This present application relates to the field of manicure dust extraction technology, specifically to an efficient manicure dust extractor.
At present, with the continuous development of the beauty industry, nail care and manicures have become part of the lifestyle of fashionable urban women. During the manicure process, nail grinding is a basic procedure. However, this process generates a large amount of manicure dust, which can easily float in the workplace and be inhaled by the human body, affecting the health of consumers and staff. To cater to the needs of manicures without affecting human health, the existing technology uses a manicure dust extractor to collect and process manicure dust.
The majority of current nail dust collectors consist of a casing and a dust removal device located within the casing. The casing is specifically designed for nail dust collection and can comfortably support the hand during nail filing operations. The dust removal device within the casing generates suction through a motor that drives the fan blades, drawing nail dust into a filter net, thus completing the dust removal process.
Existing dust collectors, in order to improve dust removal efficiency, often increase the output power of the motor and the rotation speed of the fan blades to achieve greater airflow and thus better dust removal effects. However, this approach results in the fan blades generating significant noise during rotation, which affects the physical and mental health of consumers and employees. Moreover, existing dust collectors can only extract nail dust from the dust extraction area. During the nail filing process, if the operator accidentally lifts their hand, nail dust can appear at a higher position, far from the dust extraction area, leading to inefficient dust removal. This can easily cause nail dust to scatter and float in the workplace, affecting the health of consumers and employees, and failing to meet usage needs.
In view of the defects of the existing technology, this present application provides an efficient manicure dust extractor, which has a simple structure, is easy to use, can effectively improve the dust extraction effect, reduce the noise generated during the operation of the dust extractor, avoid affecting the health of consumers and staff, and meet usage requirements.
To achieve the above objectives, the technical scheme adopted by this present application is:
An efficient manicure dust extractor, which includes a shell. The shell has a cavity. The upper end of the shell is equipped with several dust extraction holes connected to the cavity. A dust extraction device is set up in the cavity. Above the shell, there is a fan that blows downwards. When the fan rotates, it can generate downward wind pressure, pressing the manicure dust down to the upper end of the shell, and the dust extraction device sucks the manicure dust through the dust extraction holes.
In the above description, as a preferred option, the shell is equipped with an upward-extending flexible hose. One end of the hose is installed on the shell, and the other end of the hose is equipped with a mounting bracket. The fan is installed on the mounting bracket. The angle of the fan can be adjusted through the hose according to the specific usage angle of consumers and staff, ensuring the fan can always press the manicure dust down to the upper end of the shell.
In the above description, as a preferred option, the shell is equipped with a circuit board and a battery. The circuit board is electrically connected to the battery, and the dust extraction device is electrically connected to the circuit board through a first connecting line.
In the aforementioned description, as a preferred option, an installation bracket is equipped with LED beads that illuminate downward. The fan and LED beads are connected to the casing via a second connecting wire. The fan and LED beads are electrically connected to the circuit board through the connecting wire. By setting up LED beads, focused illumination can be provided during the grinding process, achieving simultaneous grinding and dust removal effects.
In the above description, as a preferred option, the shell is equipped with adjustment buttons and switch keys. Both the adjustment buttons and switch keys are connected to the circuit board. The switch key is used to control the power on and off, and the adjustment button is used to adjust the gear of the fan.
In the aforementioned description, as a preferred option, a filter net is placed between the dust removal device and the dust extraction hole. The filter net can effectively filter nail dust.
In the aforementioned description, as a preferred option, the suction hole is located in the middle of the upper surface of the casing, and the upper surface of the casing is set to slope downward from the edge towards the middle, making the opening on the upper surface of the casing form a bowl-like shape.
In the aforementioned description, as a preferred option, the suction hole is located in the middle of the upper surface of the casing, and the upper surface of the casing is set to slope downward from the edge towards the middle, making the opening on the upper surface of the casing form a bowl-like shape.
The beneficial effects of this application include: The casing has a cavity, and several dust extraction holes connected to the cavity are set at the top of the casing. A dust removal device is installed within the cavity, and a fan that blows downward is located above or to the side of the casing. When the fan rotates, it generates a downward air pressure, pushing the nail dust towards the dust extraction area on the top of the casing. The dust removal device sucks in nail dust through the dust extraction holes. By adjusting the angle of the upper fan, the blower can always push the nail dust down to the dust extraction area, effectively improving the dust removal effect, reducing the noise generated during the operation of the dust collector, and protecting the health of consumers and employees. The structure is simple, easy to use, and meets usage needs.
With the above features, the present application provides an efficient solution for manicure dust extraction in the manicure industry. The overall design is aimed at improving the dust extraction efficiency while minimizing noise and health impacts on consumers and staff. The adjustable fan, LED beads for illumination, and convenient wrist pad make the device user-friendly and adaptable to different working scenarios. Furthermore, the filter net and dust collection bag ensure a clean working environment, reducing the risk of blockages and increasing the longevity of the device. Overall, this present application meets the practical needs of manicure professionals and customers, providing an effective, convenient, and health-conscious solution for manicure dust extraction.
Reference signs: 10—Shell, 11—Vacuum hole, 12—Opening, 13—Vacuum device, 14—Filter net, 15—Circuit board, 16—Battery, 17—USB interface, 18—Adjustment button, 19—Switch button, 20—Fan, 21—Flexible tube, 22—Mounting bracket, 23—LED bead, 24—USB plug, 30—Wrist pad.
To more clearly illustrate the structural features, technical means, and specific objectives and functions of the present application, the following provides further detailed explanations in conjunction with the attached drawings and specific examples:
In this embodiment: As shown in
The casing 10 houses a circuit board 15 and a battery 16. The circuit board 15 is electrically connected to the battery 16, and the dust removal device 13 is connected electrically to the circuit board 15. The installation bracket 22 is equipped with downward-facing LED beads 23 and a downward-facing blower outlet. Both the blower 20 and the LED beads 23 are electrically connected to the circuit board 15 through wires that pass through the hose 21. By setting up the LED beads 23, focused illumination can be provided during grinding, improving the efficiency of grinding. The casing 10 has an adjustment button 18 and a switch key 19. Both the adjustment button 18 and the switch key 19 are connected to the circuit board 15. The switch key 19 is used to control the power on and off, while the adjustment button 18 is used to adjust the rotation speed of the blower 20.
Through the coordination of the fan 20 and the dust suction device 13, the dust suction effect can be effectively improved, the noise generated during the operation of the dust extractor can be reduced, the health of consumers and workers can be protected, and the structure is simple, easy to use, and meets user needs.
The above description is only the preferred embodiment of the present application and should not limit the present application. Therefore, any modifications, equivalent replacements, and improvements made to the above embodiments according to the technical scheme of the present application are still within the scope of the technical scheme of the present application.