Interaction control method of handheld electric appliance and far-end control equipment

Abstract

The invention provides an interaction control method of a handheld electric appliance and far-end control equipment. The control method comprises the steps that the main control module obtains an opening instruction generated when a user operates the interaction module through the signal receiving module; the main control module sequentially executes at least two of the following control operations according to the starting instruction: controlling the vibration module to generate vibration; controlling the fan module to generate airflow flowing through the incense storage piece; the humidifying and atomizing module is controlled to generate water mist; controlling a display module to display a preset image; after the at least two control operations are executed, the main control module controls the electric appliance main body to start running; the main control module obtains a closing instruction generated by operating the interaction module by a user through the signal receiving module, and the main control module sequentially executes at least two control operations according to the closing instruction and an opposite execution sequence. The invention aims to enable a user to accurately judge the on-off state of the handheld electric appliance used by the user after the user is far away from the handheld electric appliance.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of handheld electric appliances, in particular, the present application relates to an interactive control method of a handheld electric appliance and a remote control device. BACKGROUND

[0002] The handheld electric appliance refers to a portable electric appliance device which needs to be held by hand during normal use. At present, users may forget to turn off the handheld electric appliance when using it, and cannot accurately determine whether the handheld electric appliance has been turned off after they are away from the handheld electric appliance, which is time-consuming and energy-consuming. Moreover, the current switch mode of the handheld electric appliance is relatively single, which is difficult to meet the individual needs of users. SUMMARY

[0003] The present application proposes an interactive control method of a handheld electric appliance to solve the technical problem that users cannot accurately determine the switch state of the handheld electric appliance after they are away from the handheld electric appliance in the related art.

[0004] In a first aspect, an interactive control method of a handheld electric appliance is provided, the handheld electric appliance comprising a main control module, a fragrance storage component, an interaction module, an electric appliance body in wireless communication connection with the main control module, and a signal receiving module, a fan module, a vibration module, a humidifying and atomizing module, and a display module in electrical connection with the main control module, and the control method comprising: Step 1: the main control module acquires an opening instruction generated by a user operating the interaction module through the signal receiving module; Step 2: the main control module sequentially executes at least two of the following control operations according to the opening instruction: controlling the vibration module to generate vibration; controlling the fan module to generate airflow flowing through the fragrance storage component; controlling the humidifying and atomizing module to generate water mist; controlling the display module to display a preset image; Step 3: after the execution of the at least two control operations in step 2, the main control module controls the electric appliance body to start running; Step 4: the main control module acquires a closing instruction generated by a user operating the interaction module through the signal receiving module, and sequentially executes the at least two control operations according to the closing instruction in the reverse order of step 2; Step 5: after the execution of the control operations in step 4, the main control module controls the electric appliance body to turn off.

[0005] Optionally, in the step 2, the controlling, by the main control module, the vibration module to generate vibration according to the opening instruction comprises: the main control module controls the vibration module to generate vibration and gradually increases vibration parameters output by the vibration module according to the opening instruction; In the step 4, the controlling, by the main control module, the vibration module to generate vibration according to the closing instruction comprises: the main control module controls the vibration module to generate vibration and gradually decreases vibration parameters output by the vibration module according to the closing instruction.

[0006] Optionally, the vibration module comprises at least two vibration units, and vibration parameters output by the at least two vibration units are different; the main control module controls the vibration module to generate vibration and gradually increases vibration parameters output by the vibration module according to the opening instruction comprises: the main control module controls one of the at least two vibration units to generate vibration according to the opening instruction; the main control module controls the vibration module to generate vibration and gradually decreases vibration parameters output by the vibration module according to the closing instruction comprises: the main control module controls one of the at least two vibration units to generate vibration according to the closing instruction.

[0007] Optionally, in the step 2, the controlling, by the main control module, the fan module to generate airflow through the scent storage component according to the opening instruction comprises: the main control module controls a rotating speed of the fan module to adjust a scent concentration in the airflow according to the opening instruction; the opening instruction comprises a speed at which the interaction module is pulled by a user.

[0008] Optionally, the fan module comprises at least two fan units, and rotating speeds of the at least two fan units are different; the main control module controls a rotating speed of the fan module to adjust a scent concentration in the airflow according to the opening instruction comprises: the main control module controls a rotating speed of one of the at least two fan units to adjust a scent concentration in the airflow according to the opening instruction.

[0009] Optionally, the handheld electric appliance further comprises a timer and a counter electrically connected with the main control module; Before the master module obtains the opening instruction generated by the user operating the interaction module, the master module further comprises the following steps: when the master module receives the first operation signal sent by the signal receiving module, the master module controls the timer to start; if the interval time between two adjacent first operation signals sent by the signal receiving module to the master module is within the first preset time of the timer, the master module controls the counter to start, so as to accumulate the number of times of sending the first operation signal from the signal receiving module to the master module. Before the master module obtains the closing instruction generated by the user operating the interaction module, the master module further comprises the following steps: when the master module receives the second operation signal sent by the signal receiving module, the master module controls the timer to start; if the interval time between two adjacent second operation signals sent by the signal receiving module to the master module is within the first preset time of the timer, the master module controls the counter to start, so as to accumulate the number of times of sending the second operation signal from the signal receiving module to the master module. The opening instruction comprises the accumulated number of the first operation signals, and the closing instruction comprises the accumulated number of the second operation signals.

[0010] Optionally, the master module sequentially executes the control operation on at least two of the vibration module, the fan module, the humidifying and atomizing module and the display module in a first order according to the accumulated number of the first operation signals, and gradually increases the control operation time on at least two of the vibration module, the fan module, the humidifying and atomizing module and the display module.

[0011] Optionally, the master module sequentially executes the control operation on at least two of the vibration module, the fan module, the humidifying and atomizing module and the display module in a second order opposite to the first order according to the accumulated number of the second operation signals, and gradually reduces the control operation time on at least two of the vibration module, the fan module, the humidifying and atomizing module and the display module.

[0012] Optionally, the step 2 comprises: the master module sequentially controls the vibration module to generate vibration, controls the fan module to generate airflow flowing through the aroma storage member, and controls the humidifying and atomizing module to generate water mist according to the opening instruction.

[0013] Optionally, when the master module executes the control operation on any one of the vibration module, the fan module and the humidifying and atomizing module according to the opening instruction, if the master module does not obtain a new opening instruction within the first preset time, the counter is controlled to clear the accumulated number of the first operation signals. When the main control module executes the control operation on any one of the vibration module and the fan module according to the opening instruction, if the main control module obtains a new opening instruction within the first preset time, the control operation on the next module is executed, and the current module is controlled to continue running; When the main control module executes the control operation on the humidification atomization module according to the opening instruction, if the main control module obtains a new opening instruction within the first preset time, the humidification atomization module is controlled to continue running.

[0014] Optionally, when the main control module executes the control operation on the vibration module according to the opening instruction, and after the main control module obtains a new opening instruction within the first preset time, if the main control module executes the control operation on the vibration module for a second preset time, the control operation on the fan module is executed, and the vibration module is controlled to continue running within a third preset time.

[0015] When the main control module executes the control operation on the vibration module and the fan module according to the opening instruction, and after the main control module obtains a new opening instruction within the first preset time, if the main control module executes the control operation on the vibration module and the fan module for a third preset time, the control operation on the humidification atomization module is executed, and the vibration module and the fan module are controlled to continue running within a fourth preset time; When the main control module executes the control operation on the vibration module, the fan module and the humidification atomization module according to the opening instruction, and after the main control module obtains a new opening instruction within the first preset time, if the main control module executes the control operation on the vibration module, the fan module and the humidification atomization module for the fourth preset time, the vibration module, the fan module and the humidification atomization module are controlled to continue running within the fourth preset time.

[0016] Optionally, the cumulative number of the first operation signal includes at least one of a cumulative number of forward rotation of the interactive module being dialled, a cumulative number of pressing of a specific part of the interactive module and a cumulative number of pinching of the specific part of the interactive module, and the cumulative number of the second operation signal includes at least one of a cumulative number of reverse rotation of the interactive module being dialled, a cumulative number of pressing of other parts of the interactive module and a cumulative number of pinching of the other parts of the interactive module.

[0017] Optionally, the handheld electric appliance further comprises a heat dissipation member, and in the step 2, the airflow flowing through the aroma storage member also flows through the heat dissipation member; or, The handheld electrical appliance also includes a heating module electrically connected to the main control module. In step 2, the control operations performed by the main control module further include: Control the heat generation of the heating module.

[0018] Optionally, the main control module performs control operations on the heating module after the main control module performs control operations on the fan module.

[0019] Secondly, embodiments of this application provide a remote control device that is wirelessly connected to the main control module to realize the interactive control method for the handheld electrical appliance.

[0020] Optionally, the remote control device includes an instruction configuration interface for receiving instruction configuration information set by the user and sending the instruction configuration information to the main control module; The instruction configuration information includes the start instruction, the stop instruction, and the control operations executed by the main control module.

[0021] The beneficial technical effects of the technical solutions provided in this application include: The multi-sensory experience of turning the handheld appliance on and off is reversed, enhancing user memory and allowing them to accurately identify the appliance's on / off status even after moving away. This prevents the appliance from remaining on for extended periods, thus reducing power consumption and minimizing the need for users to repeatedly approach the appliance due to uncertainty about its status, saving user time and making it more convenient. The application transforms the monotonous act of turning traditional handheld appliances on and off into a fun, ritualistic, and personalized experience, significantly enhancing the usability and emotional value of the handheld appliance.

[0022] Additional aspects and advantages of this application will be set forth in part in the description which follows, and will become apparent from the description or may be learned by practice of this application. Attached Figure Description

[0023] The above and / or additional aspects and advantages of this application will become apparent and readily understood from the following description of the embodiments taken in conjunction with the accompanying drawings, wherein: Figure 1 This is a schematic diagram of the structure of a handheld electrical appliance provided in an embodiment of this application; Figure 2 A flowchart illustrating an interactive control method for a handheld electrical appliance provided in an embodiment of this application; Figure 3This is another flowchart of an interactive control method for a handheld electrical appliance provided in an embodiment of this application.

[0024] Explanation of reference numerals in the attached figures 100 - Handheld electrical appliances; 101-Counter; 102-Timer; 103-Electrical body; 104-Main control module; 105-Signal receiving module; 106-Vibration module; 107-Fan module; 108-Humidification and atomization module; 109-Display module; 110-Interactive module; 111-Heating module. Detailed Implementation

[0025] The embodiments of this application are described below with reference to the accompanying drawings. It should be understood that the embodiments described below with reference to the accompanying drawings are exemplary descriptions for explaining the technical solutions of the embodiments of this application, and do not constitute a limitation on the technical solutions of the embodiments of this application.

[0026] Those skilled in the art will understand that, unless specifically stated otherwise, the terms "described" and "the" as used herein may also include plural forms. It should be further understood that the term "comprising" as used in this application's specification means the presence of described, integers, steps, operations, elements, and / or components, but does not exclude other features, information, data, steps, operations, elements, components, and / or combinations thereof supported by this art. The term "and / or" as used herein refers to at least one of the items defined by the term; for example, "A and / or B" can be implemented as "A," or as "B," or as "A and B."

[0027] To make the objectives, technical solutions, and advantages of this application clearer, the embodiments of this application will be described in further detail below with reference to the accompanying drawings.

[0028] In related technologies, users sometimes forget to turn off handheld electronic devices. Once they are away from the device, they cannot accurately determine whether it has been turned off, which is both time-consuming and energy-draining. Furthermore, current handheld electronic devices have relatively simple on / off methods, making it difficult to meet users' personalized needs.

[0029] To solve the above technical problems, refer to Figures 1-3 This application provides an interactive control method for a handheld electrical appliance 100. The handheld electrical appliance 100 includes a main control module 104, a fragrance storage component, an interactive module 110, an electrical appliance body 103 wirelessly connected to the main control module 104, and a signal receiving module 105, a fan module 107, a vibration module 106, a humidifying atomizing module 108, and a display module 109 electrically connected to the main control module 104. The control method includes: Step 1: The main control module 104 obtains the start command generated by the user operation interaction module 110 through the signal receiving module 105; Step 2: Based on the start command, the main control module 104 executes at least two of the following control operations in sequence: The vibration control module 106 generates vibration; The control fan module 107 generates airflow through the incense storage component; The humidification atomization module 108 is controlled to generate water mist; The control display module 109 displays a preset image; Step 3: After at least two control operations in step 2 are completed, the main control module 104 controls the electrical main body 103 to start running; Step 4: The main control module 104 obtains the shutdown command generated by the user operation interaction module 110 through the signal receiving module 105. The main control module 104 executes at least two control operations in the reverse order of execution as in Step 2 according to the shutdown command. Step 5: After all the control operations in step 4 have been completed, the main control module 104 controls the electrical main body 103 to shut down.

[0030] It should be noted that the main body of the electrical appliance 103 may include a handheld massager, a handheld garment steamer, a sleep aid, and an aromatherapy diffuser, etc. The main body of the electrical appliance 103 may be any part of a handheld electrical appliance except for the main control module 104, the fragrance storage component, the signal receiving module 105, the interaction module 110, the fan module 107, the vibration module 106, the humidification and atomization module 108, and the display module 109. The main body of the electrical appliance 103 has a grip for the user to hold, and the interaction module 110 may be located on the grip of the main body of the electrical appliance 103, making it convenient for the user to operate the interaction module 110 by hand.

[0031] The vibration module 106 can be located in the grip part of the main body 103 of the appliance. Under the control of the main control module 104, the vibration module 106 can generate slight vibration and transmit the slight vibration to the user's palm through the grip part, bringing a tactile experience to the user.

[0032] The fan module 107 may include a miniature turbine fan. The fan module 107 and the fragrance storage component may be located on the main body of the electrical appliance 103. The fragrance storage component may correspond to the blowing end of the fan module 107. After the fan module 107 is running, it will generate airflow through the fragrance storage component. The airflow will carry the fragrance to the external environment through the fragrance storage component, giving the user an olfactory experience. When the airflow flows to the external environment, the airflow will also give the user a tactile sensation when the user places their hand in its flow path.

[0033] Optionally, the fan module has multiple fan blades that can form a blowing end, with at least two fan blades having the same mass.

[0034] At least two fan blades must have the same mass; not all fan blades need to have the same mass. For example, the fan module may contain five fan blades. To achieve the vibration effect, two or three fan blades have the same density and geometry, while at least one or more of the remaining fan blades have a different mass than the aforementioned blades. This mass difference can be achieved by changing the thickness of the fan blades, using materials of different densities for local injection molding, or adding a small counterweight to a certain fan blade. The fan module also has a hub with multiple fan blades mounted on it. Due to the uneven mass distribution of the fan blades, when the fan blades and hub rotate, the center of mass of the entire hub will deviate from its geometric center of rotation. According to the principles of physics, when the hub and the unbalanced fan blades rotate, a periodically changing centrifugal force is generated. This centrifugal force acts on the entire fan module, causing it to produce regular vibrations that can be clearly perceived by the user. Of course, the angle of attack, curvature, and area of ​​each fan blade in the fan module can also be different, which can also generate vibrations during the fan module's airflow process. In this way, the fan module can not only generate vibrations but also airflow, providing users with a tactile and olfactory experience of vibration.

[0035] The fragrance storage device may include solid fragrance ingredients, which may be pre-infused with essential oils. Solid fragrance ingredients may include scented sheets, solid perfume balms, scented wax sheets, or scented wood. Solid fragrance ingredients may be in block or sheet form, and one or more through-holes may be provided in the center or periphery of the block or sheet form. The fragrance storage device may also include a fragrance bag or sachet containing the solid fragrance ingredients, which may be made of non-woven fabric; the sachet or fragrance bag may be filled with two block or sheet form solid fragrance ingredients, or it may be filled with a single block or sheet form. Through-holes may also be provided on the fragrance bag or sachet.

[0036] When the airflow generated by the fan module 107 passes through the through hole, it produces a unique and perceptible "hissing" or "whooshing" sound due to air friction and the narrow opening effect. Only users who are close to the main body of the appliance 103 can hear it, which can provide users with an auditory experience.

[0037] The humidifying atomizing module 108 is located in the main body of the appliance 103. Under the control of the main control module 104, it can generate water mist. The water mist will be discharged to the external environment. Users can see the water mist and feel the gentle and moist touch of the water mist through their palms.

[0038] The display module 109 can be located on the main body of the appliance 103. The display module 109 may include an OLED (Organic Light-Emitting Diode) screen or an RGB LED (Red Green Blue Light-Emitting Diode) light strip. Both the humidification atomizing component and the display component can provide users with a visual experience.

[0039] The signal receiving module 105 can correspond to or be located within the interaction module 110. It transmits information about state changes in the interaction module 110 caused by user operation to the main control module 104 in the form of electrical signals. The main control module 104 can then perform control operations on the fan module 107, vibration module 106, humidification atomization module 108, and display module 109 based on these signals, thereby controlling the on / off state of the electrical appliance 103. The signal receiving module 105 may include a trigger unit and a sensing unit. The trigger unit is located within the interaction module 110, and the sensing unit corresponds to the trigger unit. The trigger unit generates the same state changes as the interaction components and transmits this state change information to the sensing unit in the form of electrical signals. The main control module 104 can control the operation of the fan module 107, vibration module 106, humidification atomization module 108, and display module 109 based on the received state change information from the sensing unit, thereby controlling the on / off state of the electrical appliance 103. The interaction module 110 can also be wirelessly connected to the signal receiving module 105.

[0040] The electrical appliance body 103 has a switch module that controls the opening and closing of the electrical appliance body 103. The switch module can wirelessly connect with the main control module 104. After the main control module 104 sequentially controls at least two of the fan module 107, vibration module 106, humidification atomization module 108, and display module 109 to operate, it sends a corresponding opening or closing command to the switch module of the electrical appliance body 103. The switch module then controls the opening and closing state of the entire electrical appliance body 103 according to the command. When the electrical appliance body 103 is in the opening state, the electrical appliance body 103 will remain in the opening state until the switch module receives a closing command from the main control module 104; when the electrical appliance body 103 is in the closing state, the electrical appliance body 103 will remain in the closing state until the switch module receives an opening command from the main control module 104.

[0041] When a user wants to turn on the main body 103 of the handheld appliance 100, they can use their finger to operate the interaction module 110. After receiving the turn-on command from the signal receiving module 105, the main control module 104 will successively control the vibration module 106 to generate vibration and control the fan module 107 to generate airflow through the fragrance storage component, thereby controlling the main body 103 to turn on. When a user wants to turn off the main body 103 of the handheld appliance 100, they can use their finger to operate the turn-off command from the interaction module 110. After receiving the turn-off command from the signal receiving module 105, the main control module 104 will successively control the fan module 107 to generate airflow through the fragrance storage component and control the vibration module 106 to generate vibration, thereby controlling the main body 103 to turn off.

[0042] Of course, after the main control module 104 receives the start command, it can also sequentially control the fan module 107 to generate airflow through the fragrance storage component, control the display module 109 to display a preset image, and control the humidification atomization module 108 to generate water mist, as long as the main control module 104 can sequentially control at least two of the vibration module 106, fan module 107, humidification atomization module 108, and display module 109 to operate; the order in which the main control module 104 controls after receiving the stop command is the reverse of the order in which it controls after receiving the start command.

[0043] In this way, when a user uses the handheld appliance 100, they can have different and multi-layered sensory experiences. The order of the multi-sensory experiences after the user performs the on and off operations is reversed, which can enhance the user's memory. This makes it easier for the user to accurately determine the on / off status of the handheld appliance 100 without any doubt after leaving it away. This prevents the handheld appliance from being left on for a long time and consuming power. It also prevents the user from repeatedly approaching the handheld appliance 100 because they are unsure of its on / off status, thus saving the user's time and making it more convenient for the user to use.

[0044] For example, once a user has turned on and is using the handheld massager, they may forget to turn it off before leaving due to being focused on other things or for other reasons. In this case, the handheld massager's switch module will remain running until it receives a shutdown command from the main control module 104. After leaving home and away from the handheld massager, the user can accurately determine whether the massager has been turned off by recalling the different sensory experiences gained from the turn-on and turn-off operations of the interaction module 110.

[0045] Of course, when users use the handheld appliance and operate the interaction module 110, they can get at least two of the sensory experiences among touch, hearing, smell and sight. That is, users can feel that they can get feedback after operating the interaction module 110. Especially for female users, it can give them a sense of control, increase fun, and thus relieve user stress and reduce anxiety.

[0046] Understandably, the main body of the electrical appliance 103 may also include a remote control, which can control some household appliances to turn on and off, such as speakers, lights, fans, air conditioners and televisions.

[0047] The remote control's switch module may include an infrared signal transmitting module. When the user operates the interaction module 110 and experiences multiple sensory experiences, the main control module 104 transmits an activation command to the infrared signal transmitting module. The remote control's infrared signal transmitting module then emits an infrared signal to the air conditioner or television to turn it on. Once the air conditioner or television is running, if the infrared signal transmitting module does not receive a deactivation command from the main control module 104, the air conditioner or television will remain running. The user can confirm whether the air conditioner or television is off by operating the interaction module 110 on the remote control after leaving the house.

[0048] Optionally, in step 2, the main control module 104 controls the vibration module 106 to generate vibration according to the activation command, including: the main control module 104 controls the vibration module 106 to generate vibration and gradually increases the vibration parameters output by the vibration module 106 according to the activation command. In step 4, the main control module 104 controls the vibration module 106 to generate vibration according to the deactivation command, including: the main control module 104 controls the vibration module 106 to generate vibration and gradually decrease the vibration parameters output by the vibration module 106 according to the deactivation command. The vibration parameters output by the vibration module 106 include at least the vibration frequency and vibration amplitude.

[0049] The main control module 104 controls at least one of the fan module 107, humidification atomization module 108, and display module 109, as well as the vibration module 106, to operate according to the start command. The vibration module 106 can operate simultaneously with at least one of the fan module 107, humidification atomization module 108, and display module 109, and the main control module 104 will gradually increase the vibration parameters output by the vibration module 106. That is, during the process from the start to the end of vibration by the vibration module 106, the main control module 104 will also control at least one of the fan module 107, humidification atomization module 108, and display module 109 to operate; when the main control module 104 controls the vibration module 106 to operate from the start to the end of vibration, the main control module 104 will gradually increase the vibration parameters output by the vibration module 106.

[0050] For example, the main control module 104 can first execute the control operation on the humidification atomization module 108 according to the start command, then execute the control operation on the vibration module 106, and then execute the control operation on the fan module 107; when the main control module 104 controls the fan module 107 to run, it will increase the vibration parameters output by the vibration module 106.

[0051] Of course, the main control module 104 can also execute control operations on the vibration module 106, fan module 107, humidification atomization module 108 and display module 109 in sequence according to the start command; when the main control module 104 controls the fan module 107, humidification atomization module 108 and display module 109 to run, the main control module 104 will gradually increase the vibration parameters output by the vibration module 106.

[0052] The main control module 104 can also execute control operations on the fan module 107, humidification atomization module 108, display module 109 and vibration module 106 in sequence according to the start command; when the main control module 104 controls the vibration module 106 to run, during the process from the start of vibration to the end of vibration, the main control module 104 will also gradually increase the vibration parameters output by the vibration module 106.

[0053] It is understandable that when the main control module 104 controls at least one of the fan module 107, humidification atomization module 108, and display module 109, and the vibration module 106 to operate according to the shutdown command, the vibration module 106 can also operate simultaneously with at least one of the fan module 107, humidification atomization module 108, and display module 109, and the main control module 104 will gradually reduce the vibration parameters output by the vibration module 106. It should be noted that the control operation sequence executed by the main control module 104 according to the shutdown command is the reverse of the control operation sequence executed by the main control module 104 according to the startup command.

[0054] For example, when the main control module 104 executes control operations on the humidification atomization module 108, vibration module 106 and fan module 107 in sequence according to the start command, the main control module 104 will execute control operations on the fan module 107, vibration module 106 and humidification atomization module 108 in sequence according to the stop command; when the main control module 104 controls the humidification atomization module 108 to run, it will reduce the vibration parameters output by the vibration module 106.

[0055] By controlling the vibration parameters output by the vibration module 106, different vibration modes can be achieved, such as short ticking vibrations, continuous buzzing vibrations, and gradually increasing and decreasing vibrations. This can further enhance the memory of the user operation interaction module 110, improve the accuracy of the user's judgment on whether the main appliance 103 is turned off, provide a richer user experience, and further alleviate user stress.

[0056] Of course, the waveform of the vibration generated by the vibration module 106 controlled by the main control module 104 according to the start command will also change continuously.

[0057] Optionally, the vibration module 106 includes at least two vibration units, and the vibration parameters output by the at least two vibration units are different. The main control module 104, according to the activation command, controls the vibration module 106 to generate vibration and gradually increases the vibration parameters output by the vibration module 106, including: the main control module 104 controls one of the at least two vibration units to generate vibration according to the activation command. The main control module 104, according to the deactivation command, controls the vibration module 106 to generate vibration and gradually decrease the vibration parameters output by the vibration module 106, including: the main control module 104 controls one of the at least two vibration units to generate vibration according to the deactivation command.

[0058] At least two vibration units have a certain range of vibration parameters, and the vibration parameters output by at least two vibration units are different. The vibration units may include eccentric rotor motors or linear motors. The difference in the output vibration parameters of the at least two vibration units may be due to differences in the mass of the eccentric blocks of each eccentric rotor motor, or differences in the rated speed of each eccentric rotor motor.

[0059] The main control module 104 can select and control one of the vibration units to generate vibration according to the start or stop command and output vibration parameters within its vibration parameter range. That is, there are at least two vibration units available for the user to choose from. The user can select vibration units with different vibration parameter ranges according to their own needs. In this way, the range of vibration parameters output by the vibration module 106 can be increased to meet the user's personalized needs.

[0060] The main control module 104 can control the display module 109, vibration module 106 and other modules to run in sequence according to the start command. When the main control module 104 controls the vibration module 106 and other modules to run in sequence, it will control at least two vibration units to output vibration parameters in sequence, so as to gradually increase the vibration parameters output by the vibration module 106.

[0061] The main control module 104 can control the operation of other modules, vibration module 106, and display module 109 sequentially according to the shutdown command. When the main control module 104 controls the vibration module 106 and display module 109 to run in sequence, it will control at least two vibration units to output vibration parameters in sequence, so as to gradually reduce the vibration parameters output by vibration module 106. That is, the main control module 104 will control at least two vibration units to output vibration parameters in sequence from high to low according to the vibration parameters output by the vibration units. Other modules can be fan module 107 or humidification atomization module 108.

[0062] Optionally, in step 2, the main control module 104 controls the fan module 107 to generate airflow through the fragrance storage component according to the activation command, including: the main control module 104 controls the rotation speed of the fan module 107 to adjust the fragrance concentration in the airflow according to the activation command. The activation command includes the speed at which the user activates the interaction module 110.

[0063] The user adjusts the speed at which the interactive module 110 is twirled with their finger. The signal receiving module 105 transmits the speed change information of the interactive module 110 to the main control module 104 in the form of an electrical signal. After receiving the speed change signal of the interactive module 110, the main control module 104 controls the rotation speed of the fan blades in the fan module 107 to adjust the diffusion speed and range of the aroma, thereby adjusting the aroma concentration to meet the user's personalized needs. The faster the user twirls the interactive module 110, the faster the fan blades of the fan module 107 will rotate, which can improve the diffusion speed and range of the aroma and enhance the user's olfactory experience.

[0064] Specifically, for example, when the interactive module 110 rotates from a standstill to the fourth rotation, the main control module 104 controls the fan module 107 to start. When the signal receiving module 105 senses that the time taken for the interactive module 110 to rotate to the fifth rotation is 10% shorter than the time taken for the fourth rotation, the main control module 104 will increase the rotation speed of the fan blades of the fan module 107. When the signal receiving module 105 senses that the time taken for the interactive module 110 to rotate to the sixth rotation is 10% shorter than the time taken for the fifth rotation, the main control module 104 will also increase the rotation speed of the fan blades of the fan module 107. When the fan module 107 is started, and the signal receiving module 105 senses that the time taken for the user-activated interactive module 110 to rotate once is 10% shorter than the time taken for the previous rotation, the signal receiving module 105 will transmit this information to the main control module 104 in the form of an electrical signal. The main control module 104 will then increase the voltage of the fan module 107 by 0.1V, or increase the high-level duration of the PWM pulse width of the fan module 107 within one cycle by 10%, thereby correspondingly increasing the rotation speed of the fan blades of the fan module 107.

[0065] Optionally, the fan module 107 includes at least two fan units, each with a different rotational speed. The main control module 104, according to an activation command, controls the rotational speed of the fan module 107 to adjust the aroma concentration in the airflow, including: the main control module 104, according to an activation command, controls the rotational speed of one of the at least two fan units to adjust the aroma concentration in the airflow.

[0066] When the user adjusts the speed of the interactive module 110 to a lower value, the main control module 104 will control the fan unit with the lower output speed among at least two fan units to start according to the start command. When the user adjusts the speed of the interactive module 110 to a higher value, the main control module 104 will control the fan unit with the higher output speed among at least two fan units to start according to the start command, thereby increasing the concentration of aroma in the airflow. Each fan unit can have a certain speed range, and the speeds of each fan unit are different. The main control module 104 can control the operation of different fan units according to the start command, thereby increasing the speed range of the fan module 107 and the adjustable range of aroma concentration in the airflow, meeting the personalized needs of more users.

[0067] It is understood that the fragrance storage component may include at least two solid fragrances with through holes, the fragrances of the at least two solid fragrances are different, the number of solid fragrances corresponds to the number of fan units, and the at least two solid fragrances also correspond to the blowing ends of the at least two fan units respectively.

[0068] In this way, users can switch between different fan units by adjusting the speed of the toggle interaction module 110, and thus switch between different scents.

[0069] Of course, users can also operate at least two fan units by adjusting the speed of the toggle interaction module 110, thereby allowing users to smell the mixed fragrance.

[0070] Optionally, such as Figure 1 and Figure 3As shown, the handheld device 100 also includes a timer 102 and a counter 101 electrically connected to the main control module 104. Before the main control module 104 generates an activation command by acquiring the user operation interaction module 110, it further includes: when the main control module 104 receives a first operation signal sent by the signal receiving module 105, the main control module 104 controls the timer 102 to start. If the interval between two adjacent first operation signals sent by the signal receiving module 105 to the main control module 104 is within a first preset time of the timer 102, the main control module 104 controls the counter 101 to start, so as to accumulate the number of times the signal receiving module 105 sends the first operation signal to the main control module 104. Before the main control module 104 receives the user operation interaction module 110 and generates a shutdown command, the process further includes: when the main control module 104 receives a second operation signal sent by the signal receiving module 105, the main control module 104 controls the timer 102 to start. If the interval between two adjacent second operation signals sent by the signal receiving module 105 to the main control module 104 is within a first preset time of the timer 102, the main control module 104 controls the counter 101 to start, so as to accumulate the number of times the signal receiving module 105 sends the second operation signal to the main control module 104. The start command includes the accumulated number of the first operation signal, and the shutdown command includes the accumulated number of the second operation signal.

[0071] Optionally, the cumulative count of the first operation signal includes at least one of the cumulative count of the interaction module 110 being tossed and rotated in the forward direction, the cumulative count of a specific part of the interaction module 110 being pressed, and the cumulative count of a specific part of the interaction module 110 being pinched. The cumulative count of the second operation signal includes at least one of the cumulative count of the interaction module 110 being tossed and rotated in the reverse direction, the cumulative count of other parts of the interaction module 110 being pressed, and the cumulative count of other parts of the interaction module 110 being pinched.

[0072] The other parts of the interaction module 110 are all parts of the interaction module 110 except for the specific part. The forward rotation of the interaction module 110 when it is toggled can be either clockwise or counterclockwise. When the accumulated count of the first operation signal includes the accumulated count of clockwise rotation of the interaction module 110, the accumulated count of the second operation signal includes the accumulated count of counterclockwise rotation of the interaction module 110. The specific part of the interaction module 110 may have a first button, and the other parts of the interaction module 110 may have a second button; the accumulated count of the first operation signal may include the accumulated count of the first button being pressed, and the accumulated count of the second operation signal may include the accumulated count of the second button being pressed. The specific part and the other parts of the interaction module 110 may also each have two pressure sensing modules that generate different pressure signals.

[0073] A user interacts with the interaction module 110 by flicking or pressing it with their finger. The trigger unit of the interaction module 110, via the sensing unit, immediately generates a first operation signal or a second operation signal and sends it to the main control module 104. When the main control module 104 receives the first or second operation signal, it immediately performs an action: it controls the timer 102 to start and begins timing. The timer 102 has a first preset time, which can be two or three seconds.

[0074] When a user taps or pinches the interaction module 110 twice consecutively, and then taps or pinches it a second time very quickly after the first tap or pinch, the second tap or pinch will also cause the sensing unit to generate a first operation signal or a second operation signal, which will then be sent to the main control module 104. The main control module 104 calculates the interval between these two adjacent first operation signals or second operation signals, that is, the interval between the second received first operation signal or second operation signal and the previous first operation signal or second operation signal. If this interval is within a first preset time, it indicates that the user's two operations are closely linked. At this time, the main control module 104 controls the counter 101 to start. The initial value of the counter 101 can be 1, representing the first valid operation, and it will now become 2.

[0075] If the user continues to perform a third or fourth toggle or pinch within the first preset time, and the first or second operation signal generated by each toggle or pinch satisfies the condition of the interval within the first preset time, the counter 101 will continuously increment and record how many consecutive operations the user has performed within this period.

[0076] The user stops continuously dialing or pressing. After receiving the last first or second operation signal, the main control module 104 resets timer 102 and waits. Since the user has no new operation, timer 102 will continue counting until a preset time is exceeded. When timer 102 times out, that is, when the main control module 104 does not receive the next first or second operation signal within the first preset time, it determines that the user's continuous operation has ended. At this time, the main control module 104 reads the final value of counter 101 and processes this value as the accumulated number of operation signals. Subsequently, the main control module 104 controls timer 102 to turn off and clears counter 101 to zero.

[0077] If the interval between two user operations is long, exceeding the first preset time of timer 102, then timer 102 will have timed out before the main control module 104 receives the second first operation signal or the second operation signal. In this case, the main control module 104 will consider the first operation to be independent and isolated, and process it according to the logic of a single operation. Then, it will control timer 102 to turn off and clear counter 101. When the second first operation signal or the second operation signal arrives, it will be treated as a completely new first operation, restarting a new timing process.

[0078] Specifically, when the user twirls or pinches the interactive module 110, the timer 102 is activated. When the interval between two twirls or pinches by the user is within a first preset time, the counter 101 is activated and counts the number of times the user twirls or pinches the interactive module 110.

[0079] If the user does not perform any operation and the main control module 104 does not receive the first or second operation signal from the sensing unit, then the timer 102 and counter 101 are in the off state. If the interval between two user taps or presses on the interaction module 110 exceeds a first preset time, the main control module 104 controls the timer 102 to enter sleep mode. This saves power.

[0080] By setting a first preset time, it is possible to effectively distinguish between intentional, continuous, rapid operations and unintentional, long-interval, single accidental touches. If the user accidentally touches the interaction module 110, since there is no subsequent operation, the main control module 104 will not start the counter 101, thereby improving the stability and reliability of the main control module 104 and the interaction module 110.

[0081] like Figure 3 As shown, the counter's cumulative count is the cumulative count of the first operation signal or the cumulative count of the second operation signal. The cumulative count can be m, w, p, t, or v, where m, w, p, t, and v represent different numerical values. When the cumulative count is m, the main control module 104 will control the vibration module 106 to start operating; when the cumulative count is w, the main control module will control the fan module to start operating; when the cumulative count is t, the main control module 104 will control the humidification atomization module 108 to start operating; and when the cumulative count is v, the main control module will control the display module 109 to start operating.

[0082] If the accumulated count is the accumulated count of the first operation signal, and the value represented by m is greater than the value represented by w, then after receiving the start command, the main control module will first control the fan module 107 to run, and then control the vibration module 106 to run; if the accumulated count is the accumulated count of the second operation signal, then after receiving the stop command, the main control module will first control the vibration module to run, and then control the fan module 107 to run.

[0083] If the cumulative count is the cumulative count of the first operation signal, and the numerical magnitude relationship represented by m, w, t, and v is: m < w < t < v, then after receiving the start instruction, the main control module will sequentially control the vibration module, the fan module, the humidification and atomization module 108, and the display module to operate; if the cumulative count is the cumulative count of the second operation signal, then after receiving the stop instruction, the main control module will sequentially control the display module 109, the humidification and atomization module, the fan module, and the vibration module to operate.

[0084] It should be noted that among m + k, m represents the largest value, that is, greater than the values represented by w, p, t, and v. m + k can represent that the cumulative count of the first operation signal is greater than m. The main control module first controls the operation of other modules according to the start instruction, then controls the vibration module to operate, and finally the main control module controls the electrical appliance body to start; k can represent any positive integer or zero. When k is 2, that is, after the vibration module is started, if the user operates the interaction module twice in a way that enables the main control module to obtain the first operation signal, the electrical appliance body can be started. When k is 0, that is, the electrical appliance body can also be started while the vibration module 106 is started. m + k can also represent that the cumulative count of the second operation signal is greater than m. The main control module first controls the operation of the vibration module 106 according to the stop instruction, then controls the operation of other modules, and finally the main control module controls the electrical appliance body 103 to stop.

[0085] Of course, among w + k, w can also represent the largest value, that is, greater than the values represented by m, p, t, and v; among p + k, p can also represent the largest value, that is, greater than the values represented by m, w, t, and v; among t + k, t can also represent the largest value, that is, greater than the values represented by m, p, w, and v; among v + k, v can also represent the largest value, that is, greater than the values represented by m, p, t, and w.

[0086] Optionally, both the electrical appliance body 103 and the interaction module 110 can be provided with magnetic attraction modules, so that when the user turns the interaction module 110 one full circle, the magnetic attraction modules on the interaction module 110 and the electrical appliance body 103 are magnetically attracted to each other, enabling the user to sense the number of turns of the interaction module 110 that is turned.

[0087] Optionally, the main control module 104 sequentially performs control operations on at least two of the vibration module 106, the fan module 107, the humidification and atomization module 108, and the display module 109 according to the cumulative count of the first operation signal, and gradually increases the control operation time for at least two of the vibration module 106, the fan module 107, the humidification and atomization module 108, and the display module 109.

[0088] The control operations executed by the main control module 104 in the first order can be either sequentially executing control operations on the vibration module 106, the humidification atomization module 108, and the display module 109, or sequentially executing control operations on the display module 109, the vibration module 106, and the fan module 107.

[0089] As the number of times the first operation signal is accumulated increases, the main control module 104 will control at least two of the vibration module 106, fan module 107, humidification atomization module 108, and display module 109 to operate sequentially, and gradually increase the operating time of each module. For example, when the number of times the first operation signal is accumulated increases, the main control module 104 will control the fan module 107, display module 109, and humidification atomization module 108 to operate sequentially. As the number of times the first operation signal is accumulated increases, the operating time of the fan module 107, the operating time of the display module 109, and the operating time of the humidification atomization module 108 will also increase accordingly. That is, the fan module 107 can operate together with the display module 109, and the fan module 107, display module 109, and humidification atomization module 108 can also operate together.

[0090] This will further enhance the user's memory of the operation and interaction module 110, increase its fun, and improve the user's experience of using the handheld appliance 100.

[0091] Optionally, the main control module 104 executes control operations on at least two of the vibration module 106, fan module 107, humidification atomization module 108, and display module 109 in a second order that is the opposite of the first order, based on the accumulated number of the second operation signals, and gradually reduces the control operation time of at least two of the vibration module 106, fan module 107, humidification atomization module 108, and display module 109.

[0092] The operations performed by the main control module 104 in the second order are the opposite of those in the first order. For example, the control operations performed by the main control module 104 in the first order can also be the sequential execution of control operations on the humidification atomization module 108, the display module 109, and the fan module 107. In that case, the control operations performed by the main control module 104 in the second order are the sequential execution of control operations on the fan module 107, the display module 109, and the humidification atomization module 108.

[0093] As the number of times the second operation signal is accumulated increases, the main control module 104 will control at least two of the vibration module 106, fan module 107, humidification atomization module 108, and display module 109 to operate sequentially, and gradually reduce the operating time of each module. For example, when the number of times the second operation signal is accumulated increases, the main control module 104 will control the humidification atomization module 108, display module 109, and fan module 107 to operate sequentially; as the number of times the second operation signal is accumulated increases, the operating time of the humidification atomization module 108, display module 109, and fan module 107 will also decrease accordingly. That is, when the display module 109 starts running, the operation of the humidification atomization module 108 can stop, or when the fan module 107 starts running, the operation of the humidification atomization module 108 stops, and the operation of the display module 109 stops.

[0094] This increases the difference between the user experience of turning the device on and turning it off, thereby enhancing the user's memory of the interaction module 110, relieving user stress, increasing fun, and improving the user experience.

[0095] Optionally, step 2 includes: the main control module 104 sequentially controls the vibration module 106 to generate vibration, controls the fan module 107 to generate airflow through the incense storage component, and controls the humidification atomization module 108 to generate water mist according to the start command.

[0096] When a user uses the handheld appliance 100, they can toggle the interactive module 110 or pinch a specific part of the interactive module 110. The main control module 104 will control the vibration module 106, the fan module 107 and the humidification atomization module 108 to operate sequentially based on the number of rotations of the interactive module 110 accumulated by the counter 101 or the number of times the interactive module 110 is pinched accumulated by the counter 101. When the humidification atomization module 108 operates and produces water mist, the main control module 104 will control the main appliance body 103 to turn on. Before the main appliance 103 is turned on, the vibration module 106 first provides the user with a tactile experience through vibration, then the fan module 107 provides an olfactory and auditory experience, and finally the humidifying and atomizing module 108 produces a mist that provides a visual experience. In this way, the user receives a progressively layered sensory experience of touch, smell, hearing, and sight before turning on the main appliance 103, continuously increasing the user's perceptual experience and intensity. This effectively reduces user stress and anxiety, and also makes the user's memory of turning on the main appliance 103 more vivid. Optionally, when the main control module 104 executes a control operation on any one of the vibration module 106, fan module 107, and humidification atomization module 108 according to the start command, if the main control module 104 does not receive a new start command within a first preset time, the control counter 101 resets the accumulated count of the first operation signal to zero. When the main control module 104 executes a control operation on any one of the vibration module 106 and fan module 107 according to the start command, if the main control module 104 receives a new start command within a first preset time, it executes a control operation on the next module and controls the current module to continue operating. When the main control module 104 executes a control operation on the humidification atomization module 108 according to the start command, if the main control module 104 receives a new start command within a first preset time, it controls the humidification atomization module 108 to continue operating.

[0097] When the main control module 104 controls the vibration module 106 to run according to the start command, if the main control module 104 does not receive a new start command within a first preset time, it will control the vibration module 106 to stop running, and the fan module 107 and humidification atomization module 108 will also be in a closed state. When the main control module 104 controls the fan module 107 to run according to the start command, if the main control module 104 does not receive a new start command within a first preset time, it will control the fan module 107 to stop running, and also control the vibration module 106 to stop running, while the humidification atomization module 108 will remain in a closed state. However, when the main control module 104 controls the humidification atomization module 108 to run according to the start command, the electrical main body 103 will be turned on. If the main control module 104 does not receive a new start command within a first preset time, it will control the humidification atomization module 108, fan module 107, and vibration module 106 to stop running, while the electrical main body 103 will remain running. This reduces power consumption.

[0098] When the main control module 104 controls the vibration module 106 to run according to the start command, if the main control module 104 receives a new start command within a first preset time, it will control the fan module 107 to run and continue to control the vibration module 106 to run, that is, the fan module 107 and the vibration module 106 will run together. When the main control module 104 controls the fan module 107 to run according to the start command and receives a new start command within the first preset time, it will control the humidification atomization module 108 to run, and the vibration module 106 and the fan module 107 will also continue to run, that is, the fan module 107, the vibration module 106 and the humidification atomization module 108 will run together.

[0099] If the main control module 104 receives a new start command when the humidification atomization module 108 is running for the first preset time, the vibration module 106, the fan module 107 and the humidification atomization module 108 will continue to run.

[0100] In this way, users can not only have an increasingly enhanced sensory experience, but also have an experience resulting from the superposition of multiple senses, further strengthening their memory of turning on the main appliance 103.

[0101] Optionally, when the main control module 104 executes the control operation on the vibration module 106 according to the start command, and after the main control module 104 obtains a new start command within a first preset time, if the main control module 104 executes the control operation on the vibration module 106 for a period of time reaching a second preset time, then it executes the control operation on the fan module 107 and controls the vibration module 106 to continue running within a third preset time.

[0102] When the main control module 104 executes the control operation on the vibration module 106 and the fan module 107 according to the start command, and after the main control module 104 obtains a new start command within the first preset time, if the main control module 104 executes the control operation on the vibration module 106 and the fan module 107 for a period of time that reaches the third preset time, then it executes the control operation on the humidification atomization module 108 and controls the vibration module 106 and the fan module 107 to continue running within the fourth preset time.

[0103] When the main control module 104 executes control operations on the vibration module 106, fan module 107, and humidification atomization module 108 according to the start command, and after the main control module 104 obtains a new start command within the first preset time, if the main control module 104 executes control operations on the vibration module 106, fan module 107, and humidification atomization module 108 for a period of time reaching the fourth preset time, then the vibration module 106, fan module 107, and humidification atomization module 108 will continue to operate within the fourth preset time.

[0104] The first preset time can be three or four seconds. During the first preset time, the main control module 104 obtains a new start command while controlling the vibration module 106 to run. If the running time of the vibration module 106 has not reached the second preset time, the vibration module 106 will continue to run. If the running time of the vibration module 106 reaches the second preset time, the main control module 104 will control the vibration module 106 to run for a third preset time and control the fan module 107 to start running.

[0105] The second preset time can be greater than or equal to the first preset time. The third preset time is greater than the second preset time.

[0106] When the vibration module 106 and the fan module 107 are running together for the first preset time, the main control module 104 receives a new start command. However, if the running time of the vibration module 106 and the fan module 107 has not yet reached the third preset time, the main control module 104 controls the vibration module 106 and the fan module 107 to continue running for the third preset time so that the humidification atomization module 108 can then run. The main control module 104 also controls the vibration module 106 and the fan module 107 to continue running for the fourth preset time, which is longer than the third running time.

[0107] Within the first preset time period, after the main control module 104 receives a new start command, when the running time of the vibration module 106, fan module 107, and humidification atomization module 108 all reaches the fourth preset time, the main control module 104 will control the vibration module 106, fan module 107, and humidification atomization module 108 to continue running for the fourth preset time period. If the main control module 104 does not receive a new start command within the first preset time period, then the vibration module 106, fan module 107, and humidification atomization module 108 will stop running after the fourth preset time period. The fourth preset time period can be sixty seconds.

[0108] Thus, when the user performs the power-on operation, the vibration module 106 can operate sequentially within fixed time intervals, specifically within the second, third, and fourth preset time intervals, continuously escalating the tactile vibration experience provided to the user. The vibration module 106 and the fan module 107 can also operate together sequentially within fixed time intervals, specifically within the third and fourth preset time intervals, continuously escalating the tactile and olfactory experience provided to the user. This further enhances the user's memory of the power-on operation and effectively improves the accuracy of the user's judgment of the handheld appliance 100's switch status.

[0109] Optionally, the handheld appliance 100 also includes a heat sink, and in step 2, the airflow passing through the incense holder also flows through the heat sink. Alternatively, the handheld appliance 100 also includes a heating module 111 electrically connected to the main control module 104, and in step 2, the control operation performed by the main control module 104 further includes controlling the heating module 111 to generate heat. Figure 3 As shown, when the cumulative count is p, the main control module will control the heating module to start running.

[0110] The heat dissipation component may include a herbal sachet containing mugwort, motherwort, ginger, iron powder, and activated carbon. This heat dissipation component can be located in the grip area of ​​the main body 103. When the fan module 107 is running, the airflow generated passes through the herbal sachet. The iron powder and activated carbon in the sachet react chemically with oxygen and moisture in the airflow, releasing heat and providing the user with a warm tactile experience. The airflow generated by the fan module 107 passes through the fragrance storage component, initially providing the user with an olfactory experience. As the heat generated by the herbal sachet increases, the fragrance diffusion effect is enhanced, resulting in a stronger aroma. Simultaneously, the user experiences a warmer tactile experience, enhancing the overall sensory experience, reducing user stress, and further reinforcing the user's memory of the activation operation, thus improving the accuracy of the user's judgment of the main body 103's on / off status.

[0111] Of course, the main control module 104 will also provide the user with a warm touch after the heating module 111 generates heat. The fan module 107 can generate airflow through the heating module 111, which has already generated heat, thereby improving the diffusion efficiency of the fragrance and allowing the user to experience the aroma more quickly.

[0112] Optionally, the main control module 104 performs control operations on the heating module 111 after the main control module 104 performs control operations on the fan module 107.

[0113] Thus, when the fan module 107 generates airflow, the heating module 111 begins to generate heat, allowing the user to first experience the feel of cool air and then the feel of warm air. This allows the user to perceive the change in airflow temperature, enhancing the fun and improving the user experience, while also effectively relieving user stress. Furthermore, compared to controlling the operation of the heating module 111 first and then the fan module 107, controlling the operation of the fan module 107 first and then the heating module 111 reduces the operating time of the heating module 111, preventing excessive energy consumption.

[0114] Secondly, this application provides a remote control device that is wirelessly connected to the main control module 104 to realize an interactive control method for the handheld appliance 100. The remote control device may include control devices such as mobile phones and computers that can be operated remotely. The operating status of the vibration module 106, fan module 107, humidification atomization module 108, and display module 109 can be controlled via a mobile phone APP.

[0115] Optionally, the remote control device includes a command configuration interface for receiving user-defined command configuration information and sending the command configuration information to the main control module 104. The command configuration information includes start commands, stop commands, and corresponding control operations to be performed by the main control module 104.

[0116] In this way, users can pre-set start-up commands, stop commands, and corresponding control operations on the command configuration interface. For example, users can pre-set that the vibration module 106 will start when the first operation signal accumulates to two times. To perform control operations on the vibration module 106, users can also pre-select the desired vibration unit on the command configuration interface. That is, when the first operation signal accumulates to two times, the user-selected vibration unit will start. This can meet the personalized needs of different users for vibration parameters and improve versatility. Users can pre-set that the main control module 104 will control the fan module 107 to start running when the first operation signal accumulates to five times. Users can pre-set that the main control module 104 will control the humidification atomization module 108 to start running when the first operation signal accumulates to nine times.

[0117] like Figure 3 As shown, users can pre-adjust the values ​​represented by m, w, p, t, and v. For example, the value represented by m can be greater than the value represented by w, and the value represented by w can also be greater than the value represented by m; the value represented by p can be less than or greater than the value represented by m.

[0118] The beneficial technical effects of the technical solutions provided in this application include: The reversed sequence of sensory experiences when using the handheld appliance 100—the turn-on and turn-off operations—strengthens user memory and allows them to accurately and unambiguously determine the on / off status of the appliance after moving away. This prevents the appliance from remaining on for extended periods, thus reducing power consumption, and also prevents users from repeatedly approaching the appliance due to uncertainty about its status, saving their time and making it more convenient to use. The application transforms the monotonous on / off action of the traditional handheld appliance 100 into a fun, ritualistic, and personalized experience, significantly enhancing its usability and emotional value.

[0119] By controlling the vibration parameters output by the vibration module 106, different vibration modes can be achieved, such as short ticking vibrations, continuous buzzing vibrations, and gradually increasing and decreasing vibrations. This can further enhance the memory of the user operation interaction module 110, improve the accuracy of the user's judgment on whether the main appliance 103 is turned off, provide a richer user experience, and further alleviate user stress.

[0120] Users can switch between different fan units by adjusting the speed of the toggle switch module 110, thereby switching between different fragrances. By setting a preset time, it is possible to effectively distinguish between intentional, continuous, rapid operations and unintentional, long-interval, single accidental touches. If the user accidentally touches the interaction module 110, since there is no subsequent operation, the main control module 104 will not start the counter 101, thereby improving the stability and reliability of the interaction module 110 and the main control module 104, and also saving power.

[0121] In the description of this application, the terms "center," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," and "outer," etc., indicate directions or positional relationships based on the exemplary directions or positional relationships shown in the accompanying drawings. They are used to facilitate the description or simplification of the embodiments of this application and are not intended to indicate or imply that the device or component referred to must have a specific orientation or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this application.

[0122] The terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this application, unless otherwise stated, "a plurality of" means two or more.

[0123] In the description of this application, it should be noted that, unless otherwise expressly specified and limited, the terms "installation," "connection," and "joining" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal communication between two components. Those skilled in the art can understand the specific meaning of the above terms in this application based on the specific circumstances.

[0124] In the description of this specification, specific features, structures, materials, or characteristics may be combined in any suitable manner in one or more embodiments or examples.

[0125] The above description is only a partial implementation of this application. It should be noted that for those skilled in the art, other similar implementation methods based on the technical concept of this application, without departing from the technical concept of this application, also fall within the protection scope of the embodiments of this application.

Claims

1. An interactive control method for a handheld electrical appliance, characterized in that, The handheld appliance includes a main control module, a fragrance storage component, an interaction module, an appliance body wirelessly connected to the main control module, and a signal receiving module, a fan module, a vibration module, a humidification atomizing module, and a display module electrically connected to the main control module. The control method includes: Step 1: The main control module obtains the start command generated by the user's operation of the interaction module through the signal receiving module; Step 2: The main control module executes at least two of the following control operations sequentially according to the start command: The vibration module is controlled to generate vibration; The fan module is controlled to generate an airflow that passes through the fragrance storage component; Control the humidification atomization module to generate water mist; Control the display module to display a preset image; Step 3: After at least two control operations in Step 2 are completed, the main control module controls the main electrical appliance to start operating; Step 4: The main control module obtains the closing command generated by the user's operation of the interaction module through the signal receiving module. The main control module executes the at least two control operations in the order of execution reversed from that in Step 2 according to the closing command. Step 5: After all the control operations in Step 4 have been completed, the main control module controls the main body of the electrical appliance to shut down.

2. The interactive control method for a handheld electrical appliance according to claim 1, characterized in that, In step 2, the main control module controls the vibration module to generate vibration according to the activation command, including: According to the activation command, the main control module controls the vibration module to generate vibration and gradually increases the vibration parameters output by the vibration module. In step 4, the main control module controls the vibration module to generate vibration according to the shutdown command, including: According to the shutdown command, the main control module controls the vibration module to generate vibration and gradually reduce the vibration parameters output by the vibration module.

3. The interactive control method for a handheld electrical appliance according to claim 2, characterized in that, The vibration module includes at least two vibration units, and the vibration parameters output by the at least two vibration units are different. The main control module, according to the activation command, controls the vibration module to generate vibration and gradually increases the vibration parameters output by the vibration module, including: The main control module controls at least one of the two vibration units to vibrate according to the activation command. The main control module, according to the shutdown command, controls the vibration module to generate vibration and gradually reduce the vibration parameters output by the vibration module, including: The main control module controls at least one of the two vibration units to vibrate according to the shutdown command.

4. The interactive control method for a handheld electrical appliance according to claim 1, characterized in that, In step 2, the main control module controls the fan module to generate airflow through the fragrance storage component according to the activation command, including: The main control module controls the rotation speed of the fan module according to the start command to adjust the aroma concentration in the airflow; The activation command includes the speed at which the user twirls the interactive module.

5. The interactive control method for a handheld electrical appliance according to claim 4, characterized in that, The fan module includes at least two fan units, and the speeds of the at least two fan units are different. The main control module controls the rotation speed of the fan module to adjust the aroma concentration in the airflow according to the start command, including: The main control module controls the rotation speed of at least one of the two fan units according to the start command to adjust the aroma concentration in the airflow.

6. The interactive control method for a handheld electrical appliance according to claim 1, characterized in that, The handheld electrical appliance also includes a timer and a counter electrically connected to the main control module; Before the main control module generates an activation command by acquiring user operation of the interaction module, the method further includes: when the main control module receives a first operation signal sent by the signal receiving module, the main control module controls the timer to start; if the interval between two adjacent first operation signals sent by the signal receiving module to the main control module is within a first preset time of the timer, the main control module controls the counter to start, so as to accumulate the number of times the signal receiving module sends the first operation signal to the main control module. Before the main control module generates a close command by obtaining user operation of the interaction module, the method further includes: when the main control module receives a second operation signal sent by the signal receiving module, the main control module controls the timer to start; if the interval between two adjacent second operation signals sent by the signal receiving module to the main control module is within the first preset time of the timer, the main control module controls the counter to start, so as to accumulate the number of times the signal receiving module sends the second operation signal to the main control module. The enable command includes the accumulated number of times the first operation signal is incremented, and the disable command includes the accumulated number of times the second operation signal is incremented.

7. The interactive control method for a handheld electrical appliance according to claim 6, characterized in that, The main control module executes control operations on at least two of the vibration module, the fan module, the humidification atomization module, and the display module in a first order according to the accumulated number of the first operation signal, and gradually increases the control operation time of at least two of the vibration module, the fan module, the humidification atomization module, and the display module.

8. The interactive control method for a handheld electrical appliance according to claim 7, characterized in that, The main control module executes control operations on at least two of the vibration module, the fan module, the humidification atomization module, and the display module in a second order, which is the opposite of the first order, according to the accumulated number of the second operation signal, and gradually reduces the control operation time of at least two of the vibration module, the fan module, the humidification atomization module, and the display module.

9. The interactive control method for a handheld electrical appliance according to claim 7, characterized in that, Step 2 includes: the main control module sequentially controlling the vibration module to generate vibration, controlling the fan module to generate airflow through the incense storage component, and controlling the humidification atomization module to generate water mist according to the start command.

10. The interactive control method for a handheld electrical appliance according to claim 9, characterized in that, When the main control module performs a control operation on any of the vibration module, the fan module, and the humidification atomization module according to the start command, if the main control module does not obtain a new start command within the first preset time, it controls the counter to clear the accumulated count of the first operation signal to zero. When the main control module executes a control operation on either the vibration module or the fan module according to the start command, if the main control module obtains a new start command within the first preset time, it executes a control operation on the next module and controls the current module to continue running. When the main control module executes the control operation on the humidification atomization module according to the start command, if the main control module obtains a new start command within the first preset time, it controls the humidification atomization module to continue running.

11. The interactive control method for a handheld electrical appliance according to claim 10, characterized in that, When the main control module executes the control operation on the vibration module according to the start command, and after the main control module obtains a new start command within the first preset time, if the main control module executes the control operation on the vibration module for a period of time that reaches the second preset time, then it executes the control operation on the fan module and controls the vibration module to continue running for a third preset time. When the main control module executes control operations on the vibration module and the fan module according to the start command, and after the main control module obtains a new start command within the first preset time, if the main control module executes control operations on the vibration module and the fan module for a period of time that reaches a third preset time, then it executes control operations on the humidification atomization module and controls the vibration module and the fan module to continue running for a fourth preset time. When the main control module executes control operations on the vibration module, the fan module, and the humidification atomization module according to the start command, and the main control module obtains a new start command within the first preset time, if the main control module executes control operations on the vibration module, the fan module, and the humidification atomization module for a period of time that reaches the fourth preset time, then the main control module controls the vibration module, the fan module, and the humidification atomization module to continue operating within the fourth preset time.

12. The interactive control method for a handheld electrical appliance according to claim 6, characterized in that, The cumulative count of the first operation signal includes at least one of the cumulative count of the interaction module being rotated forward by being toggled, the cumulative count of a specific part of the interaction module being pressed, and the cumulative count of a specific part of the interaction module being pinched. The cumulative count of the second operation signal includes at least one of the cumulative count of the interaction module being rotated in the opposite direction by being toggled, the cumulative count of other parts of the interaction module being pressed, and the cumulative count of other parts of the interaction module being pinched.

13. The interactive control method for a handheld electrical appliance according to claim 1, characterized in that, The handheld electrical appliance also includes a heat sink, and in step 2, the airflow passing through the incense holder also flows through the heat sink; or, The handheld electrical appliance also includes a heating module electrically connected to the main control module. In step 2, the control operations performed by the main control module further include: Control the heat generation of the heating module.

14. The interactive control method for a handheld electrical appliance according to claim 13, characterized in that, The main control module performs control operations on the heating module after the main control module performs control operations on the fan module.

15. A remote control device, characterized in that, It is wirelessly connected to the main control module as described in any one of claims 1 to 14 to realize the interactive control method of the handheld electrical appliance as described in any one of claims 1 to 14.

16. The remote control device according to claim 15, characterized in that, The remote control device includes an instruction configuration interface for receiving instruction configuration information set by the user and sending the instruction configuration information to the main control module; The instruction configuration information includes the start instruction as described in any one of claims 1 to 14, the stop instruction, and the control operation executed by the main control module.

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