Plug-in type multi-nursing device

Abstract

The invention discloses a pluggable multi-nursing device. The pluggable multi-nursing device comprises a universal operation panel, a facial mask upper cover assembly, a telescopic helmet assembly and a heating shower cap assembly, the operation panel is provided with an input end plug, a plurality of output butt joints, a control circuit, function keys and indicator lamps, and low-voltage direct current power supply or mobile power supply power supply is adopted. The mask upper cover, the telescopic helmet and the heating shower cap are respectively provided with a first electrical interface, a second electrical interface, a third electrical interface, an electrical heating element, an ultrasonic transducer, a conductive electrode and / or a spectral irradiation assembly, and are attached to the face, scalp and hair by means of a fixing band or a telescopic structure. During use, the output butt joint is inserted into a corresponding electrical interface as required, heating, ultrasonic, micro-current or spectrum nursing modes are selected through the operation panel, time is set, the control circuit supplies power to the corresponding modules, and multi-mode comprehensive nursing of the face, the scalp and the hair is achieved.

Description

Technical Field

[0001] This invention relates to a nursing device, specifically a pluggable multi-care device. Background Technology

[0002] In recent years, with the increasing demand for skin care, scalp care, and hair care, various home beauty care devices have emerged on the market, such as facial mask heating devices for facial heat therapy, massage helmets for scalp relaxation, and heated shower caps for hair dyeing, hair care, or scalp care. Existing care devices generally use independent power cords and control units. Users need to connect different power supplies and controllers when using different care products, which not only causes inconvenience in carrying but also easily leads to problems such as cluttered wiring and disorganized device placement during operation. Furthermore, due to inconsistencies in power specifications, control parameters, and interface structures among the devices, users often cannot achieve unified operation when changing or combining care devices, resulting in a cumbersome user experience.

[0003] Existing technologies have also attempted to integrate multiple care functions into a single device, such as using head care devices with both heating and massage functions, or combining phototherapy and heating for facial care. However, these devices are mostly fixed, one-piece products with indivisible functions, making it impossible to flexibly choose the usage method according to different care needs. They also have significant limitations in terms of portability, scalability, and freedom of use.

[0004] Furthermore, existing facial mask heating devices, scalp ultrasound devices, and heated shower caps mostly use a single power plug and lack a unified standard interface, requiring users to repeatedly rewire and switch power supplies when using multiple devices. At the same time, for users who wish to treat different areas, it is impossible to selectively drive different devices through a single control unit, nor can different treatment devices share a single power input unit, thus reducing overall device compatibility.

[0005] In summary, existing technologies generally suffer from technical problems such as complex operation, inconsistent connection methods, inability to share power or control modules between devices, and inflexible combination of functions, making it difficult to meet users' needs for portability, multifunctionality, scalability, and ease of operation. Summary of the Invention

[0006] To address the aforementioned issues, this invention provides a pluggable multi-care device that enables selective driving of various care devices through a unified power supply and control structure, thereby improving ease of use and device compatibility.

[0007] This invention is achieved through the following technical solution: a facial mask covering care system for facial care, comprising: A face mask cover assembly, and an operation panel used in conjunction with the face mask cover assembly; The mask cover assembly includes: The mask cover body is used to cover the outside of the mask and has multiple openings corresponding to the user's eyes, nostrils and mouth. The mask cover body has a multi-layer structure, comprising a covering layer, a functional layer, and an insulating layer in sequence along the thickness direction; A fixing strap is provided on the mask cover body to fix the mask cover body and the mask to the face; The first electrical interface is disposed on the mask cover body and is electrically connected to the electrical components in the functional layer; The operation panel includes: Control panel housing; An input plug is located at one end of the operation panel for connecting to an external power socket; Multiple output connectors are provided at the output end of the operation panel. Each output connector is led out by a wire and can be plugged into the first electrical interface. A control circuit is disposed inside the operation panel housing, and the control circuit is electrically connected to the input plug and multiple output connectors. The functional layer includes an electric heating element and at least one ultrasonic transducer. When an output connector is plugged into the first electrical interface, the control circuit provides driving power to the electric heating element and / or the ultrasonic transducer through the output connector to perform heating and / or ultrasonic care on the user's face.

[0008] As a preferred technical solution, the insulating layer is provided with a plurality of conductive electrodes on the side facing the face. The conductive electrodes are electrically connected to the first electrical interface. The control circuit is used to output a low-frequency microcurrent signal to the conductive electrodes through the output connector to provide electrical stimulation care for the facial muscles.

[0009] As a preferred technical solution, the functional layer is provided with a spectral irradiation component composed of multiple light-emitting diodes. The spectral irradiation component is electrically connected to the first electrical interface. The control circuit is used to output a drive signal to the spectral irradiation component to emit a nursing spectrum within a preset wavelength range.

[0010] The present invention provides a telescopic helmet care system for scalp care, comprising: a telescopic helmet assembly, and an operation panel used in conjunction with the telescopic helmet assembly; The telescopic helmet assembly includes: The helmet body is designed to be worn over the outside of the user's head, and a scalp vibrator is installed on the helmet body. A telescopic adjustment structure is provided on the helmet body for adjusting the circumferential and / or height dimensions of the helmet body; The second electrical interface is located on the helmet body; Multiple ultrasonic transducers are disposed inside the helmet body, and the ultrasonic transducers are electrically connected to the second electrical interface; The operation panel includes: Control panel housing; An input plug is located at one end of the operation panel for connecting to an external power socket; Multiple output connectors are provided at the output end of the operation panel. Each output connector is led out by a wire and can be plugged into the second electrical interface. A control circuit is disposed inside the operation panel housing, and the control circuit is electrically connected to the input plug and multiple output connectors. When a certain output connector is plugged into the second electrical interface, the control circuit provides a drive signal to the ultrasonic transducer through the output connector, so that the ultrasonic transducer outputs ultrasonic oscillation energy to the scalp for scalp care.

[0011] As a preferred technical solution, the telescopic adjustment structure includes a bendable annular support member and an adjustment fastener disposed on the annular support member, the adjustment fastener being used to lock the circumferential dimension of the helmet body.

[0012] The present invention provides a heated shower cap hair care system, comprising: A heated shower cap assembly, and an operation panel used in conjunction with the heated shower cap assembly; The heated shower cap assembly includes: The shower cap body, along its thickness direction, includes an outer covering layer, a heating layer, and an inner insulating layer, used to cover the user's hair and scalp; The third electrical interface is provided on the shower cap body and is electrically connected to the heating layer; Multiple ultrasonic transducers are disposed in the heating layer and / or the inner insulating layer, and the ultrasonic transducers are electrically connected to the third electrical interface. The operation panel includes: Control panel housing; An input plug is located at one end of the operation panel for connecting to an external power socket; Multiple output connectors are provided at the output end of the operation panel. Each output connector is led out by a wire and can be plugged into the third electrical interface. A control circuit is disposed inside the operation panel housing, and the control circuit is electrically connected to the input plug and multiple output connectors. When a certain output connector is plugged into the third electrical interface, the control circuit provides a drive signal to the heating layer and / or the ultrasonic transducer through the output connector to perform heating and / or ultrasonic treatment on the hair and scalp.

[0013] As a preferred technical solution, the heated shower cap assembly is suitable for applying heated and ultrasonic treatments to the user's hair after pre-applying hair care products, hair dyeing products, perming products, or scalp care products.

[0014] As a preferred technical solution, the input plug is a USB plug or a Type-C plug.

[0015] As a preferred technical solution, the control panel housing is provided with multiple function selection buttons and / or indicator lights. The function selection buttons are used to select at least one working mode among heating care, ultrasonic care, microcurrent care and spectral care that outputs to the corresponding care device.

[0016] As a preferred technical solution, the operation panel is provided with an identification module for acquiring identification information. The identification module is used to acquire QR code or other identification code information set on the packaging of nursing consumables. The control circuit automatically sets the working parameters output to the corresponding nursing device according to the identification information.

[0017] The beneficial effects of this invention are as follows: The operation panel of this invention is equipped with an input plug and multiple output connectors. Different nursing devices (such as face mask covers, telescopic helmets, and heated shower caps) are each equipped with a matching electrical interface. Users can plug any output connector into the corresponding nursing device according to their actual nursing needs, and the same control circuit can provide driving power to the corresponding device. This avoids the problems of cumbersome wiring and complex operation caused by multiple nursing devices having independent power supplies and different control methods in the prior art. This structure makes the entire nursing system more compact and simple, and significantly lowers the barrier to entry for use. This invention employs a modular system comprised of an "operation panel + multi-output connector + pluggable nursing devices." There are no fixed structural connections between different nursing devices, allowing users to freely choose to use a single device or flexibly replace or expand the system as needed. This open design overcomes the limitations of existing integrated nursing equipment, which suffers from fixed functions and lack of scalability. It eliminates the need to redesign the system's power supply and control structure when adding functional modules or launching new nursing devices, significantly improving the equipment's scalability and product lifecycle value. The control panel of this invention contains a control circuit that can output corresponding functional drive signals to connected nursing devices, such as heating drive for the electrothermal film, ultrasonic drive for the ultrasonic transducer, microcurrent drive for the conductive electrode, or spectral drive for the spectral irradiation component. Through this structure, the system can precisely control operating parameters according to the actual functional requirements of different nursing devices, thereby ensuring stable and controllable output effects for each nursing method. Compared with the low control precision and limited adjustment methods of existing decentralized nursing equipment, this invention provides a higher quality nursing experience. In this invention, the control panel is an external, independent structure. The main body of the care device (such as a mask cover, helmet, or shower cap) does not need to be equipped with bulky control components, resulting in a significant reduction in overall weight and effectively improving comfort when worn on the face, head, or covered by hair. In addition, by concentrating the electrical control components for heating and ultrasonic actuation in the control panel, the electrical risks of the care device while worn are reduced, improving safety during use.

[0018] The heating elements, ultrasonic transducers, conductive electrodes, or spectral irradiation components installed within each nursing device of this invention can be activated individually or in combination under the drive of the control circuit. This allows for the selective provision of heating, ultrasonic, electrical stimulation, or spectral care based on different nursing needs. This selective combination method overcomes the limitations of existing single-function nursing devices in terms of nursing effectiveness, enabling this invention to provide efficient, multi-layered, comprehensive care for the face, scalp, and hair. Because the nursing device and control unit are separate and use a pluggable connection method, each component can be disassembled and stored. Users no longer need to carry multiple separate controllers or power cords when traveling, on business trips, or using it at home, significantly improving portability. The multi-output connectors also allow for flexible selection and use in different nursing environments, enhancing the system's practicality.

[0019] This invention achieves significant technological advancements in the structural design, ease of use, system scalability, control precision, and safety of nursing equipment through a unified operation panel, multi-output connectors, and plug-in connection between multiple nursing devices. It effectively solves the technical problems of complexity, incompatibility, and inconvenience of existing multi-device nursing systems, and has significant practical value and promising prospects for widespread application. Attached Figure Description

[0020] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0021] Figure 1 This is a schematic diagram of the electrical connection structure between the face mask and the helmet of the present invention; Figure 2 This is a cross-sectional schematic diagram of the shower cap and face mask of the present invention; Figure 3 This is a schematic diagram illustrating the wearing of the shower cap of the present invention; Figure 4 This is a schematic diagram of the connections of the present invention; Figure 5 This is a partial structural diagram of the operation panel portion of the present invention; Figure 6 This is a scanned schematic diagram of the operation panel portion of the present invention; Explanation of reference numerals in the attached figures: 1. Ultrasonic transducer; 2. Scalp vibrator; 3. Helmet body; 4. Fixing strap; 5. Face mask cover assembly; 6. Wire; 7. Control panel; 8. Input plug; 9. Face mask; 10. Covering layer; 11. Functional layer; 12. Insulation layer; 13. Heated shower cap assembly; 14. Third-party electrical interface; 15. QR code. Detailed Implementation

[0022] All features disclosed in this specification, or all steps in all disclosed methods or processes, may be combined in any way, except for mutually exclusive features and / or steps.

[0023] Any feature disclosed in this specification (including any appended claims, abstract, and drawings) may be replaced by other equivalent or similar features for a similar purpose, unless specifically stated otherwise. That is, unless specifically stated otherwise, each feature is merely one example of a series of equivalent or similar features.

[0024] like Figures 1-5 As shown, in a preferred embodiment, the head and face care machine of the present invention includes three major care subsystems: a face mask cover care system, a telescopic helmet care system, and a heated shower cap care system, as well as an operation panel 7 that is compatible with all three subsystems. The operation panel 7 is detachably electrically connected to the face mask cover assembly 5, the telescopic helmet assembly, and the heated shower cap assembly 13 via multi-output connectors. Users can select to connect any one or more care devices as needed to achieve comprehensive care for the face, scalp, and hair. The entire system preferably uses DC low-voltage power supply. The input plug 8 of the operation panel 7 can be a USB plug or a Type-C plug, or it can be connected to a household AC power supply via an adapter, where the voltage is stepped down and rectified within the operation panel 7 to output a safe voltage. The operation panel 7 can also be connected to an external power bank, allowing users to move around at home without being restricted by the location of power outlets.

[0025] In the face mask cover care system, the face mask cover assembly 5 is used to cover the outside of a disposable or replaceable face mask 9. The face mask cover body is generally curved to fit the face, and has multiple openings corresponding to the user's eyes, nostrils, and mouth to avoid obstructing vision, nasal breathing, and mouth movements. The face mask cover body has a multi-layer composite structure, which includes, along the thickness direction, an outer covering layer 10, a middle functional layer 11, and an inner insulating layer 12. The covering layer 10 can be made of soft textile fabric, thin plastic film, or leather material to provide overall appearance and stain protection; the functional layer 11 is embedded with an electric heating element, an ultrasonic transducer 1, and a spectral irradiation component as needed; the insulating layer 12 is made of an insulating material with a certain degree of elasticity, for contact with the face mask 9 and facial skin, and at the same time serves as electrical isolation. The mask cover body is provided with several fixing straps 4 around its perimeter. The fixing straps 4 can be elastic straps, Velcro straps or tie-up structures. The two ends are fixed to the back of the head by buckles, adjustment rings or binding methods to firmly press the mask cover body on the outside of the mask 9 and ensure that it will not slip during the care process.

[0026] The heating element in functional layer 11 can be a flexible heating film, a wire-wound resistor, or a printed resistor layer. It covers most of the mask cover and provides heating care to the face through constant temperature control via a control circuit. Functional layer 11 also includes at least one ultrasonic transducer 1, preferably a piezoelectric ceramic sheet or a micro-transducer array, with an operating frequency of approximately 1MHz to 3MHz to facilitate the coupling of ultrasonic energy to the beauty essence or serum in the mask 9. To improve adaptability to different care modes, several conductive electrodes can be arranged on the face-facing side of insulating layer 12. These conductive electrodes can be conductive silicone pads, metal-plated patches, or conductive fabric areas. They are electrically connected to the first electrical interface to apply low-frequency microcurrent signals to the facial muscle area in EMS microcurrent care mode, avoiding sensitive areas such as the eye sockets and lips during placement. To achieve the function of spectral therapy, a spectral irradiation component consisting of multiple light-emitting diodes can be embedded in the functional layer 11 in a dispersed or arrayed manner. The emission wavelength of the light-emitting diodes can be selected as red light, blue light, or near-infrared light as needed. For example, red light is used to promote collagen production, and blue light is used to improve sebum secretion and acne problems. A first electrical interface is provided on one side of the mask cover body. The first electrical interface can be a socket type or a plug type structure, and is electrically connected to the heating element, ultrasonic transducer 1, conductive electrode, and spectral irradiation component through internal wires 6.

[0027] To accommodate diverse therapeutic needs, the mask cover can be designed with various functional combinations. In one embodiment, the mask cover is equipped with only a heating element and an ultrasonic transducer 1 to achieve dual treatment of heating and ultrasonic induction. In another embodiment, the mask cover is equipped with conductive electrodes and an ultrasonic transducer 1 to achieve lifting and firming treatment through EMS microcurrent combined with ultrasonic induction. In yet another embodiment, the mask cover is equipped with a spectral irradiation component and an ultrasonic transducer 1 to achieve combined treatment of spectral therapy and ultrasonic induction. These different types of mask covers can all adopt the same structural shape and first electrical interface for universal connection with the operation panel 7. Users can choose different functional combinations of mask cover products according to their actual treatment needs.

[0028] The operation panel 7 is used to uniformly power and control the functions of the aforementioned nursing components. The front panel of the operation panel 7 housing has multiple sets of function selection buttons and indicator lights. Referring to the attached diagram, it can be equipped with a mode selection area for switching between "manual setting" and "automatic setting." In manual mode, the user controls the start and stop of the corresponding nursing device using the mask switch button, helmet massage switch button, and shower cap heating switch button. Each function button has an ON / OFF selection and status indicator light next to it. The time setting area has minute and second selection buttons, as well as up and down adjustment buttons, for setting the nursing duration. At the bottom are a power button and a start / pause button. The power button is used to turn the internal power of the operation panel 7 on or off, and the start / pause button is used to start the nursing program after the function has been set. Pressing it again during the nursing process pauses or restarts the program. The operation panel 7 internally houses a control circuit, which may include a microcontroller, a constant temperature control module, an ultrasonic drive module, a microcurrent drive module, a spectral drive module, and a power management module. The input terminal of the control circuit is connected to an external DC power supply or AC adapter via an input plug 8, and the output terminal is connected to various electrical interfaces via multiple output connectors. Each output connector extends from the operation panel 7 via a flexible wire 6, and its end is provided with a plug structure that matches the first electrical interface, the second electrical interface, or the third electrical interface 14. Users can insert a certain output connector into the electrical interface on the mask cover assembly 5, the telescopic helmet assembly, or the heated shower cap assembly 13 as needed.

[0029] To achieve automatic matching of consumables and nursing parameters, an identification module can also be installed within the operation panel 7. This identification module can be a photoelectric sensor for reading the QR code 15, or a wireless communication module for communicating with an external mobile terminal. In a typical usage scenario, the user first uses their mobile phone to photograph or scan the first QR code 15 on the operation panel 7 housing. This QR code 15 contains information such as the device model and functional configuration. Subsequently, the user scans the second QR code 15 on the packaging bag of a disposable face mask or a heated shower cap nursing kit. This QR code 15 carries parameters such as the recommended temperature, time, ultrasonic intensity, and EMS current rating for the corresponding nursing consumable. After obtaining the information from the two QR codes 15, the mobile application or webpage sends the matched nursing procedure parameters to the server for verification. Upon successful verification, the server returns the parameters to the mobile phone in encrypted or authorization code form. The mobile phone then transmits the corresponding parameters or authorization information to the identification module within the operation panel 7 via Bluetooth, Wi-Fi, or other communication methods. The identification module imports the parameters into the control circuit, which then automatically sets the operating temperature, time, and output mode of the corresponding nursing device. At this time, the operation panel 7 can automatically switch to the automatic setting mode. The user only needs to put on the mask cover or shower cap and press the start button. The system will then run automatically according to the preset program until the end, and will stop automatically after the treatment is completed.

[0030] In the telescopic helmet care system, the telescopic helmet assembly includes a helmet body 3 and a telescopic adjustment structure. The helmet body 3 is generally hemispherical or helmet-shaped and is used to cover the outside of the user's head. Multiple ultrasonic transducers 1 are arranged along the scalp contact area on the inner side of the helmet body 3. These transducers can be evenly distributed in a ring or grid pattern to provide uniform ultrasonic oscillation energy to different areas of the scalp. A scalp vibrator 2 can be installed on the top of the helmet body 3. The scalp vibrator 2 can be an eccentric rotary motor or a reciprocating drive mechanism to provide physical vibration massage when needed. The telescopic adjustment structure can include a bendable ring support and an adjustment buckle set on the ring support. The adjustment buckle can be a ratchet buckle, a sliding buckle, or a Velcro locking structure. The user can adjust the circumferential size of the ring support according to the head circumference and lock it with the adjustment buckle to make the helmet body 3 fit the scalp tightly. A second electrical interface is provided on one side of the helmet body 3. The inner wire 6 connects the ultrasonic transducers 1 and the scalp vibrator 2 to the second electrical interface. The second electrical interface is connected to the operation panel 7 through a corresponding output connector. When in use, the user puts the helmet on their head and adjusts the size using the telescopic adjustment structure. Then, on the operation panel 7, the user selects the "helmet massage" mode and sets the ultrasonic working time or a combination mode that combines ultrasonic massage with physical vibration. After pressing the start button, the control circuit outputs ultrasonic drive signals and / or vibration drive signals to the second electrical interface, so that the scalp receives ultrasonic care and physical massage, which helps to improve scalp blood circulation and relieve tension.

[0031] In the heated shower cap care system, the heated shower cap assembly 13 includes a shower cap body and a third electrical interface 14. The shower cap body is a soft cap-shaped structure, which can be made of fabric, plastic film, or composite materials. Along its thickness direction, it includes an outer covering layer 10, a heating layer in the middle, and an inner insulating layer 12. The outer covering layer 10 serves for appearance and stain prevention. The heating layer contains heating wires or films distributed around the entire cap body for uniform heating of the hair and scalp. The inner insulating layer 12 uses a soft insulating material and comes into direct contact with the hair to ensure electrical safety and improve wearing comfort. Depending on the needs, multiple ultrasonic transducers 1 can be embedded in the heating layer and / or the inner insulating layer 12 to provide ultrasonic oscillation care to the hair and scalp while heating, thereby improving the penetration and uniformity of hair care products, hair dyeing products, perming products, or scalp care products. A third electrical interface 14 is located on the outer side of the shower cap body, and the third electrical interface 14 connects the heating layer and the ultrasonic transducers 1 via internal wires 6. Before use, users can apply conditioner, hair dye, perm solution, or scalp care essence evenly to their hair and scalp, then put on the heated shower cap and insert the corresponding output connector into the third electrical interface 14. On the operation panel 7, select the "shower cap heating" function and set the time. Alternatively, the ultrasonic care function can be added. After activation, the control circuit provides driving power to the heating layer and ultrasonic transducer 1 through the output connector. The combined heating and ultrasonic care is completed within the preset time. The output will automatically stop after the set time is reached.

[0032] To meet different usage scenarios, the control panel 7 can also be equipped with a power management module to allocate output power when multiple care devices are connected simultaneously. For example, when the face mask cover and the heated shower cap are both in heating mode, the power management module can limit the total heating power to no more than the rated output of the power bank or adapter, and reduce the heating power of a certain device or use an alternating pulse power supply method when necessary to prevent power overload. At the same time, the control circuit can determine whether the corresponding care device is connected based on whether the output connector detects a load. When it detects that a certain connector is not connected or has been unplugged, it automatically shuts off the drive output of that line and turns off the corresponding function indicator light, while retaining the function of the still connected device to continue operating, thus achieving the same user experience as "the function turns off and is disabled after the power cord is disconnected" as stated in the original disclosure.

[0033] In terms of specific operation procedures, users can choose the manual setting mode upon first use. First, connect the desired care device to the output connector on the control panel 7, for example, connecting only the mask cover assembly 5 or both the mask cover assembly 5 and the telescopic helmet assembly. Then, press the corresponding function selection button for the mask, helmet, or shower cap to turn the desired function button ON. Set the care time using the time setting area. If the control panel 7 supports temperature adjustment, the target temperature can also be selected using an additional setting button or knob. After completing the settings, press the start button. The control circuit starts the corresponding drive module according to the set parameters and monitors the running time in real time via a timer during the care process. The output automatically stops after the set time is reached, and a buzzer or indicator light will remind the user that the care is complete.

[0034] In automatic setting mode, users scan the QR code 15 on the operation panel 7 and the QR code 15 on the care consumable packaging using their mobile phones or other terminals, following the steps described in the instruction manual. The obtained identification information is uploaded to the server or matched in the local application. The system automatically generates recommended care programs based on different types of facial mask or hair care consumables. For example, a recommended facial mask care program may include a preheating stage, a constant temperature stage, and a cooling stage, superimposed with periodic output of ultrasonic infusion and EMS microcurrent. A recommended heated shower cap care program can set the optimal temperature and time according to the formula of the hair dye or perm. After obtaining these programs, the identification module stores the parameters in the control circuit and associates them with the corresponding consumable batch or QR code 15 information. Users then only need to connect the care device and press the start button, and the system will automatically run according to the recommended program for the corresponding consumable, further simplifying the operation process and making it easier for brands to combine different consumables with care devices to form complete business solutions.

[0035] The three care systems of this invention can be used individually or simultaneously in any combination, such as facial care only, scalp care only, hair care only, or simultaneous facial and scalp care, facial and hair care, etc. Through a unified operation panel 7, multi-output connectors, and standardized electrical interface design, the different care components can operate independently yet collaboratively, allowing users to flexibly combine them according to their needs. Furthermore, by expanding the identification module, power management module, and various drive modules, this invention can also support other care devices to be launched later, such as neck care belts and eye care masks. These can be connected to existing systems as long as the electrical interface and communication protocol remain compatible, thus forming a sustainably expandable comprehensive head and face care platform.

[0036] The above description is merely a specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any changes or substitutions conceived without inventive effort should be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be determined by the scope defined in the claims.

Claims

1. A facial mask covering care system for facial care, characterized in that, include: A mask cover assembly (5) and an operation panel (7) used in conjunction with the mask cover assembly (5); The mask cover assembly (5) includes: The mask cover body is used to cover the outside of the mask (9) and has multiple openings corresponding to the user's eyes, nostrils and mouth. The mask cover body has a multi-layer structure, and along the thickness direction, it includes a covering layer (10), a functional layer (11), and an insulating layer (12). Fixing strap (4) is provided on the mask cover body and is used to fix the mask cover body and the mask (9) to the face; The first electrical interface is disposed on the mask cover body and is electrically connected to the electrical components in the functional layer (11); The operation panel (7) includes: Operation panel (7) housing; An input plug (8) is located at one end of the operation panel (7) and is used to connect to an external power socket; Multiple output connectors are provided at the output end of the operation panel (7), and each output connector is led out through a wire (6) and can be plugged into the first electrical interface; The control circuit is located inside the housing of the operation panel (7) and is electrically connected to the input plug (8) and multiple output connectors. The functional layer (11) is provided with an electric heating element and at least one ultrasonic transducer (1). When a certain output connector is plugged into the first electrical interface, the control circuit provides driving power to the electric heating element and / or the ultrasonic transducer (1) through the output connector to perform heating care and / or ultrasonic care on the user's face.

2. The facial mask cover care device according to claim 1, characterized in that: The insulating layer (12) is provided with a plurality of conductive electrodes on the side facing the face. The conductive electrodes are electrically connected to the first electrical interface. The control circuit is used to output a low-frequency micro-current signal to the conductive electrodes through the output connector to provide electrical stimulation care for the facial muscles.

3. The facial mask cover care device according to claim 1, characterized in that: The functional layer (11) is provided with a spectral irradiation component composed of multiple light-emitting diodes. The spectral irradiation component is electrically connected to the first electrical interface. The control circuit is used to output a drive signal to the spectral irradiation component to emit a nursing spectrum within a preset wavelength range.

4. A telescopic helmet care system for scalp care, characterized in that, include: Telescopic helmet assembly, and an operation panel (7) used in conjunction with the telescopic helmet assembly; The telescopic helmet assembly includes: The helmet body (3) is used to be fitted on the outside of the user's head, and a scalp vibrator (2) is installed on the helmet body (3); A telescopic adjustment structure is provided on the helmet body (3) for adjusting the circumferential dimension and / or height dimension of the helmet body (3); The second electrical interface is located on the helmet body (3); Multiple ultrasonic transducers (1) are disposed inside the helmet body (3), and the ultrasonic transducers (1) are electrically connected to the second electrical interface. The operation panel (7) includes: Operation panel (7) housing; An input plug (8) is located at one end of the operation panel (7) and is used to connect to an external power socket; Multiple output connectors are provided at the output end of the operation panel (7), and each output connector is led out through a wire (6) and can be plugged into the second electrical interface; The control circuit is located inside the housing of the operation panel (7) and is electrically connected to the input plug (8) and multiple output connectors. When a certain output connector is plugged into the second electrical interface, the control circuit provides a drive signal to the ultrasonic transducer (1) through the output connector, so that the ultrasonic transducer (1) outputs ultrasonic oscillation energy to the scalp for scalp care.

5. The telescopic helmet care system for scalp care according to claim 4, characterized in that: The telescopic adjustment structure includes a bendable annular support and an adjustment buckle disposed on the annular support. The adjustment buckle is used to lock the circumferential dimension of the helmet body (3).

6. A heated shower cap care system for hair care, characterized in that, include: Heated shower cap assembly (13), and operation panel (7) used in conjunction with said heated shower cap assembly (13); The heated shower cap assembly (13) includes: The shower cap body includes, along its thickness direction, an outer covering layer (10), a heating layer, and an inner insulating layer (12), for covering the user's hair and scalp; The third electrical interface (14) is provided on the shower cap body and is electrically connected to the heating layer; Multiple ultrasonic transducers (1) are disposed in the heating layer and / or the inner insulating layer (12), and the ultrasonic transducers (1) are electrically connected to the third electrical interface (14). The operation panel (7) includes: Operation panel (7) housing; An input plug (8) is located at one end of the operation panel (7) and is used to connect to an external power socket; Multiple output connectors are provided at the output end of the operation panel (7), and each output connector is led out through a wire (6) and can be plugged into the third electrical interface (14); The control circuit is located inside the housing of the operation panel (7) and is electrically connected to the input plug (8) and multiple output connectors. When a certain output connector is plugged into the third electrical interface (14), the control circuit provides a drive signal to the heating layer and / or the ultrasonic transducer (1) through the output connector to perform heating care and / or ultrasonic care on the hair and scalp.

7. The heated shower cap care system for hair care according to claim 6, characterized in that: The heated shower cap assembly (13) is suitable for use after applying hair care products, hair dye products, perming products or scalp care products to the user's hair for heated and ultrasonic treatment.

8. The heated shower cap care system for hair care according to claim 6, characterized in that: The input plug (8) is a USB plug or a Type-C plug.

9. The nursing system according to any one of claims 1 to 8, characterized in that: The control panel (7) housing has multiple function selection buttons and / or indicator lights. The function selection buttons are used to select at least one working mode among heating care, ultrasonic care, microcurrent care and spectral care that outputs to the corresponding care device.

10. The nursing system according to any one of claims 1 to 9, characterized in that: The operation panel (7) is equipped with an identification module for acquiring identification information. The identification module is used to acquire the QR code (15) or other identification code information set on the packaging of nursing consumables. The control circuit automatically sets the working parameters output to the corresponding nursing device according to the identification information.

Images