includes:

[0013] A setting unit, used for setting a heat dissipation test base point, and constructing a model for the heat dissipation test base point to obtain a heat dissipation test base point model;

[0014] A selection unit, configured to select a plurality of test positions of a target object in a heat dissipation test base point model based on the test environment information of the target object, and bind the test environment information of the target object with the corresponding test positions of the target object to obtain a plurality of first test information;

[0015] A placement unit, used to virtually place the target object at the test positions in the plurality of first test information, and respectively combine the heat dissipation test base points to obtain a plurality of virtual models;

[0016] The connection unit is used to perform parameter configuration and partition connection on the heat dissipation test base points in the multiple virtual models respectively, so as to obtain multiple target object test networks for the heat dissipation test of the target object.

[0017] In a preferred embodiment, the setting unit includes:

[0018] An information determination unit, used to determine a test space and set a plurality of test points in the test space;

[0019] An association unit, used for associating a plurality of test points to obtain a heat dissipation test base point, configuring corresponding connection points for the plurality of test points respectively, connecting the plurality of connection points to each other, and configuring a plurality of wandering ends for the plurality of connection points;

[0020] The construction unit is used to construct a model of the heat dissipation test base point in the test space to obtain a heat dissipation test base point model.

[0021] In a preferred embodiment, the delivery unit comprises:

[0022] A delivery construction unit, used to construct a representative model of the target object, and virtually deliver the representative model of the target object to the test positions in the plurality of first test information to obtain a plurality of delivery models;

[0023] The information association unit is used to select the heat dissipation test range of the target object from multiple delivery models, associate the information of the involved points corresponding to the test points in the heat dissipation test range, and use the multiple delivery models after the involved point information is associated as multiple virtual models.

[0024] In a preferred embodiment, the connection unit comprises:

[0025] An information configuration unit, used to configure corresponding wandering terminals respectively corresponding to the multiple virtual models, and connect the wandering terminals with the associated moving points in the corresponding virtual models;

[0026] The partitioning and connection unit is used to configure parameters of monitoring points within the heat dissipation test range in multiple virtual models based on heat dissipation demand information, partition the monitoring points according to preset parameter ranges and parameter configurations to obtain multiple monitoring areas, sort and connect the multiple monitoring areas according to the parameter sizes corresponding to the monitoring areas, and obtain multiple target object test networks for the heat dissipation test of the target object.

[0027] In a preferred embodiment, the test module includes:

[0028] An actual placement unit, used for actually placing the target object in correspondence with a plurality of test positions;

[0029] The test unit is used to collect the heat dissipation test results of the target object based on the involved points associated with the information in the target object test network, wherein the heat dissipation test results are the temperatures collected at the involved points in the corresponding monitoring area.

[0030] In a preferred embodiment, the comparison module comprises:

[0031] A comparison unit is used to drive the point to transmit the heat dissipation test result to the corresponding wandering end, and the wandering end compares the heat dissipation test result with the corresponding target object test network to obtain a comparison result;

[0032] The judgment unit is used to regard the target object corresponding to the comparison result that does not meet the preset conditions as a target object that fails the heat dissipation test.

[0033] In the above technical solution, the technical effects and advantages provided by the present invention are:

[0034] The present invention associates through test points in a virtual model, and then associates information according to the driving points configured by the test points, which can better configure adaptive heat dissipation measurements for targets at different positions, has a better matching relationship, and has better heat dissipation test flexibility. BRIEF DESCRIPTION OF THE DRAWINGS

[0035] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings required for use in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in the present invention. For ordinary technicians in this field, other drawings can also be obtained based on these drawings.

[0036] Figure 1 It is a system block diagram of the present invention. DETAILED DESCRIPTION

[0037] In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0038] Example 1, please refer to Figure 1 As shown, the intelligent management system for new energy heat dissipation test described in this embodiment includes:

[0039] A formulation module, used to determine a target object for heat dissipation testing, and formulate multiple heat dissipation testing plans corresponding to the target object, wherein the heat dissipation testing plans include test environment information corresponding to the target object and heat dissipation requirement information corresponding to the test environment information;

[0040] A configuration module, connected to the formulation module, is used to set a heat dissipation test base point, configure the heat dissipation test base point corresponding to a plurality of heat dissipation test schemes according to the target object, and obtain a plurality of target object test networks corresponding to the heat dissipation test schemes;

[0041] The test module is connected to the configuration module and is used to respectively correspond the target object to a plurality of target object test networks to perform heat dissipation tests and obtain heat dissipation test results;

[0042] The comparison module is connected to the test module and is used to compare the heat dissipation test results with the heat dissipation requirement information of the corresponding test environment information to obtain a comparison result, and to treat the target object corresponding to the comparison result that does not meet the preset conditions as a target object that fails the heat dissipation test.

[0043] It should be noted that the new energy heat dissipation test is one of the important directions for the development of the new energy industry. With the continuous advancement of new energy technology and the continuous expansion of market demand, the application of the intelligent management system for new energy heat dissipation testing will not only help improve the heat dissipation performance and reliability of new energy products, but also reduce energy consumption and environmental pollution; this is of great significance for promoting the development of the new energy industry and achieving sustainable development goals. However, it is currently difficult to conduct adaptive testing for multiple environments during the new energy heat dissipation test process, and the flexibility of the test cannot be guaranteed; and this application is associated through test points in the virtual model, and then the information is associated according to the driving points configured by the test points, which can better correspond to the configuration of adaptive heat dissipation measurements for targets in different positions, have a better coordination relationship, and have better heat dissipation test flexibility.

[0044] In one embodiment, the formulation module includes:

[0045] A determination unit, used to determine a target object for heat dissipation testing, and collect working parameters and heat generation information of the target object as basic information of the target object;

[0046] A formulation unit, used to formulate a plurality of test environment information corresponding to the target object and heat dissipation requirement information corresponding to the test environment information as a plurality of heat dissipation test schemes according to the target object basic information, wherein the test environment information corresponding to the target object includes a test scene and a test working parameter within the scope of the target object basic information;

[0047] It should be noted that the target object of the heat dissipation test is determined, for example, it can be a heat dissipation test of batteries and motors in the new energy vehicle industry, and then the working parameters and heat generation information of the target object are determined as the basic information of the target object. The working parameters here are the parameter range of the normal operation of the target object, for example, the working parameters such as the current and voltage of battery charging and discharging, wherein the heat generation information is the location of the heat generation of the battery and the cause of the heat generation. Then, the test environment information and the heat dissipation requirement information corresponding to the test environment information can be formulated as multiple heat dissipation test schemes according to the basic information of the target object. Here, the multiple test environment information corresponding to the target objects include the test scenes and test working parameters within the scope of the basic information of the target object. The scope of the basic information of the target object represents the range of the working parameters of the target object. For example, the test scene is a battery in a narrow space under a certain ambient temperature and ambient humidity, or the actual placement of the battery will be affected by the heat generated by the surrounding devices. Here, it represents the test scene of the test target object, and the test working parameters are parameters within the working parameter range of the target object. It can be tested under multiple environments and multiple parameters, and has a better target object testing effect.

[0048] In one embodiment, the configuration module includes:

[0049] A setting unit, used for setting a heat dissipation test base point, and constructing a model for the heat dissipation test base point to obtain a heat dissipation test base point model;

[0050] A selection unit, configured to select a plurality of test positions of a target object in a heat dissipation test base point model based on the test environment information of the target object, and bind the test environment information of the target object with the corresponding test positions of the target object to obtain a plurality of first test information;

[0051] A placement unit, used to virtually place the target object at the test positions in the plurality of first test information, and respectively combine the heat dissipation test base points to obtain a plurality of virtual models;

[0052] The connection unit is used to perform parameter configuration and partition connection on the heat dissipation test base points in the multiple virtual models respectively, so as to obtain multiple target object test networks for the heat dissipation test of the target object;

[0053] It should be noted that the heat dissipation test base point is a sensor for temperature monitoring for subsequent heat dissipation testing of the target object. The temperature sensor is arranged to form a heat dissipation test base point by forming a plurality of temperature sensors. The heat dissipation test base point is modeled and used for scene simulation settings corresponding to a plurality of heat dissipation test schemes. Due to the different test environment information of the target object, for example, the positional relationship with the surrounding devices, and the test when the heat dissipation influence of the surrounding devices is considered, it is necessary to select the test position of the target object based on the test environment information of the target object in the heat dissipation test base point model, bind the test environment information of the target object with the corresponding test position of the target object to obtain a plurality of first test information. In order to virtually reflect the heat dissipation test of the target object, it is necessary to comprehensively display a plurality of heat dissipation test schemes in virtual form. Therefore, the target object is virtually placed on the test positions in the multiple first test information, and multiple virtual models are obtained in combination with the heat dissipation test base points. The virtual model can be used to obtain a virtual simulation relationship between the target object and the heat dissipation test base point. Since the positions corresponding to different heat dissipation test schemes are different, the number of sensors started in the heat dissipation test base point and the sensors at different positions are different. Therefore, it is necessary to select the sensors in the corresponding heat dissipation test base points corresponding to the multiple virtual models to monitor the temperature of the heat dissipation test of the target object, and then perform parameter configuration on the heat dissipation test base points in the multiple virtual models for partitioning and involvement, so as to obtain multiple target object test networks for heat dissipation test of the target object, which have good adaptability, can better carry out new energy heat dissipation test, and ensure the diversity and accuracy of the heat dissipation test of the target object.

[0054] In one embodiment, the setting unit includes:

[0055] An information determination unit, used to determine a test space and set a plurality of test points in the test space;

[0056] An association unit, used for associating a plurality of test points to obtain a heat dissipation test base point, configuring corresponding connection points for the plurality of test points respectively, connecting the plurality of connection points to each other, and configuring a plurality of wandering ends for the plurality of connection points;

[0057] The construction unit is used to construct a model of the heat dissipation test base point in the test space to obtain a heat dissipation test base point model.

[0058] It should be noted that the test space of the heat dissipation test target is determined. The test space here is a three-dimensional space. Multiple test points are set in the three-dimensional space. The test points are distributed in the three-dimensional space. Then, the multiple test points are associated with each other to obtain the heat dissipation test base point. The test point is the position where the involvement point is set. Then, the involvement point is configured for the corresponding test point. The involvement point here is set in the actual test environment. There is a one-to-one correspondence between the involvement point and the heat dissipation test base point model. The subsequent involvement point monitors the temperature at the location, and the monitored temperature can be synchronized to the test point corresponding to the heat dissipation test base point model. The actual test is set according to the heat dissipation test base point model. The involvement point is used for temperature monitoring. Then, the corresponding multiple involvement points are connected to each other. Then, the corresponding wandering ends are configured for the corresponding multiple involvement points. The wandering end is used for the subsequent integration of the temperature collected by the test points in the target test network. It has heat dissipation test management for the heat dissipation test target at different test positions, has a good test effect, better understands the heat dissipation performance of the heat dissipation test target, and can better arrange the location installation of the target in actual use.

[0059] In one embodiment, the delivery unit includes:

[0060] A delivery construction unit is used to construct a representative model of the target object, and virtually deliver the representative model of the target object to the test positions in the plurality of first test information to obtain a plurality of delivery models;

[0061] An information association unit is used to select heat dissipation test ranges for a target object from a plurality of delivery models, perform information association on the involved points corresponding to the test points within the heat dissipation test range, and use the plurality of delivery models after the involved point information association as a plurality of virtual models;

[0062] It should be noted that here a heat dissipation test is performed on a new energy target object. Therefore, in order to better test the target object, it is necessary to virtually set up the target object in the heat dissipation test base point model, so that in the actual heat dissipation test, the heat dissipation test can be performed according to the content set up in the heat dissipation test base point model. First, a representative model of the target object is constructed, and the representative model of the target object is virtually placed on a plurality of test positions in the first test information to obtain a plurality of placement models. The placement model here is a setting of the representative model on a plurality of heat dissipation test base point models according to different test positions. Later, due to the different test positions, the range and position of temperature monitoring are also different. Therefore, the heat dissipation test range of the target object is selected in the plurality of placement models, and the involved points of the test points within the heat dissipation test range are associated with information, and the plurality of placement models after the associated point information is used as a plurality of virtual models. For example, the target object is at position A, There are no other devices and components around position A, so the heat dissipation test here only needs to monitor the preset spatial range around position A as the heat dissipation test range, and then the involved points of the test points in the heat dissipation test range are associated with information to obtain one of the virtual models; when the target object is at position B, there is a heat-generating device at position B close to the target object in one direction, and the heat-generating device will affect the heat dissipation of the target object. Then the range of the target object around position B and the range around the heat-generating device are used as the heat dissipation test range, and then the involved points of the test points in the heat dissipation test range are associated with information to obtain another virtual model. The number of virtual models is the same as the number of test positions, with different measurement positions and measurement environments, and different enabled involved points. Here, association is performed through test points in the virtual model, and then information association is performed according to the involved points configured by the test points, which can better correspond to the configuration of adaptive heat dissipation measurements for targets at different positions, has a better coordination relationship, and has better heat dissipation test flexibility.

[0063] In one embodiment, the connection unit comprises:

[0064] An information configuration unit, used to configure corresponding wandering terminals respectively corresponding to the multiple virtual models, and connect the wandering terminals with the associated moving points in the corresponding virtual models;

[0065] A partitioning and linking unit is used to configure parameters of monitoring points within the heat dissipation test range in multiple virtual models based on heat dissipation demand information, partition the monitoring points according to preset parameter ranges and parameter configurations to obtain multiple monitoring areas, sort and link the multiple monitoring areas according to the parameter sizes corresponding to the monitoring areas, and obtain multiple target object test networks for the heat dissipation test of the target object;

[0066] It should be noted that corresponding wandering terminals are respectively configured for the multiple virtual models. The wandering terminal here is a cloud server. When multiple associated affecting points do not appear, the wandering terminal is not working. When multiple associated affecting points appear, a wandering terminal is selected to communicate with multiple associated affecting points. There are multiple wandering terminals. After the associated affecting points appear, a wandering terminal is randomly selected to connect with the associated affecting point. Then, parameter configuration is performed for the monitoring points within the heat dissipation test range in the multiple virtual models. The monitoring points are partitioned according to the preset parameter range and the parameter configured to obtain multiple monitoring areas. The multiple monitoring areas are sorted and implicated according to the parameter sizes corresponding to the monitoring areas. The parameter configuration here is the parameter configuration of qualified heat dissipation (the parameter configuration is the heat dissipation requirement information in the heat dissipation test plan). For example, when the target object is at position A, after the temperature within the heat dissipation test range meets the set parameters, it means that the heat dissipation of the target object is qualified, otherwise it is unqualified. Therefore, the monitoring points within the heat dissipation test range in the multiple virtual models are first configured with parameters, which can facilitate the subsequent judgment of the heat dissipation performance of the target object.

[0067] In one embodiment, the test module includes:

[0068] An actual placement unit, used for actually placing the target object in correspondence with a plurality of test positions;

[0069] A test unit, used to collect heat dissipation test results of the target object based on the involved points associated with the information in the target object test network, wherein the heat dissipation test results are the temperatures collected at the involved points of the corresponding monitoring area;

[0070] In one embodiment, the comparison module includes:

[0071] A comparison unit is used to drive the point to transmit the heat dissipation test result to the corresponding wandering end, and the wandering end compares the heat dissipation test result with the corresponding target object test network to obtain a comparison result;

[0072] A judgment unit, used for treating the target object corresponding to the comparison result that does not meet the preset conditions as a target object that fails the heat dissipation test;

[0073] It should be noted that after setting up the test environment for the target object, the target object is actually placed at the test position, and then the heat dissipation test results of the target object are collected based on the involvement points associated with the information in the target object test network, and the heat dissipation test results are transmitted to the corresponding wandering end through the involvement points. The wandering end compares the heat dissipation test results with the corresponding target object test network parameters to obtain a comparison result. The parameter configuration in the target object test network is configured according to the heat dissipation demand information. Here, the comparison is performed according to the monitoring area to obtain a comparison result. The target object corresponding to the comparison result that does not meet the preset conditions is regarded as an unqualified target for the heat dissipation test. The preset condition is to limit the temperature difference value in the monitoring area. When the heat dissipation test result is greater than the temperature difference value in the restricted monitoring area between the target object test network and the monitoring area, it means that the heat dissipation test of the target object is unqualified in the test environment, and it has a better multi-environment heat dissipation test effect.

[0074] The above is only a specific implementation of the present application, but the protection scope of the present application is not limited thereto. Any person skilled in the art who is familiar with the present technical field can easily think of changes or substitutions within the technical scope disclosed in the present application, which should be included in the protection scope of the present application. Therefore, the protection scope of the present application should be based on the protection scope of the claims.

Claims

1. An intelligent management system for new energy heat dissipation testing, characterized in that: include: A formulation module, used to determine a target object for heat dissipation testing, and formulate multiple heat dissipation testing plans corresponding to the target object, wherein the heat dissipation testing plans include test environment information corresponding to the target object and heat dissipation requirement information corresponding to the test environment information; A configuration module, connected to the formulation module, is used to set a heat dissipation test base point, configure the heat dissipation test base point corresponding to a plurality of heat dissipation test schemes according to the target object, and obtain a plurality of target object test networks corresponding to the heat dissipation test schemes; The test module is connected to the configuration module and is used to respectively correspond the target object to a plurality of target object test networks to perform heat dissipation tests and obtain heat dissipation test results; A comparison module, connected to the test module, is used to compare the heat dissipation test result with the heat dissipation requirement information of the corresponding test environment information to obtain a comparison result, and to treat the target object corresponding to the comparison result that does not meet the preset conditions as a target object that fails the heat dissipation test; The configuration module includes: A setting unit, used for setting a heat dissipation test base point, and constructing a model for the heat dissipation test base point to obtain a heat dissipation test base point model; A selection unit, configured to select a plurality of test positions of a target object in a heat dissipation test base point model based on the test environment information of the target object, and bind the test environment information of the target object with the corresponding test positions of the target object to obtain a plurality of first test information; A placement unit, used to virtually place the target object at the test positions in the plurality of first test information, and respectively combine the heat dissipation test base points to obtain a plurality of virtual models; The connection unit is used to perform parameter configuration and partition connection on the heat dissipation test base points in the multiple virtual models respectively, so as to obtain multiple target object test networks for the heat dissipation test of the target object.

2. The intelligent management system for new energy heat dissipation testing according to claim 1 is characterized by: The formulation module includes: A determination unit, used to determine a target object for heat dissipation testing, and collect working parameters and heat generation information of the target object as basic information of the target object; A formulation unit is used to formulate multiple test environment information corresponding to the target object and heat dissipation requirement information corresponding to the test environment information as multiple heat dissipation test schemes based on the basic information of the target object, wherein the test environment information corresponding to the target object includes test scenarios and test working parameters within the scope of the basic information of the target object.

3. The intelligent management system for new energy heat dissipation testing according to claim 1 is characterized by: The setting unit comprises: An information determination unit, used to determine a test space and set a plurality of test points in the test space; An association unit, used for associating a plurality of test points to obtain a heat dissipation test base point, configuring corresponding connection points for the plurality of test points respectively, connecting the plurality of connection points to each other, and configuring a plurality of wandering ends for the plurality of connection points; The construction unit is used to construct a model of the heat dissipation test base point in the test space to obtain a heat dissipation test base point model.

4. The intelligent management system for new energy heat dissipation testing according to claim 3 is characterized by: The delivery unit comprises: A delivery construction unit, used to construct a representative model of the target object, and virtually deliver the representative model of the target object to the test positions in the plurality of first test information to obtain a plurality of delivery models; The information association unit is used to select the heat dissipation test range of the target object from multiple delivery models, associate the information of the involved points corresponding to the test points in the heat dissipation test range, and use the multiple delivery models after the involved point information is associated as multiple virtual models.

5. The intelligent management system for new energy heat dissipation test according to claim 4 is characterized by: The connection unit comprises: An information configuration unit, used to configure corresponding wandering terminals respectively corresponding to the multiple virtual models, and connect the wandering terminals with the associated moving points in the corresponding virtual models; The partitioning and connection unit is used to configure parameters of monitoring points within the heat dissipation test range in multiple virtual models based on heat dissipation demand information, partition the monitoring points according to preset parameter ranges and parameter configurations to obtain multiple monitoring areas, sort and connect the multiple monitoring areas according to the parameter sizes corresponding to the monitoring areas, and obtain multiple target object test networks for the heat dissipation test of the target object.

6. The intelligent management system for new energy heat dissipation test according to claim 1 is characterized by: The test module includes: An actual placement unit, used for actually placing the target object in correspondence with a plurality of test positions; The test unit is used to collect the heat dissipation test results of the target object based on the involved points associated with the information in the target object test network, wherein the heat dissipation test results are the temperatures collected at the involved points in the corresponding monitoring area.

7. The intelligent management system for new energy heat dissipation test according to claim 1 is characterized by: The comparison module comprises: A comparison unit is used to drive the point to transmit the heat dissipation test result to the corresponding wandering end, and the wandering end compares the heat dissipation test result with the corresponding target object test network to obtain a comparison result; The judgment unit is used to regard the target object corresponding to the comparison result that does not meet the preset conditions as a target object that fails the heat dissipation test.

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