The present disclosure generally relates to a disinfecting spray module that can be utilized to sanitize equipment and disinfect and/or clean rooms. More specifically, the present disclosure relates to a disinfecting spray module that can be retrofit onto existing housekeeping carts or other types of mobile carts to provide a supply of disinfectant that can be evenly sprayed onto a surface to be cleaned.
Presently, housekeeping staff typically carries one or more spray bottles of disinfectant on a housekeeping cart. The housekeeping staff utilizes the spray bottles to spray the disinfectant onto surfaces that need to be cleaned. Although a spray bottle is generally adequate to apply disinfectant to the surface to be cleaned, the size of the spray bottle is limited which requires the housekeeping staff to refill the bottle frequently or carry multiple bottles on the housekeeping cart. Additionally, spray bottles do not generally apply the disinfectant/cleaner in a smooth, continuous pattern.
In addition to the limited supply of disinfectant that can be carried in a portable spray bottle, the distribution pattern of the disinfectant onto the surface to be cleaned is inconsistent and varied during the extended use of the spray bottle. The coverage and overall distribution of the disinfectant is affected by the type of nozzle used on the spray bottle and the action of the cleaning personnel utilizing the spray bottle.
Therefore, a need exists for an improved system that provides a larger supply of disinfectant and allows the housekeeping staff to more effectively apply the disinfectant or cleaner onto the surfaces to be cleaned.
The present disclosure relates to a small, portable spray module that can be retrofitted to existing housekeeping carts or other types of mobile carts, such as luggage carts, or pre-assembled on new housekeeping carts. The small, portable spray module is used to disinfect rooms, equipment, solid surfaces and a variety of other surfaces such as fabric and wheelchairs.
The disinfecting spray module is configured to apply any disinfectant or cleaner evenly and accurately over a desired surface. The disinfecting spray module creates a fine spray that allows the solution to penetrate hard-to-reach areas and dries in minutes.
The disinfecting spray module includes an electric pump that is virtually silent and is either connected to a power supply in the room being cleaned or includes a rechargeable battery pack. The disinfecting spray module can be mounted to a housekeeping cart or a simple luggage cart such that the spray module is portable and can be easily moved throughout a facility. The disinfecting spray module does not take up any additional inner-cart space and thus maintains optimal storage on the cart.
The disinfecting spray module includes an easy-to-use dispensing system and applies any disinfectant or cleaner within seconds. The disinfecting spray module includes a storage container that can be accessed by simply unscrewing a fill cap and filling the container with any desired solution.
The disinfecting spray module of the present disclosure has been found to provide labor savings of up to 50%, reduces FTEs due to the mobility and ease of use. The disinfecting spray module is effective at applying a disinfectant to hard-to-reach areas that may be overlooked with traditional methods of disinfectant.
The disinfecting spray module of the present disclosure has been designed to include a spray nozzle that creates a fine mist of the disinfectant while insuring that the disinfectant is not released in a mist. The selection of the nozzle design creates the desired droplet size and the desired pattern of coverage while controlling the size of the droplets to prevent the creation of a mist, which can be inhaled.
Various other features, objects and advantages of the invention will be made apparent from the following description taken together with the drawings.
The drawings illustrate the best mode presently contemplated of carrying out the disclosure. In the drawings:
The disinfecting spray module 22 includes a coiled spray hose 26 having a first end 28 connected to the spray module 22. A second end 30 of the spray hose 26 is connected to a spray handle 32. The spray handle 32 includes a handle 34, trigger 36 and spray nozzle 38.
The housing 24 further includes an on/off switch 40 that allows an operator to control activation of the disinfecting spray module 22. A power cord 42 having a plug 44 extends from the housing 24. A fill cap 46 is accessible through the top of the outer housing 24. The fill cap 46 provides an access point for filling the disinfecting spray module 22 with any hospital-grade disinfectant.
A liquid container 50 is attached to the mounting board 48 by a pair of attachment flanges 52. The attachment flanges 52 support the liquid container and are preferably formed from a metal material. The liquid container 50 may be formed from various different materials, but is shown in the embodiments of
As best illustrated in
In the embodiment shown in
Although the embodiment shown in
In the embodiment shown in the drawing Figures, the liquid container 50 is sized to hold approximately 1.5 gallons liters of disinfectant, although other sizes for the liquid container are contemplated as being within the scope of the present disclosure.
During operation, when an operator squeezes the trigger 36, the built-up pressure of liquid within the spray hose 26 causes the disinfectant to be initially sprayed out of the spray nozzle 38. As the pressure within the hose 26 decreases, the pump 56 senses the pressure drop and begins to operate. Operation of the electric motor in the pump 56 causes an additional supply of fluid to be drawn from the container 50 and supplied to the spray hose 26 and ultimately through the nozzle 38.
As illustrated in
In the embodiment shown in
In accordance with the present disclosure, the nozzle 38 is selected such that at 40 psi, the nozzle creates a spray having droplet sizes preferably between 110 μm and 2500 μm. In the range of 100-2500 μm, the droplet size discharged from the nozzle 38 creates a fine spray and does not create a mist. As indicated above, it is important that the nozzle 38 create a fine spray rather than a mist to prevent uncontrolled inhalation and distribution of the mist in the area around the nozzle 38.
As illustrated in
The extendible, coiled hose 26 shown in the drawing Figures allows for a great range of movement of the spray handle 32 away from the module 22. The nozzle 38 is selected to control the size of spray droplets from the disinfecting spray module 22 while providing a uniform, wide degree of spray coverage.
In the preferred embodiment shown in the drawing Figures, the electric pump 56 was selected to both optimize the battery life and minimize the amount of noise created by the disinfecting spray module 22. Since the spray module 22 is often used in a quiet, hospital environment, it is important that the electric motor that drives the pump 56 operate quietly to reduce the amount of noise created by the spray module 22. Although various types of electric motors and pumps can be utilized while operating within the scope of the present disclosure, the specific electric motor selected minimizes the amount of noise created while providing the required pressure for distributing the disinfecting solution.
The present application is based on and claims priority to U.S. Provisional Patent Application Ser. No. 61/466,093 filed Mar. 22, 2011.
Number | Date | Country | |
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61466093 | Mar 2011 | US |