Integrated control system of ultrasonic beauty instrument

Abstract

The utility model provides an integrated control system of an ultrasonic beauty instrument, which comprises an ultrasonic treatment handle, an ultrasonic imaging handle, an embedded mainboard, a first operating system loading mainboard, a second operating system loading mainboard and a touch screen, the ultrasonic treatment handle is provided with a first pick-up detection device, the ultrasonic imaging handle is provided with a second pick-up detection device, the ultrasonic treatment handle and the first pick-up detection device are connected with the embedded mainboard, and the ultrasonic imaging handle and the second pick-up detection device are connected with the embedded mainboard. The embedded mainboard is respectively connected with the first operating system loading mainboard and the second operating system loading mainboard, and the first operating system loading mainboard and the second operating system loading mainboard are respectively connected with the touch screen.

Description

Technical Field

[0001] This utility model relates to the field of beauty instrument technology, and in particular to an integrated control system for an ultrasonic beauty instrument. Background Technology

[0002] An ultrasonic beauty device is a cosmetic instrument that uses ultrasonic technology for skin care. It uses high-frequency sound wave vibrations to act on the deep layers of the skin, achieving effects such as cleansing, firming, and anti-aging. Professional-grade or medical-grade ultrasonic beauty devices typically include two core components: an ultrasonic treatment handpiece and an ultrasonic imaging handpiece. The ultrasonic treatment handpiece emits therapeutic ultrasonic waves that act directly on the skin or subcutaneous tissue to achieve cosmetic or repair effects. The ultrasonic imaging handpiece emits diagnostic ultrasonic waves to display real-time images of subcutaneous tissue, aiding in treatment localization and effect evaluation.

[0003] When using an ultrasonic beauty device, the treatment area is typically scanned and imaged first using an ultrasonic imaging handpiece to determine the target layer (such as the depth of the fascia layer). The user then adjusts the parameters of the ultrasonic treatment handpiece (such as energy and focal length) based on the imaging results for precise treatment. After treatment, the treatment area is scanned and imaged again using the ultrasonic imaging handpiece to compare tissue changes before and after treatment. Currently, because ultrasonic treatment and ultrasonic imaging rely on different physical hardware and working principles, the ultrasonic treatment handpiece and ultrasonic imaging handpiece generally have independent operating systems. Therefore, when using an ultrasonic beauty device, the user needs to manually switch between the operating systems corresponding to the ultrasonic treatment handpiece and the ultrasonic imaging handpiece, which is cumbersome. Utility Model Content

[0004] The technical problem this invention aims to solve is to provide a hardware structure for software engineers, enabling them to easily switch the operating system of an ultrasonic beauty device after programming the embedded motherboard in the hardware structure.

[0005] To solve the above-mentioned technical problems, this utility model provides an integrated control system for an ultrasonic beauty instrument, including an ultrasonic treatment handpiece, an ultrasonic imaging handpiece, an embedded motherboard, a first operating system loading motherboard, a second operating system loading motherboard, and a touch screen. The ultrasonic treatment handpiece is provided with a first pick-up detection device, and the ultrasonic imaging handpiece is provided with a second pick-up detection device. The ultrasonic treatment handpiece and its first pick-up detection device are connected to the embedded motherboard, and the ultrasonic imaging handpiece and its second pick-up detection device are also connected to the embedded motherboard. The embedded motherboard is connected to both the first operating system loading motherboard and the second operating system loading motherboard, and both the first operating system loading motherboard and the second operating system loading motherboard are connected to the touch screen.

[0006] Furthermore, the system includes an HDMI switch and a USB switch, with the first operating system motherboard connected to both the HDMI switch and the USB switch, the second operating system motherboard connected to both the HDMI switch and the USB switch, the HDMI switch and the USB switch connected to the touchscreen, and the embedded motherboard connected to both the HDMI switch and the USB switch.

[0007] Furthermore, the first pick-up detection device and the second pick-up detection device are specifically Hall sensors.

[0008] Furthermore, it includes a power management motherboard, which is connected to the embedded motherboard, the first operating system loading motherboard, and the second operating system loading motherboard respectively, and the embedded motherboard is connected to the power management motherboard for control.

[0009] Furthermore, the first operating system loading motherboard specifically loads an Android system, and the first operating system loading motherboard specifically loads a Windows system.

[0010] The hardware structure provided by this utility model has the following beneficial effects: When a user picks up the ultrasound therapy handpiece, the first pick-up detection device on the ultrasound therapy handpiece sends a detection signal to the embedded motherboard. The embedded motherboard detects the pick-up action of the ultrasound therapy handpiece, loads the motherboard with the first operating system corresponding to the ultrasound therapy handpiece, and waits for the user to make further selections or operations for ultrasound therapy on the touch screen. When a user picks up the ultrasound imaging handpiece, the second pick-up detection device on the ultrasound imaging handpiece sends a detection signal to the embedded motherboard. The embedded motherboard detects the pick-up action of the ultrasound imaging handpiece, loads the motherboard with the second operating system corresponding to the ultrasound imaging handpiece, and waits for the user to make further selections or operations for ultrasound imaging on the touch screen. This allows for automatic switching to the corresponding first operating system when using the ultrasound therapy handpiece and automatic switching to the corresponding second operating system when using the ultrasound imaging handpiece, eliminating the need for manual switching and simplifying operation. Attached Figure Description

[0011] Figure 1 This is a circuit connection block diagram of the integrated control system of an ultrasonic beauty device. Detailed Implementation

[0012] The present invention will be further described in detail below with reference to specific embodiments.

[0013] This embodiment provides an integrated control system for an ultrasonic beauty device, such as... Figure 1As shown, the system includes an ultrasound therapy handpiece, an ultrasound imaging handpiece, an embedded motherboard, a first operating system loading motherboard, a second operating system loading motherboard, an HDMI switcher, a USB switcher, a touch screen, and a power management motherboard.

[0014] The ultrasonic treatment handpiece is equipped with a first pick-up detection device, and the ultrasonic imaging handpiece is equipped with a second pick-up detection device. The ultrasonic treatment handpiece and its first pick-up detection device are connected to an embedded motherboard, as are the ultrasonic imaging handpiece and its second pick-up detection device. The ultrasonic treatment handpiece features an ultrasonic transducer, such as a piezoelectric ceramic transducer, which converts electrical signals into mechanical vibrations through the inverse piezoelectric effect, emitting therapeutic ultrasonic waves that directly act on the skin or subcutaneous tissue to achieve cosmetic or repair effects. The ultrasonic imaging handpiece features an ultrasonic transducer array, such as a linear array for high-frequency superficial imaging, a convex array for low-frequency deep imaging, and a phased array for small-contact-area deep scanning. It emits diagnostic-grade ultrasonic waves through the transducer array, displaying subcutaneous tissue images in real time to assist in treatment positioning and effect evaluation. The embedded motherboard is the core control unit of the ultrasonic beauty device, housing a main control chip, such as an MCU (Microcontroller Unit), which handles signal processing, energy control, user interaction, and system coordination. The first operating system is an Android system mounted on the motherboard, and the second operating system is a Windows system mounted on the motherboard. The first and second pick-up detection devices are specifically Hall effect sensors. The ultrasonic beauty device has a placement structure for placing the ultrasonic treatment handle and the ultrasonic imaging handle. Magnets are installed on this placement structure. When the ultrasonic treatment handle and the ultrasonic imaging handle are placed on the placement structure of the ultrasonic beauty device, if the magnetic field strength sensed by the first and second pick-up detection devices reaches the threshold, no Hall effect detection signal is emitted. When the user picks up the ultrasonic treatment handle, if the magnetic field strength sensed by the corresponding first pick-up detection device does not reach the threshold, a Hall effect detection signal is emitted, and the embedded motherboard detects the pick-up action of the ultrasonic treatment handle. Similarly, if the user picks up the ultrasonic imaging handle, if the magnetic field strength sensed by the corresponding second pick-up detection device does not reach the threshold, a Hall effect detection signal is emitted, and the embedded motherboard detects the pick-up action of the ultrasonic imaging handle.

[0015] The embedded motherboard communicates with both the first and second operating system motherboards via serial ports. The first operating system motherboard connects to the touchscreen via an HDMI switch and a USB switch. Specifically, the first operating system motherboard connects to the HDMI switch via an HDMI video signal cable and to the USB switch via a USB touch signal cable. The HDMI switch and USB switch are then connected to the touchscreen. Similarly, the second operating system motherboard connects to the touchscreen via an HDMI switch and a USB switch. The embedded motherboard controls the HDMI controller by sending video signals and controls the USB switch by sending touch signals.

[0016] In this embodiment, the power management motherboard is connected to the embedded motherboard, the first operating system loading motherboard, and the second operating system loading motherboard, respectively, and the embedded motherboard is connected to the power management motherboard for control.

[0017] The workflow of the integrated control system for the ultrasonic beauty device is as follows: After the system is powered on, the power management motherboard powers on the embedded motherboard, the first operating system loading motherboard, and the second operating system loading motherboard. The Android system on the first operating system loading motherboard and the Windows system on the second operating system loading motherboard complete their system self-tests and then communicate with the embedded motherboard via a serial port to synchronize their states. Before the Android and Windows systems are ready, the touchscreen displays the Android system video signal by default, plays the startup logo and startup animation, and waits for the Android system to be ready and launch the ultrasonic therapy application, receiving Android system touch signals by default. In this state, if the ultrasonic therapy handle is picked up, the first pick-up detection device on the ultrasonic therapy handle sends a detection signal to the embedded motherboard. The embedded motherboard detects the pick-up action of the ultrasonic therapy handle and uses the first operating system loading motherboard to enter the Android system corresponding to the ultrasonic therapy handle, entering the ultrasonic therapy handle pick-up status interface, waiting for the user to make further selections or operations for ultrasonic therapy on the touchscreen. If the ultrasonic imaging handle is picked up, the second pick-up detection device on the ultrasonic imaging handle sends a detection signal to the embedded motherboard, and the embedded motherboard detects the pick-up action of the ultrasonic imaging handle. The system automatically switches from the Android system to the corresponding Windows system via an HDMI switcher and from the Android system to the corresponding Windows system via a USB switcher. This allows the second operating system to switch the Android system to the corresponding Windows system for the ultrasound imaging handle, entering the ultrasound imaging handle's picked-up state interface, awaiting further selections or operations from the user on the touchscreen. If the ultrasound therapy handle is picked up while in the ultrasound imaging handle's picked-up state interface, the first pick-up detection device on the handle sends a detection signal to the embedded motherboard. The embedded motherboard detects this pick-up action, determines that the state is inconsistent with the display interface, and again switches the HDMI switcher to the Android system via an HDMI switcher and from the USB switcher to the Android system's USB interface. This allows the first operating system to switch the Windows system to the corresponding Android system for the ultrasound therapy handle, entering the ultrasound therapy handle's picked-up state interface, awaiting further selections or operations from the user on the touchscreen. This allows for automatic switching between the corresponding first operating system when using the ultrasound therapy handle and the corresponding second operating system when using the ultrasound imaging handle, eliminating the need for manual switching and simplifying operation.

[0018] The above description is merely an embodiment of the present invention and does not limit the scope of patent protection. Any non-substantial changes or substitutions made by those skilled in the art based on the present invention will still fall within the scope of patent protection.

Claims

1. An ultrasonic cosmetic instrument integrated control system, characterized in that, The application relates to an ultrasonic treatment handle, an ultrasonic imaging handle, an embedded mainboard, a first operating system loading mainboard, a second operating system loading mainboard and a touch screen, wherein the ultrasonic treatment handle is provided with a first pickup detection device, the ultrasonic imaging handle is provided with a second pickup detection device, the ultrasonic treatment handle and the first pickup detection device are connected with the embedded mainboard, the ultrasonic imaging handle and the second pickup detection device are connected with the embedded mainboard, the embedded mainboard is connected with the first operating system loading mainboard and the second operating system loading mainboard respectively, and the first operating system loading mainboard and the second operating system loading mainboard are connected with the touch screen respectively.

2. The integrated control system of claim 1, wherein, The application further relates to an HDMI switcher and a USB switcher, wherein the first operating system loading mainboard is connected with the HDMI switcher and the USB switcher respectively, the second operating system loading mainboard is connected with the HDMI switcher and the USB switcher respectively, the HDMI switcher and the USB switcher are connected with the touch screen, and the embedded mainboard is connected with the HDMI switcher and the USB switcher respectively.

3. The integrated control system for an ultrasonic cosmetic device of claim 1, wherein, The first pickup detection device and the second pickup detection device are specifically Hall sensors.

4. The integrated control system for an ultrasonic cosmetic device of claim 1, wherein, The application further relates to a power management mainboard, wherein the power management mainboard is connected with the embedded mainboard, the first operating system loading mainboard and the second operating system loading mainboard for power supply respectively, and the embedded mainboard is connected with the power management mainboard for control.

5. The integrated control system for an ultrasonic cosmetic device of claim 1, wherein, The first operating system loading mainboard specifically loads an Android system, and the second operating system loading mainboard specifically loads a Windows system.

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