The present invention relates to a loading base for facial protection devices of the type used in healthcare settings by medical personnel, nurses, assistants, dentists, etc., and materialized as facial protection equipment which is equipped with various elements that facilitate healthcare practice, such as a LED lamp, a camera, a microphone, and swinging elements to facilitate moving the visor with respect to the support forming the device.
The object of the invention is to provide a base which, in addition to allowing a base for supporting or holding the work screen, allows recharging different electronic equipment associated with the facial protection device, and allows disinfecting both the outer face and the inner face of the transparent glass or plastic protective screen or visor of said device.
Facial protection devices used in healthcare settings by medical personnel, nurses, assistants, dentists, and the like, and materialized as facial protection equipment which is equipped with various electronic elements that facilitate healthcare practice, such as a LED lamp, a camera, a microphone, and swinging elements to facilitate moving the visor with respect to the support forming the device, are known.
A device of this type is described in utility model U202031414, such that said device further includes in its housing a series of UV LEDs which project lights beans towards the outer surface of the screen.
This solution is not satisfactory because the UV light is projected exclusively on the outer face of the screen, to which it should be further mentioned that the dimensions of said screen are often greater than the effective reach of the UV LEDs.
At the same time, it is known that this type of lighting poses a risk to the user's eyes, so it is preferable for the disinfection means of the device to be independent of said device in order to ensure that said disinfection operations cannot be performed with the device applied on the user's head.
The proposed loading base for facial protection devices solves in a fully satisfactory manner the problems set forth above by ensuring perfect disinfection of the facial protection device in a completely safe manner.
To that end, the loading base for facial protection devices is made up of a main housing having support arms on which a facial protection device with a screen rests.
Based on this conventional structuring, the base has been envisaged to incorporate a bridge that can move vertically on the support arms which, in an inoperative situation, is flush with the main housing of the base, wherein the bridge has a structure in which two parallel arches are defined determining an arched slot, according to the curvature and horizontal section of the screen of the facial protection device, said bridge incorporating inside its arches a plurality of UV LEDs for disinfecting both surfaces of the screen of the facial protection device.
To that end, the mentioned bridge can preferably move vertically from a pair of vertical augers associated with the support arms determining the support on which the facial protection device rests, these augers rotate in a synchronized manner by being linked to the ends of the bridge through the corresponding threading, being actuated through a transmission linked to an electric motor.
Specifically, the ends of the bridge incorporate perforations through which the bridge is linked to the vertical augers, the rotation of the vertical augers being actuated by means of a transmission linked to an electric motor.
In this way, the bridge can move vertically and in a controlled manner along the entire surface of the visor of the facial protection device, applying UV light at a minimum distance from said screen, which ensures perfect disinfection of the visor on both faces, such that once the disinfection process ends, the arch will return to its retracted position being flush with the main housing of the base.
As an additional safety measure, the base has been envisaged to include proximity sensors which detect the presence of any people in the vicinities of the base and through which said disinfection process is stopped momentarily until the area is clear.
To complement the description that will be made below and in order to help to better understand the features of the invention according to a preferred practical embodiment thereof, a set of drawings is attached as an integral part of said description in which the following is depicted in a non-limiting illustrative manner:
Lastly,
In view of the mentioned figures, it can be seen how the loading base for facial protection devices is made up of a main housing (1) inside which there are established the electronics for providing electric supply through a network connection cable (2) for recharging the battery of a facial protection device having a visor provided with a screen (4) associated with a housing (5), having in the front area thereof a LED lamp and a camera, including a microphone, and swinging elements to facilitate moving the visor with respect to the support forming the device, as well as an internal battery for powering the electronic equipment, said battery having an electrical connector established on the lower area of the housing (5) at the level of the support arms (6) which project from the loading base, one of which will include a complementary electrical connector for powering said battery.
The invention focuses on the fact that the base incorporates a retractable bridge (7) that can move vertically which, in an inoperative situation, is flush with the main housing (1) of the base, said bridge (7) having a structure in which two parallel arches (8-8′) are defined determining an arched slot (9), according to the curvature and horizontal section of the transparent visor or screen (4) of the facial protection device, with said slot being arranged facing the screen and below same.
As can be seen in
These UV LEDs (10) have a spectrum ranging from 200 nm to the 280 nm known as ultraviolet “UV-C” spectrum.
The bridge (7) and accordingly the arches (8-8′) will be obtained in metal made by injection or machining of aluminum-Zamac or thermo-technical plastic.
As can be seen in
These vertical augers (14) rotate in a synchronized manner by being linked to the ends of the bridge (7) through the corresponding threading, being actuated through a transmission (12) linked to a DC electric motor or control of paso in tensions from 3 to 230 V.
UV-C LED technology modules based on AlGaN and Flip chip, which are techniques for manufacturing devices of this type, will be arranged integrally inside the arches (8-8′). These will be housed in a flexible or rigid aluminum or copper substrate support (MPCB or PCB—printed circuit board), whereas the electronics for controlling this module (in constant current or voltage) as well as the movement of the arcs (8-8′) will be arranged in the plate or plates housed in the charging base.
This movement will result in this light spectrum striking the screen (4) and will end up disinfecting the surfaces that are usually in contact with the patient or the professional. This radiation is particularly effective in breaking DNA/RNA bonds of the organisms to be eliminated; the photons will break these bonds in bacteria, fungi, viruses and pathogens in general, causing microbiological inactivation.
The power may vary to reduce the exposure time, since the higher the power, the shorter the exposure time. The facial protection device will have means for adjusting the power and exposure time through an APP in which more or less exposure will be provided depending on the use it has had.
For the pathogen neutralization or disinfection process to be safe for daily use by healthcare personnel, surgeons, orthodontists, veterinarians or any professional, the loading base incorporates an electronic safety system. The UVC radiation must always be below the limits of <0.001 W/m2 established by the occupational safety regulations. This is achieved by placing one or more Doppler tracing devices at a frequency of 60 GHz, this search for bodies will be carried out in 360 degrees constant, i.e., it will always rotate during the disinfection time, this will provide the apparatus with absolute safety in any environment. The sensor device will be completely autonomous and its antenna will also be integrated into the base. The beam opening will be equal to or >45° and the detection distance will also be selectable through the APP.
Returning again to
Number | Date | Country | Kind |
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U202131613 | Aug 2021 | ES | national |
Filing Document | Filing Date | Country | Kind |
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PCT/ES2022/000030 | 8/3/2022 | WO |