A high-end medical and cosmetic hair removal special handle laser

Abstract

The utility model provides a kind of handle laser special for high-end medical cosmetology depilation, comprising: laser rear shell and laser front shell, laser front shell outside is connected with depilation handle head, laser front shell inside is provided with heat dissipation mechanism, two groups of insulating blocks are respectively provided on the outside of laser rear shell, one end of two groups of conductive copper bars is installed in insulating block by bolt, laser front shell inside is provided with bar, the other end of conductive copper bar is fixedly connected in bar, bar inside is provided with printed circuit, the energy not effectively utilized in photoelectric conversion is dissipated in the form of heat energy.The circulating water enters the inside of laser through the water inlet channel, and the temperature of the laser is reduced by circulating to the gap of the honeycomb net waterway, and the warm water is discharged through the water outlet channel; by designing the water inlet and the drainage as inclined water channel and entering the honeycomb net uniform heating structure, the effect of small size, high efficiency of heat dissipation and high utilization rate of materials is created.

Description

Technical Field

[0001] This utility model relates to the technical field of medical devices, and in particular to a high-end medical aesthetic hair removal handheld laser. Background Technology

[0002] Lasers used for hair removal on the market are relatively large. With the widespread application of high-power laser technology in fields such as medical aesthetics and precision machining, the thermal management of the laser's core component—the laser bar—has become increasingly prominent. During photoelectric conversion, the laser bar, as the core device for energy conversion, generates a significant amount of waste heat during operation. Studies have shown that nearly half of the input electrical energy fails to be effectively converted into light energy, instead accumulating as heat inside the device. This high heat flux density poses a severe challenge to the heat dissipation system. Traditional heat dissipation solutions often struggle to achieve rapid and uniform heat removal within a limited space, leading to a sharp rise in the bar's temperature, which in turn causes wavelength drift, output power attenuation, and even permanent damage to the device.

[0003] In the field of medical aesthetic equipment, the miniaturization of laser modules is particularly urgent. Due to limitations in ergonomics and operational flexibility, handheld hair removal devices, skin treatment devices, and similar equipment typically require highly integrated laser modules, often compressing their internal space to an extremely compact size. However, conventional heat dissipation technologies face a fundamental contradiction: forced air cooling solutions, while simple in structure, struggle to match the heat dissipation efficiency of kilowatt-level heat loads, and the fan noise and size cannot meet the quiet operation requirements of medical devices; while plate-type water cooling structures can improve heat dissipation capacity, their complex flow channel design and size constraints make them unsuitable for miniaturized packaging requirements. This conflict between space constraints and heat dissipation needs forces many designs to reduce laser operating power or sacrifice device reliability, severely hindering the widespread application of high-power laser technology in portable medical devices.

[0004] The limitations of existing heat dissipation architectures are mainly reflected in two aspects:

[0005] Firstly, the traditional straight or serpentine water channel design leads to uneven coolant flow, making it difficult to eliminate local hot spots. The contact thermal resistance between the heat sink substrate and the bar further exacerbates the temperature gradient.

[0006] Secondly, the integration of the heat dissipation module and the electrical system lacks coordinated design, and the physical contact between conductive components and the heat dissipation structure is prone to electromagnetic interference and insulation failure risks. To address these issues, a high-end medical aesthetic hair removal handheld laser is proposed. Utility Model Content

[0007] (a) Technical problems to be solved

[0008] To address the shortcomings of existing technologies, this invention provides a high-end medical aesthetic hair removal handheld laser that solves the technical problem of heat dissipation in a small area.

[0009] (II) Technical Solution

[0010] To achieve the above objectives, this utility model provides the following technical solution:

[0011] A high-end medical aesthetic hair removal handheld laser, including

[0012] The laser's rear shell and front shell are fixedly connected by bolts. The outer side of the laser's front shell is connected to the hair removal handle. During use, a heat dissipation mechanism is installed inside the laser's front shell. Two sets of insulating blocks are installed on the outer side of the laser's rear shell. One end of two sets of conductive copper busbars is installed in the insulating blocks by bolts. A bar is installed inside the laser's front shell. The other end of the conductive copper busbar is fixedly connected to the bar. The bar is the core component for photoelectric conversion.

[0013] Preferably, the bar has a printed circuit inside, and electrical energy is transferred to the printed circuit by the conductive copper busbar and then distributed to the bar module. The conductive copper busbar has no direct contact with the front shell of the laser. The energy that is not effectively utilized in the photoelectric conversion is dissipated in the form of heat and efficiently discharged by the integrated water-cooling circulation module.

[0014] Preferably, a water channel component is fixedly installed inside the rear shell of the laser. The water channel component has a cavity structure to accommodate the core photoelectric conversion device.

[0015] Preferably, a honeycomb mesh water channel is provided between the water channel component and the bar, and the honeycomb mesh water channel is connected to the external water channel to achieve heat dissipation for the water channel component and the bar.

[0016] Preferably, after the laser rear shell and laser front shell are merged, a water outlet channel and a water inlet channel are formed. The water outlet channel and the water inlet channel are respectively connected to both ends of the honeycomb mesh water channel to realize the circulation of water flow. The water inlet channel is connected to the external water supply equipment to realize water supply, and the water outlet channel is connected to the external drainage equipment to realize the discharge of the circulating water flow.

[0017] (III) Beneficial Effects

[0018] ① Small size, high power; ② Honeycomb mesh heat dissipation plate structure on the back of the laser strip; ③ High energy density of 1200W; ④ Large emission window area, which helps improve treatment efficiency; ⑤ Multi-cavity heat dissipation channels for efficient water cooling. Overall cooling and heat dissipation process description: The inclined inlet and outlet reduce the volume occupied by the piping; circulating water enters the laser through the inlet channel, circulates into the gaps of the honeycomb mesh water channel to lower the laser temperature, and the warm water is discharged through the outlet channel; by designing the inlet and outlet as inclined water channels and incorporating the honeycomb mesh heat dissipation structure, a small size, high heat dissipation efficiency, and high material utilization are achieved. This technology, through multi-physics field collaborative design and micro-nano manufacturing processes, solves the thermal management problem of high-power-density optoelectronic systems in limited spaces, providing key technical support for the miniaturization of laser equipment in medical aesthetics, industrial processing, and other fields. Attached Figure Description

[0019] The above description is only an overview of the technical solution of this utility model. In order to better understand the technical means of this utility model and to implement it in accordance with the contents of the specification, the preferred embodiments of this utility model are described in detail below with reference to the accompanying drawings.

[0020] Figure 1 This is an overall structural diagram of a high-end medical aesthetic hair removal handheld laser of this utility model;

[0021] Figure 2 This utility model relates to an explosive structure of a high-end medical aesthetic hair removal handheld laser. Figure 1 ;

[0022] Figure 3 This utility model relates to an explosive structure of a high-end medical aesthetic hair removal handheld laser. Figure 2 ;

[0023] Figure 4 This is a cross-sectional view of a high-end medical aesthetic hair removal handheld laser device according to this utility model.

[0024] Legend: 1. Insulating block; 2. Conductive copper busbar; 3. Water channel component; 4. Honeycomb mesh water channel; 5. Bar strip; 6. Printed circuit; 7. Laser back shell; 8. Laser front shell; 9. Water outlet channel; 10. Water inlet channel. Detailed Implementation

[0025] This application provides a high-end medical aesthetic hair removal handheld laser, which solves the heat dissipation problem in the small area of ​​the prior art. These problems have led to the long-term industrialization bottleneck of high-power laser equipment, which is unable to balance "performance, size and reliability", and urgently requires a breakthrough thermal management solution.

[0026] Example 1

[0027] The technical solution in this application embodiment is to solve the heat dissipation problem in a small area, and the overall idea is as follows:

[0028] To address the problems existing in the prior art, this utility model provides a high-end medical aesthetic hair removal handheld laser, including a laser rear shell 7 and a laser front shell 8, which are fixedly connected by bolts. The outer side of the laser front shell 8 is connected to the hair removal handle. During use, a heat dissipation mechanism is provided inside the laser front shell 8. Two sets of insulating blocks 1 are respectively provided on the outer side of the laser rear shell 7. One end of two sets of conductive copper busbars 2 are installed in the insulating blocks 1 by bolts. A bar strip 5 is provided inside the laser front shell 8. The other end of the conductive copper busbars 2 is fixedly connected to the bar strip 5. The bar strip 5 is the core device for photoelectric conversion. A printed circuit 6 is provided inside the bar strip 5. Electrical energy is transferred from the conductive copper busbars 2 to the printed circuit 6 and then distributed to the bar strip 5 module. The conductive copper busbars 2 have no direct contact with the laser front shell 8. Energy not effectively utilized in photoelectric conversion is dissipated as heat and efficiently discharged by an integrated water-cooling circulation module.

[0029] A water channel component 3 is fixedly installed inside the rear shell 7 of the laser. The water channel component 3 is a cavity structure used to house the core photoelectric conversion device. A honeycomb mesh water channel 4 is provided between the water channel component 3 and the bar 5. The honeycomb mesh water channel 4 is connected to the external water channel to achieve heat dissipation for the water channel component 3 and the bar 5.

[0030] like Figure 4 As shown, after the laser rear shell 7 and the laser front shell 8 are merged, a water outlet channel 9 and a water inlet channel 10 are formed. The water outlet channel 9 and the water inlet channel 10 are respectively connected to both ends of the honeycomb mesh water channel 4 to realize the circulation of water flow. The water inlet channel 10 is connected to the external water supply equipment to realize water supply, and the water outlet channel 9 is connected to the external drainage equipment to realize the discharge of the circulating water flow.

[0031] Technological Innovation Points

[0032] Heterogeneous integrated heat dissipation architecture: It adopts a combination design of honeycomb microchannels and oblique inlet and outlet ports, which increases the Nusselt number to 2-3 times that of traditional straight pipe structures. Through topology optimization, it achieves reduced flow resistance and maximized heat exchange area.

[0033] Technical effect

[0034] Overall cooling and heat dissipation process description: Circulating water enters the laser through the inlet channel 10, circulates into the gaps of the honeycomb mesh water channel 4 to lower the laser temperature, and the warm water is discharged through the outlet channel 9. By designing the inlet and outlet as inclined water channels and incorporating them into the honeycomb mesh heat dissipation structure, a small volume, high heat dissipation efficiency, and high material utilization are achieved. This technology, through multi-physics collaborative design and micro-nano manufacturing processes, solves the thermal management problem of high-power-density optoelectronic systems in limited spaces, providing key technical support for the miniaturization of laser equipment in fields such as medical aesthetics and industrial processing.

[0035] Finally, it should be noted that the above embodiments are merely examples for clearly illustrating the present invention and are not intended to limit the implementation. Those skilled in the art can make other variations or modifications based on the above description. It is neither necessary nor possible to exhaustively list all possible implementations. However, obvious variations or modifications derived therefrom are still within the protection scope of this invention.

Claims

1. A high-end medical aesthetic hair removal handheld laser, characterized in that, include: The laser back shell (7) and the laser front shell (8) are fixedly connected by bolts. The outer side of the laser front shell (8) is connected to the hair removal handle. A heat dissipation mechanism is provided inside the laser front shell (8). Two sets of insulating blocks (1) are respectively provided on the outer side of the laser back shell (7). One end of two sets of conductive copper busbars (2) are installed in the insulating block (1) by bolts. A bar strip (5) is provided inside the laser front shell (8). The other end of the conductive copper busbar (2) is fixedly connected to the bar strip (5).

2. The handheld laser for high-end medical aesthetic hair removal according to claim 1, characterized in that, The bar (5) is equipped with a printed circuit (6). Electrical energy is transferred from the conductive copper busbar (2) to the printed circuit (6) and then distributed to the bar (5) module. The conductive copper busbar (2) has no direct contact with the front shell (8) of the laser. The energy that is not effectively utilized in the photoelectric conversion is dissipated in the form of heat and efficiently exported by the integrated water-cooled circulation module.

3. The handheld laser device for high-end medical aesthetic hair removal according to claim 2, characterized in that, A water channel component (3) is fixedly installed inside the rear shell (7) of the laser. The water channel component (3) is a cavity structure used to house the core photoelectric conversion device.

4. A high-end medical aesthetic hair removal handheld laser as described in claim 3, characterized in that, A honeycomb mesh waterway (4) is provided between the water channel component (3) and the bar (5), and the honeycomb mesh waterway (4) is connected to the external waterway.

5. A high-end medical aesthetic hair removal handheld laser according to claim 1, characterized in that, After the laser rear shell (7) and laser front shell (8) are merged, a water outlet channel (9) and a water inlet channel (10) are formed.

6. A high-end medical aesthetic hair removal handheld laser according to claim 5, characterized in that, The water outlet channel (9) and the water inlet channel (10) are respectively connected to both ends of the honeycomb mesh waterway (4), wherein the water inlet channel (10) is connected to the water supply equipment on the outside, and the water outlet channel (9) is connected to the drainage equipment on the outside.

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