Test system, method and device and storage medium

Abstract

The embodiment of the invention relates to a test system, method and device and a storage medium. The method comprises the steps that the preset flow and / or the preset viscosity of flushing liquid are / is obtained; the initial weight and the actual weight of the shaver residues in the shaver head of the electric shaver before and after cleaning are obtained; according to the initial weight, the actual weight, the preset flow and the preset viscosity, the disassembly-free quick-washing capacity index of the electric shaver is determined; the disassembly-free quick-washing capability index is used for representing the capability of cleaning the shaver residue under the condition that the shaver head of the electric shaver is not disassembled. According to the embodiment of the invention, by providing the disassembly-free quick-washing capability index, the capability of cleaning the shaver residue of the electric shaver under the condition that the shell of the shaver head is not disassembled can be evaluated in a quantitative form, namely, the automatic cleaning effect is good or bad, and the test efficiency can be improved.

Description

Technical Field

[0001] The present disclosure relates to the field of testing technology, and in particular to a testing system, method, device and storage medium. Background Art

[0002] Electric shavers can be used to shave hair such as beards. They have the characteristics of strong cleaning power and convenience and labor saving, and are used by more and more users. Taking the use of electric shavers to shave beards as an example, after shaving the beards, the shaved stubble will be stored in the beard storage bin of the electric shaver. If the beard storage bin is not cleaned in time, the stubble may overflow after the beard storage bin is full, affecting the subsequent shaving effect and bringing a bad experience to the user. Therefore, the stubble needs to be cleaned regularly.

[0003] At present, when cleaning the shaver, some electric shavers need to remove the shaver head, and then clean the beard storage bin component located behind the shaver head, so as to remove the stubble in the storage bin. In order to avoid the trouble of cleaning, some electric shavers are provided with a non-disassembly cleaning shaver head / quick-wash shaver head, that is, the shaver is provided with a water inlet hole specially for cleaning the shaver head, and the user can clean the beard storage bin without removing the shaver head. The user can flush the water inlet hole of the quick-wash shaver head with water or cleaning liquid to clean the stubble in the beard storage bin component.

[0004] However, the cleaning effects of different electric shavers are different, which makes it impossible for users to accurately and objectively evaluate the cleaning effects of various electric shavers when purchasing, which reduces the user experience. Summary of the invention

[0005] The present disclosure provides a testing system, method, device and storage medium to address the deficiencies of related technologies.

[0006] According to a first aspect of an embodiment of the present disclosure, there is provided a testing system, comprising: a processing device, a fixing device, a flushing device, a filtering device, a drying device, and a weighing device;

[0007] Wherein, the processing equipment is electrically connected to the fixing equipment, the flushing equipment, the drying equipment and the weighing equipment respectively;

[0008] The flushing device is used to provide a flushing liquid of a preset flow rate and / or preset viscosity through the flushing port;

[0009] The fixing device is used to fix the electric shaver to be cleaned, and is used to adjust the direction of the cutter head of the electric shaver so that the cutter head is aligned with the flushing port of the flushing device;

[0010] The electric shaver is used to switch to a working state according to a control signal to clean the stubble in the beard storage bin of the electric shaver;

[0011] The filter element is used to filter out the stubble in the cleaning liquid;

[0012] The drying device is used to dry the filtered stubble;

[0013] The weighing device is used to weigh the stubble, so as to obtain the weight of the stubble before and after cleaning with the electric shaver;

[0014] The processing device is used to determine the no-disassembly quick-wash capability index of the electric shaver according to the stubble weight, the preset flow rate and the preset viscosity; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

[0015] Optionally, the fixing device includes a robotic arm and a fixing platform, wherein the fixing platform is arranged on the robotic arm and is used to fix the electric shaver inserted into the fixing slot when moving to a preset position, and the robotic arm is used to adjust the spatial position of the fixing platform so that the blade head is aligned with the flushing port of the flushing device.

[0016] Optionally, the test system further comprises an image acquisition device, the image acquisition device being used to capture an initial image of the distribution of stubble inside the blade head of the electric shaver, and upload the initial image to the processing device;

[0017] And wherein, the processing device obtains the initial self-cleaning degree of the blade head of the electric shaver according to the initial image, and determines the no-disassembly quick-cleaning ability index of the electric shaver according to the stubble weight, the preset flow rate, the preset viscosity and the initial self-cleaning degree of the electric shaver; the no-disassembly quick-cleaning ability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

[0018] Optionally, the test system further comprises a waste liquid storage device; the waste liquid storage device is placed below the fixing device and is used to store waste water after cleaning the stubble in the beard storage bin.

[0019] According to a second aspect of an embodiment of the present disclosure, a testing method is provided, applicable to the testing system according to any one of the first aspects, the method comprising:

[0020] obtaining a preset flow rate and / or a preset viscosity of the flushing liquid;

[0021] Obtaining the initial weight and actual weight of the stubble in the blade head of the electric shaver before and after cleaning;

[0022] The no-disassembly quick-wash capability index of the electric shaver is determined based on the initial weight, the actual weight, the preset flow rate and the preset viscosity; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

[0023] Optionally, obtaining the initial weight of the stubble in the cutter head of the electric shaver before cleaning comprises:

[0024] Obtaining a first weight of the electric shaver in a first state; the first state refers to a state in which a shaving head of the electric shaver contains no stubble;

[0025] Obtaining a second weight of the electric shaver in a second state; the second state refers to a state in which a preset weight of stubble is distributed in a blade head of the electric shaver;

[0026] The difference between the second weight and the first weight is obtained as the initial weight of the stubble in the cutter head before cleaning.

[0027] Optionally, obtaining the actual weight of the stubble in the cutter head of the electric shaver after cleaning includes:

[0028] Aligning the blade head of the electric shaver with the flushing port of the flushing device so that a flushing liquid with a preset flow rate and / or preset viscosity enters the inlet of the blade head and flushes for a first preset time;

[0029] Controlling the cutter head of the electric shaver to enter a working state to clean the stubble in the cutter head;

[0030] filtering the sewage containing beard residue to obtain the washed beard residue;

[0031] Placing the cleaned stubble into a drying device and drying it at a preset temperature for a second preset time to obtain dried stubble;

[0032] The dried stubble is weighed to obtain the actual weight of the stubble in the blade head of the electric shaver after cleaning.

[0033] Optionally, determining the no-disassembly quick-wash capability index of the electric shaver according to the initial weight, the actual weight, the preset flow rate and the preset viscosity includes:

[0034] Obtaining the product of the sensitivity of the valve of the blade head of the electric shaver and the preset flow rate, and obtaining the ratio of the product to the preset viscosity as the flushing intensity; the flushing intensity is used to indicate the magnitude of the effect of the flushing liquid on cleaning the stubble;

[0035] Obtaining a ratio of the actual weight to the initial weight as the actual self-cleaning degree of the electric shaver;

[0036] Respectively obtain the product of the actual self-cleaning degree and its weight value and the flushing intensity and its weight value to obtain a weighted actual self-cleaning degree and a weighted flushing intensity;

[0037] The sum of the weighted actual self-cleaning degree and the weighted flushing intensity is obtained as the disassembly-free quick-cleaning capability index of the electric shaver.

[0038] Optionally, the no-disassembly quick-wash capability index is expressed by the following formula:

[0039]

[0040] Wherein, M represents the index of quick-wash capability without disassembly; S represents the sensitivity of the valve of the blade of the electric shaver; P represents the preset flow rate of the flushing liquid; μ represents the preset viscosity of the flushing liquid; G1 represents the actual weight, G represents the initial weight, represents the actual self-cleaning degree; a and b represent the weight values ​​of flushing intensity and actual self-cleaning degree respectively.

[0041] Optionally, the method further comprises:

[0042] Obtaining the initial self-cleaning degree of the electric shaver;

[0043] The no-disassembly quick-wash capability index of the electric shaver is determined according to the initial weight, the actual weight, the preset flow rate, the preset viscosity and the initial self-cleaning degree of the electric shaver; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

[0044] Optionally, obtaining the initial self-cleaning degree of the electric shaver comprises:

[0045] In response to the electric shaver cleaning the stubble, acquiring an initial image of the distribution of stubble inside the cutter head of the electric shaver;

[0046] The initial image is input into a self-cleanliness classification model to obtain a self-cleanliness classification result output by the self-cleanliness classification model as the initial self-cleanliness of the electric shaver. The initial self-cleanliness is used to represent the classification of the cleanliness of the inside of the shaver head after cleaning.

[0047] Optionally, obtaining the initial self-cleaning degree of the electric shaver comprises:

[0048] In response to detecting that the electric shaver has finished cleaning the stubble, a preset interactive interface is generated, wherein the preset interactive interface includes an input box control for inputting a self-cleaning degree classification and a save control;

[0049] In response to detecting that the self-cleaning classification of the blade head of the electric shaver is input into the input box control, adjusting the display state of the saving control;

[0050] In response to detecting that the save control is triggered, the self-cleaning degree classification in the input box control is determined as the initial self-cleaning degree of the electric shaver, and the initial self-cleaning degree is used to represent the classification of the degree of cleanliness inside the cutter head after cleaning.

[0051] Optionally, determining the no-disassembly quick-wash capability index of the electric shaver according to the initial weight, the actual weight, the preset flow rate, the preset viscosity and the initial self-cleaning degree of the electric shaver comprises:

[0052] Obtaining the product of the sensitivity of the valve of the blade head of the electric shaver and the preset flow rate, and obtaining the ratio of the product to the preset viscosity as the flushing intensity; the flushing intensity is used to indicate the magnitude of the effect of the flushing liquid on cleaning the stubble;

[0053] Obtaining a ratio of the actual weight to the initial weight as the actual self-cleaning degree of the electric shaver;

[0054] Respectively obtaining weight values ​​of the actual self-cleaning degree, the initial self-cleaning degree and the flushing intensity;

[0055] Respectively obtain the product of the actual self-cleaning degree and its weight value, the initial self-cleaning degree and its weight value, and the flushing intensity and its weight value to obtain a weighted actual self-cleaning degree, a weighted initial self-cleaning degree, and a weighted flushing intensity;

[0056] The sum of the weighted actual self-cleaning degree, the weighted initial self-cleaning degree and the weighted flushing intensity is obtained as the disassembly-free quick-cleaning capability index of the electric shaver.

[0057] Optionally, the no-disassembly quick-wash capability index is expressed by the following formula:

[0058]

[0059] Wherein, M represents the index of quick-wash capability without disassembly; S represents the sensitivity of the valve of the blade of the electric shaver; P represents the preset flow rate of the flushing liquid; μ represents the preset viscosity of the flushing liquid; G1 represents the actual weight, G represents the initial weight, represents the actual self-cleaning degree, Z represents the initial self-cleaning degree; a, b and c represent the weight values ​​of flushing intensity, actual self-cleaning degree and initial self-cleaning degree respectively.

[0060] According to a third aspect of an embodiment of the present disclosure, a testing device is provided, applicable to the testing system according to any one of the first aspects, the device comprising:

[0061] A parameter acquisition module, used to acquire a preset flow rate and / or a preset viscosity of the flushing liquid;

[0062] A weight acquisition module, used to acquire the initial weight and actual weight of the stubble in the cutter head of the electric shaver before and after cleaning;

[0063] An index acquisition module is used to determine the no-disassembly quick-wash capability index of the electric shaver according to the initial weight, the actual weight, the preset flow rate and the preset viscosity; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

[0064] Optionally, the weight acquisition module includes:

[0065] A first weight acquisition submodule is used to acquire a first weight of the electric shaver in a first state; the first state refers to a state in which a shaver head of the electric shaver contains no stubble;

[0066] A second weight acquisition submodule is used to acquire a second weight of the electric shaver in a second state; the second state refers to a state in which a preset weight of stubble is distributed in a razor head of the electric shaver;

[0067] The initial weight acquisition submodule is used to acquire the difference between the second weight and the first weight as the initial weight of the stubble in the cutter head before cleaning.

[0068] Optionally, the weight acquisition module includes:

[0069] An inlet adjustment submodule, used for aligning the cutter head of the electric shaver with the flushing port of the flushing device, so that a flushing liquid with a preset flow rate and / or preset viscosity enters the inlet of the cutter head and flushes for a first preset time;

[0070] A state adjustment submodule, used for controlling the cutter head of the electric shaver to enter a working state so as to clean the stubble in the cutter head;

[0071] The beard residue filtering submodule is used to filter the sewage containing beard residue to obtain the washed beard residue;

[0072] A beard stubble drying submodule, used for placing the cleaned beard stubble into a drying device and drying it at a preset temperature for a second preset time to obtain dried beard stubble;

[0073] The weight acquisition submodule is used to weigh the dried stubble to obtain the actual weight of the stubble in the blade head of the electric shaver after cleaning.

[0074] Optionally, the index acquisition module includes:

[0075] A flushing intensity acquisition submodule, used to acquire the product of the sensitivity of the valve of the blade head of the electric shaver and the preset flow rate, and to acquire the ratio of the product to the preset viscosity as the flushing intensity; the flushing intensity is used to indicate the effect of the flushing liquid on cleaning the stubble;

[0076] An actual self-cleaning degree acquisition submodule, used for acquiring a ratio of the actual weight to the initial weight as the actual self-cleaning degree of the electric shaver;

[0077] A weighted parameter acquisition submodule, used to respectively acquire the product of the actual self-cleaning degree and its weight value and the flushing intensity and its weight value, to obtain a weighted actual self-cleaning degree and a weighted flushing intensity;

[0078] The index acquisition submodule is used to obtain the sum of the weighted actual self-cleaning degree and the weighted flushing intensity as the disassembly-free quick-washing capability index of the electric shaver.

[0079] Optionally, the no-disassembly quick-wash capability index is expressed by the following formula:

[0080]

[0081] Wherein, M represents the index of quick-wash capability without disassembly; S represents the sensitivity of the valve of the blade of the electric shaver; P represents the preset flow rate of the flushing liquid; μ represents the preset viscosity of the flushing liquid; G1 represents the actual weight, G represents the initial weight, represents the actual self-cleaning degree; a and b represent the weight values ​​of flushing intensity and actual self-cleaning degree respectively.

[0082] Optionally, the device further comprises:

[0083] A self-cleaning degree acquisition module, used to acquire the initial self-cleaning degree of the electric shaver;

[0084] The index acquisition submodule is also used to determine the no-disassembly quick-wash ability index of the electric shaver based on the initial weight, the actual weight, the preset flow rate, the preset viscosity and the initial self-cleaning degree of the electric shaver; the no-disassembly quick-wash ability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

[0085] Optionally, the self-cleanliness acquisition module includes:

[0086] An initial image acquisition submodule, configured to acquire an initial image of the distribution of stubble inside the cutter head of the electric shaver in response to the electric shaver cleaning stubble;

[0087] The initial self-cleanliness acquisition submodule is used to input the initial image into the self-cleanliness classification model to obtain the self-cleanliness classification result output by the self-cleanliness classification model as the initial self-cleanliness of the electric shaver. The initial self-cleanliness is used to represent the classification of the degree of cleanliness inside the blade head after cleaning.

[0088] Optionally, the self-cleanliness acquisition module includes:

[0089] An interactive interface generation submodule, for generating a preset interactive interface in response to detecting that the electric shaver has finished cleaning the stubble, wherein the preset interactive interface includes an input box control for inputting a self-cleanliness classification and a save control;

[0090] A display state adjustment submodule, configured to adjust the display state of the storage control in response to detecting that the self-cleanliness classification of the blade head of the electric shaver is input into the input box control;

[0091] The initial self-cleanliness determination submodule is used to determine the self-cleanliness classification in the input box control as the initial self-cleanliness of the electric shaver in response to detecting that the save control is triggered, and the initial self-cleanliness is used to represent the classification of the cleanliness of the inside of the cutter head after cleaning.

[0092] Optionally, the index acquisition module includes:

[0093] A flushing intensity acquisition submodule, used to acquire the product of the sensitivity of the valve of the blade head of the electric shaver and the preset flow rate, and to acquire the ratio of the product to the preset viscosity as the flushing intensity; the flushing intensity is used to indicate the effect of the flushing liquid on cleaning the stubble;

[0094] An actual self-cleaning degree acquisition submodule, used for acquiring a ratio of the actual weight to the initial weight as the actual self-cleaning degree of the electric shaver;

[0095] A weight value acquisition submodule, used to respectively acquire weight values ​​of the actual self-cleaning degree, the initial self-cleaning degree and the flushing intensity;

[0096] A weighted parameter acquisition submodule, used to respectively acquire the product of the actual self-cleaning degree and its weight value, the initial self-cleaning degree and its weight value, and the flushing intensity and its weight value, to obtain a weighted actual self-cleaning degree, a weighted initial self-cleaning degree, and a weighted flushing intensity;

[0097] The index acquisition submodule is used to obtain the sum of the weighted actual self-cleaning degree, the weighted initial self-cleaning degree and the weighted flushing intensity as the disassembly-free quick-cleaning capability index of the electric shaver.

[0098] Optionally, the no-disassembly quick-wash capability index is expressed by the following formula:

[0099]

[0100] Wherein, M represents the index of quick-wash capability without disassembly; S represents the sensitivity of the valve of the blade of the electric shaver; P represents the preset flow rate of the flushing liquid; μ represents the preset viscosity of the flushing liquid; G1 represents the actual weight, G represents the initial weight, represents the actual self-cleaning degree, Z represents the initial self-cleaning degree; a, b and c represent the weight values ​​of flushing intensity, actual self-cleaning degree and initial self-cleaning degree respectively.

[0101] According to a fourth aspect of an embodiment of the present disclosure, a non-transitory computer-readable storage medium is provided, and when an executable computer program in the storage medium is executed by a processor, the method described in any one of the second aspects can be implemented.

[0102] The technical solution provided by the embodiments of the present disclosure may have the following beneficial effects:

[0103] The test method provided by the embodiment of the present disclosure can first obtain the preset flow rate and / or preset viscosity of the flushing liquid; then obtain the initial weight and actual weight of the stubble in the blade head of the electric shaver before and after cleaning; finally, determine the no-disassembly quick-wash capability index of the electric shaver based on the initial weight, the actual weight, the preset flow rate and the preset viscosity; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head. In this way, this embodiment can improve the test efficiency by providing the no-disassembly quick-wash capability index to evaluate the ability of the electric shaver to clean stubble without removing the blade head shell, that is, the quality of the automatic cleaning effect, in a quantitative form, thereby providing the no-disassembly quick-wash capability index.

[0104] It is to be understood that the foregoing general description and the following detailed description are exemplary and explanatory only and are not restrictive of the present disclosure. BRIEF DESCRIPTION OF THE DRAWINGS

[0105] The accompanying drawings, which are incorporated in and constitute a part of this specification, illustrate embodiments consistent with the present disclosure and, together with the description, serve to explain the principles of the present disclosure.

[0106] Figure 1 It is a block diagram of a test system according to an exemplary embodiment.

[0107] Figure 2 The figure is a flow chart of a testing method according to an exemplary embodiment.

[0108] Figure 3 The figure is a flow chart showing a method of obtaining an initial weight according to an exemplary embodiment.

[0109] Figure 4The figure is a flow chart showing a method of obtaining actual weight according to an exemplary embodiment.

[0110] Figure 5 The present invention is a flow chart showing a method of obtaining a quick-wash capability index without disassembly according to an exemplary embodiment.

[0111] Figure 6 The figure is a flow chart of a testing method according to an exemplary embodiment.

[0112] Figure 7 The present invention is a flow chart showing a method of obtaining a quick-wash capability index without disassembly according to an exemplary embodiment.

[0113] Figure 8 It is a block diagram of a testing device according to an exemplary embodiment. DETAILED DESCRIPTION

[0114] Exemplary embodiments will be described in detail herein, examples of which are shown in the accompanying drawings. When the following description refers to the drawings, the same numbers in different drawings represent the same or similar elements unless otherwise indicated. The embodiments described below by way of example do not represent all embodiments consistent with the present disclosure. Instead, they are merely examples of devices consistent with some aspects of the present disclosure as detailed in the appended claims.

[0115] In order to solve the above technical problems, the embodiments of the present disclosure provide a testing system, method, device and storage medium, which are suitable for testing an electric shaver, especially for testing the effect of cleaning the stubble inside the electric shaver. The electric shaver includes a cutter head, which includes at least one razor and a cutter net covering each razor. When the razor rotates, the beard entering the cutter net will be cut by the razor and stored in the cutter head and in a beard storage bin inside the cutter head. The cutter head of the electric shaver is provided with an inlet, which allows liquid to enter to clean the stubble stored in the cutter head. The testing system provided by the embodiments of the present disclosure can test the above electric shaver.

[0116] See also Figure 1 The test system 10 comprises: a processing device 11, a fixing device 12, a flushing device 13, a filtering device 14, a drying device 15 and a weighing device 16. The processing device 11 is electrically connected to the fixing device 12, the flushing device 13, the drying device 15 and the weighing device 16 respectively.

[0117] Wherein, the flushing device 13 is used to provide a flushing liquid with a preset flow rate and / or a preset viscosity through the flushing port;

[0118] The fixing device 12 is used to fix the electric shaver to be cleaned, and is used to adjust the direction of the blade head of the electric shaver so that the blade head is aligned with the flushing port of the flushing device 13; the electric shaver is used to switch to a working state according to a control signal to clean the stubble in the beard storage bin of the electric shaver;

[0119] It should be understood that the electric shaver can have a flushing inlet and a flushing outlet, that is, the flushing liquid flows out from the flushing port of the flushing device, flows out of the flushing inlet of the electric shaver, cleans the blades, knife net, etc. of the electric shaver, forms waste liquid carrying stubble, and flows out from the flushing outlet.

[0120] The filter element 14 is used to filter out the stubble in the cleaning liquid;

[0121] The drying device 15 is used to dry the filtered stubble;

[0122] The weighing device 16 is used to obtain the weight of the stubble of the electric shaver before and after cleaning; the weight of the stubble of the electric shaver before and after cleaning is the initial weight and actual weight of the stubble in the cutter head before and after cleaning as illustrated in the subsequent embodiments; it should be understood that before cleaning, the stubble in the electric shaver is dry and does not need to be dried, while after cleaning, the stubble washed out by the cleaning liquid is wet and needs to be dried before weighing.

[0123] The processing device 11 is used to determine the no-disassembly quick-wash ability index of the electric shaver based on the stubble weight, preset flow rate and preset viscosity; the no-disassembly quick-wash ability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head, that is, the cleaning ability of the no-disassembly quick-wash shaver.

[0124] In this embodiment, the flushing device 13 is provided with a liquid storage tank and a flushing port. A flushing liquid is provided in the liquid storage tank. The flushing liquid can be tap water or a liquid including other detergents. Its viscosity is a preset viscosity and can be configured according to a specific scenario. In some possible examples, the flushing liquid can be implemented using tap water. The flushing device 13 may include a pressurizing device, which is provided between the liquid storage tank and the flushing port so that the output flushing liquid reaches a preset flow rate.

[0125] In this embodiment, the fixing device 12 may include a mechanical arm and a fixing platform, and the fixing platform is arranged on the mechanical arm, and can be used to fix the electric shaver to be tested. The mechanical arm may have six degrees of freedom, namely, up and down directions, left and right directions, front and back directions and corresponding rotations, or translation or rotation in the x-axis, y-axis and z-axis directions of the coordinate system where the mechanical arm is located. The mechanical arm can be controlled by the processing device 11, that is, the processing device 11 can control the mechanical arm to move the fixing platform in at least one direction of up and down, left and right, and front and back to adjust the direction of the inlet of the blade head of the electric shaver, and is used to adjust the spatial position of the fixing platform so that the inlet of the blade head of the electric shaver is aligned with the flushing port of the flushing device 13, to ensure that the flushing liquid with a preset flow rate and / or preset viscosity flowing out of the flushing port of the flushing device 13 flows into the above-mentioned inlet.

[0126] In one embodiment, the electric shaver can be electrically connected to the processing device 11. The processing device 11 can send a control signal to the electric shaver to start the electric shaver and switch it to a working mode, such as a cleaning mode. When the electric shaver is in the working mode, the rotation of the razor will drive the liquid to rotate, and the stubble can be mixed into the liquid to obtain a dirty liquid containing the stubble; and then flow out from the cleaning outlet of the razor head. In one example, the processing device 11 can control the electric shaver to work for a first preset time, and the value range of the first preset time is 1 to 50 seconds. In one example, the first preset time is 15 seconds.

[0127] In one embodiment, the test system 10 further includes a waste liquid storage device 17. The waste liquid storage device is placed below the fixed device and is used to store waste liquid (e.g., waste water containing washed stubble) after washing the stubble in the beard storage bin. The waste liquid storage device can be arranged directly below the flushing device, or arranged above the fixed device 12 and with an opening facing the cleaning outlet of the blade head of the electric shaver, so that the sewage from the cleaning outlet of the blade head flows into the waste liquid storage device 17.

[0128] In one embodiment, the filter device 14 can be a filter screen with filter holes, such as a gauze screen or a wire mesh. Those skilled in the art can select a filter device with the function of filtering stubble according to the specific scenario, and the corresponding scheme falls within the protection scope of the present disclosure. In one example, the filter device 14 is a wire mesh with a mesh size of 400, so that the wire mesh can be directly placed in the drying device 15 for drying. It is understandable that the weight of the wire mesh is known, or the weight is weighed using a weighing device. Among them, the weighing device can be implemented using an electronic scale with an accuracy of 0.001g.

[0129] In one embodiment, the dried stubble on the filter net can be placed on a weighing device for weighing, thereby obtaining the weight of the stubble cleaned from the blade head.

[0130] In one embodiment, the test system further includes an image acquisition device 18. The shooting range of the image acquisition device covers the cutter head of the electric shaver; when the cutter net of the cutter head is removed, the processing device can control the image acquisition device to capture an image of the inside of the cutter head as an initial image; the processing device 11 obtains the initial self-cleaning degree of the cutter head of the electric shaver according to the initial image. The initial self-cleaning degree is used to indicate the classification of the cleanliness of the inside of the cutter head after cleaning.

[0131] In one embodiment, the processing device 11 can obtain the no-disassembly quick-wash ability index of the electric shaver based on the preset flow rate, preset viscosity, initial weight, actual weight, and initial self-cleaning degree of the rinsing liquid; the no-disassembly quick-wash ability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head. Figure 2 The figure is a flow chart of a testing method according to an exemplary embodiment.

[0132] See also Figure 2 , a test method for Figure 1 In the test system of the example, the method includes steps 21 to 24.

[0133] In step 21 , a preset flow rate and / or a preset viscosity of the flushing liquid is obtained.

[0134] In this step, the processing device may obtain a preset flow rate and / or a preset viscosity of the flushing liquid.

[0135] In one example, the liquid storage tank of the flushing device includes a water storage tank and a detergent storage tank. The processing device can communicate with the flushing device and control the outlet valves of the water storage tank and the detergent storage tank in the flushing device to open for different lengths of time according to the preset ratio data to adjust the ratio of water to detergent (for example, 100:1) so that the viscosity of the flushing liquid reaches the preset viscosity. Then, the processing device can control the pressurizing device in the flushing device to work so that the flushing port of the flushing device flows out the flushing liquid at a preset flow rate. In other words, this example can determine the preset flow rate and / or preset viscosity of the flushing liquid by obtaining the preset ratio data.

[0136] In another example, a flow meter and a viscometer are provided in the flushing device. The processing device can control the flushing device to start and start outputting the flushing liquid, and the flow meter and the viscometer in the flushing device work simultaneously. The flow meter can collect the flow of the flushing liquid according to a first preset period (e.g., 1-300 seconds) as a preset flow; the viscometer can collect the viscosity of the flushing liquid according to a second preset period (e.g., 1-300 seconds) as a preset viscosity; the processing device communicates with the flow meter and the viscometer respectively, and can receive the above-mentioned preset flow and / or preset viscosity.

[0137] In another example, a flow component and a viscosity meter are provided in the flushing device. When there is a need to clean the electric shaver, the user can start the flushing device, and the flushing port of the flushing device can flow out the flushing liquid. At this time, the user can read the flow collected by the flow meter as the preset flow; read the viscosity collected by the viscometer as the preset viscosity; then, the user can input the above preset flow and / or preset viscosity into the test system in a human-computer interactive manner through the touch screen, and store it in the local memory. The processing device can communicate with the local memory to read the preset flow and / or preset viscosity of the above flushing liquid.

[0138] In another example, the flushing device can be directly implemented by a faucet. When there is a need to clean the electric shaver, the user can start the faucet so that the faucet can flow out the flushing liquid (i.e., tap water). The flow rate of the tap water can be collected through the water meter of the tap water as the preset flow rate; the viscosity of the tap water can obtain the viscosity of the tap water published locally as the preset viscosity. The above-mentioned preset flow rate and / or preset viscosity can be input into the test system in a human-computer interaction manner through the touch screen, and stored in the local memory. The processing device can communicate with the local memory to read the preset flow rate and / or preset viscosity of the above-mentioned flushing liquid.

[0139] Of course, other forms of flushing equipment that can provide flushing liquid with preset pressure and viscosity may also be used, such as a specific form of flushing liquid spraying device.

[0140] It should be noted that those skilled in the art can select a suitable solution to obtain a preset flow rate and / or preset viscosity of the flushing liquid according to the specific scenario, and the corresponding solution falls within the protection scope of the present disclosure.

[0141] In step 22, the initial weight and actual weight of the stubble in the cutter head of the electric shaver before and after cleaning are obtained.

[0142] In one example, the processing device may obtain the initial weight of the stubble in the blade head of the electric shaver before cleaning, see Figure 3 , including steps 31 to 33.

[0143] In step 31, a first weight of the electric shaver in a first state is obtained; the first state refers to a state where the blade head of the electric shaver does not contain stubble.

[0144] In this step, the processing device can obtain the first weight of the electric shaver in the first state. The first state refers to a state in which the blade head of the electric shaver does not contain stubble. The user can place the electric shaver on a weighing device to obtain the weight of the blade head of the electric shaver when there is no stubble as the first weight. The processing device can communicate with the weighing device to obtain the above-mentioned first weight.

[0145] In step 32, a second weight of the electric shaver in a second state is obtained; the second state refers to a state in which a preset weight of stubble is distributed in the blade head of the electric shaver.

[0146] In this step, the processing device can control the electric shaver to trim hair (such as hair, nylon thread or beard, etc.) to replace stubble, so that the stubble is distributed within the blade head of the electric shaver. Considering the use scenario of the electric shaver, each user uses an electric shaver and cleans the blade head after several shavings. When trimming hair, the use scenario of the user's shaving can be simulated, for example, a head model is generated and the hair is evenly distributed on the arc-shaped fixing plate of the head model, and the length of the hair extending out of the arc-shaped fixing plate ranges from 0.1 to 1 mm, for example, 0.5 mm; the electric shaver is used to shave the hair until it is flush with the surface of the fixing plate.

[0147] In this step, after trimming is completed, the electric shaver can be placed on a weighing device to obtain the weight of the electric shaver head including the stubble as the second weight. The processing device can communicate with the weighing device to obtain the second weight.

[0148] In step 33, the difference between the second weight and the first weight is obtained as the initial weight of the stubble in the cutter head before cleaning.

[0149] In this step, the processing device can obtain the difference between the second weight and the first weight as the initial weight of the stubble in the cutter head before cleaning.

[0150] In another example, the processing device can control the electric shaver to trim hair to replace stubble. Then, the stubble is placed on a weighing device to weigh a preset weight of stubble as the initial weight. The preset weight may include but is not limited to 0.027, 0.054, and 0.081g of stubble. 0.027 grams can be used as the amount of stubble for an average adult in one day, 0.054 grams can be used as the amount of stubble for an average adult in two days, and 0.081 grams can be used as the amount of stubble for an average adult in three days. Then, the initial weight of stubble can be distributed into the blade head of the electric shaver to be tested.

[0151] In one example, the processing device can obtain the actual weight of the stubble in the blade head of the electric shaver after cleaning, see Figure 4 , including steps 41 to 45.

[0152] In step 41, the inlet of the cutter head of the electric shaver is aligned with the flushing port of the flushing device, so that a flushing liquid with a preset flow rate and / or preset viscosity enters the inlet of the cutter head and flushes for a first preset time.

[0153] In this step, after the electric shaver is fixed to the fixing device, the processing device can control the fixing device to adjust the direction so that the inlet of the cutter head of the electric shaver is aligned with the flushing port of the flushing device. Then, the processing device can control the valve of the flushing device to open so that a flushing liquid with a preset flow rate and / or preset viscosity flows out of the flushing port of the flushing device, and the flushing liquid can enter the inlet of the cutter head. In addition, the processing device can control the fixing device and the flushing device to maintain a first preset time length, that is, the first preset time length for flushing the cutter head of the electric shaver. The value range of the first preset time length can be 1 to 100 seconds. In one example, the first preset time length is 15 seconds.

[0154] In step 42, the cutter head of the electric shaver is controlled to enter a working state to clean the stubble in the cutter head.

[0155] In this step, the processing equipment can control the electric shaver to be in working state, and the rotation of the razor in the cutter head can mix the flushing liquid and the stubble to form sewage, thereby speeding up the speed of cleaning the stubble.

[0156] In step 43, the wastewater containing the stubble is filtered to obtain the washed stubble.

[0157] In this step, the processing equipment can control the direction of the opening of the waste liquid storage device so that the sewage falls onto the filter device, the diameter of the filter hole of the filter device is smaller than the diameter of the stubble, so that the stubble in the cleaning liquid can be filtered out to obtain the cleaned stubble.

[0158] In step 44, the cleaned stubble is placed in a drying device and dried at a preset temperature for a second preset time to obtain dried stubble.

[0159] It should be understood that the weight of the stubble in the blade head after cleaning can be understood as the weight of the stubble that has been cleaned out of the blade head and dried. That is, there is a certain amount of stubble in the blade head before cleaning. After cleaning, part of the stubble is cleaned out, while part of the stubble is not cleaned out and remains in the blade head. The weight of the stubble that has been cleaned out of the blade head and dried is the weight of the stubble in the blade head after cleaning.

[0160] In this step, the processing device can place the cleaned stubble into a drying device and dry it at a preset temperature for a second preset time; when the second preset time is reached, the processing device can turn off the drying device and cool the stubble to room temperature to obtain the dried stubble. The second preset time can range from 1 to 300 minutes, and in one example, the second preset time is 90 minutes. The preset temperature can range from 0 to 60°C, and in one example, the preset temperature is 40°C.

[0161] In one example, the fixing device includes a bracket for fixing the filter device, and after filtering is completed, the processing device can respond to the user's interactive operation instruction to control the fixing device to send the filter device to the tray of the drying device. In another example, the processing device can generate interactive information to prompt the user to transfer the washed stubble into the drying device.

[0162] In step 45, the dried stubble is weighed to obtain the actual weight of the stubble in the blade head of the electric shaver after cleaning.

[0163] In this step, the processing device can control the weighing device to weigh the dried stubble to obtain the actual weight of the stubble in the blade head of the electric shaver after cleaning.

[0164] In step 23, the no-disassembly quick-wash capability index of the electric shaver is determined based on the initial weight, the actual weight, the preset flow rate and the preset viscosity; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

[0165] In this step, the processing device can determine the no-disassembly quick-wash capability index of the electric shaver according to the initial weight, the actual weight, the preset flow rate and the preset viscosity. Figure 5 , including steps 51 to 55.

[0166] In step 51, the product of the sensitivity of the valve of the blade head of the electric shaver and the preset flow rate is obtained, and the ratio of the product to the preset viscosity is obtained as the flushing intensity; the flushing intensity is used to indicate the effect of the flushing liquid on cleaning stubble.

[0167] In this step, the processing device can obtain the sensitivity of the valve of the blade head of the electric shaver. The sensitivity refers to the pressure required to open or close the blade head valve. The sensitivity can be detected by dripping a flushing liquid onto the valve. The valve is in a closed state in the initial state. A drop of flushing liquid is dripped onto the valve. When there is liquid on the valve, the gravity, i.e., the pressure, of the liquid cannot open the valve. As the number of drops of flushing liquid increases, at a certain drop, the liquid on the valve can switch the valve to an open state, and the number of drops of liquid at this time is recorded. Combined with the weight of each drop of liquid, the weight of all liquids can be calculated, and the weight is used as the sensitivity of the blade head valve.

[0168] In this step, the processing device can generate an interactive interface, in which there is an input box for inputting sensitivity; the user can input the above sensitivity in the input box and trigger the save control. At this time, the processing device can obtain the sensitivity of the valve.

[0169] In this step, the processing device can obtain the product of the sensitivity and the preset flow rate, and obtain the ratio of the product to the preset viscosity as the flushing intensity. The flushing intensity is used to indicate the effect of the flushing liquid on cleaning the stubble.

[0170] In step 52, the processing device may obtain the ratio of the actual weight to the initial weight as the actual self-cleaning degree of the electric shaver.

[0171] In step 53, the processing device may respectively obtain the product of the actual self-cleaning degree and its weight value, and the flushing intensity and its weight value, to obtain a weighted actual self-cleaning degree and a weighted flushing intensity.

[0172] In step 54, the processing device may obtain the sum of the weighted actual self-cleaning degree and the weighted rinsing intensity as the no-disassembly quick-cleaning capability index of the electric shaver.

[0173] In one example, the no-disassembly quick-wash capability index can be expressed as shown in formula (1).

[0174]

[0175] In formula (1), M represents the index of quick-wash capability without disassembly; S represents the sensitivity of the valve of the blade of the electric shaver; P represents the preset flow rate of the flushing liquid; μ represents the preset viscosity of the flushing liquid; G1 represents the actual weight, G represents the initial weight, represents the actual self-cleaning degree; a and b represent the weight values ​​of flushing intensity and actual self-cleaning degree respectively.

[0176] Thus, this embodiment provides a no-disassembly quick-wash capability index to quantitatively evaluate the ability of an electric shaver to clean stubble without removing the blade housing, that is, the effectiveness of automatic cleaning, thereby improving test efficiency.

[0177] The present disclosure also provides a testing method, see Figure 6 , including steps 61 to 64.

[0178] In step 61 , a preset flow rate and / or a preset viscosity of the flushing liquid is obtained.

[0179] It is understandable that the solution of step 61 is the same as the solution of step 21. For details, please refer to the solution of step 21, which will not be repeated here.

[0180] In step 62, the initial weight and actual weight of the stubble in the cutter head of the electric shaver before and after cleaning are obtained.

[0181] It is understandable that the solution of step 62 is the same as the solution of step 22. For details, please refer to the solution of step 22, which will not be repeated here.

[0182] In step 63, the initial self-cleaning degree of the electric shaver is obtained.

[0183] In this step, the processing device can obtain the initial self-cleaning degree of the electric shaver, which is used to indicate the classification of the cleanliness degree of the inside of the blade head after cleaning. For example, the initial self-cleaning degree can be divided into 5 categories, including Category 1 (value is 0, indicating that the cleanliness degree is very dirty), Category 2 (value is 1, indicating that the cleanliness degree is relatively dirty), Category 3 (value is 2, indicating that the cleanliness degree is general), Category 4 (value is 3, indicating that the cleanliness degree is relatively clean) and Category 5 (value is 4, indicating that the cleanliness degree is very clean).

[0184] In one example, a self-cleanliness model is stored in a processing device, and the self-cleanliness model can be implemented using a neural network model, such as a convolutional neural network, a recurrent neural network, etc. In this example, a number of training images can be obtained, each of which is obtained by photographing the inside of a blade head with stubble, and includes a classification mark for classifying the degree of neatness according to the condition of the stubble inside the blade head. The above-mentioned several training images can be divided into a training set and a verification set. Then, each training image in the training set can be input into the initial self-cleanliness model for training to obtain a trained self-cleanliness model; thereafter, each training image in the verification set is input into the trained self-cleanliness model, and when the ratio of the identified self-cleanliness results to the total number of identification results exceeds a preset ratio threshold, it is determined that the self-cleanliness model has completed training.

[0185] In this example, after the electric shaver cleans the stubble, the processing device can control the image acquisition device to obtain an initial image of the distribution of stubble inside the blade head of the electric shaver. Then, the processing device can input the initial image into the above-mentioned self-cleanliness model to obtain the self-cleanliness classification result output by the self-cleanliness model as the initial self-cleanliness of the electric shaver. In this example, the initial self-cleanliness is identified by acquiring the initial image, which can improve the detection efficiency and is suitable for batch detection scenarios.

[0186] In another example, when it is detected that the electric shaver has finished cleaning the stubble, the processing device can generate a preset interactive interface, which includes an input box control and a save control for inputting a self-cleanliness classification. Then, when it is detected that the self-cleanliness classification of the blade head of the electric shaver is input in the input box control, the processing device can adjust the display state of the save control; for example, the display state of the save control is adjusted from gray to blue, or from gray to highlighted, to achieve the effect of reminding the user. Afterwards, when it is detected that the save control is triggered, the processing device can determine the self-cleanliness classification in the input box control as the initial self-cleanliness of the electric shaver, and the initial self-cleanliness is used to represent the classification of the degree of cleanliness inside the blade head after cleaning.

[0187] In step 64, the no-disassembly quick-wash capability index of the electric shaver is determined based on the initial weight, the actual weight, the preset flow rate, the preset viscosity and the initial self-cleaning degree of the electric shaver; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

[0188] In this step, the processing device can determine the no-disassembly quick-wash capability index of the electric shaver according to the initial weight, the actual weight, the preset flow rate, the preset viscosity and the initial self-cleaning degree of the electric shaver, see Figure 7 , including steps 71 to 75.

[0189] In step 71, the product of the sensitivity of the valve of the blade head of the electric shaver and the preset flow rate is obtained, and the ratio of the product to the preset viscosity is obtained as the flushing intensity; the flushing intensity is used to indicate the effect of the flushing liquid on cleaning stubble.

[0190] In this step, the processing device can obtain the sensitivity of the valve of the blade head of the electric shaver. The sensitivity refers to the pressure required to open or close the blade head valve. The sensitivity can be detected by dripping a flushing liquid onto the valve. The valve is in a closed state in the initial state. A drop of flushing liquid is dripped onto the valve. When there is liquid on the valve, the gravity, i.e., the pressure, of the liquid cannot open the valve. As the number of drops of flushing liquid increases, at a certain drop, the liquid on the valve can switch the valve to an open state, and the number of drops of liquid at this time is recorded. Combined with the weight of each drop of liquid, the weight of all liquids can be calculated, and the weight is used as the sensitivity of the blade head valve.

[0191] In this step, the processing device can generate an interactive interface, in which there is an input box for inputting sensitivity; the user can input the above sensitivity in the input box and trigger the save control. At this time, the processing device can obtain the sensitivity of the valve.

[0192] In this step, the processing device can obtain the product of the sensitivity and the preset flow rate, and obtain the ratio of the product to the preset viscosity as the flushing intensity. The flushing intensity is used to indicate the effect of the flushing liquid on cleaning the stubble.

[0193] In step 72, the processing device may obtain the ratio of the actual weight to the initial weight as the actual self-cleaning degree of the electric shaver.

[0194] In step 73, the processing device may respectively obtain the weight values ​​of the actual self-cleaning degree, the initial self-cleaning degree and the flushing intensity.

[0195] In this step, the processing device may store the weight values ​​of the actual self-cleaning degree, the initial self-cleaning degree and the flushing intensity, wherein the storage location may include but is not limited to a local memory or a cache, and the processing device may read the weight values ​​from the above storage location.

[0196] In step 74, the processing device may respectively obtain the product of the actual self-cleaning degree and its weight value, the initial self-cleaning degree and its weight value, and the flushing intensity and its weight value to obtain a weighted actual self-cleaning degree, a weighted initial self-cleaning degree, and a weighted flushing intensity.

[0197] In step 75, the processing device may obtain the sum of the weighted actual self-cleaning degree, the weighted initial self-cleaning degree and the weighted flushing intensity as the disassembly-free quick-cleaning capability index of the electric shaver.

[0198] In one example, the no-disassembly quick-wash capability index can be expressed as shown in formula (2).

[0199]

[0200] In formula (2), M represents the index of quick-wash capability without disassembly; S represents the sensitivity of the valve of the blade of the electric shaver; P represents the preset flow rate of the flushing liquid; μ represents the preset viscosity of the flushing liquid; G1 represents the actual weight, G represents the initial weight, represents the actual self-cleaning degree, Z represents the initial self-cleaning degree; a, b and c represent the weight values ​​of flushing intensity, actual self-cleaning degree and initial self-cleaning degree respectively.

[0201] Thus, this embodiment provides a no-disassembly quick-wash capability index to quantitatively evaluate the ability of an electric shaver to clean stubble without removing the blade housing, that is, the effectiveness of automatic cleaning, thereby improving test efficiency.

[0202] The process of a testing method is described below in conjunction with a specific embodiment.

[0203] The flushing equipment uses a faucet, the weighing equipment uses an electronic scale with an accuracy of 0.0001g, the waste liquid storage equipment uses a 5-liter measuring cup glass container, and the filtering device uses a 400-mesh filter.

[0204] (1) The water output of the faucet (i.e. the preset flow rate) is 18 liters per minute.

[0205] (2) Using a beard trimmer to cut 0.08 mm diameter nylon thread or real hair substitute stubble, 0.5-1 mm in length, to obtain 0.027 g / 0.054 g / 0.081 g of stubble;

[0206] (3) Weigh the weight of the electric shaver without stubble using an electronic scale with an accuracy of 0.001g;

[0207] (4) Sprinkle stubble of 0.5-1 mm in length and 0.027 g / 0.054 g / 0.081 g randomly inside the blade head of an electric shaver; turn on the electric shaver and shake it, then turn it off; and then use an electronic scale to weigh the shaver with stubble after shaking.

[0208] (5) Use an electronic scale to weigh the filter in a dry and moisture-free state.

[0209] (6) Weigh the filter before filtration, filter out the stubble wastewater through a 400-mesh filter, bake the stubble and the filter together in an oven at a set temperature of 40°C for 1.5 hours, and then cool to room temperature and weigh.

[0210] (7) Fix the electric shaver at an angle of 30 degrees, rinse the electric shaver with stubble under the tap for 15 seconds; place a measuring cup of stubble wastewater under the electric shaver.

[0211] (8) Filter the stubble out of the washed wastewater with a 400-mesh filter to remove the stubble, dry it with the filter, cool it to room temperature after drying, and weigh it to calculate the weight of the filtered stubble.

[0212] (9) The initial self-cleaning degree can be obtained by removing the head cover of the electric shaver.

[0213] (10) The no-disassembly quick-washing capability index M is calculated according to formula (1).

[0214] In this embodiment, the test process can be standardized, which can be applied to different electric shavers, improve test efficiency, and save test costs; by setting the no-disassembly quick-wash capability index M, the no-disassembly quick-wash capability of the electric shaver can be evaluated in a quantitative manner. In addition, the solution of this embodiment can be used in early development to timely discover the shortcomings of new products, make corrections in a timely manner, and reduce development costs.

[0215] Based on a test method provided in an embodiment of the present disclosure, an embodiment of the present disclosure further provides a test device, see Figure 8 , the device comprises:

[0216] A parameter acquisition module 81, used to acquire a preset flow rate and / or preset viscosity of the flushing liquid;

[0217] A weight acquisition module 82 is used to acquire the initial weight and actual weight of the stubble in the blade head of the electric shaver before and after cleaning;

[0218] The index acquisition module 83 is used to determine the no-disassembly quick-wash capability index of the electric shaver according to the initial weight, the actual weight, the preset flow rate and the preset viscosity; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

[0219] Optionally, the weight acquisition module includes:

[0220] A first weight acquisition submodule is used to acquire a first weight of the electric shaver in a first state; the first state refers to a state in which a shaver head of the electric shaver contains no stubble;

[0221] A second weight acquisition submodule is used to acquire a second weight of the electric shaver in a second state; the second state refers to a state in which a preset weight of stubble is distributed in a razor head of the electric shaver;

[0222] The initial weight acquisition submodule is used to acquire the difference between the second weight and the first weight as the initial weight of the stubble in the cutter head before cleaning.

[0223] Optionally, the weight acquisition module includes:

[0224] An inlet adjustment submodule, used for aligning the cutter head of the electric shaver with the flushing port of the flushing device, so that a flushing liquid with a preset flow rate and / or preset viscosity enters the inlet of the cutter head and flushes for a first preset time;

[0225] A state adjustment submodule, used for controlling the cutter head of the electric shaver to enter a working state so as to clean the stubble in the cutter head;

[0226] The beard residue filtering submodule is used to filter the sewage containing beard residue to obtain the washed beard residue;

[0227] A beard stubble drying submodule, used for placing the cleaned beard stubble into a drying device and drying it at a preset temperature for a second preset time to obtain dried beard stubble;

[0228] The weight acquisition submodule is used to weigh the dried stubble to obtain the actual weight of the stubble in the blade head of the electric shaver after cleaning.

[0229] Optionally, the index acquisition module includes:

[0230] A flushing intensity acquisition submodule, used to acquire the product of the sensitivity of the valve of the blade head of the electric shaver and the preset flow rate, and to acquire the ratio of the product to the preset viscosity as the flushing intensity; the flushing intensity is used to indicate the effect of the flushing liquid on cleaning the stubble;

[0231] An actual self-cleaning degree acquisition submodule, used for acquiring a ratio of the actual weight to the initial weight as the actual self-cleaning degree of the electric shaver;

[0232] A weighted parameter acquisition submodule, used to respectively acquire the product of the actual self-cleaning degree and its weight value and the flushing intensity and its weight value, to obtain a weighted actual self-cleaning degree and a weighted flushing intensity;

[0233] The index acquisition submodule is used to obtain the sum of the weighted actual self-cleaning degree and the weighted flushing intensity as the disassembly-free quick-washing capability index of the electric shaver.

[0234] Optionally, the no-disassembly quick-wash capability index is expressed by the following formula:

[0235]

[0236] Wherein, M represents the index of quick-wash capability without disassembly; S represents the sensitivity of the valve of the blade of the electric shaver; P represents the preset flow rate of the flushing liquid; μ represents the preset viscosity of the flushing liquid; G1 represents the actual weight, G represents the initial weight, represents the actual self-cleaning degree; a and b represent the weight values ​​of flushing intensity and actual self-cleaning degree respectively.

[0237] Optionally, the device further comprises:

[0238] A self-cleaning degree acquisition module, used to acquire the initial self-cleaning degree of the electric shaver;

[0239] The index acquisition submodule is also used to determine the no-disassembly quick-wash ability index of the electric shaver based on the initial weight, the actual weight, the preset flow rate, the preset viscosity and the initial self-cleaning degree of the electric shaver; the no-disassembly quick-wash ability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

[0240] Optionally, the self-cleanliness acquisition module includes:

[0241] An initial image acquisition submodule, configured to acquire an initial image of the distribution of stubble inside the cutter head of the electric shaver in response to the electric shaver cleaning stubble;

[0242] The initial self-cleanliness acquisition submodule is used to input the initial image into the self-cleanliness classification model to obtain the self-cleanliness classification result output by the self-cleanliness classification model as the initial self-cleanliness of the electric shaver. The initial self-cleanliness is used to represent the classification of the degree of cleanliness inside the blade head after cleaning.

[0243] Optionally, the self-cleanliness acquisition module includes:

[0244] An interactive interface generation submodule, for generating a preset interactive interface in response to detecting that the electric shaver has finished cleaning the stubble, wherein the preset interactive interface includes an input box control for inputting a self-cleanliness classification and a save control;

[0245] A display state adjustment submodule, configured to adjust the display state of the storage control in response to detecting that the self-cleanliness classification of the blade head of the electric shaver is input into the input box control;

[0246] The initial self-cleanliness determination submodule is used to determine the self-cleanliness classification in the input box control as the initial self-cleanliness of the electric shaver in response to detecting that the save control is triggered, and the initial self-cleanliness is used to represent the classification of the cleanliness of the inside of the cutter head after cleaning.

[0247] Optionally, the index acquisition module includes:

[0248] A flushing intensity acquisition submodule, used to acquire the product of the sensitivity of the valve of the blade head of the electric shaver and the preset flow rate, and to acquire the ratio of the product to the preset viscosity as the flushing intensity; the flushing intensity is used to indicate the effect of the flushing liquid on cleaning the stubble;

[0249] An actual self-cleaning degree acquisition submodule, used for acquiring a ratio of the actual weight to the initial weight as the actual self-cleaning degree of the electric shaver;

[0250] A weight value acquisition submodule, used to respectively acquire weight values ​​of the actual self-cleaning degree, the initial self-cleaning degree and the flushing intensity;

[0251] A weighted parameter acquisition submodule, used to respectively acquire the product of the actual self-cleaning degree and its weight value, the initial self-cleaning degree and its weight value, and the flushing intensity and its weight value, to obtain a weighted actual self-cleaning degree, a weighted initial self-cleaning degree, and a weighted flushing intensity;

[0252] The index acquisition submodule is used to obtain the sum of the weighted actual self-cleaning degree, the weighted initial self-cleaning degree and the weighted flushing intensity as the disassembly-free quick-cleaning capability index of the electric shaver.

[0253] Optionally, the no-disassembly quick-wash capability index is expressed by the following formula:

[0254]

[0255] Wherein, M represents the index of quick-wash capability without disassembly; S represents the sensitivity of the valve of the blade of the electric shaver; P represents the preset flow rate of the flushing liquid; μ represents the preset viscosity of the flushing liquid; G1 represents the actual weight, G represents the initial weight, represents the actual self-cleaning degree, Z represents the initial self-cleaning degree; a, b and c represent the weight values ​​of flushing intensity, actual self-cleaning degree and initial self-cleaning degree respectively.

[0256] It should be noted that the device shown in this embodiment matches the contents of the method embodiment, and reference may be made to the contents of the above method embodiment, which will not be repeated here.

[0257] In an exemplary embodiment, the present disclosure also provides a non-transitory computer-readable storage medium, and when an executable computer program in the storage medium is executed by a processor, the above-mentioned method can be implemented.

[0258] In an exemplary embodiment, a chip is also provided, the chip including a processor and an interface for reading a computer program through the interface to implement the above method. The chip may be a conventional CPU (central processing unit) chip, a GPU (graphics processing unit) chip, etc., or an acceleration chip dedicated to artificial intelligence technology, such as an AI (Artificial Intelligence) accelerator, etc.

[0259] Those skilled in the art will readily appreciate other embodiments of the present disclosure after considering the specification and practicing the disclosure disclosed herein. The present disclosure is intended to cover any variations, uses, or adaptations that follow the general principles of the present disclosure and include common knowledge or customary techniques in the art that are not disclosed in the present disclosure. The description and examples are to be considered exemplary only, and the true scope and spirit of the present disclosure are indicated by the following claims.

[0260] It should be understood that the present disclosure is not limited to the exact structures that have been described above and shown in the drawings, and that various modifications and changes may be made without departing from the scope thereof. The scope of the present disclosure is limited only by the appended claims.

Claims

1. A testing system, characterized in that: The test system includes: processing equipment, fixing equipment, flushing equipment, filtering equipment, drying equipment and weighing equipment; Wherein, the processing equipment is electrically connected to the fixing equipment, the flushing equipment, the drying equipment and the weighing equipment respectively; The flushing device is used to provide a flushing liquid of a preset flow rate and / or preset viscosity through the flushing port; The fixing device is used to fix the electric shaver to be cleaned and to adjust the direction of the cutter head of the electric shaver so that the inlet of the cutter head is aligned with the flushing port of the flushing device; The electric shaver is used to switch to a working state according to a control signal to clean the stubble in the beard storage bin of the electric shaver; The filter element is used to filter out the stubble in the cleaning liquid; The drying device is used to dry the filtered stubble; The weighing device is used to obtain the weight of the stubble before and after cleaning the electric shaver; The processing device is used to determine the no-disassembly quick-wash capability index of the electric shaver according to the stubble weight, the preset flow rate and the preset viscosity; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

2. The test system according to claim 1, characterized in that: The fixing device includes a mechanical arm and a fixing platform. The fixing platform is arranged on the mechanical arm and is used to fix the electric shaver placed in the fixing slot when it is moved to a preset position. The mechanical arm is used to adjust the spatial position of the fixing platform so that the inlet of the cutter head is aligned with the flushing port of the flushing device.

3. The test system according to claim 1, characterized in that: The testing system further comprises an image acquisition device, which is used to capture an initial image of the distribution of stubble inside the blade head of the electric shaver and upload the initial image to the processing device; And wherein, the processing device obtains the initial self-cleaning degree of the blade head of the electric shaver according to the initial image, and determines the no-disassembly quick-cleaning ability index of the electric shaver according to the stubble weight, the preset flow rate, the preset viscosity and the initial self-cleaning degree of the electric shaver; the no-disassembly quick-cleaning ability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

4. The test system according to claim 1, characterized in that: The testing system also includes a waste liquid storage device; the waste liquid storage device is placed below the fixing device and is used to store waste water after cleaning the stubble in the beard storage bin.

5. A testing method, characterized in that: Applicable to the test system according to any one of claims 1 to 4, the method comprising: obtaining a preset flow rate and / or a preset viscosity of the flushing liquid; Obtaining the initial weight and actual weight of the stubble in the blade head of the electric shaver before and after cleaning; The no-disassembly quick-wash capability index of the electric shaver is determined based on the initial weight, the actual weight, the preset flow rate and the preset viscosity; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

6. The method according to claim 5, characterized in that Obtain the initial weight of the stubble inside the electric shaver's blade before cleaning, including: Obtaining a first weight of the electric shaver in a first state; the first state refers to a state in which a shaving head of the electric shaver contains no stubble; Obtaining a second weight of the electric shaver in a second state; the second state refers to a state in which a preset weight of stubble is distributed in a blade head of the electric shaver; The difference between the second weight and the first weight is obtained as the initial weight of the stubble in the cutter head before cleaning.

7. The method according to claim 5, characterized in that Obtain the actual weight of the stubble inside the electric shaver head after cleaning, including: Aligning the blade head of the electric shaver with the flushing port of the flushing device so that a flushing liquid with a preset flow rate and / or preset viscosity enters the inlet of the blade head and flushes for a first preset time; Controlling the cutter head of the electric shaver to enter a working state to clean the stubble in the cutter head; filtering the sewage containing beard residue to obtain the washed beard residue; Placing the cleaned stubble into a drying device and drying it at a preset temperature for a second preset time to obtain dried stubble; The dried stubble is weighed to obtain the actual weight of the stubble in the blade head of the electric shaver after cleaning.

8. The method according to claim 5, characterized in that Determining the no-disassembly quick-wash capability index of the electric shaver according to the initial weight, the actual weight, the preset flow rate, and the preset viscosity includes: Obtaining the product of the sensitivity of the valve of the blade head of the electric shaver and the preset flow rate, and obtaining the ratio of the product to the preset viscosity as the flushing intensity; the flushing intensity is used to indicate the magnitude of the effect of the flushing liquid on cleaning the stubble; Obtaining a ratio of the actual weight to the initial weight as the actual self-cleaning degree of the electric shaver; Respectively obtain the product of the actual self-cleaning degree and its weight value and the flushing intensity and its weight value to obtain a weighted actual self-cleaning degree and a weighted flushing intensity; The sum of the weighted actual self-cleaning degree and the weighted flushing intensity is obtained as the disassembly-free quick-cleaning capability index of the electric shaver.

9. The method according to claim 8, characterized in that The non-disassembly quick-washing capability index is expressed by the following formula: Wherein, M represents the index of quick-wash capability without disassembly; S represents the sensitivity of the valve of the blade of the electric shaver; P represents the preset flow rate of the flushing liquid; μ represents the preset viscosity of the flushing liquid; G1 represents the actual weight, G represents the initial weight, represents the actual self-cleaning degree; a and b represent the weight values ​​of flushing intensity and actual self-cleaning degree respectively.

10. The method according to claim 5, characterized in that The method further comprises: Obtaining the initial self-cleaning degree of the electric shaver; The no-disassembly quick-wash capability index of the electric shaver is determined according to the initial weight, the actual weight, the preset flow rate, the preset viscosity and the initial self-cleaning degree of the electric shaver; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

11. The method according to claim 10, characterized in that Obtaining the initial self-cleaning degree of the electric shaver, comprising: In response to the electric shaver cleaning the stubble, acquiring an initial image of the distribution of stubble inside the cutter head of the electric shaver; The initial image is input into a self-cleanliness classification model to obtain a self-cleanliness classification result output by the self-cleanliness classification model as the initial self-cleanliness of the electric shaver. The initial self-cleanliness is used to represent the classification of the cleanliness of the inside of the shaver head after cleaning.

12. The method according to claim 11, characterized in that Obtaining the initial self-cleaning degree of the electric shaver, comprising: In response to detecting that the electric shaver has finished cleaning the stubble, a preset interactive interface is generated, wherein the preset interactive interface includes an input box control for inputting a self-cleaning degree classification and a save control; In response to detecting that the self-cleaning classification of the blade head of the electric shaver is input into the input box control, adjusting the display state of the saving control; In response to detecting that the save control is triggered, the self-cleaning degree classification in the input box control is determined as the initial self-cleaning degree of the electric shaver, and the initial self-cleaning degree is used to represent the classification of the degree of cleanliness inside the cutter head after cleaning.

13. The method according to claim 11, characterized in that Determining the no-disassembly quick-wash capability index of the electric shaver according to the initial weight, the actual weight, the preset flow rate, the preset viscosity and the initial self-cleaning degree of the electric shaver includes: Obtaining the product of the sensitivity of the valve of the blade head of the electric shaver and the preset flow rate, and obtaining the ratio of the product to the preset viscosity as the flushing intensity; the flushing intensity is used to indicate the magnitude of the effect of the flushing liquid on cleaning the stubble; Obtaining a ratio of the actual weight to the initial weight as the actual self-cleaning degree of the electric shaver; Respectively obtaining weight values ​​of the actual self-cleaning degree, the initial self-cleaning degree and the flushing intensity; Respectively obtain the product of the actual self-cleaning degree and its weight value, the initial self-cleaning degree and its weight value, and the flushing intensity and its weight value to obtain a weighted actual self-cleaning degree, a weighted initial self-cleaning degree, and a weighted flushing intensity; The sum of the weighted actual self-cleaning degree, the weighted initial self-cleaning degree and the weighted flushing intensity is obtained as the disassembly-free quick-cleaning capability index of the electric shaver.

14. The method according to claim 13, characterized in that The non-disassembly quick-washing capability index is expressed by the following formula: Wherein, M represents the index of quick-wash capability without disassembly; S represents the sensitivity of the valve of the blade of the electric shaver; P represents the preset flow rate of the flushing liquid; μ represents the preset viscosity of the flushing liquid; G1 represents the actual weight, G represents the initial weight, represents the actual self-cleaning degree, Z represents the initial self-cleaning degree; a, b and c represent the weight values ​​of flushing intensity, actual self-cleaning degree and initial self-cleaning degree respectively.

15. A testing device, characterized in that: The test system according to any one of claims 1 to 4, wherein the device comprises: A parameter acquisition module, used to acquire a preset flow rate and / or a preset viscosity of the flushing liquid; A weight acquisition module, used to acquire the initial weight and actual weight of the stubble in the cutter head of the electric shaver before and after cleaning; An index acquisition module is used to determine the no-disassembly quick-wash capability index of the electric shaver according to the initial weight, the actual weight, the preset flow rate and the preset viscosity; the no-disassembly quick-wash capability index is used to characterize the ability of the electric shaver to clean stubble without removing the blade head.

16. A non-transitory computer-readable storage medium, characterized in that: When the executable computer program in the storage medium is executed by a processor, the method according to any one of claims 5 to 14 can be implemented.

Images