Aerosol generating equipment endurance test method, device, equipment, medium and product

Abstract

The invention belongs to the technical field of endurance testing, and provides an endurance testing method, device and equipment for aerosol generating equipment, a medium and a product, and the method comprises the steps: obtaining the current parameter information of a plurality of aerosol generating equipment to be tested, and placing the plurality of aerosol generating equipment on an equipment carrying platform; and issuing an instruction to the test medium driving equipment to control the test medium driving equipment to circularly execute endurance test actions on the aerosol generation equipment placed on the equipment carrying table until all the aerosol generation equipment outputs a preset voltage signal representing endurance exhaustion, recording final parameter information of all the aerosol generation equipment, and recording the final parameter information of all the aerosol generation equipment. And ending the endurance test. The endurance test action comprises the following steps: loading a test medium on the aerosol generation equipment placed on the equipment carrying table, executing an aerosol generation action on each aerosol generation equipment according to a preset driving parameter, and unloading the test medium on the aerosol generation equipment placed on the equipment carrying table; and a switching operation of switching from one aerosol-generating device to the next aerosol-generating device.

Description

Endurance testing methods, apparatus, equipment, media, and products for aerosol generation equipment Technical Field

[0001] This application belongs to the field of endurance testing technology, and more specifically, relates to a method, apparatus, equipment, medium and product for endurance testing of an aerosol generation device. Background Technology

[0002] In related technologies, the endurance testing of existing aerosol generation equipment mostly relies on manual operation or simple automated devices.

[0003] However, manual testing requires plugging and unplugging test media and recording parameters one by one, which is not only inefficient, but also prone to data distortion due to operational errors and timing deviations. Simple automated devices need to be cooled separately after testing a single device. During the cooling period, parallel testing cannot be carried out, resulting in wasted time and a long batch testing cycle. There are also problems such as waste of test media and overheating of equipment, which make it difficult to meet the needs of efficient and accurate endurance testing in large-scale production. Summary of the Invention

[0004] The purpose of this application is to provide a method, apparatus, equipment, medium, and product for endurance testing of aerosol generation equipment, aiming to solve the technical problems of low efficiency and long testing cycle of endurance testing of aerosol generation equipment in related technologies, which makes it difficult to meet the endurance testing requirements of large-scale production.

[0005] To achieve the above objectives, according to the first aspect of this application, a method for testing the endurance of an aerosol generating device is provided, comprising: acquiring current parameter information of multiple aerosol generating devices to be tested, wherein the multiple aerosol generating devices are respectively placed on a device platform; issuing instructions to a test medium driving device to control the test medium driving device to cyclically perform endurance test actions on the aerosol generating devices placed on the device platform until all aerosol generating devices output a preset voltage signal indicating endurance depletion, then recording the final parameter information of all aerosol generating devices and ending the endurance test; wherein the endurance test actions include: performing a test medium loading operation on the aerosol generating devices placed on the device platform, performing an aerosol generating action on each aerosol generating device according to preset driving parameters, performing a test medium unloading operation on the aerosol generating devices placed on the device platform, and switching from one aerosol generating device to the next aerosol generating device.

[0006] In some embodiments, the test medium driving device is internally equipped with a test medium clamping device. The instructions include a first instruction and a second instruction. When there are multiple device platforms, an instruction is issued to the test medium driving device to control it to cyclically perform a battery life test on the aerosol generating devices placed on the device platforms. This includes: issuing a first instruction to the test medium driving device to control the test medium clamping device to retrieve a single test medium from the test medium storage structure and insert the test medium into the current target aerosol generating device corresponding to the current target device platform; and responding to a heating signal. The system issues a second instruction to the test medium driving device, controlling the test medium driving device to perform an aerosol generation action on the current target aerosol generating device according to preset driving parameters after waiting for a first time period. The heating signal is used to instruct the target aerosol generating device to activate heating after recognizing the test medium. The test medium driving device also responds to the completion signal of the aerosol generation action by removing the test medium from the current target aerosol generating device, completing the unloading operation of the test medium; and inserts a new test medium into the next target aerosol generating device corresponding to the next target device platform, completing the switching operation.

[0007] In some embodiments, the first instruction is triggered by a control device that is communicatively connected to the test medium driving device; the second instruction is automatically sent after receiving a heating signal from the current target aerosol generating device.

[0008] In some embodiments, the method further includes: detecting whether the test medium driving device has completed a preset number of generation actions, and / or detecting whether the aerosol generation device corresponding to the current target device platform outputs a preset voltage signal; if any of the above conditions are met, it is determined that the aerosol generation action has been completed.

[0009] In some embodiments, the method further includes: during the cyclic test, if the aerosol generating device corresponding to a certain device platform outputs a preset voltage signal, then during subsequent cyclic tests, controlling the test medium driving device to stop inserting the test medium into the device platform; after waiting for a second duration, skipping the device platform and continuing to test the next device platform, so that the cooling time of the aerosol generating device is not less than a third duration, wherein the second duration is less than the third duration.

[0010] In some embodiments, the parameter information of the aerosol generating device includes the number of tests, version information, resistance information, and voltage information. The method further includes: storing the parameter information of each aerosol generating device in real time each time it is read, so as to obtain a record of parameter changes of the aerosol generating device. In some embodiments, the preset driving parameters include at least one of the following: number of actions, action time, action interval, and fluid flow rate. The preset driving parameters are set by a control device that is communicatively connected to the test medium driving device.

[0011] According to a second aspect of this application, a battery life testing device for an aerosol generation device is provided, comprising a device platform, a test medium driving device, and a control device; the device platform is used to place multiple aerosol generation devices to be tested; the control device is connected to the test medium driving device and each aerosol generation device, and is used to acquire the current parameter information of each aerosol generation device; to issue instructions to the test medium driving device to control the test medium driving device to cyclically perform battery life testing actions on the aerosol generation devices placed on the device platform until all aerosol generation devices output a preset voltage signal indicating battery life depletion, then record the final parameter information of all aerosol generation devices and end the battery life test; wherein, the battery life testing actions include: performing a test medium loading operation on the aerosol generation devices placed on the device platform, performing an aerosol generation action on each aerosol generation device according to preset driving parameters, performing a test medium unloading operation on the aerosol generation devices placed on the device platform, and switching from one aerosol generation device to the next aerosol generation device. In some embodiments, the instructions include a first instruction and a second instruction; the test medium driving device can be connected to each aerosol generating device. When there are multiple device platforms, the test medium driving device includes a test medium storage structure, a test medium clamping device, and a medium driving execution structure; the test medium storage structure is used to store multiple test media based on a preset maximum loading capacity; the test medium clamping device is used to, in response to the first instruction, retrieve a single test medium from the test medium storage structure storing the test media and insert the test medium into the current target aerosol generating device corresponding to the current target device platform; the medium driving execution structure is used to, in response to the second instruction, perform an aerosol generating action on the current target aerosol generating device according to preset driving parameters after waiting for a first duration.

[0012] In some embodiments, the test medium clamping device is also configured to, in response to a completion signal of the aerosol generation action, remove the test medium from the current target aerosol generation device to complete the unloading operation of the test medium; and insert a new test medium into the next target aerosol generation device corresponding to the next target device platform to complete the switching operation.

[0013] In some embodiments, the number of device platforms is set to N; the control device is also used to sequentially use the N device platforms as the current target device platforms in a preset order and cyclically execute the test process to achieve parallel testing of the aerosol generation device and cooling time, wherein N is greater than or equal to 3 and is a positive integer.

[0014] In some embodiments, the control device is further configured to mark an aerosol generating device when a preset voltage signal is detected being output by a certain aerosol generating device; during subsequent cyclic testing, the control device is configured to stop inserting new test media into the marked aerosol generating device, and after waiting for a second duration, the marked aerosol generating device is skipped and other aerosol generating devices are tested, so that the cooling time of the marked aerosol generating device is not less than a third duration, wherein the second duration is less than the third duration.

[0015] In some embodiments, the control device has preset drive parameters including at least one of the following: number of actions, action time, action interval, and fluid flow rate. The preset drive parameters are set by the device endurance testing software mounted on the control device.

[0016] According to a third aspect of this application, an electronic device is provided, comprising: a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein when the processor executes the computer program, the electronic device performs the method as described in any one of the above.

[0017] According to a fourth aspect of this application, a computer-readable storage medium is provided that stores a computer program, which, when executed by a processor, implements the method as described in any one of the above.

[0018] According to a fifth aspect of this application, a computer program product is provided that, when the computer program product is run on an electronic device, causes the electronic device to perform the method of any one of the first aspects above.

[0019] It is understandable that the beneficial effects of the second to fifth aspects mentioned above can be found in the relevant descriptions in the first aspect mentioned above, and will not be repeated here.

[0020] The beneficial effects of this application embodiment compared with the prior art are as follows: In the endurance testing method for aerosol generating devices provided in this application embodiment, multiple aerosol generating devices are placed on a device platform, and all aerosol generating devices are connected to a control device. This method obtains the current parameter information of the multiple aerosol generating devices to be tested, issues instructions to a test medium driving device to control the test medium driving device, and cyclically performs endurance testing actions on the aerosol generating devices placed on the device platform until all aerosol generating devices output a preset voltage signal indicating endurance depletion. Then, the final parameter information of all aerosol generating devices is recorded, and the endurance test ends. The endurance testing actions include: loading test medium onto the aerosol generating devices placed on the device platform; performing aerosol generating actions on each aerosol generating device according to preset driving parameters; unloading test medium from the aerosol generating devices placed on the device platform; and switching from one aerosol generating device to the next.

[0021] By directly issuing commands to the test medium drive equipment through the control device, the complete endurance test actions, including test medium loading, aerosol generation, unloading, and platform switching, are automatically executed, eliminating the need for manual insertion and removal of test media from each device. Simultaneously, the control device automatically acquires and records the parameter information and preset voltage signals of each device, avoiding timing deviations and parameter recording errors caused by manual operation, significantly improving test efficiency and data accuracy. During the test, the control device acquires the current parameter information of each device in real time and uses the output of preset voltage signals from all devices as the test termination condition, ensuring that the test terminates immediately when the device's endurance is exhausted, avoiding waste of test media caused by invalid test actions. Furthermore, the alternating testing and cooling of each aerosol generation device in the cyclical test process naturally avoids overheating losses caused by continuous testing of the aerosol generation device, achieving efficient and accurate endurance testing of multiple devices while also considering resource conservation and protection of the aerosol generation device.

[0022] Furthermore, addressing the issues of traditional automated devices' inability to conduct testing and cooling in parallel and the long batch testing cycle, the control equipment drives the test medium to perform test actions on all platforms in a cyclical manner. When a platform is being tested, the corresponding equipment on the other platforms can simultaneously enter the cooling state, eliminating the need to wait for each individual device to cool down before starting the next round of testing. This achieves parallel connection between test actions and cooling time. Through the cyclical scheduling of multiple platforms, the traditional serial mode of "test-cooling-test" for a single device is completely broken, significantly shortening the batch testing cycle. Attached Figure Description

[0023] To more clearly illustrate the technical solutions in the embodiments of this application, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0024] Figure 1 is a flowchart illustrating a battery life testing method for an aerosol generating device according to an embodiment of this application; Figure 2 is a schematic diagram illustrating an optional device platform according to an embodiment of this application; Figure 3 is a structural schematic diagram illustrating an optional battery life testing device for an aerosol generating device according to an embodiment of this application; Figure 4 is a flowchart illustrating an optional battery life testing method for an aerosol generating device according to an embodiment of this application; Figure 5 is a structural schematic diagram illustrating an electronic device according to an embodiment of this application. Detailed Implementation

[0025] In the following description, specific details such as particular system architectures and techniques are set forth for illustrative purposes and not for limitation, in order to provide a thorough understanding of the embodiments of this application. However, those skilled in the art will understand that this application may also be implemented in other embodiments without these specific details. In other instances, detailed descriptions of well-known systems, apparatuses, circuits, and methods have been omitted so as not to obscure the description of this application with unnecessary detail.

[0026] It should be understood that, when used in this application specification and the appended claims, the term "comprising" indicates the presence of the described features, integrals, steps, operations, elements and / or components, but does not exclude the presence or addition of one or more other features, integrals, steps, operations, elements, components and / or a collection thereof.

[0027] It should also be understood that, in the description of this application, unless otherwise stated, the " / " used in the specification and appended claims indicates that the related objects are in an "or" relationship. For example, A / B can mean A or B. The "and / or" in this application is merely a description of the relationship between the related objects, indicating that three relationships can exist. For example, A and / or B can represent: A alone, A and B simultaneously, or B alone, where A and B can be singular or plural. Furthermore, in the description of this application, unless otherwise stated, "multiple" means two or more. "At least one of the following" or similar expressions refer to any combination of these items, including any combination of single or plural items. For example, at least one of a, b, or c can represent: a, b, c, ab, ac, bc, or abc, where a, b, and c can be single or multiple.

[0028] Furthermore, to facilitate a clear description of the technical solutions in the embodiments of this application, the terms "first" and "second" are used in the embodiments of this application to distinguish identical or similar items with substantially the same function and effect. Those skilled in the art will understand that the terms "first" and "second" are not used to limit the quantity or execution order, but only for distinguishing descriptions, and the terms "first" and "second" are not necessarily different, nor should they be construed as indicating or implying relative importance.

[0029] As used in this application specification and the appended claims, the term "if" may be interpreted, depending on the context, as "when," "once," "in response to determination," or "in response to detection." Similarly, the phrase "if determined" or "if detected [the described condition or event]" may be interpreted, depending on the context, as meaning "once determined," "in response to determination," "once detected [the described condition or event]," or "in response to detection [the described condition or event]."

[0030] References to "one embodiment" or "some embodiments" as described in this specification mean that one or more embodiments of this application include a specific feature, structure, or characteristic described in connection with that embodiment. Therefore, the phrases "in one embodiment," "in some embodiments," "in other embodiments," "in still other embodiments," etc., appearing in different parts of this specification do not necessarily refer to the same embodiment, but rather mean "one or more, but not all, embodiments," unless otherwise specifically emphasized. The terms "comprising," "including," "having," and variations thereof mean "including but not limited to," unless otherwise specifically emphasized.

[0031] This application provides an example of a method for testing the endurance of an aerosol generating device. Referring to Figure 1, which shows a schematic flowchart of the method, this method is provided as an example and not a limitation. This method can be applied to or operated in an endurance testing device for aerosol generating devices. The method includes: S101, obtaining current parameter information of the multiple aerosol generating devices to be tested.

[0032] Multiple aerosol generating devices are placed on the equipment platform.

[0033] S102, issue instructions to the test medium driving device to control the test medium driving device to perform a continuous test on the aerosol generating devices placed on the equipment platform in a loop until all aerosol generating devices output a preset voltage signal indicating that the continuous power is exhausted. Then, record the final parameter information of all aerosol generating devices and end the continuous power test.

[0034] The endurance test includes: loading test media onto the aerosol generating devices placed on the equipment platform; performing aerosol generation on each aerosol generating device according to preset drive parameters; unloading test media from the aerosol generating devices placed on the equipment platform; and switching from one aerosol generating device to the next.

[0035] This invention discloses a method for testing the endurance of aerosol generation equipment, applicable to an endurance testing device for aerosol generation equipment. The device mainly includes a platform, a test medium driving device, and a control device, among other components. These components work together to automate endurance testing for multiple aerosol generation devices. The control device is the primary implementer of this method. The following detailed description of the method, combined with specific implementation scenarios, aims to clearly present the implementation process of the technical solution and is not intended to limit the scope of protection of this invention.

[0036] In this embodiment, taking multiple device platforms as an example, the number of aerosol generating devices to be tested corresponds one-to-one with the number of device platforms. For example, more than three device platforms can be set, such as 12, 10, 9, etc. Alternatively, if there is only one device platform, each aerosol generating device can be placed at each device loading point in an integrated device platform (i.e., equivalent to an independent device platform). The number of aerosol generating devices is designed based on balancing testing efficiency and cooling effect, ensuring that the natural cooling time of a single aerosol generating device is not less than 30 minutes, thereby achieving parallel progress of testing time and cooling waiting time, and improving testing efficiency.

[0037] Taking nine aerosol generating devices as an example, the nine devices (such as heating devices used to heat the insertion medium and generate aspirable aerosols) are placed on nine corresponding device platforms as shown in Figure 2. Each device platform establishes a corresponding communication connection with the aerosol generating device through a plug-in interface. Alternatively, each aerosol generating device can be placed at a device loading point (equivalent to a device platform) in an integrated device platform as shown in Figure 3. Each device loading point establishes a corresponding communication connection with the aerosol generating device through a corresponding Type-C interface. As shown in Figure 3, the control device connects to one end of the test medium driving device and the device platform. Each aerosol generating device connects to the device platform through a Type-C interface corresponding to each device loading point. This allows multiple aerosol generating devices to connect to the control device via a single communication line through the device platform. Alternatively, each aerosol generating device can be connected to the control device wirelessly. In addition, if there are multiple device platforms, the aerosol generating device placed on each device platform can establish a connection with the control device through wired communication or wireless communication.

[0038] In some embodiments, all aerosol generating devices are connected to the test medium driving device via wired or wireless communication. Wireless communication may use Bluetooth, WiFi, or LoRa protocols, while wired communication may use Ethernet or RS485 protocols to ensure the stability of signal transmission and the timeliness of data interaction.

[0039] In some embodiments, the test medium driving device integrates a test medium storage structure, a test medium clamping device, and a medium driving execution structure. The preset maximum loading capacity of the test medium storage structure can be, for example, 300 pieces, which can meet the needs of long-term continuous testing without frequent replenishment of test media.

[0040] Before the test begins, the control device, which is connected to the test medium driving device, obtains the current parameter information of the aerosol generating device corresponding to the test platform. This current parameter information includes the number of tests, version information, TCR information, resistance information, and voltage information. In some embodiments, the control device reads the above-mentioned current parameter information through the onboard device endurance test software and stores it in real time to the data storage module (such as a readable storage medium), forming the initial parameter record of each aerosol generating device, providing a basis for subsequent test data traceability and comparison.

[0041] After reading the above current parameter information, the control device issues an instruction to the test medium driving device to start the cyclic test process. The instruction includes a first instruction for controlling the loading of the test medium and a second instruction for controlling the aerosol generation action. The first instruction can be manually triggered by the device endurance test software on the control device, while the second instruction is automatically sent after the process corresponding to the first instruction is completed, without manual intervention.

[0042] During the cyclic testing process, taking multiple equipment platforms as an example, the control equipment uses each platform as the current target platform according to a preset order (e.g., from platform 1 to platform 9). It then performs a continuous operation test on each aerosol generating device corresponding to that target platform. First, in response to the first instruction, the test medium clamping device of the test medium drive retrieves a single test medium from the test medium storage structure and precisely inserts it into the aerosol generating device corresponding to the current target platform. Upon recognizing the test medium, the aerosol generating device automatically starts the heating program and simultaneously sends a heating start signal to the control equipment. The control equipment receives this signal and confirms the loading operation is complete.

[0043] Subsequently, in response to the aforementioned heating start signal, the control device issues the second instruction to the test medium driving device. After waiting for a first duration (e.g., 25-30 seconds), the test medium driving device, through its medium-driven execution structure, performs an aerosol generation action on the aerosol generating device of the current target equipment platform according to preset driving parameters. The first duration is integrated into the timing design of the test process to ensure the test medium is sufficiently heated to a stable state, ensuring the aerosol generation effect meets the test standards. The preset driving parameters include the number of actions (which can also be understood as the number of suction ports), the action time (which can also be understood as the suction time), the action interval, and the fluid flow rate. It should be understood that all of the above parameters can be preset by the control device. For example, the action time can be set to 2-3 seconds / action, the action interval to 30-40 seconds, the fluid flow rate to 15-20 mL / s, and the number of actions to 10-15. Specific parameters can be flexibly adjusted according to test requirements.

[0044] In addition, taking a single device platform (such as an integrated device platform) as an example, where multiple device mounting points are integrated on one device platform and each aerosol generating device is placed on each device mounting point, the control device performs endurance testing on each aerosol generating device one by one according to a preset order (such as the arrangement order of the aerosol generating devices, the setting order of the aerosol generating devices on the device platform, for example, the order from device 1 to device 9). Since, essentially, even when there is only one device platform, multiple aerosol generating devices still need to be tested, the specific device endurance testing method is the same as or roughly the same as the device cruise testing method given in the above embodiment where there are multiple device platforms.

[0045] In some embodiments, the preset driving parameters include at least one of the following: number of actions, action time, action interval, and fluid flow rate. The preset driving parameters are set by a control device that is communicatively connected to the test medium driving device.

[0046] Taking multiple equipment platforms as an example, during the aerosol generation process, the control equipment monitors the test status in real time and determines whether the action has ended in two ways: first, it checks whether the media-driven execution structure of the test medium driving device has completed the preset number of actions; second, it checks whether the aerosol generation device of the current target equipment platform outputs a preset voltage signal (i.e., a low voltage signal) indicating that the battery life is exhausted. If either of these conditions is met, the aerosol generation action is determined to have ended. After the aerosol generation action ends, the test medium unloading operation is immediately performed: the control equipment controls the test medium clamping device to remove the used test medium from the aerosol generation device of the current target equipment platform. After unloading, the test medium clamping device resets to the test medium storage structure, ready for the next cycle of loading operation.

[0047] After the unloading operation is completed, the control device controls the test medium drive device to switch to the next target device platform. At the same time, the test medium clamping device takes out a new test medium from the test medium storage structure and inserts it into the aerosol generation device corresponding to the next target device platform. Then, the above process of parameter acquisition (real-time parameters for the new target device), loading, aerosol generation, and unloading is repeated to realize the cyclic testing of the device platform.

[0048] During cyclic testing, if the aerosol generator on a certain equipment platform outputs a preset voltage signal (low voltage signal), it indicates that the aerosol generator's battery life is nearing exhaustion. In subsequent cyclic tests, the control device stops inserting the test medium into the equipment platform and starts a timer. After a second duration (e.g., 5 minutes), the system skips that equipment platform and continues testing the next target equipment platform. This ensures that the cumulative cooling time of the aerosol generator corresponding to that equipment platform is not less than a third duration (i.e., 30 minutes), preventing overheating of the aerosol generator due to continuous testing from affecting test accuracy, while maintaining the overall test process and ensuring the efficiency of the battery life test.

[0049] When all aerosol generating devices on the test platform output preset voltage signals, it indicates that the battery life of all devices under test has been exhausted. The control device then stops issuing commands to the test medium driving device, ending the entire battery life test. Finally, the control device stores the final parameter information of all aerosol generating devices, especially recording the final number of tests and the final voltage information for each aerosol generating device, forming a complete test data report. Furthermore, the test data report can be exported through the device battery life test software on the control device, facilitating subsequent analysis and statistics by testers.

[0050] This embodiment uses a test medium-driven device to perform automated endurance testing on multiple aerosol generating devices placed on a test platform. This allows a single aerosol generating device to complete testing of 31-38 test media samples within 24 hours, and multiple aerosol generating devices can be tested simultaneously within one calendar day. This significantly reduces the cost of manual intervention in endurance testing, avoids long waiting times and errors associated with manual testing, and ensures the accuracy and repeatability of the endurance test results by real-time storage of device parameters, real-time status monitoring, and cooling time control during the testing process.

[0051] In some embodiments, the test medium driving device is internally equipped with a test medium clamping device. The instructions include a first instruction and a second instruction. As shown in FIG4, an instruction is issued to the test medium driving device to control the test medium driving device to perform a continuous test action on the aerosol generating device placed on the device platform in a cyclic manner. This includes: S401, issuing a first instruction to the test medium driving device to control the test medium clamping device to take out a single test medium from the test medium storage structure storing the test medium and insert the test medium into the current target aerosol generating device corresponding to the current target device platform.

[0052] S402, in response to receiving a heating signal, issues a second instruction to the test medium driving device, controlling the test medium driving device to perform an aerosol generation action on the current target aerosol generating device according to preset driving parameters after waiting for a first time period.

[0053] In some embodiments, the heating signal is used to instruct the target aerosol generating device to activate the heating signal after recognizing the test medium.

[0054] In some embodiments, taking multiple device platforms as an example, the test medium driving device is also used to respond to the completion signal of the aerosol generation action by removing the test medium from the current target aerosol generation device to complete the unloading operation of the test medium; and inserting the new test medium into the next target aerosol generation device corresponding to the next target device platform to complete the switching operation.

[0055] In some embodiments, the test medium driving device integrates a test medium clamping device. This clamping device employs an adaptive clamping mechanism, which can adjust the clamping force according to different test medium specifications to avoid damage to the test medium or the interface of the aerosol generation device during clamping, thus ensuring the stability of test medium loading and unloading. The commands issued by the control device to the test medium driving device include a first command and a second command. These two types of commands work together to achieve the cyclic execution of the endurance test actions.

[0056] In some embodiments, the first instruction is triggered by a control device that is communicatively connected to the test medium driving device; the second instruction is automatically sent after receiving a heating signal from the current target aerosol generating device.

[0057] Taking multiple equipment platforms as an example, after the test process starts, the control equipment determines the current target equipment platform and the corresponding current target aerosol generating equipment according to a preset sequence. First, it issues a first command to the test medium driving device. In response to this first command, the test medium clamping device of the test medium driving device takes out a single test medium from the built-in test medium storage structure. The preset maximum loading capacity of the test medium storage structure can be, for example, 300 pieces, which can meet the needs of long-term continuous testing. The storage structure is equipped with a remaining quantity detection sensor to monitor the remaining quantity of test medium in real time.

[0058] The test medium clamping device is precisely moved to the target device platform via a mechanical transmission structure, and the retrieved test medium is smoothly inserted into the medium interface (such as the aerosol generation chamber) of the target aerosol generating device, completing the loading operation of the test medium. The medium interface of the target aerosol generating device has a built-in identification module (sensor). After detecting that the test medium has been inserted, it automatically starts the heating program to heat the test medium. At the same time, it outputs a heating signal indicating the start of heating to the control device. The control device receives the heating signal in real time through the communication connection established with the aerosol generating device, confirming that the heating process has started.

[0059] In response to the received heating signal, the control device issues a second command to the test medium driving device. Upon receiving the second command, the test medium driving device first enters a waiting phase of a first duration. The purpose of setting the first duration is to ensure that the test medium is fully heated to a stable state, ensuring the effectiveness of subsequent aerosol generation actions. The specific duration can be flexibly set by the control device, combined with the characteristics of the test medium and the heating parameters of the aerosol generation device. For example, it can be set to 3-10 seconds to achieve a stable state of the test medium after heating.

[0060] After the initial waiting period, the media-driven execution structure of the test media-driven device performs aerosol generation actions on the current target aerosol generating device according to preset driving parameters. These preset driving parameters include the number of actions, action time, action interval, and fluid flow rate. For example, the number of actions can be set to 12, the action time to 2 seconds per action, the action interval to 30 seconds, and the fluid flow rate to 18 mL / s. It should be noted that these parameters can be pre-configured using the device's onboard endurance testing software, and can also be adjusted, modified, or updated in real time according to testing requirements.

[0061] During the aerosol generation process, the control equipment monitors the execution status in real time. When it detects that the media-driven actuator has completed a preset number of actions, or receives a preset voltage signal from the current target aerosol generator indicating depletion of battery life, the aerosol generation process is deemed complete. The current target aerosol generator then sends a completion signal to the test media drive device. Responding to this signal, the test media drive device's test media clamping device actuates again, smoothly removing the used test media from the interface of the current target aerosol generator, completing the unloading operation. The unloaded test media can be collected through a preset recycling channel for subsequent recovery and processing.

[0062] After the test medium is unloaded, the control device immediately triggers a switching operation. Under the control of the control device, the test medium driving device moves the test medium clamping device to the next target aerosol generating device corresponding to the next target device platform. Simultaneously, it retrieves a new test medium from the test medium storage structure and inserts it into the next target aerosol generating device according to the same loading logic as the current target device, thus completing the switching operation. After the switching operation is completed, the control device repeats the above process of issuing the first command, loading the test medium, heating feedback, issuing the second command, executing the aerosol generating action, unloading the test medium, and switching to the next aerosol generating device, continuously performing cyclic testing on the aerosol generating devices placed on the equipment platform until all aerosol generating devices output a preset voltage signal.

[0063] By coordinating the timing of the first and second commands, combined with the automated operation of the test medium clamping device, the entire process of test medium loading, heating, aerosol generation, unloading, and switching is automated, eliminating the need for manual intervention and effectively avoiding the risk of errors caused by manual operation. Simultaneously, the initial duration ensures sufficient heating of the test medium, guaranteeing consistent test conditions for each aerosol generation action, improving the accuracy and repeatability of test results, and enabling parallel operation of testing time and cooling waiting time, thereby increasing the efficiency of continuous testing of multiple aerosol generation devices.

[0064] In some embodiments, the method further includes: detecting whether the test medium driving device has completed a preset number of generation actions, and / or detecting whether the aerosol generation device corresponding to the current target device stage outputs a preset voltage signal; if any of the above conditions are met, it is determined that the aerosol generation action has been completed.

[0065] In some embodiments, to ensure the integrity of the aerosol generation action and the flexibility of the testing process, the aforementioned dual detection and judgment logic is used to accurately determine whether the aerosol generation action is completed. The dual detection and judgment logic is executed by the control device. After the test medium driving device starts the aerosol generation action according to the second instruction, the control device simultaneously opens dual detection channels to monitor the action execution status of the test medium driving device and the voltage signal status of the current target aerosol generation device in real time. The aerosol generation action can be determined to be completed if either of the two detection conditions is met, which can adapt to the needs of different testing scenarios.

[0066] On one hand, regarding the detection channel for whether the test medium-driven device has completed the preset number of generation actions: the control device pre-stores the preset number of generation actions configured through the device endurance test software (e.g., 12 times, 10 times, etc. for each aerosol generation device, set in conjunction with action time, interval, and fluid flow rate). During the execution of the aerosol generation action, each time the medium-driven execution structure of the test medium-driven device completes an aerosol generation action (i.e., one complete fluid drive cycle), it sends a single action completion signal back to the control device via the communication link. The control device's built-in counter accumulates the count of this single action completion. When the counter value reaches the preset number of generation actions, the control device immediately generates a judgment result indicating that the action count has been met, triggering the aerosol generation action completion signal. This detection method ensures that a single test is completed according to the standard procedure, ensuring the standardization of test data, and is particularly suitable for scenarios where the aerosol generation device has sufficient endurance and can completely execute the preset actions.

[0067] On the other hand, regarding the detection channel for whether the aerosol generating device corresponding to the current target device platform outputs a preset voltage signal, during the power consumption process of the current target aerosol generating device, the voltage of its built-in power supply will gradually decrease with the increase of the number of tests. The control device collects the voltage signal of the device in real time through the direct communication connection established with the device.

[0068] The preset voltage signal is a pre-calibrated low voltage threshold (e.g., 3.2V, which can be flexibly adjusted according to the power parameters of different aerosol generating devices) that indicates the device's battery depletion. When the control device detects that the voltage signal output by the current target aerosol generating device reaches or falls below this preset threshold, it determines that the device can no longer maintain normal aerosol generation and immediately generates a voltage signal accrual result, without waiting for the preset number of generation cycles to complete, directly determining that the aerosol generation process has ended. This detection method is used to avoid invalid actions caused by the device running out of battery power. Forcing the device to operate at excessively low voltage may damage the device or distort the test data, thus improving test safety and efficiency.

[0069] During actual testing, the control equipment supports flexible switching between three modes: detecting only the number of actions, detecting only the voltage signal, or detecting both simultaneously. This adapts to different testing needs through "AND / OR" logic: if a single test needs to be completed strictly according to the standard procedure, you can choose to detect only the number of actions; if you need to prioritize equipment safety and avoid invalid tests, you can choose to detect only the voltage signal; if you need to balance the integrity of the procedure and equipment safety, you can choose to detect both simultaneously. In this case, regardless of which condition is met first, the action is immediately determined to be completed.

[0070] For example, in a certain round of testing, the preset number of generation actions is 12. When the aerosol generating device performs the 8th action, the control device detects that the aerosol generating device outputs a preset voltage signal, and directly determines that the aerosol generating action is completed. There is no need to continue to perform the remaining 4 actions, which can protect the aerosol generating device and avoid wasting time.

[0071] Once the control device determines that the aerosol generation action has been completed through any detection channel, it immediately sends an action end command to the test medium driving device, triggering the subsequent test medium unloading operation. That is, the test medium clamping device pulls out the used test medium from the current target aerosol generation device, and then performs a device switching operation to insert the new test medium into the aerosol generation device of the next target device platform, continuously advancing the cyclic test.

[0072] During the above testing process, the software interface of the endurance test software controlling the operation of the equipment can display the test status in real time, such as: the current number of actions is 5 / 12, the current equipment voltage signal is 3.4V (higher than the preset threshold of 3.2V), etc. When a certain test condition is met, the software interface can simultaneously prompt "The number of actions has reached the standard, the action is completed" or "The equipment outputs the preset voltage signal, the action is completed", which makes it easy for testers to trace the specific reasons for the end of each round of actions.

[0073] The dual detection and judgment logic provided in the above embodiments can not only ensure the standardized execution of a single test, but also flexibly deal with the sudden situation of the device running out of power midway, avoid invalid testing and equipment damage, and improve the transparency and controllability of the testing process through real-time monitoring and status feedback.

[0074] In some embodiments, the method further includes: during the cyclic testing process, if the aerosol generating device corresponding to a certain device platform outputs a preset voltage signal, then during subsequent cyclic testing processes, controlling the test medium driving device to stop inserting the test medium into the device platform.

[0075] After waiting for the second duration, skip the equipment platform and continue testing the next equipment platform so that the cooling time of the aerosol generating equipment is not less than the third duration, wherein the second duration is less than the third duration.

[0076] In some embodiments, to ensure that aerosol generating devices that have run out of power receive sufficient cooling and to avoid overheating damage or impact on the accuracy of test data due to continuous testing, taking multiple device platforms as an example, during the cyclic testing of multiple device platforms, the control device continuously monitors the voltage signal of the aerosol generating device corresponding to each device platform in real time. When the control device detects that the aerosol generating device corresponding to a certain device platform (e.g., device platform 3) is outputting a preset voltage signal indicating that its power has run out, the control device immediately marks the power status of the aerosol generating device or the device platform, generates a "power out" status identifier, and stores the identifier in the data storage module. Simultaneously, the power status of the aerosol generating device is displayed in the control device's software interface, such as "Aerosol generating device 3: Power outage, entering cooling waiting state," which allows testers to intuitively grasp the power status of the aerosol generating devices corresponding to each device platform.

[0077] In subsequent cyclic testing, when the control device polls the marked aerosol generating device in a preset sequence (e.g., 1→2→3→…→9), it no longer performs the usual test medium loading and subsequent testing actions. Instead, it controls the test medium drive device to stop inserting new test medium into the aerosol generating device. This is because, firstly, the marked aerosol generating device lacks sufficient power to support normal aerosol generation, and inserting test medium would not complete the test effectively, resulting in a waste of test medium. Secondly, after multiple rounds of testing, the internal temperature of the marked aerosol generating device is high, requiring the testing to be stopped for cooling to avoid additional damage caused by ineffective operations at high temperatures.

[0078] While controlling the test medium drive to stop inserting the test medium, the control device starts the built-in timer to begin timing. The timing duration is the preset second duration, which can be preset to 5 minutes. The third duration is the minimum cooling time required for the aerosol generation device (i.e., the shortest time to ensure the device cools down from the high temperature after testing to a safe temperature). Considering the heating characteristics of the aerosol generation device and the requirements of the test scenario, the third duration is longer than the second duration, and can be preset to 30 minutes.

[0079] When the timer displays the end of the second duration, the control device determines that the marked aerosol generating device has been sufficiently cooled. It then triggers the stage skip logic, directly switching the test flow to the next aerosol generating device placed on the next stage (e.g., switching directly from stage 3 to stage 4), continuing the endurance test actions such as loading the test medium and generating aerosols. In each subsequent cycle of testing, as long as the aerosol generating device on the stage is still marked as "endurance exhausted," the control device repeats the above process of "stopping the insertion of test medium into the aerosol generating medium on the stage, waiting for the second duration, and then skipping the aerosol generating device on the stage," until all aerosol generating devices are marked as "endurance exhausted," at which point the cycle test ends.

[0080] The above embodiments not only address the safety requirements for cooling aerosol generation equipment but also ensure the continuity of the overall endurance testing process. This allows equipment running out of power to receive sufficient cooling, preventing damage from high temperatures. Furthermore, by only partially cooling the marked equipment, other equipment continues testing according to the standard procedure, preventing interruptions to the overall testing progress due to the cooling needs of a single aerosol generation device. This aligns with the design philosophy of parallel testing and cooling. In addition, setting the second duration to be shorter than the third duration ensures that the equipment cools to a safe temperature, further enhancing the stability and reliability of the endurance testing process.

[0081] In some embodiments, the parameter information of the aerosol generating device includes the number of tests, version information, resistance information, and voltage information. The method further includes: storing the parameter information of each aerosol generating device in real time each time it is read, to obtain a parameter change record for the aerosol generating device. To achieve full traceability of test data and dynamic monitoring of device status, this application embodiment accurately reads and stores the parameter information of the aerosol generating device in real time, forming a complete parameter change record, providing data support for test result analysis and device performance evaluation.

[0082] It should be understood that the number of tests refers to the cumulative number of aerosol generation cycles completed by the device (the number is automatically accumulated each time a complete loading-generating-unloading process is completed); the version information refers to the inherent identification information of the aerosol generation device, such as the hardware model and firmware version, used to distinguish test objects of different specifications; the resistance information refers to the real-time resistance value of the device's heating module, reflecting the working stability of the heating component; and the voltage information refers to the real-time output voltage of the aerosol generation device's built-in power supply, which is directly related to changes in battery life.

[0083] It should still be understood that the above parameter information is read through the direct communication link between the control equipment and the aerosol generating equipment, and the reading accuracy meets the test standard requirements (such as voltage information accuracy to 0.01V, resistance information accuracy to 0.01Ω).

[0084] Upon receiving parameter information, the control device immediately initiates a real-time storage process. For example, a "device number + timestamp + parameter entry" association method can be used. Each storage record contains a unique device number (corresponding to the device platform number, such as "platform 1-device 001"), a read timestamp (accurate to the second, such as "YYYY-MM-DDHH:MM:SS"), and complete parameter data, ensuring that each record can be accurately traced to a specific device and test node. The storage medium can be the control device's built-in storage module or an external database server, supporting long-term storage and rapid retrieval of massive amounts of data. The storage format is compatible with common data formats (such as CSV and JSON), facilitating subsequent export and analysis.

[0085] In some embodiments, the device endurance testing software on the control device supports the visualization of parameter change records, such as presenting the voltage decay trend with the number of tests in a line graph, and listing the complete parameters of each round of testing in a table, so that testers can intuitively grasp the changes in device status.

[0086] It should be noted that the parameter change record serves two purposes: first, it allows for the traceability and verification of test results. When finalizing the battery life data (such as the number of tests), the parameter change record can be used to reverse-check whether the parameter reading and storage for each round of testing were complete, ensuring the final data is authentic and reliable; second, it enables in-depth analysis of device performance. By comparing the parameter change curves of different devices (such as voltage decay rate and resistance stability), the performance consistency between devices can be assessed, providing data support for product optimization.

[0087] It should be understood that the sequence number of each step in the above embodiments does not imply the order of execution. The execution order of each process should be determined by its function and internal logic, and should not constitute any limitation on the implementation process of the embodiments of this application.

[0088] Corresponding to the battery life testing method for the aerosol generation device in the above embodiments, this application provides a battery life testing device for an aerosol generation device. This device can be implemented as part or all of a computer device, which can be an electronic device, implemented by software, hardware, or a combination of both. Referring again to Figures 2 and 3, the battery life testing device for the aerosol generation device includes a device platform, a test medium driving device, and a control device. The device platform is used to hold multiple aerosol generation devices to be tested.

[0089] A control device, connected to a test medium driving device and each aerosol generating device, is used to acquire the current parameter information of each aerosol generating device. It issues commands to the test medium driving device to control it to cyclically perform endurance testing actions on the aerosol generating devices placed on the device platform until all aerosol generating devices output a preset voltage signal indicating endurance depletion. Then, it records the final parameter information of all aerosol generating devices and ends the endurance test. The endurance test actions include: loading test medium onto the aerosol generating devices placed on the device platform; performing aerosol generation actions on each aerosol generating device according to preset driving parameters; unloading test medium from the aerosol generating devices placed on the device platform; and switching from one aerosol generating device to the next. This application discloses an endurance testing device for aerosol generating devices. The following detailed description of the device's structure, connections, and working principle, combined with specific implementation scenarios, aims to clearly present the implementation form of the technical solution and is not intended to limit the scope of protection of this invention.

[0090] In this embodiment, the endurance testing device for aerosol generation equipment mainly includes components such as a platform, a test medium driving device, and a control device. These components work together to achieve automated endurance testing for multiple aerosol generation devices.

[0091] In this embodiment, taking multiple equipment platforms as an example, the number of aerosol generating devices to be tested corresponds one-to-one with the number of equipment platforms. For example, more than three equipment platforms can be set, such as 12, 10, 9, etc. Alternatively, if there is only one equipment platform, each aerosol generating device can be placed at each device loading point in an integrated equipment platform (i.e., equivalent to an independent equipment platform). The number of aerosol generating devices is designed based on balancing testing efficiency and cooling effect, ensuring that the natural cooling time of a single aerosol generating device (such as a heating device used to heat the insertion medium and generate aspirable aerosol) is not less than 30 minutes. This achieves parallel progress of testing time and cooling waiting time, improving testing efficiency.

[0092] Taking nine aerosol generating devices as an example, the nine aerosol generating devices are placed on nine corresponding equipment platforms. All aerosol generating devices are connected to the test medium driving device through wired or wireless communication. Wireless communication can use Bluetooth, WiFi or LoRa protocols, while wired communication can use Ethernet or RS485 protocols to ensure the stability of signal transmission and the timeliness of data interaction.

[0093] In some embodiments, the equipment platform adopts a standardized structural design, equipped with positioning slots and interface adapter components adapted to the shape of the aerosol generating device. This ensures that the aerosol generating device under test can be stably placed and reliably connected to the control device, avoiding data transmission interruptions due to device displacement or poor contact during testing. For example, the independent equipment platform shown in Figure 2, or each aerosol generating device placed at a device loading point in the integrated equipment platform shown in Figure 3 (i.e., each device loading point is equivalent to an independent equipment platform), with each device loading point establishing a corresponding communication connection with the aerosol generating device through a plug-in interface provided at the device loading point.

[0094] In some embodiments, the control device establishes connections with the test medium driving device and the aerosol generating device placed on the device platform via wired or wireless communication. As shown in Figure 3, the control device connects to one end of the test medium driving device and the device platform. Each aerosol generating device connects to the device platform via a Type-C interface corresponding to each device platform, thus enabling multiple aerosol generating devices to connect to the control device through a single communication line via the device platform. Alternatively, each aerosol generating device can establish a connection with the control device via wireless communication. Furthermore, if multiple device platforms are used, each aerosol generating device placed on the device platform can establish a connection with the control device via either wired or wireless communication.

[0095] Wired communication utilizes Ethernet or RS485 protocols, while wireless communication employs Bluetooth, WiFi, or LoRa protocols, ensuring stable signal transmission and timely data exchange. The control device integrates a data processing module, a timing control module, a data storage module, and a command transmission module. The data storage module can utilize high-speed flash memory chips, supporting real-time storage and rapid retrieval of massive amounts of test data. The timing control module precisely manages the execution sequence of each test action, ensuring smooth workflow integration. The control device is associated with or runs device endurance testing software (dedicated testing software). This control device can be a computer or touchscreen equipped with the dedicated testing software, supporting functions such as test parameter configuration, test status monitoring, and data export, providing testers with a convenient operating interface.

[0096] In some embodiments, the test medium driving device integrates a test medium storage structure, a test medium clamping device, and a medium driving execution structure. The preset maximum loading capacity of the test medium storage structure can be, for example, 300 pieces, which can meet the needs of long-term continuous testing without frequent replenishment of test media.

[0097] Before the test started, the testers placed the nine aerosol generating devices to be tested into the positioning slots of the nine device platforms, ensuring a reliable connection between the devices and the platform interfaces. Then, the preset drive parameters were configured on the control device. The preset drive parameters include at least one of the following: number of actions, action time, action interval, and fluid flow rate. For example, the configuration is "12 actions, 2 seconds / action, 30 seconds action interval, and 18 mL / s fluid flow rate".

[0098] After the test is initiated, the control device first acquires the current parameter information of the aerosol generating device placed on the device platform via the communication link. This parameter information includes the number of tests, version information, resistance information, and voltage information. The control device stores the acquired initial parameter information to the data storage module in real time, forming an initial state record for each device. Subsequently, the control device issues instructions to the test medium driving device to start the cyclic test process. These instructions include a first instruction for controlling the loading of the test medium and a second instruction for controlling the aerosol generation action.

[0099] After reading the above current parameter information, the control device issues an instruction to the test medium driving device to start the cyclic test process. The instruction includes a first instruction for controlling the loading of the test medium and a second instruction for controlling the aerosol generation action. The first instruction can be manually triggered by the device endurance test software on the control device, while the second instruction is automatically sent after the process corresponding to the first instruction is completed, without manual intervention.

[0100] During the cyclic testing process, taking multiple device platforms as an example, the control device uses each platform as the current target device platform according to a preset order (e.g., from device platform 1 to device platform 9). It then performs a continuous operation test on each aerosol generating device corresponding to that target device platform. First, in response to the first instruction, the test medium clamping device of the test medium drive device retrieves a single test medium from the test medium storage structure and precisely inserts it into the interface (e.g., the aerosol generating medium receiving cavity) of the aerosol generating device corresponding to the current target device platform.

[0101] After the loading operation is completed, the aerosol generating device automatically starts the heating program upon recognizing the test medium and simultaneously outputs a heating signal to the control device. Upon receiving the heating signal, the control device uses a timing control module to implement a brief initial delay to ensure the test medium is sufficiently heated and stabilized. Subsequently, it issues a second command to the test medium driving device, controlling the driving execution structure to perform the aerosol generating action on the current target aerosol generating device according to preset driving parameters. During the aerosol generating action, the control device monitors the execution status and the voltage signal of the aerosol generating device in real time. When it detects that the driving execution structure has completed the preset number of actions, or that the aerosol generating device outputs a preset voltage signal indicating depletion of its power, the aerosol generating action is considered complete.

[0102] After the aerosol generation process is completed, the control equipment controls the test medium drive device to perform an unloading operation: the test medium clamping device actuates again, smoothly pulling out the used test medium from the interface of the current target aerosol generation device, and resets to the test medium storage structure after unloading. After the unloading operation is completed, a switching operation is performed: the control equipment controls the test medium drive device to switch to the next target device platform, the test medium clamping device retrieves a new test medium from the storage structure, inserts it into the aerosol generation device corresponding to the next target device platform, and then the control equipment repeats the above process of parameter acquisition, loading, aerosol generation, and unloading, continuously advancing the cyclic test.

[0103] During the cyclic testing, if an aerosol generating device corresponding to a certain equipment platform outputs a preset voltage signal, the control device immediately marks the aerosol generating device as having a continuous operation status. In subsequent cyclic tests, the control device stops inserting new test media into the marked device, and simultaneously starts a timer. After waiting for a second duration, the marked device is skipped, and the next device is tested, ensuring that the marked device receives sufficient cooling. When all aerosol generating devices output the preset voltage signal, the control device stops issuing commands, ends the continuous operation test, and then retrieves all parameter information stored in the data storage module, records the final number of tests and the final voltage information for each device, and generates a test report through the control device, supporting testers in exporting and analyzing the report.

[0104] Furthermore, taking a single device platform (such as an integrated device platform) as an example, where multiple device mounting points are integrated on one device platform and each aerosol generating device is placed at each device mounting point, the control device performs endurance testing on each aerosol generating device one by one according to a preset order (such as the arrangement order of the aerosol generating devices, or the setting order of the aerosol generating devices on the device platform, for example, from device 1 to device 9). Since, essentially, even with only one device platform, multiple aerosol generating devices still need to be tested, the specific device endurance testing method is the same as or largely the same as the device cruise testing method given in the above embodiment with multiple device platforms.

[0105] When all aerosol generating devices on the test platform output preset voltage signals, it indicates that the battery life of all devices under test has been exhausted. The control device then stops issuing commands to the test medium driving device, ending the entire battery life test. Finally, the control device stores the final parameter information of all aerosol generating devices, especially recording the final number of tests and the final voltage information for each aerosol generating device, forming a complete test data report. Furthermore, the test data report can be exported through the device battery life test software on the control device, facilitating subsequent analysis and statistics by testers.

[0106] This embodiment uses a test medium-driven device to perform automated endurance testing on multiple aerosol generating devices placed on a test platform. This allows a single aerosol generating device to complete testing of 31-38 test media samples within 24 hours, and multiple aerosol generating devices can be tested simultaneously within one calendar day. This significantly reduces the cost of manual intervention in endurance testing, avoids long waiting times and errors associated with manual testing, and ensures the accuracy and repeatability of the endurance test results by real-time storage of device parameters, real-time status monitoring, and cooling time control during the testing process.

[0107] This embodiment, through the cyclical design of the equipment platform and the automated operation of the test medium-driven equipment, achieves a testing capacity of 31-38 aerosol generators per platform within 24 hours, and completes the endurance testing of all equipment within one calendar day. This significantly reduces the cost of manual intervention and avoids long waiting times and operational errors associated with manual testing. Simultaneously, the precise control of the equipment and real-time parameter storage ensure the accuracy and traceability of the test results, making it suitable for endurance performance testing scenarios of different aerosol generator models.

[0108] In some embodiments, the instructions include a first instruction and a second instruction; the test medium driving device can be connected to each aerosol generating device, and the test medium driving device includes a test medium storage structure, a test medium clamping device, and a medium driving execution structure; the test medium storage structure is used to store multiple test media based on a preset maximum loading capacity; the test medium clamping device is used to, in response to the first instruction, retrieve a single test medium from the test medium storage structure storing the test media, and insert the test medium into the current target aerosol generating device corresponding to the current target device platform; the medium driving execution structure is used to, in response to the second instruction, perform an aerosol generating action on the current target aerosol generating device according to preset driving parameters after waiting for a first duration.

[0109] In some embodiments, in order to achieve precise step-by-step control and automated connection of test actions, the instructions issued by the control device are further refined into first instructions and second instructions. The test medium driving device can establish a detachable connection with the aerosol generation device corresponding to the device platform through a multi-interface adaptation design. Its internal structure is set up in a functional modular way, including a test medium storage structure, a test medium clamping device and a medium driving execution structure. Each module responds to the instructions in a coordinated manner to complete the test actions.

[0110] The test medium storage structure is an integrated, sealed storage component made of high-strength, wear-resistant materials. It features multi-layered, compartmentalized slots, each accommodating different test medium specifications to prevent deformation due to compression during storage. For example, the maximum preset loading capacity is 300 units. This value is designed based on a 24-hour testing volume (31-38 units) for a single equipment platform and the cyclic testing requirements of 9 equipment platforms, satisfying at least 8 complete test cycles and reducing the workload of frequent test medium replenishment during testing. The storage structure also integrates infrared level detection sensors, evenly distributed at the bottom of each slot layer. These sensors monitor the remaining test medium quantity in each layer in real time and convert the monitoring data into electrical signals transmitted to the control equipment. When the remaining test medium quantity in any layer falls below a preset threshold (e.g., 10 units), the control equipment sends a replenishment prompt to the testing personnel and displays the specific layer with insufficient material on the interface, improving the targeted nature of replenishment operations.

[0111] In some embodiments, taking multiple device platforms as an example, the test medium clamping device is a high-precision mechanical transmission component, which may include, but is not limited to, a drive motor, a transmission gear set, an adaptive clamping claw, and a position sensor. The test medium clamping device establishes a signal connection with the control device through wires, specifically responding to the first command to perform the picking, placing, and inserting / removing actions of the test medium. When the control device determines the current target device platform and the corresponding current target aerosol generating device in a cyclical sequence, it issues a first command to the test medium driving device. The drive motor of the test medium clamping device immediately starts, driving the clamping claw to move to the target slot of the test medium storage structure through the transmission gear set.

[0112] A position sensor calibrates the coordinates of the gripper in real time to ensure precise alignment with a single test medium. The gripper then automatically adjusts its opening angle according to the diameter of the test medium, using a flexible, non-slip gripper surface to firmly hold the medium, preventing damage from excessive tightness or loss from excessive looseness. After gripping, a drive motor moves the gripper along a preset trajectory to above the target device platform. The position sensor calibrates the interface position again, and the test medium is smoothly inserted into the medium interface of the target aerosol generator. The insertion depth is controlled by a built-in limit switch, ensuring the action stops once the device's recognition threshold is reached. The gripper then returns to its initial position and sends a completion signal to the control device.

[0113] The media-driven actuator is a power output component, which may include, but is not limited to, a miniature vacuum pump, a flow control valve, a pressure sensor, and a timing controller. It is connected to the control device via a communication bus and is specifically designed to respond to the second command to execute the aerosol generation action. When the control device receives a completion signal from the test medium clamping device indicating that the loading operation has been completed, and the current target aerosol generation device outputs a heating signal after recognizing the test medium, it immediately issues the second command to the media-driven actuator.

[0114] After receiving the second instruction, the timing controller first starts the timing program for the first duration. The first duration is a key timing parameter to ensure that the test medium is fully heated and stabilized. Combining the heating power of the aerosol generation equipment and the thermal response characteristics of the test medium, the first duration is preset to 5 seconds to ensure that the test medium reaches a stable aerosol generation temperature from the start of heating. After the first duration ends, the timing controller triggers the micro vacuum pump to start. At the same time, the flow control valve precisely adjusts the opening of the airflow channel according to the fluid flow rate (e.g., 18 mL / s) in the preset drive parameters. The pressure sensor monitors the air pressure value in the channel in real time to ensure that the airflow stability meets the test requirements. During the execution of the aerosol generation action, the medium drive execution structure strictly follows the number of actions (e.g., 12 times), action time (e.g., 2 seconds / action), and action interval (e.g., 30 seconds) in the preset drive parameters. After each action cycle is completed, a single action completion signal is fed back to the control device until the preset number of actions is reached or an action termination signal is received from the control device (e.g., the device outputs a preset voltage signal), at which point the power output stops and the device resets to the initial state.

[0115] By modularly disassembling the test medium driving device and implementing step-by-step control of the first and second commands, precise coordination between test medium loading and aerosol generation is achieved, avoiding potential interference issues that may arise from integrated designs. Simultaneously, the refined design of each structure within the test medium clamping device (such as adaptive clamping, precise timing control, and real-time status feedback) ensures the consistency and reliability of test actions. Combined with the cyclic control logic of the control equipment, the advantages of parallel testing and cooling are further enhanced, making automated continuous testing of multiple aerosol generation devices more accurate and efficient, suitable for batch testing scenarios with high requirements for standardized testing processes.

[0116] In some embodiments, taking multiple device platforms as an example, the test medium clamping device is also used to, in response to the completion signal of the aerosol generation action, remove the test medium from the current target aerosol generation device to complete the unloading operation of the test medium; and insert the new test medium into the next target aerosol generation device corresponding to the next target device platform to complete the switching operation.

[0117] To achieve a fully automated closed-loop connection of the testing process, the test medium clamping device not only undertakes the function of loading the test medium, but also responds to the completion signal of the aerosol generation action, and synchronously executes the unloading and switching operations of the test medium to ensure seamless connection of each test action.

[0118] When the media-driven actuator completes the aerosol generation action according to the preset driving parameters, or when the control device detects that the current target aerosol generation device outputs a preset voltage signal, the control device sends an electrical signal indicating that the aerosol generation action is complete to the test media drive device. The test media clamping device receives this completion signal in real time through the communication link with the control device, and then initiates the unloading operation process: First, the drive motor of the clamping device restarts, driving the adaptive clamping claw to move along the preset trajectory to the aerosol generation device interface corresponding to the current target device platform. The position sensor precisely calibrates the relative position of the clamping claw and the test medium, ensuring that the clamping claw smoothly fits the exposed end of the test medium.

[0119] Subsequently, the gripper clamps the test medium with a preset force (this force is less than the clamping force during loading to avoid damage caused by excessive clamping due to heat deformation of the medium). The drive motor rotates in reverse, causing the gripper to slowly pull out the test medium. The speed of the pulling process is precisely controlled by a timing controller to avoid damage to the interface or internal components of the aerosol generation equipment due to rapid insertion and removal. Once the test medium is completely detached from the equipment interface, the gripper, carrying the used test medium, moves to the preset recycling channel inlet. The gripper releases the gripper, sending the test medium into the recycling channel, completing the unloading operation. The gripper then sends a signal to the control device indicating that the unloading operation is complete.

[0120] Upon receiving the completion signal of the unloading operation, the control device immediately triggers the switching logic, sending a command to the test medium clamping device to switch to the next aerosol generating device. The test medium clamping device responds to this command, its drive motor moving the clamping claws to the test medium storage structure. The position sensor is calibrated to the slot for unused test medium, and the clamping claws retrieve the new test medium according to the same logic as the loading operation. Simultaneously, the control device determines the next target device platform and its corresponding next target aerosol generating device according to a preset cyclic sequence (e.g., the sequence of device platform 1 → 2 → ... → 9), and transmits the position coordinates of this device platform to the test medium clamping device. The clamping device, carrying the new test medium, precisely moves along a preset multi-device platform movement trajectory to the next target device platform. Through secondary calibration of the interface position using the position sensor, the new test medium is smoothly inserted into the interface of the next target aerosol generating device. The insertion depth is controlled by a limit switch to ensure accurate identification of the test medium.

[0121] After the test medium is inserted into the aerosol generation device, the gripper returns to its initial standby position and sends a switching completion signal to the control device, thus completing the switching operation. During the unloading and switching process, the timing of the test medium gripping device's actions is uniformly scheduled by the control device, forming a closed-loop control with the medium-driven execution structure and the status feedback of the aerosol generation device. This ensures efficient progress of the overall testing process and avoids impacting testing efficiency due to delays in action connections. Simultaneously, the gripping device's adaptive gripping mechanism and precise positioning system ensure compatibility with different device platforms and interfaces. Even with minor deviations in the interface position of the aerosol generation device, precise insertion and removal can be achieved through real-time calibration by position sensors.

[0122] By equipping the test media clamping device with unloading and switching functions, the loading-generation-unloading-switching test chain is integrated into a fully automated process, eliminating the need for manual intervention in changing test media or switching test objects. The test media clamping device continuously executes alternating operations on each device under test according to the above logic, allowing test actions and device cooling time to proceed in parallel. This ultimately achieves the efficient goal of completing endurance tests on multiple devices in a single calendar day, while avoiding problems such as incorrect insertion / removal and media waste caused by manual operation, further improving the accuracy of test results and the stability of the test process.

[0123] In some embodiments, taking multiple device platforms as an example, the number of device platforms is set to N; the control device is also used to sequentially use N device platforms as the current target device platforms in a preset order and cyclically execute the test process to achieve parallel testing of aerosol generation equipment and cooling time, wherein N is greater than or equal to 3 and is a positive integer.

[0124] To adapt to different batch testing needs and ensure efficient parallel testing and cooling time, the number of device platforms is set to N, where N is a positive integer greater than or equal to 3. This range ensures the feasibility of parallel cooling (with fewer than 3 device platforms, the cooling interval of a single device is too short to achieve sufficient cooling) while also reserving space for flexible adjustments to the testing scenario (e.g., N=3 for small batch testing, and N=9, 12, etc. for large batch testing). The device endurance testing software running in the control device supports testers in presetting the cyclical order of the N device platforms (e.g., the natural order of platform number 1→2→3→…→N, or a non-contiguous order customized according to testing requirements). This preset order is stored in the parameter storage module of the control device and is automatically called during the test without manual intervention in switching cycles.

[0125] After the test is initiated, the control equipment sequentially selects N equipment platforms as the current target equipment platforms according to a preset order and starts the cyclic test process. Specifically, the control equipment first determines equipment platform 1 (the first equipment platform in the preset order) as the current target equipment platform, issues the first command to the test medium driving device, and controls the test medium clamping device to complete a series of endurance test actions, such as loading the test medium, executing the aerosol generation action, and unloading the test medium. The entire process takes T (T is determined by preset driving parameters, such as 12 actions, 2 seconds / action time, and 30-second interval, the time for a single test is approximately 12 × (2 + 30) = 384 seconds, or 6.4 minutes). While equipment platform 1 is performing the test actions, the aerosol generation devices corresponding to the other N-1 equipment platforms (2 to N) are in a natural cooling state, without the need for additional cooling devices, and passive cooling is achieved by utilizing the time interval of the cyclic test.

[0126] Taking multiple equipment platforms as an example, the aerosol generating device can be switched by switching equipment platforms. After a single test is completed on equipment platform 1, the control device does not need to wait for it to cool down and immediately switches equipment platform 2 to the current target equipment platform according to the preset sequence. The above-mentioned endurance test is repeated on the aerosol generating device placed on equipment platform 2. At this time, the aerosol generating device placed on equipment platform 1 enters the cooling stage. Its cooling time is the total time taken for the aerosol generating devices placed on the subsequent N-1 equipment platforms to complete a single test in sequence, i.e., (N-1)×T. For example, when N=9, the cooling time of the aerosol generating device placed on a single equipment platform is 8×6.4≈51.2 minutes, which is much greater than the preset minimum cooling requirement of 30 minutes. This ensures that the aerosol generating device can still cool down sufficiently after multiple rounds of testing, avoiding problems such as overheating of the heating module and fluctuations in power performance caused by continuous testing.

[0127] During the cyclic testing process, the control equipment always follows the parallel logic that while the equipment on the current equipment platform is being tested, the equipment on other equipment platforms is being cooled. After completing the test action of one equipment platform, it immediately switches to the next target platform, forming a closed-loop process where the test action is uninterrupted and the cooling process is synchronized. This ensures sufficient cooling of the aerosol generation equipment and achieves efficient utilization of test resources, avoiding the long waiting time of "one test, 30 minutes of cooling" when testing a single equipment platform, and significantly improving the efficiency of endurance testing.

[0128] The control equipment tracks the test status and cooling time of the aerosol generating device in real time during the cycle. Its built-in timing module accumulates the interval between the end of the first test and the start of the next, ensuring this interval is not less than the preset minimum cooling time (e.g., 30 minutes). If the test duration T changes due to adjustments in test parameters, the control equipment automatically calculates the actual cooling time as (N-1)×T. If this time is lower than the minimum cooling requirement, the control equipment prompts the tester to adjust the value of N (increase N) or extend the interval between tests (increase T) to ensure the cooling effect meets the standard. For example, when N=3 and T=5 minutes, the cooling time is 10 minutes. If the minimum cooling requirement is 15 minutes, the control equipment will display a message through the device's endurance test software: "Insufficient cooling time, please increase N to 4 or extend the interval," improving the reliability of the test process.

[0129] This embodiment, through the cyclical design of N device platforms and the sequential scheduling of control equipment, breaks down the "test-cooling" sequence of a single device into the cycle of the aerosol generation equipment, achieving seamless parallelism between testing actions and cooling time. The flexible value of N adapts to testing scenarios with different batch sizes and cooling requirements, retaining the convenience of small-batch testing while satisfying the efficiency of large-batch testing, synergizing with the automated actions of the test medium-driven equipment and the precise timing control of the control equipment. For example, when N=9, the endurance testing of 9 devices can be completed in a single natural day, with a single device platform capable of testing 31-38 devices in 24 hours; when N=6, batch testing of 6 devices can be completed while ensuring a cooling time of no less than 32 minutes for each device platform, balancing cooling effect and testing efficiency.

[0130] In some embodiments, taking multiple device platforms as an example, the control device is further configured to mark an aerosol generating device when a preset voltage signal is detected output by a certain aerosol generating device; during subsequent cyclic testing, the control device for the test medium drive device is to stop inserting new test medium into the marked aerosol generating device, and after waiting for a second duration, the marked aerosol generating device is skipped and other aerosol generating devices are tested, so that the cooling time of the marked aerosol generating device is not less than a third duration, wherein the second duration is less than the third duration.

[0131] To ensure adequate cooling of aerosol generating devices when their battery depletion is complete, and to avoid wasting resources through ineffective testing, the control equipment monitors the voltage signal output status of each aerosol generating device in real time during cyclic testing via a direct communication link. When a pre-defined voltage signal indicating battery depletion is detected from an aerosol generating device (e.g., the device corresponding to device N), the control equipment immediately triggers a battery depletion marking mechanism: a "battery depletion" status marker is added to the data storage module for that aerosol generating device or its corresponding device platform. The marking time, current test count, and final voltage information are recorded simultaneously, and the marking status of the aerosol generating device is displayed intuitively through the control equipment's software interface (e.g., device N: depleted, awaiting cooling). This allows testers to monitor the operational status of each aerosol generating device in real time without the need for manual verification.

[0132] In each subsequent round of testing, when the control device polls the marked aerosol generating device in a preset order, it automatically triggers the media disabling logic: it sends a command to the test media driving device to prohibit the insertion of test media, controls the test media clamping device to stop removing test media from the test media storage structure, and also stops performing any loading operations on the marked device. On the one hand, the aerosol generating device no longer has sufficient power to support the complete aerosol generation operation. Inserting test media would not only fail to obtain valid test data, but would also waste test media and cause unnecessary wear and tear on the device interface. On the other hand, after multiple rounds of testing, the internal heating module of the aerosol generating device is at a high temperature, requiring all test-related operations to be stopped and the device to enter a pure cooling phase to avoid redundant operations at high temperatures causing additional damage to the device hardware.

[0133] Simultaneously with issuing the instruction to prohibit the insertion of the test medium, the control device starts the built-in timer for a preset second duration (e.g., 5 minutes). The third duration is the minimum cooling time required for the aerosol generating device to drop from its high-temperature state after the test to a safe standby temperature, which is pre-calibrated based on the device's heating power, heat dissipation characteristics, and test scenario requirements (e.g., 30 minutes).

[0134] When the timer indicates the end of the second duration, the control device determines that the marked aerosol generating device has been sufficiently cooled and triggers the stage skip logic: no further test-related actions are performed on the marked device, and the system directly switches to the next unmarked device according to the preset cycle sequence. The control device then continues to perform routine actions such as loading the test medium and generating aerosols for the next stage. In subsequent cycle tests, as long as the "endurance depletion" mark of the aerosol generating device is not manually cleared (it does not need to be cleared before the end of the test), the control device will repeat the above process of "prohibit media insertion → start the second duration timer → delay and skip stage" until all aerosol generating devices are marked as "endurance depletion," at which point the overall cycle test officially ends.

[0135] Through the above embodiments, precise control over devices running out of power ensures both the continuity and efficiency of the overall testing process. By marking the aerosol generating device or the platform it occupies, the control equipment can accurately identify invalid test objects, avoiding resource waste. Logic that prohibits media insertion and delays skipping ensures that the cooling time of the aerosol generating device is no less than the third duration, balancing the safety of the aerosol generating device with testing standardization. Simultaneously, only marked devices are subject to localized delays, while other unmarked devices continue testing at the normal pace, preventing the overall testing progress from being interrupted by the cooling needs of a single aerosol generating device.

[0136] It should be noted that the information interaction and execution process between the above-mentioned devices / units are based on the same concept as the method embodiments of this application. For details on their specific functions and technical effects, please refer to the method embodiments section, and they will not be repeated here.

[0137] This application also provides an electronic device, which includes one or more processors and a memory; the memory is coupled to one or more processors, and the memory is used to store computer program code, which includes computer instructions, and the one or more processors call the computer instructions to cause the electronic device to execute the aforementioned battery life testing method for aerosol generating devices.

[0138] Figure 5 is a schematic diagram of an electronic device provided in an embodiment of this application. The electronic device 500 can be a mobile phone, smart screen, tablet computer, wearable electronic device, in-vehicle electronic device, augmented reality (AR) device, virtual reality (VR) device, laptop computer, ultra-mobile personal computer (UMPC), netbook, personal digital assistant (PDA), projector, or a server, storage device, base station, or other communication device, or a smart car, etc. This application embodiment does not impose any limitations on the specific type of electronic device.

[0139] The memory 501 can be used to store computer software programs 502 and modules. The processor 503 executes various functional applications and data processing of the electronic device by running the software programs and modules stored in the memory 501. The memory 501 may mainly include a program storage area and a data storage area. The program storage area may store the operating system, application programs required for at least one function (such as sound playback function, image playback function, etc.), etc.; the data storage area may store data created according to the use of the electronic device (such as audio data, telephone book, etc.). In addition, the memory 501 may include high-speed random access memory, and may also include non-volatile memory, such as at least one disk storage device, flash memory device, or other volatile solid-state storage device.

[0140] The processor 503 may include one or more processors such as a central processing unit (CPU), an application processor (AP), and a baseband processor. The processor can serve as the nerve center and command center of the wireless router. The processor 503 can generate operation control signals based on instruction opcodes and timing signals to control instruction fetching and execution. The memory 501 can be used to store executable program code, including instructions. The processor 503 executes various functional applications and data processing of the network device by running the instructions stored in the memory. The memory 501 may include a program storage area and a data storage area, such as storing data for audio signals to be played. For example, the memory may be Double Data Rate Synchronous Dynamic Random Access Memory (DDR) or Flash memory.

[0141] This application also provides a computer-readable storage medium storing computer instructions; when the computer-readable storage medium is used on an electronic device, it causes the electronic device to perform the aforementioned battery life testing method for an aerosol generating device.

[0142] The computer instructions can be stored in a computer-readable storage medium or transmitted from one computer-readable storage medium to another. For example, the computer instructions can be transmitted from one website, computer, server, or data center to another via wired (e.g., coaxial cable, fiber optic, digital subscriber line (DSL)) or wireless (e.g., infrared, wireless, microwave, etc.) means. The computer-readable storage medium can be any available medium that a computer can access or can include one or more data storage devices such as servers or data centers that can be integrated with media. The available medium can be magnetic media (e.g., floppy disks, hard disks, magnetic tapes), optical media, or semiconductor media (e.g., solid-state disks (SSDs)).

[0143] This application also provides a computer program product containing computer instructions, which, when run on an electronic device, enables the electronic device to execute the aforementioned battery life testing method for aerosol generating equipment.

[0144] The computer storage medium and computer program product provided in the embodiments of this application are used to execute the methods provided above. Therefore, the beneficial effects they can achieve can be referred to the beneficial effects corresponding to the methods provided above, and will not be repeated here.

[0145] In the above embodiments, implementation can also be achieved, in whole or in part, through software, hardware, firmware, or any combination thereof. When implemented using software, it can be implemented, in whole or in part, as a computer program product. The computer program product includes one or more computer instructions. When the computer instructions are loaded and executed on a computer, all or part of the processes or functions described in the embodiments of this application are generated. The computer can be a general-purpose computer, a special-purpose computer, a computer network, or other programmable device. The computer instructions can be stored in a computer-readable storage medium or transmitted from one computer-readable storage medium to another. For example, the computer instructions can be transmitted from one website, computer, server, or data center to another website, computer, server, or data center via wired (e.g., coaxial cable, optical fiber, Digital Subscriber Line, DSL) or wireless (e.g., infrared, wireless, microwave, etc.) means. The computer-readable storage medium can be any available medium that a computer can access, or a data storage device such as a server or data center that integrates one or more available media. The storage medium can be a magnetic disk, optical disk, read-only memory (ROM), random access memory (RAM), flash memory, hard disk drive (HDD), or solid-state drive (SSD), etc., and the storage medium can also include combinations of the above types of memory.

[0146] In the above embodiments, the descriptions of each embodiment have different focuses. For parts that are not described in detail or recorded in a certain embodiment, please refer to the relevant descriptions of other embodiments.

[0147] Those skilled in the art will recognize that the units and algorithm steps of the various examples described in conjunction with the embodiments claimed herein can be implemented in electronic hardware, or a combination of computer software and electronic hardware. Whether these functions are implemented in hardware or software depends on the specific application and design constraints of the technical solution. Those skilled in the art can use different methods to implement the described functions for each specific application, but such implementation should not be considered beyond the scope of this application.

[0148] In the embodiments provided in this application, it should be understood that the disclosed apparatus / network devices and methods can be implemented in other ways. For example, the apparatus / network device embodiments described above are merely illustrative. For instance, the division of modules or units is only a logical functional division, and in actual implementation, there may be other division methods. For example, multiple units or components may be combined or integrated into another system, or some features may be ignored or not executed. Furthermore, the coupling or direct coupling or communication connection shown or discussed may be through some interfaces; the indirect coupling or communication connection between devices or units may be electrical, mechanical, or other forms.

[0149] The units described as separate components may or may not be physically separate. The components shown as units may or may not be physical units; that is, they may be located in one place or distributed across multiple network units. Some or all of the units can be selected to achieve the purpose of this embodiment according to actual needs.

[0150] The above-described embodiments are only used to illustrate the technical solutions of this application, and are not intended to limit them. Although this application has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this application, and should all be included within the protection scope of this application.

Claims

1. A method for testing the endurance of an aerosol generation device, characterized in that, include: The system acquires the current parameter information of multiple aerosol generating devices to be tested, wherein the multiple aerosol generating devices are respectively placed on a device platform; it issues instructions to a test medium driving device to control the test medium driving device to cyclically perform endurance test actions on the aerosol generating devices placed on the device platform until all the aerosol generating devices output a preset voltage signal indicating that the endurance has been exhausted, then records the final parameter information of all the aerosol generating devices and ends the endurance test; wherein the endurance test actions include: performing a test medium loading operation on the aerosol generating devices placed on the device platform, performing an aerosol generating action on each aerosol generating device according to preset driving parameters, performing a test medium unloading operation on the aerosol generating devices placed on the device platform, and switching from one aerosol generating device to the next aerosol generating device.

2. The battery life testing method according to claim 1, characterized in that, The test medium driving device is internally equipped with a test medium clamping device. The command includes a first command and a second command. When there are multiple device platforms, issuing commands to the test medium driving device to control the test medium driving device to cyclically perform endurance testing on the aerosol generating devices placed on the device platforms includes: issuing the first command to the test medium driving device to control the test medium clamping device to retrieve a single test medium from the test medium storage structure storing the test medium and insert the test medium into the current target aerosol generating device corresponding to the current target device platform; and responding to receiving a heating signal to the test medium clamping device. The medium driving device issues the second instruction, controlling the test medium driving device to perform an aerosol generation action on the current target aerosol generating device according to preset driving parameters after waiting for a first time period; wherein, the heating signal is used to instruct the target aerosol generating device to start heating after recognizing the test medium; the test medium driving device is also used to, in response to the completion signal of the aerosol generation action, remove the test medium from the current target aerosol generating device, completing the unloading operation of the test medium; and insert a new test medium into the next target aerosol generating device corresponding to the next target device platform, completing the switching operation.

3. The battery life testing method according to claim 2, characterized in that, The first instruction is triggered by a control device that is communicatively connected to the test medium driving device; the second instruction is automatically sent after receiving the heating signal from the current target aerosol generating device.

4. The battery life testing method according to claim 2, characterized in that, The method further includes: detecting whether the test medium driving device has completed a preset number of generation actions, and / or detecting whether the aerosol generation device corresponding to the current target device platform outputs a preset voltage signal; if any of the above conditions are met, it is determined that the aerosol generation action has been completed.

5. The battery life testing method according to claim 1, characterized in that, The method further includes: during the cyclic test, if the aerosol generating device corresponding to a certain device platform outputs a preset voltage signal, then during the subsequent cyclic test, controlling the test medium driving device to stop inserting the test medium into the device platform; after waiting for a second duration, skipping the device platform and continuing to test the next device platform, so that the cooling time of the aerosol generating device is not less than a third duration, wherein the second duration is less than the third duration.

6. The battery life testing method according to any one of claims 1 to 5, characterized in that, The parameter information of the aerosol generating device includes the number of tests, version information, resistance information, and voltage information. The method further includes: storing the parameter information of each aerosol generating device in real time each time the parameter information of each aerosol generating device is read, so as to obtain the parameter change record of the aerosol generating device.

7. The battery life testing method according to any one of claims 1 to 5, characterized in that, The preset driving parameters include at least one of the following: number of actions, action time, action interval, and fluid flow rate. The preset driving parameters are set by a control device that is communicatively connected to the test medium driving device.

8. A test device for the endurance of an aerosol generation device, characterized in that, It includes an equipment platform, a test medium driving device, and a control device; the equipment platform is used to place multiple aerosol generation devices to be tested. The control device is connected to the test medium driving device and each of the aerosol generating devices, and is used to acquire the current parameter information of each of the aerosol generating devices; A command is issued to the test medium driving device to control the test medium driving device to cyclically perform endurance test actions on the aerosol generating devices placed on the device platform until all the aerosol generating devices output a preset voltage signal indicating that the endurance has been exhausted. Then, the final parameter information of all the aerosol generating devices is recorded and the endurance test ends. The endurance test actions include: performing a test medium loading operation on the aerosol generating devices placed on the device platform, performing an aerosol generating action on each aerosol generating device according to preset driving parameters, performing a test medium unloading operation on the aerosol generating devices placed on the device platform, and switching from one aerosol generating device to the next.

9. The battery life testing device according to claim 8, characterized in that, The instructions include a first instruction and a second instruction; the test medium driving device can be connected to each of the aerosol generating devices, and when there are multiple device platforms, the test medium driving device includes a test medium storage structure, a test medium clamping device, and a medium driving execution structure; The test medium storage structure is used to store multiple test media based on a preset maximum loading capacity; The test medium clamping device is used to respond to the first instruction to take out a single test medium from the test medium storage structure that stores the test medium, and insert the test medium into the current target aerosol generating device corresponding to the current target device platform; The medium-driven execution structure is used to respond to the second instruction and, after waiting for a first duration, perform an aerosol generation action on the current target aerosol generation device according to preset driving parameters.

10. The battery life testing device according to claim 9, characterized in that, The test medium clamping device is further configured to, in response to the completion signal of the aerosol generation action, remove the test medium from the current target aerosol generation device to complete the unloading operation of the test medium; and insert a new test medium into the next target aerosol generation device corresponding to the next target device platform to complete the switching operation.

11. The endurance testing device according to any one of claims 8 to 10, characterized in that, The number of the equipment platforms is set to N; the control device is also used to sequentially use the N equipment platforms as the current target equipment platforms in a preset order and cyclically execute the test process to achieve parallel testing of the aerosol generation equipment and cooling time, wherein N is greater than or equal to 3 and is a positive integer.

12. The endurance testing device according to any one of claims 8 to 10, characterized in that, The control device is further configured to mark an aerosol generating device when it detects that the aerosol generating device is outputting the preset voltage signal; during subsequent cyclic testing, it controls the test medium driving device to stop inserting new test medium into the marked aerosol generating device, and after waiting for a second duration, it skips the marked aerosol generating device and continues testing other aerosol generating devices, so that the cooling time of the marked aerosol generating device is not less than a third duration, wherein the second duration is less than the third duration.

13. The endurance testing device according to any one of claims 8 to 10, characterized in that, The preset driving parameters of the control device include at least one of the following: number of actions, action time, action interval, and fluid flow rate. The preset driving parameters are set by the device endurance testing software mounted on the control device.

14. An electronic device comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, characterized in that, When the processor executes the computer program, it causes the electronic device to implement the method as described in any one of claims 1 to 7.

15. A computer program product, characterized in that, Includes a computer program, which, when run, causes the method as described in any one of claims 1 to 7 to be performed.

16. A computer-readable storage medium storing a computer program, characterized in that, When the computer program is executed by a processor, it implements the method as described in any one of claims 1 to 7.

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