Interaction method and system of eye protection instrument

Abstract

The invention is suitable for the field of eye protection instrument interaction, and provides an interaction method and system of an eye protection instrument, and the method comprises the steps: collecting and recognizing the fatigue degree of an eye anchoring region, and generating a customized fatigue elimination strategy and a voice inquiry notice; in the target time period, collecting and identifying a user response result; sending an interaction detection instruction based on the user response result; and based on the interaction detection instruction, detecting the user hand action instruction, and generating the preset fatigue elimination strategy, the method has the beneficial effects that on one hand, the eye fatigue degree can be accurately identified, so that the exclusive eye protection strategy is customized, the eye fatigue is effectively relieved, and the vision health of the user is practically cared. And on the other hand, through an interaction mode of voice inquiry and user response, the sense of participation of the user is greatly enhanced. Meanwhile, the detection of the hand action instruction further optimizes the strategy, links are linked with one another, and comprehensive, personalized and highly targeted interaction and use experience are provided for the user.

Description

Technical Field

[0001] The present invention belongs to the field of eye massager interaction, and particularly relates to an interaction method and system for an eye massager. Background Art

[0002] In today's digital age, people use electronic devices such as mobile phones, computers, and tablets for long periods of time, resulting in increasingly common problems such as eye fatigue, dryness, and decreased eyesight. As a device for relieving eye discomfort, eye massagers have received wide attention. However, there are many deficiencies in the existing interaction methods of eye massagers.

[0003] Most traditional eye massagers only have simple on / off buttons and basic function switching buttons, providing a poor user operation experience and unable to accurately adjust the eye care mode according to the user's own eye conditions. In addition, existing eye massagers lack effective interaction with users, cannot provide real-time feedback on the usage effect, and cannot offer personalized eye care suggestions. Therefore, it is of great practical significance to develop a more innovative, more convenient eye massager interaction method that can meet the diverse needs of users. Summary of the Invention

[0004] The purpose of the present invention is to provide an interaction method and system for an eye massager, aiming to solve the problems raised in the above background art.

[0005] The present invention is implemented as follows. On the one hand, an interaction method for an eye massager, the method includes:

[0006] Collect and identify the fatigue degree of the eye anchoring area, generate a customized fatigue elimination strategy and a voice inquiry notification;

[0007] Within a target time period, collect and identify the user's response result;

[0008] Based on the user's response result, issue an interaction detection instruction;

[0009] Based on the interaction detection instruction, detect the user's hand movement instruction and generate a preset fatigue elimination strategy.

[0010] As a further solution of the present invention, the collecting and identifying the fatigue degree of the eye anchoring area, generating a customized fatigue elimination strategy and a voice inquiry notification specifically includes:

[0011] Collect the real-time microcurrent data of the user's eye anchoring area;

[0012] Calculate the increase rate of the real-time microcurrent data of the user's eye anchoring area and the microcurrent data of the stable-state eye anchoring area to generate a microcurrent increase rate;

[0013] Collect the real-time thermal imaging image of the user's eye anchoring area;

[0014] Extract the temperature value of the area with dense blood vessels around the eyes in the real-time thermal imaging image of the user's eye anchoring area;

[0015] Calculate the temperature gradient change between the temperature value of the area with dense blood vessels around the eyes and the temperature value of the area with dense blood vessels around the eyes in the steady state;

[0016] Generate a hierarchical fatigue elimination strategy and a voice inquiry notification based on the microcurrent amplification rate and the temperature gradient change.

[0017] As a further scheme of the present invention, the collecting and identifying the fatigue degree of the eye anchoring area and generating a customized fatigue elimination strategy and a voice inquiry notification specifically further include:

[0018] Synchronously collect tear secretion and generate the tear electrolyte concentration;

[0019] Judge whether the eyes are in a fatigued and dry state based on the microcurrent amplification rate, the temperature gradient change and the tear electrolyte concentration;

[0020] If it is judged that the eyes are in a fatigued and dry state, generate an atomization wetting instruction.

[0021] As a further scheme of the present invention, the collecting and identifying the user's response result within the target time period specifically includes:

[0022] Within the target time period, record the user's voice stream;

[0023] Extract the semantic features of the user's voice stream;

[0024] If no user voice stream is detected within the target time period, generate a hierarchical fatigue elimination strategy activation instruction.

[0025] As a further scheme of the present invention, the issuing of an interaction detection instruction based on the user's response result specifically includes:

[0026] Identify the semantic features of the user's voice stream;

[0027] If the semantic features of the user's voice stream are positive semantics, generate a hierarchical fatigue elimination instruction and a hierarchical interpretation notification;

[0028] If the semantic features of the user's voice stream are negative semantics, generate an interaction detection instruction.

[0029] As a further scheme of the present invention, the detecting of the user's hand movement instruction based on the interaction detection instruction and generating a preset fatigue elimination strategy specifically includes:

[0030] If the left-side interaction action of the eye protection device is detected, generate a first preset feedback action;

[0031] The specific left - hand interaction action is to clench the left fist and then quickly open the palm, repeating this twice. The specific first preset feedback action is that the internal components of the eye massager massage the Jingming acupoint and Zanzhu acupoint around the eyes with a gentle force and a low frequency. At the same time, the hot compress function is turned on, and the temperature is set at 38°C;

[0032] If the right - hand interaction action of the eye massager is detected, a second preset feedback action is generated;

[0033] The specific right - hand interaction action is to clench the right fist and then quickly open the palm, repeating this twice. The specific second preset feedback action is that the internal components of the eye massager massage the Sizhukong acupoint and Tongziliao acupoint around the eyes with a moderate force and a high frequency. At the same time, the hot compress function is turned on, and the temperature is set at 40°C;

[0034] If the left - and right - hand synchronous interaction action of the eye massager is detected, a composite preset feedback action is generated;

[0035] The specific left - and right - hand synchronous interaction action is that the left hand and the right hand clench the fists simultaneously and then quickly open the palms simultaneously, repeating this twice. The specific composite preset feedback action is that the internal components of the eye massager massage all the acupoints around the eyes with a moderate force and a moderate frequency. At the same time, the hot compress function is turned on, and the temperature is alternately and periodically adjusted between 38°C and 40°C.

[0036] As a further aspect of the present invention, on the other hand, an interaction system of an eye massager, the system includes:

[0037] A first acquisition and recognition module, used for acquiring and recognizing the fatigue degree of the eye - anchored area;

[0038] A first generation module, used for generating a customized fatigue elimination strategy and a voice inquiry notification;

[0039] A second acquisition and recognition module, used for acquiring and recognizing the user's response result within a target time period;

[0040] An interaction detection instruction module, used for issuing an interaction detection instruction based on the user's response result;

[0041] A detection module, used for detecting the user's hand movement instruction based on the interaction detection instruction;

[0042] A second generation module, used for generating a preset fatigue elimination strategy.

[0043] As a further aspect of the present invention, the first acquisition and recognition module specifically includes:

[0044] A first acquisition unit, used for acquiring the real - time micro - current data of the user's eye - anchored area;

[0045] A first calculation unit for calculating the increase in real-time micro-current data of the user's eye anchoring area and the micro-current data of the stable-state eye anchoring area;

[0046] A first generation unit for generating a micro-current increase rate;

[0047] A second acquisition unit for acquiring a real-time thermal imaging image of the user's eye anchoring area;

[0048] An extraction unit for extracting the temperature value of the area with dense blood vessels around the eyes in the real-time thermal imaging image of the user's eye anchoring area;

[0049] A second calculation unit for calculating the temperature gradient change between the temperature value of the area with dense blood vessels around the eyes and the temperature value of the stable-state area with dense blood vessels around the eyes;

[0050] A second generation unit for generating a hierarchical fatigue elimination strategy and a voice inquiry notification.

[0051] As a further solution of the present invention, the first generation module specifically includes:

[0052] A third acquisition unit for synchronously acquiring tear secretion;

[0053] A third generation unit for generating the concentration of tear electrolytes;

[0054] A judgment unit for judging whether the eyes are in a state of fatigue and dryness based on the micro-current increase rate, the temperature gradient change, and the concentration of tear electrolytes;

[0055] A fourth generation unit for generating an atomization and humidification instruction if it is judged that the eyes are in a state of fatigue and dryness.

[0056] An interaction method and system of an eye protection device provided by the present invention. On the one hand, this method and system can accurately identify the degree of eye fatigue, thereby customizing an exclusive eye protection strategy, effectively relieving eye fatigue, and effectively protecting the user's visual health. On the other hand, through the interaction mode of voice inquiry and user response, the user's sense of participation is greatly enhanced. At the same time, the detection of hand movement instructions further optimizes the strategy, which is closely linked to provide the user with a comprehensive, personalized and highly targeted interaction and use experience. Brief Description of the Drawings

[0057] Figure 1 is the main flowchart of an interaction method of an eye protection device.

[0058] Figure 2 is the flowchart of the first embodiment of an interaction method of an eye protection device for collecting and identifying the degree of eye fatigue in the eye anchoring area to generate a customized fatigue elimination strategy and a voice inquiry notification.

[0059] Figure 3It is a flowchart of the second embodiment for collecting and identifying the fatigue degree of the eye anchoring area in an interaction method of an eye protection device, generating a customized fatigue elimination strategy and a voice inquiry notification.

[0060] Figure 4 It is a flowchart for collecting and identifying the user's response result within a target time period in an interaction method of an eye protection device.

[0061] Figure 5 It is a flowchart for issuing an interaction detection instruction based on the user's response result in an interaction method of an eye protection device.

[0062] Figure 6 It is a flowchart for detecting the user's hand movement instruction based on the interaction detection instruction and generating a preset fatigue elimination strategy in an interaction method of an eye protection device.

[0063] Figure 7 It is the main structure diagram of an interaction system of an eye protection device.

[0064] Figure 8 It is the structural block diagram of the first embodiment of the first acquisition and recognition module in an interaction system of an eye protection device.

[0065] Figure 9 It is the structural block diagram of the second embodiment of the first acquisition and recognition module in an interaction system of an eye protection device. Detailed implementation manners

[0066] In order to make the objectives, technical solutions and advantages of the present invention clearer and more understandable, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not used to limit the present invention.

[0067] The following describes the specific implementation of the present invention in detail with reference to specific embodiments.

[0068] An interaction method and system of an eye protection device provided by the present invention solve the technical problems in the background art.

[0069] As Figure 1 shown, it is the main flowchart of an interaction method of an eye protection device provided by an embodiment of the present invention. The interaction method of the eye protection device includes:

[0070] Step S100: Collect and identify the fatigue degree of the eye anchoring area, generate a customized fatigue elimination strategy and a voice inquiry notification;

[0071] Step S200: Collect and identify the user's response result within a target time period;

[0072] Step S300: Issue an interaction detection instruction based on the user's response result;

[0073] Step S400: Detect the user's hand movement instruction based on the interaction detection instruction, and generate a preset fatigue elimination strategy.

[0074] When this embodiment is applied, this interaction method focuses on achieving precise eye care and an efficient human-computer interaction experience. First, through microcurrent and infrared imaging detection and acquisition, a detailed detection and analysis of the fatigue degree of the eye-anchoring area is carried out. Then, based on the obtained results, a fatigue elimination strategy is customized for each user. During this process, a voice inquiry notification is also generated synchronously to actively communicate with the user, determine whether the user needs the eye massager to operate according to the customized fatigue elimination strategy, and further collect and accurately identify the user's response results to the voice inquiry within a preset target time period. Capture the user's real-time feedback information. If the user has no intention of implementing the customized fatigue elimination strategy, an interaction detection instruction is quickly issued. Based on the interaction detection instruction, the eye massager accurately detects the user's hand movement instruction and generates a preset fatigue elimination strategy based on this. The preset fatigue elimination strategy is freely set by the user before using the eye massager, which not only fully considers the actual situation of eye fatigue but also deeply integrates the user's feedback information and hand movement instruction, achieving precise eye care from multiple dimensions.

[0075] As Figure 2 shown, as a preferred embodiment of the present invention, the collecting and identifying the fatigue degree of the eye-anchoring area, generating a customized fatigue elimination strategy and a voice inquiry notification specifically includes:

[0076] Step S101: Collect the real-time microcurrent data of the user's eye-anchoring area.

[0077] Step S102: Calculate the increase rate of the real-time microcurrent data of the user's eye-anchoring area and the microcurrent data of the stable-state eye-anchoring area, and generate a microcurrent increase rate.

[0078] Step S103: Collect the real-time thermal imaging image of the user's eye-anchoring area.

[0079] Step S104: Extract the temperature value of the periorbital vascular dense area in the real-time thermal imaging image of the user's eye-anchoring area.

[0080] Step S105: Calculate the temperature gradient change between the temperature value of the periorbital vascular dense area and the temperature value of the stable-state periorbital vascular dense area.

[0081] Step S106: Generate a hierarchical fatigue elimination strategy and a voice inquiry notification based on the microcurrent increase rate and the temperature gradient change.

[0082] When this embodiment is applied, first, real-time microcurrent data of the user's eye anchoring area is collected through built-in high-precision sensors. At the same time, this data is compared with the microcurrent data collected when the user's eyes are in a stable state, and the microcurrent increase rate is calculated, which is used as a key indicator to measure the degree of eye muscle tension. Meanwhile, the eye protection device uses thermal imaging technology to collect real-time thermal imaging images of the user's eye anchoring area. For the area with dense blood vessels around the eyes in the image, its temperature value is extracted and compared with the temperature value of the area with dense blood vessels around the eyes in the stable state, and the temperature gradient change is calculated. This change can intuitively reflect the blood circulation status of the eyes. Based on the obtained microcurrent increase rate and temperature gradient change, the intelligent system of the eye protection device will conduct a comprehensive analysis, and then generate a hierarchical fatigue elimination strategy and a voice inquiry notification, asking the user whether to use it according to the hierarchical fatigue elimination strategy;

[0083] Mild fatigue: When the microcurrent increase rate and temperature gradient change are at a low level, it is determined as mild fatigue. At this time, the eye protection device adopts a gentle nursing method, sends out a gentle massage command, and promotes blood circulation in the eyes and relieves the slight tension of the eye muscles through massage at an appropriate frequency and intensity;

[0084] Moderate fatigue: If the microcurrent increase rate and temperature gradient change reach a moderate level, the eye protection device starts a more comprehensive nursing plan. In addition to strengthening the massage intensity and frequency, it will also turn on the hot compress function. Through hot compress at an appropriate temperature, it accelerates blood circulation in the eyes, relaxes the eye muscles, and reduces the sense of fatigue;

[0085] Severe fatigue: When the microcurrent increase rate and temperature gradient change indicate that the eyes are in severe fatigue, the eye protection device will take high-intensity nursing measures. In addition to continuously performing deep massage and hot compress, it will also combine microcurrent stimulation at a specific frequency, accurately act on the eye muscles and nerves, promote eye metabolism, quickly relieve fatigue, and help the user restore the comfortable state of the eyes.

[0086] As Figure 3 shown, as a preferred embodiment of the present invention, the collecting and identifying the fatigue degree of the eye anchoring area, generating a customized fatigue elimination strategy and a voice inquiry notification specifically further includes:

[0087] Step S107: Synchronously collect tear secretion and generate tear electrolyte concentration;

[0088] Step S108: Based on the microcurrent increase rate, temperature gradient change and tear electrolyte concentration, judge whether the eyes are in a state of fatigue and dryness;

[0089] Step S109: If it is judged that the eyes are in a state of fatigue and dryness, generate an atomization and moistening command;

[0090] When this embodiment is applied, a highly sensitive electrochemical sensor is integrated at the eye contact part of the eye protection device. When tears are secreted, the sensor comes into contact with the tears, and using the ion-selective electrode technology, the main electrolytes such as sodium ions and potassium ions in the tears are detected. By measuring the change in the potential difference between the electrodes and accurately calculating the concentration of various electrolytes in the tears according to the Nernst equation, a comprehensive evaluation model is constructed using machine learning algorithms and preset judgment rules. This model takes the micro-current amplification rate, temperature gradient change, and tear electrolyte concentration as input parameters. Through a large amount of experimental data and clinical research, the weights and threshold ranges of each parameter in judging the state of eye fatigue and dryness are determined. If these three parameters simultaneously meet the preset conditions for the state of fatigue and dryness, it is judged that the eyes are in a state of fatigue and dryness. Once it is judged that the eyes are in a state of fatigue and dryness, an atomization and moistening instruction is immediately generated. This instruction will be sent to the atomization device in the eye protection device to activate the atomization function. The atomization device converts the pre-stored sterile and mild eye protection liquid into tiny droplets with a droplet size controlled between 5 and 10 microns, and sprays them onto the eye surface in a uniform and delicate manner. Through atomization and moistening, the symptoms of eye dryness are effectively relieved, the overall comfort of the eyes is improved, and a targeted eye protection effect is achieved.

[0091] As Figure 4 shown, as a preferred embodiment of the present invention, the collecting and identifying the user response result within the target time period specifically includes:

[0092] Step S201: Within the target time period, record the user voice stream;

[0093] Step S202: Extract the semantic features of the user voice stream;

[0094] Step S203: If no user voice stream is detected within the target time period, generate a hierarchical fatigue elimination strategy activation instruction;

[0095] It should be understood that within the set target time period, the eye protection device will also record the user voice stream. With the help of speech recognition technology, the semantic features in the voice stream are extracted to further understand the user's needs or state. When no user voice stream is detected within the target time period, it means that the user defaults to agreeing to the hierarchical fatigue elimination strategy, and the eye protection device will start running based on the generated hierarchical fatigue elimination strategy activation instruction.

[0096] As Figure 5 shown, as a preferred embodiment of the present invention, the issuing an interactive detection instruction based on the user response result specifically includes:

[0097] Step S301: Identify the semantic features of the user voice stream;

[0098] Step S302: If the semantic features of the user voice stream are affirmative semantics, generate a hierarchical fatigue elimination instruction and a hierarchical interpretation notice;

[0099] Step S303: If the semantic feature of the user voice stream is a negative semantic, generate an interaction detection instruction;

[0100] When this embodiment is applied, if it is recognized that the semantic feature of the user voice stream is an affirmative semantic, the eye massager will generate corresponding graded fatigue elimination instructions based on the previously obtained microcurrent amplification rate and temperature gradient change. When the microcurrent amplification rate and temperature gradient change are at a relatively low level, it is determined as mild fatigue, and the instruction issued at this time is gentle massage, which promotes blood circulation in the eyes and relieves slight muscle tension through appropriate frequency and intensity; if it reaches the moderate fatigue level, in addition to strengthening the massage intensity and frequency, a hot compress instruction will also be turned on to accelerate blood circulation and relax the eye muscles; in the face of severe fatigue, the instructions include continuous deep massage, hot compress, and microcurrent stimulation combined with a specific frequency, which precisely acts on the eye muscles and nerves, promotes metabolism, and quickly relieves fatigue. At the same time, a graded interpretation notice will also be generated to explain the current eye fatigue level and corresponding nursing measures to the user; if it is recognized that the semantic feature of the user voice stream is a negative semantic, the eye massager will immediately generate an interaction detection instruction to further understand the user's status and needs in order to adjust the subsequent nursing strategy.

[0101] As Figure 6 shown, as a preferred embodiment of the present invention, the detecting the user's hand movement instruction based on the interaction detection instruction and generating a preset fatigue elimination strategy specifically includes:

[0102] Step S401: If a left-side interaction action of the eye massager is detected, generate a first preset feedback action;

[0103] The left-side interaction action is specifically that the left hand makes a fist and then quickly opens the palm, repeating twice, and the first preset feedback action is specifically that the internal components of the eye massager massage the Jingming acupoint and Zanzhu acupoint around the eyes with a gentle strength and a low frequency, and at the same time, the hot compress function is turned on and the temperature is set at 38°C;

[0104] Step S402: If a right-side interaction action of the eye massager is detected, generate a second preset feedback action;

[0105] The right-side interaction action is specifically that the right hand makes a fist and then quickly opens the palm, repeating twice, and the second preset feedback action is specifically that the internal components of the eye massager massage the Sizhukong acupoint and Tongziliao acupoint around the eyes with a moderate strength and a high frequency, and at the same time, the hot compress function is turned on and the temperature is set at 40°C;

[0106] Step S403: If a left-and-right synchronous interaction action of the eye massager is detected, generate a composite preset feedback action;

[0107] The specific left and right synchronous interaction actions are that the left and right hands simultaneously clench into fists and then quickly open the palms at the same time, repeating this twice. The specific compound preset feedback action is that the internal components of the eye massager massage all the acupoints around the eyes with a moderate force and at a moderate frequency. At the same time, the hot compress function is turned on, and the temperature is alternately and periodically adjusted between 38°C and 40°C;

[0108] When this embodiment is applied, when the user makes the action of clenching the left hand into a fist and then quickly opening the palm, repeating this twice, the system recognizes it as the left-side interaction action of the eye massager. When the user clenches the right hand into a fist and then quickly opens the palm, repeating this twice, the system determines it as the right-side interaction action of the eye massager. This action corresponds to the left-side action. If the user clenches the left and right hands into fists at the same time and then quickly opens the palms at the same time, repeating this twice, the system recognizes it as the left and right synchronous interaction action of the eye massager, which can trigger more comprehensive functions of the eye massager. When detecting the left-side interaction action of the eye massager (clenching the left hand into a fist and then quickly opening the palm, repeating this twice), the internal components of the eye massager immediately massage the Jingming acupoint and Cuanzhu acupoint around the eyes with a gentle force and at a low frequency. At the same time, the hot compress function is turned on, and the temperature is set at 38°C. The combination of this gentle massage and the appropriate hot compress temperature helps to promote blood circulation in the eyes and relieve the slight fatigue caused by daily eye use, providing a basic eye relaxation experience for the user. Once detecting the right-side interaction action of the eye massager (clenching the right hand into a fist and then quickly opening the palm, repeating this twice), the internal components of the eye massager will massage the Sizhukong acupoint and Tongziliao acupoint around the eyes with a moderate force and at a high frequency. At the same time, the hot compress function is turned on, and the temperature is set at 40°C. This more forceful and frequent massage method, combined with a slightly higher hot compress temperature, can more deeply stimulate the acupoints and relieve the fatigue accumulated by the eyes due to long-term use, meeting the needs of the user when the eye fatigue is relatively heavy. When detecting the left and right synchronous interaction action of the eye massager (clenching the left and right hands into fists at the same time and then quickly opening the palms at the same time, repeating this twice), the internal components of the eye massager will massage all the acupoints around the eyes with a moderate force and at a moderate frequency. At this time, the hot compress function is turned on, and the temperature is alternately and periodically adjusted between 38°C and 40°C. This all-round massage and dynamic hot compress temperature adjustment can provide the user with a deep and comprehensive eye fatigue elimination experience, which is applicable to the scenario where the user needs to deeply relax the eyes after long-term and high-intensity eye use.

[0109] As Figure 7 shown, as another preferred embodiment of the present invention, on the other hand, an interaction system of an eye massager, the system includes:

[0110] The first acquisition and recognition module 100 is used to acquire and recognize the fatigue degree of the eye anchoring area;

[0111] The first generation module 200 is used to generate a customized fatigue elimination strategy and a voice inquiry notice;

[0112] The second acquisition and recognition module 300 is used to acquire and recognize the user's response result during the target period;

[0113] The interaction detection instruction module 400 is used to issue an interaction detection instruction based on the user's response result;

[0114] The detection module 500 is used to detect the user's hand movement instruction based on the interaction detection instruction;

[0115] The second generation module 600 is used to generate a preset fatigue elimination strategy.

[0116] When this embodiment is applied, the first acquisition and recognition module 100 acquires and recognizes the fatigue degree of the eye anchoring area, the first generation module 200 generates a customized fatigue elimination strategy and a voice inquiry notice. During the target period, the second acquisition and recognition module 300 acquires and recognizes the user's response result. Based on the user's response result, the interaction detection instruction module 400 issues an interaction detection instruction. Based on the interaction detection instruction, the detection module 500 detects the user's hand movement instruction, and the second generation module 600 generates a preset fatigue elimination strategy.

[0117] As Figure 8 shown, as another preferred embodiment of the present invention, the first acquisition and recognition module 100 specifically includes:

[0118] The first acquisition unit 101 is used to acquire the real-time microcurrent data of the user's eye anchoring area;

[0119] The first calculation unit 102 is used to calculate the increase amplitude of the real-time microcurrent data of the user's eye anchoring area and the microcurrent data of the stable-state eye anchoring area;

[0120] The first generation unit 103 is used to generate a microcurrent increase rate;

[0121] The second acquisition unit 104 is used to acquire the real-time thermal imaging image of the user's eye anchoring area;

[0122] The extraction unit 105 is used to extract the temperature value of the eye perimeter blood vessel dense area in the real-time thermal imaging image of the user's eye anchoring area;

[0123] The second calculation unit 106 is used to calculate the temperature gradient change between the temperature value of the eye perimeter blood vessel dense area and the temperature value of the stable-state eye perimeter blood vessel dense area;

[0124] The second generation unit 107 is used to generate a hierarchical fatigue elimination strategy and a voice inquiry notice;

[0125] When this embodiment is applied, the first acquisition unit 101 acquires real-time micro-current data of the user's eye anchoring area, the first calculation unit 102 calculates the increase amplitude of the real-time micro-current data of the user's eye anchoring area and the micro-current data of the stable-state eye anchoring area, the first generation unit 103 generates a micro-current increase rate, the second acquisition unit 104 acquires a real-time thermal imaging image of the user's eye anchoring area, the extraction unit 105 extracts the temperature value of the area with dense blood vessels around the eyes in the real-time thermal imaging image of the user's eye anchoring area, the second calculation unit 106 calculates the temperature gradient change between the temperature value of the area with dense blood vessels around the eyes and the temperature value of the area with dense blood vessels around the eyes in the stable state, and the second generation unit 107 generates a hierarchical fatigue elimination strategy and a voice inquiry notification.

[0126] As Figure 9 shown, as another preferred embodiment of the present invention, the first acquisition and recognition module 100 specifically further includes:

[0127] A third acquisition unit 111 for synchronously acquiring tear secretion;

[0128] A third generation unit 112 for generating a tear electrolyte concentration;

[0129] A judgment unit 113 for judging whether the eyes are in a fatigued and dry state based on the micro-current increase rate, the temperature gradient change, and the tear electrolyte concentration;

[0130] A fourth generation unit 114 for generating an atomization and humidification instruction if it is judged that the eyes are in a fatigued and dry state.

[0131] When this embodiment is applied, the third acquisition unit 111 synchronously acquires tear secretion, the third generation unit 112 generates a tear electrolyte concentration, the judgment unit 113 judges whether the eyes are in a fatigued and dry state based on the micro-current increase rate, the temperature gradient change, and the tear electrolyte concentration, and if it is judged that the eyes are in a fatigued and dry state, the fourth generation unit 114 generates an atomization and humidification instruction.

[0132] In the above embodiments of the present invention, an interaction method for an eye massager is provided, and an interaction system for an eye massager is also provided. This interaction method focuses on achieving precise eye care and an efficient human-computer interaction experience. First, through the detection and collection of microcurrents and infrared imaging, a detailed detection and analysis of the fatigue degree of the eye anchoring area are carried out. Then, based on the obtained results, a fatigue elimination strategy is customized for each user. During this process, a voice inquiry notification is also generated synchronously to actively communicate with the user to determine whether the user requires the eye massager to operate according to the customized fatigue elimination strategy. Within a preset target time period, the response results of the user to the voice inquiry are further collected and accurately identified. The real-time feedback information of the user is captured. If the user has no intention of implementing the customized fatigue elimination strategy, an interaction detection instruction is quickly issued. Based on the interaction detection instruction, the eye massager accurately detects the user's hand movement instruction and generates a preset fatigue elimination strategy based on this. The preset fatigue elimination strategy is freely set by the user before using the eye massager, which not only fully considers the actual situation of eye fatigue but also deeply integrates the user's feedback information and hand movement instructions, achieving precise eye care from multiple dimensions. On the one hand, this method and system can accurately identify the degree of eye fatigue, thereby customizing a dedicated eye care strategy, effectively relieving eye fatigue, and truly protecting the user's visual health. On the other hand, through the interaction mode of voice inquiry and user response, the user's sense of participation is greatly enhanced. At the same time, the detection of hand movement instructions further optimizes the strategy, which is closely linked to provide the user with a comprehensive, personalized and highly targeted interaction and usage experience.

[0133] In order to enable the above method and system to run smoothly, in addition to the above various modules, the system may further include more or fewer components than those described above, or combine certain components, or different components. For example, it may include input and output devices, network access devices, buses, processors, and memories, etc.

[0134] The so-called processor may be a central processing unit, or other general-purpose processors, digital signal processors, application-specific integrated circuits, off-the-shelf programmable gate arrays, or other programmable logic devices, discrete gate or transistor logic devices, discrete hardware components, etc. The general-purpose processor may be a microprocessor, or the processor may also be any conventional processor, etc. The above processor is the control center of the above system, connecting various parts through various interfaces and lines.

[0135] The technical features of the above embodiments can be combined arbitrarily. For the sake of brevity of description, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, it should be considered as the scope recorded in this specification.

[0136] The above-described embodiments merely represent several implementation manners of the present invention. The description thereof is relatively specific and detailed, but it should not be construed as a limitation on the scope of the patent for the present invention. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present invention, several variations and improvements can still be made, and these all fall within the protection scope of the present invention. Therefore, the protection scope of the patent for the present invention shall be subject to the appended claims.

[0137] The foregoing is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, and improvements made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. An interactive method for an eye protection device, characterized in that: The method comprises: Collect and identify the fatigue level of the eye anchor area, generate customized fatigue elimination strategies and voice inquiry notifications; Collect and identify user response results within the target period; Based on the user's response result, an interactive detection instruction is issued; Based on the interactive detection instructions, the user's hand movement instructions are detected and a preset fatigue elimination strategy is generated.

2. The interactive method of the eye protector according to claim 1, characterized in that: The collecting and identifying the fatigue degree of the eye anchoring area and generating a customized fatigue elimination strategy and voice inquiry notification specifically include: Collect real-time micro-current data of the user's eye anchoring area; Calculate the increase of the real-time microcurrent data of the user's eye anchoring area and the microcurrent data of the eye anchoring area in a stable state to generate a microcurrent increase rate; Collect real-time thermal imaging images of the user's eye anchoring area; Extract the temperature value of the blood vessel-dense area around the eye in the real-time thermal imaging image of the user's eye anchor area; Calculate the temperature gradient change between the temperature value of the dense blood vessels around the eye and the temperature value of the dense blood vessels around the eye in a stable state; Based on the micro-current amplification rate and temperature gradient changes, a graded fatigue elimination strategy and voice inquiry notification are generated.

3. The interactive method of the eye protection device according to claim 2, characterized in that: The collecting and identifying the fatigue degree of the eye anchoring area and generating a customized fatigue elimination strategy and voice inquiry notification specifically include: Simultaneously collect tear secretion and generate tear electrolyte concentration; Based on the micro-current amplification rate, temperature gradient changes and tear electrolyte concentration, it can determine whether the eyes are in a state of fatigue and dryness; If the eyes are judged to be in a state of fatigue and dryness, an atomization and moistening instruction is generated.

4. The interactive method of the eye protection device according to claim 1, characterized in that: The collecting and identifying the user response results within the target time period specifically includes: Record user voice streams during the target time period; Extracting semantic features of user voice stream; If no user voice stream is detected within the target time period, a hierarchical fatigue elimination strategy activation instruction is generated.

5. The interactive method of the eye protection device according to claim 1, characterized in that: The issuing of the interaction detection instruction based on the user response result specifically includes: Identify semantic features of user voice streams; If the semantic feature of the user's voice stream is positive semantics, a graded fatigue elimination instruction and a graded interpretation notification are generated; If the semantic feature of the user voice stream is negative semantics, an interaction detection instruction is generated.

6. The interactive method of the eye protection device according to claim 1, characterized in that: The method of detecting the user's hand motion instructions based on the interactive detection instructions and generating a preset fatigue elimination strategy specifically includes: If an interactive action on the left side of the eye protector is detected, a first preset feedback action is generated; The left interactive action is specifically to make a fist with the left hand, then quickly open the palm, and repeat twice. The first preset feedback action is specifically to massage the Jingming acupoint and the Zanzhu acupoint around the eye with gentle force and low frequency by the internal components of the eye protector. At the same time, the hot compress function is turned on and the temperature is set at 38°C. If an interactive action on the right side of the eye protector is detected, a second preset feedback action is generated; The right-side interactive action is specifically to make a fist with the right hand, then quickly open the palm, and repeat twice. The second preset feedback action is specifically to massage the Sizhukong acupoint and Tongziliao acupoint around the eye with moderate strength and high frequency by the internal components of the eye protector. At the same time, the hot compress function is turned on and the temperature is set at 40°C. If synchronous interaction between the left and right sides of the eye protector is detected, a composite preset feedback action is generated; The left and right side synchronous interactive actions are specifically to clench the left and right hands into fists at the same time, and then quickly open the palms at the same time, and repeat twice. The composite preset feedback action is specifically that the internal components of the eye protector massage all the acupoints around the eyes with moderate strength and moderate frequency. At the same time, the hot compress function is turned on, and the temperature is set between 38°C and 40°C for alternating periodic adjustment.

7. An interactive system for an eye protector, characterized in that: The interactive method of the eye protector according to any one of claims 1 to 6 is applied, wherein the system comprises: The first acquisition and identification module is used to acquire and identify the fatigue degree of the eye anchoring area; The first generation module is used to generate customized fatigue elimination strategies and voice inquiry notifications; The second collection and identification module is used to collect and identify the user's response results within the target time period; An interactive detection instruction module is used to issue an interactive detection instruction based on the user response result; A detection module, used to detect a user's hand motion command based on an interactive detection command; The second generation module is used to generate a preset fatigue elimination strategy.

8. The interactive system of the eye protection device according to claim 6, characterized in that: The first acquisition and identification module specifically includes: The first acquisition unit is used to collect real-time micro-current data of the user's eye anchoring area; The first calculation unit is used to calculate the increase of the real-time microcurrent data of the user's eye anchoring area and the microcurrent data of the eye anchoring area in a stable state; A first generating unit, used for generating a micro-current amplification rate; The second acquisition unit is used to acquire a real-time thermal imaging image of the user's eye anchoring area; An extraction unit, used to extract the temperature value of the blood vessel dense area around the eye in the real-time thermal imaging image of the user's eye anchoring area; The second calculation unit is used to calculate the temperature gradient change between the temperature value of the dense blood vessels around the eye and the temperature value of the dense blood vessels around the eye in a stable state; The second generating unit is used to generate a hierarchical fatigue elimination strategy and a voice inquiry notification.

9. The interactive system of the eye protection device according to claim 7, characterized in that: The first generation module specifically includes: A third collection unit is used for synchronously collecting tear secretion; a third generating unit, for generating tear electrolyte concentration; A judgment unit, used to judge whether the eyes are in a state of fatigue and dryness based on the micro-current amplification rate, temperature gradient change and tear electrolyte concentration; The fourth generating unit is used to generate an atomization and wetting instruction if it is determined that the eyes are in a fatigue and dry state.

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