The subject matter disclosed herein relates to a patient shield, and more particularly, to a patient shield which a protects a user from aerosol and particulate matter emanating from a patient or from equipment.
Sneezes and coughs from an infected patient can explosively project droplets more than twelve feet where they can be inhaled by a user such as a dentist, hygienist, doctor or other practitioner. The projected droplets can contaminate the room and facility in which the patient is being treated thereby making it difficult to adequately sanitize between patients.
Current vacuum systems used in facilities and similar situations cannot capture droplets and debris emanating from a patient who coughs or sneezes as the velocity of the expectorant is too fast for a vacuum to capture. This is true for aerosol and particulates coming from rotary equipment as well. In an attempt to collect the material emanating from the patient, a simple open hose is often positioned near a patient without any directive structure or apparatus. The velocity of a cough, sneeze or material emanating from a patient or from a tool is too fast to be captured by even the strongest vacuum by itself.
The present invention includes a shield for protecting a user from aerosol and particulate matter emanating from a patient or from equipment used on the patient. The shield comprises a transparent barrier adjustably positionable adjacent a patient, an articulating arm secured to the barrier for adjusting the barrier in multiple orientations relative to the patient and a mounting base secured to the articulating arm.
The present invention includes a shield for protecting a user from aerosol and particulate matter emanating from a patient or from equipment. The shield comprises a transparent barrier adjustably positionable adjacent a patient, an articulating arm securable to the barrier to enable the barrier to be adjustable and repositionable in multiple orientations relative to the patient, a vacuum generator for creating a vacuum adjacent the barrier to remove aerosol and particulate matter emanating from the patient or from equipment and a mounting base.
The present invention includes a shield for protecting a user from aerosol and particulate matter emanating from a patient or from equipment. The shield comprises a dome-shaped barrier adjustably positionable adjacent a patient, a segmented articulating arm secured to the barrier and enabling the barrier to be adjustable and repositionable in multiple orientations relative to the patient, a mounting base including locking casters, a vacuum generator supported by the mounting base, a vacuum hose in communication with the vacuum generator and the barrier, a light and a hepa filter.
Preferred exemplary embodiments of the invention are illustrated in the accompanying drawings in which like reference numerals represent like parts throughout, and in which:
Before any embodiments of the invention are explained in detail, it is to be understood that the invention is not limited in its application to the details of constructions and the arrangement of components set forth in the following description or illustrated in the drawings. The invention is capable of other embodiments and of being practiced or of being carried out in various ways.
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The bracket 14 includes a generally u-shaped portion 30, a mounting arm 32 on each end of the u-shaped portion 30 and a mounting arm 34 in the center of the u-shaped portion 30. The bracket 14 is pivotally secured to the shell 12 by connection of the mounting arms 32 that are secured to the mounting recesses 26 of the barrier 24. The bracket 14 is secured to the articulating arm 16 using the mounting bracket 34. However, it should be noted that other ways and methods of securing the barrier 24 to the bracket 14 and the bracket 14 to the articulating arm 16 can also be utilized. Further, the function of the bracket 14 can also be integrated into the shell 12 so that the articulating arm 16 is securable directly to the shell 14.
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The shield 10 can also include active accessories such as sensors, lights and a vacuum. The addition of sensors can monitor the efficacy of the positioning and condition of the patient 22 for example and can provide information or feedback to actively control and adjust treatment parameters. Adding lights to the shield 10 which is in close proximity to the patient 22 better illuminates the treatment area. Adding a vacuum to the shield better removes any particulates emanating from the patient 22.
The shield 10 can also be utilized for any procedure performed by a user needing a physical protection barrier such as, for example, tattoo artists, makeup artists, nail salons, ophthalmological examinations, immunization procedures or other healthcare or physical procedures or examinations. The size and shape of the shield 10 can be adapted to meet the circumstance of any specific procedure or examination.
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In an alternate embodiment, the baffle 52 can also be used with no vacuum such that particulate matter is trapped by the baffle 52.
Turning now to a third embodiment of a patient shield as shown in
The barrier 102 is preferably manufactured from clear optical grade polycarbonate plastic such as is known in the art to provide excellent visibility of the patient underneath; however, other materials can also be utilized such as glass, acrylic, other synthetic polymers, screen material or a curtain of air for example. The barrier 102 preferably is curved such as dome-shaped, however, other shapes or configurations can also be utilized. The barrier 102 preferably includes a dome portion 114, a peripheral edge 116, a flange 118 adjacent the peripheral edge 116, a pair of mounting apertures 120 (hidden from view) and a vacuum aperture 122.
The mounting assembly 104 includes a generally u-shaped bracket 124, a pair of mounting arms 126 and a pair of rotation mechanisms 128. The bracket 124, the arms 126 and the rotation mechanism 128 are secured together on each side of the barrier 102 at the mounting aperture 120. The mounting arms 126 have a channel 130 that houses the edge 116 of the barrier 102. The rotation mechanism 128 preferably includes a wheel 132. Rotation of the wheel 132 enables a user to move and hold the barrier 102 in a desired position. It should be noted that other ways and methods of securing the barrier 102 to the mounting assembly 104 for movement can also be utilized. The function of the mounting assembly 104 can also be integrated into the barrier 102 so that the articulating arm assembly 106 is securable directly to the barrier 102. The mounting assembly 104 is preferably fabricated from powder coated steel, however, other materials can also be utilized.
The mounting assembly 104 is attached to the articulating arm assembly 106 and, preferably, is attached with fasteners 134 which attach the bracket 124 to the articulating arm assembly 106.
The articulating arm assembly 106 preferably includes segments such as the illustrated three segments 136, 138 and 140 which in combination allow the barrier 102 to be freely moved into multiple orientations as need with respect to a patient and the user. The articulating arm assembly 106 is preferably manufactured from powder coated aluminum and/or powder coated steel, however, other materials can also be utilized such as plastic and titanium for example. It should also be noted that other types of articulating arms, non-segmented articulating arms and articulating arms with more or less than three segments can also be utilized.
The segment 136 is moveably secured to segment 138 using a pivot mechanism 142. Segment 138 is pivotally secured to segment 136 using pivot mechanism 144. Segment 138 includes a curved portion 146 and is secured to mounting base 108.
The mounting base 108 preferably includes five arms 148 with each arm 148 having a caster 110 attached thereto. At least one caster 110 preferably includes a locking/unlocking mechanism 150. The mounting base 108 includes a mounting platform 152. The mounting base 108 provides a low center of gravity for the patient shield 100 to minimize the changes of the patent shield 100 tipping over. The mounting base 108 is preferably fabricated from powder coated steel, however, other materials could also be utilized.
The shield 100 preferably includes a vacuum generating assembly 154 including a vacuum generator 156 supported on the platform 152, a vacuum hose 158 and a mounting bracket 160 securing the hose in the vacuum aperture 122 on the barrier 102. Optionally, ties 162 are utilized to position the hose 158 close to the articulating arm assembly 106. Alternately, the vacuum generator can be adjacent the barrier 102 which eliminates the need for a vacuum hose 158. The vacuum generating assembly 154 preferably includes a medical grade hepa filter 164 (hidden from view) such as is known in the art. The vacuum generator 156 is commercially available for medical devices as is known in the art.
The shield 100 preferably includes a light 166 positioned near the barrier 102 such as, for example, on the end of the segment 138 of the articulating arm assembly 106. The light can be any type of light given the lighting requirements for a given procedure or treatment room.
A baffle can also be utilized with the shield 100 as described above with respect to the second embodiment. A vacuum controller, such as foot pedal 168, can be utilized to control the vacuum generator 156 and/or light 166. The patient shield 100 is preferably cordless and operates using battery power for example, however, other power sources can be utilized.
The patient shield 100 can be moved and relocated by a user using one hand and held in position with the locking/unlocking mechanism 150 on the casters 110. To allow for any orientation, multiple degrees of motion of the barrier 102 are enabled. Once moved into position, the barrier 102 stays in position until intentionally moved. When properly positioned between a patient and a user, the shield 100 creates a treatment zone and will prevent aerosol and/or particulate matter from impinging upon the user or the treatment room. Aerosol and particulate matter may include saliva, blood, breath, bodily debris, splatter and the like. Once properly positioned, a user has clear visibility of the patient and the work room to carry out tasks with their mobility and access to the patient not being restricted. At any time, the shield 100 can be repositioned relative to the patient.
The shield 100 can be utilized for any procedure performed by a user needing a physical protection barrier such as, for example, tattoo artists, makeup artists, nail salons, ophthalmological examinations, immunization procedures or other healthcare or physical procedures or examinations. The size and shape of the shield 100 can be adapted to meet the circumstance of any specific procedure or examination.
The patient shield 100 is designed to contain and evacuate aerosols and particulate matter from the treatment zone and is 93% effective at doing so. The vacuum generator 156 and hepa filter 164 provide a continual evacuation and filtering to maintain a high level of hygiene and provide evacuation of any air borne viruses from the treatment zone and surrounding patient care areas. The sound produced by the patient shield 100 in operation is designed to be low to be unobtrusive to the user and patient.
The barrier 102 can be sanitized in place or can be easily removed to be sanitized elsewhere.
Various features and advantages of the invention are set forth in the following claims.
This application claims priority to U.S. Provisional Application Ser. No. 63/024,820, filed May 14, 2020, the entire contents of which is incorporated herein by reference.
Number | Date | Country | |
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63024820 | May 2020 | US |