HUMIDIFIER UTILIZING FILTERED WATER

Abstract

A humidifier is provided that typically includes a water filtration unit and a pump that draws filtered water from the water filtration unit, typically a carbon nanotube filter. The humidifier further includes a nozzle having an outlet orifice, wherein the nozzle is connected to the pump, where the pump forces the filtered water through the nozzle, thereby expelling the filtered water into an atmosphere in the form of a purified vapor or mist.

Claims

1. A method of providing humidity to a volume of space within a structure comprising the steps of: pumping water through a filtration unit using a pump to form filtered water; and disbursing the filtered water through an outlet of one or more nozzle by subjecting the filtered water to a pressure of up to 3000 psi during disbursement through the one or more nozzle to atomize the filtered water and deliver a filtered mist or vapor into the volume of space within the structure.

2. The method of providing humidity to a volume of space within a structure of claim 1, wherein the filtered mist or vapor is provided to the interior of an air duct prior to being delivered to the volume of space within the structure.

3. The method of providing humidity to a volume of space within a structure of claim 1, wherein the volume of space within a structure is a plurality of different rooms within an interior space of a building.

4. The method of providing humidity to a volume of space within a structure of claim 1, wherein the volume of space within a structure is a plurality of different rooms within an interior space of a building and the one or more nozzle is positioned to add the filtered mist or vapor into an air ducting system within the building at a location proximate where air enters a room.

5. The method of providing humidity to a volume of space within a structure of claim 4, wherein the filtered water is essentially bacteria free and essentially viral free.

6. The method of providing humidity to a volume of space within a structure of claim 1, and wherein the volume of space within a structure is a one room or a plurality of rooms, and the method further comprising the step of: allowing a user to remotely regulate a humidity level in the one room or the plurality of rooms using a humidistat that is linked to a computer system that is remote from the structure.

7. The method of providing humidity to a volume of space within a structure of claim 6, wherein the volume of space within a structure is a plurality of rooms within a single building and each room comprises a humidistat and the method further comprises independently regulating the providing of humidity to each of the plurality of rooms using the humidistat in each room.

8. The method of providing humidity to a volume of space within a structure of claim 1, wherein the water filtration unit includes a carbon nanotube material and the carbon nanotube material absorbs contaminants passing through the water filtration unit.

9. The method of providing humidity to a volume of space within a structure of claim 1, wherein the pump is a plunger pump capable of pumping water at a rate of at least 0.54 gallons per hour through the water filtration unit and the water filtration unit removes all contaminants larger than about 50 nanometers.

10. The method of providing humidity to a volume of space within a structure of claim 1, wherein the one or more nozzle includes a polypropylene filter and an outlet orifice of the one or more nozzle has a diameter of about 0.015 inch or less.

11. The method of providing humidity to a volume of space within a structure of claim 1, wherein the filtered mist or the vapor is essentially bacteria and virus free water and is also free of other contaminants.

12. The method of providing humidity to a volume of space within a structure of claim 1, wherein the volume of space is a plurality of rooms and the structure is a hospital and the method further comprises the step of independently regulating an amount of filtered mist or vapor in each of the plurality of rooms.

13. The method of providing humidity to a volume of space within a structure of claim 1, wherein the one or more nozzle is a plurality of nozzles that are configured to deliver the filtered water, at a point of expulsion, as a mist at 350 psi and a vaporized fog at 700 psi.

14. A method of controlling a humidity level in an interior of a structure or a portion of an interior of a structure comprising the steps of: producing filtered water by pumping water through a filtration unit using a pump, wherein the pump is a plunger pump capable of pumping water at a rate of at least 0.54 gallons per hour through the water filtration unit and the water filtration unit removes all contaminants larger than about 50 nanometers; forcing the filtered water through a nozzle having an outlet, wherein the nozzle is connected to the pump by a conduit; and dispersing the filtered water into a room through the outlet of the nozzle as a mist or a vapor.

15. The method of controlling a humidity level in an interior structure or a portion of an interior of a structure of claim 14, wherein a flow rate of the filtered water through the nozzle is at least about 2.0 gallons per hour and the filtered water has a pressure of from about 1,000 psi to about 3,000 psi while passing through the nozzle.

16. The method of controlling a humidity level in an interior structure or a portion of an interior of a structure of claim 14, wherein a flow rate of the filtered water through the nozzle is from about 20 gallons per hour to about 100 gallons per hour and wherein a portion of an interior structure is provided with the mist or vapor and the portion of an interior of a structure is an entire hospital floor.

17. The method of controlling a humidity level in an interior structure or a portion of an interior of a structure of claim 14, wherein the vapor or the mist has a particle size such that the purified vapor or mist dissipates or evaporates within about 10 seconds of leaving the nozzle.

18. A method of controlling humidification of one or a plurality of areas within a building comprising the steps of: producing filtered water; passing the filtered water through a nozzle having an outlet, wherein the nozzle is connected to a pump by a conduit and wherein the nozzle includes a polypropylene filter and an outlet orifice of the nozzle has a diameter of about 0.015 inch or less; and dispersing the filtered water through the outlet of the nozzle as a mist or a vapor and into the one or the plurality of areas within the building.

19. The method for controlling humidification of one or a plurality of areas within a building of claim 18 further comprising the step of subjecting the filtered water to a pressure of up to 3000 psi during disbursement through the nozzle.

20. The method for controlling humidification of one or a plurality of areas within a building of claim 19, wherein the pump is a plunger pump capable of pumping water at a rate of at least 0.54 gallons per hour through a water filtration unit and the water filtration unit removes all contaminants larger than about 50 nanometers.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

[0007] FIG. 1 is an elevated perspective view of a humidifier of an embodiment of the present invention associated with a heating and air conditioning system;

[0008] FIG. 2 is an elevational front view of a humidifier according to an embodiment of the present invention where the humidifier includes a carbon nanotube water filtration system;

[0009] FIG. 3 is an elevational rear view of an embodiment of the present invention showing a pulley system associated with a pump;

[0010] FIG. 4 is an elevated perspective view of a nozzle having an orifice according to an embodiment of the present invention;

[0011] FIG. 5 is an elevation section view of a residential home including a humidifier system according to an embodiment of the present invention; and

[0012] FIG. 6 is a top plan view of a floor plan of a building including a humidifier system according to an embodiment of the present invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

[0013] For purposes of description herein, the terms upper, lower, right, left, rear, front, vertical, horizontal, and derivatives thereof shall relate to the invention. However, it is to be understood that the invention may assume various alternative orientations, except where expressly specified to the contrary. It is also to be understood that the specific devices and processes illustrated in the attached drawings, and described in the following specification are simply exemplary embodiments of the inventive concepts defined in the appended claims. Hence, specific dimensions and other physical characteristics relating to the embodiments disclosed herein are not to be considered as limiting, unless the claims expressly state otherwise.

[0014] Referring to FIG. 1, the reference number 10 generally designates a humidifier according to an embodiment of the present invention. In the illustrated example, the humidifier includes a water filtration unit 12, from which a pump 14 moves, typically draws, filtered water. At least one nozzle having an outlet orifice 18 is operably connected to the pump through a conduit 38, which is typically a rubber or other elastomeric tubing, but can also be a metal conduit or a combination of elastomeric and metal piping, and the pump 14 forces the filtered water through the nozzle(s) 16, thereby expelling the filtered water into an atmosphere in the form of a purified vapor or mist 20.

[0015] The illustrated humidifier in FIG. 1 is shown as part of a larger ventilation system or heating and air conditioning unit 22. One or more such ventilation systems are typically present in residential or commercial building structures. The humidifier may be directly associated with the ventilation system or remotely located and operably associated with such a ventilation system. The purified water vapor or mist may be injected into the air ducting 24 at any location along the airflow path of the ducting in the structure. The humidifier functions to affect humidity conditions within an atmosphere.

[0016] Referring to FIG. 2, a water filtration unit is illustrated. The water filtration unit includes one or more filters that are connected to a water source via plumbing conduits that are elastomeric and/or metal. The water source is typically a conventional plumbing system, where water is automatically provided, or the sourcing of water may be manual, such as where a user manually supplies water. In the typical plumbing system, water is introduced into the humidifier via at least one pipe that has removable engagement with the plumbing system and the humidifier. The water filtration unit purifies water by removing bacteria, viruses, cysts, metals, and other contaminants without the need for heat, ultraviolet light, chemicals, or electricity. Although any mentioned method to remove contaminants similar to that described herein may be employed, it is envisioned that a carbon nanotube material will be employed to absorb contaminants from the water. The filters may be positioned within the pipe that is connected to the water source or may be within one or more canisters 23 that typically have an inner carbon nanotube material that may be carbon nanotube fibers and/or an inner coating of carbon nanotube material. The carbon nanotube material is effective at absorbing contaminants larger than about 50 nanometers, resulting in purified water. One particularly preferred filter system is the WATER TAP water purification filter from Seldon Technologies, Inc. of Woodstock, Vt. The filtering system may contain nanomaterials and/or incorporate nanomesh for purifying liquids as described in U.S. Pat. Nos. 7,211,320 and 7,419,601 respectively, both of which are hereby incorporated by reference in their entireties. The purified water of the present invention typically has at least about 99.9999% of bacterial contaminants removed and at least about 99.99% of viral contaminants removed from NSF P231 General Test Water with low turbidity and low total organic carbon.

[0017] Pump 14 is operably connected with water filtration unit 12 and moves, typically draws, the purified water through water filtration unit 12, typically at a high pressure (>1000 psi). The pump may be driven by a pulley system 26 powered by a motor 28 and driven by belts 30, as shown in FIG. 3. The pump system typically also includes a pressure gauge 32. As an alternative to a pulley driven pump, a unitary motor and pump may be employed to force water at a high pressure. The pump is typically capable of pumping water at a rate of at least about 2.0 gallons per hour, more typically 0.54 gallons through the water filtration unit. This pumping rate may increase depending on the volume of space being humidified. The amount could be as high as from about 20 to about 100 gallons per hour if an entire hospital floor, for example, were being humidified. The rate can be adjusted based upon volume. Such a flow rate causes the water filtration unit to effectively remove contaminants. The water filtration unit typically has an outlet pressure gauge 34 and an inlet pressure gauge 36.

[0018] During operation of the pump, the filtered water that is drawn through the water filtration unit is forced through the nozzle having an outlet orifice. The nozzle 16 is operatively connected to the pump and water filtration unit via at least one conduit 38, which, as discussed above, is typically elastomeric tubing and/or metal piping that, allows water to flow therethrough even when the water is under pressure. The nozzle includes a polypropylene filter having a diameter of approximately seventy microns. The outlet orifice 18 of the nozzle has a diameter of typically approximately 0.015 inches or less. While passing through the nozzle, the filtered water is subjected to high pressure of approximately 3,000 psi or less or, more typically, about 1,000 psi or less. Water flows through the nozzle at a rate of between the range of at least 0.54 to 2.82 gallon per hour. The high pressure combined with the small outlet orifice diameter expels the filtered water into the atmosphere in atomized form. The particle size is typically small enough to dissipate or evaporate within about 10 seconds. Such pure vapor provides the ability to humidify a room, while preventing the introduction of contaminants into the atmosphere.

[0019] Referring to FIGS. 5 and 6, the present invention also includes a humidification system.

[0020] The system generally includes one or more humidistats 42 associated with one or more humidifier(s) 10 of the present invention. The humidistat(s) is (are) typically capable of measuring humidity levels in the atmosphere of a predefined area or areas. They are also typically capable of controlling the operation of the humidifier or providing data to a control unit 40 that can activate the humidifier and optionally various conduit valves to deliver purified humidifying air to one or more predefined spaces within a building.

[0021] A user may employ the humidistat(s) to control the humidity level of the atmosphere in a number of ways. A user may simply manually adjust the humidity level by interacting with a control interface, such as a digital readout with buttons or knobs to enter desired humidity levels. Additionally, the user may manually program the humidistat to automatically achieve various humidity levels at different ambient temperatures. As an alternative to local and direct manual control, the humidistat may be linked to a computer system that is accessible to the internet and capable of accessing code on a server via the internet or code stored within a memory subsystem of a computer containing a processor where the code is stored locally on the computer. The user can use the computer system to regulate the humidity level in one or a plurality of areas within a building structure. This would allow a user to remotely control the humidity level in the atmosphere or space that the humidifier is configured to control. Such control may be desirable in a large structure, particularly when more than one of the rooms' humidity level is being controlled by the humidifier. As shown in FIGS. 5 and 6 a plurality of nozzles 16 supply vapor directly to each individual room in a home 44 or, for example, a commercial building 46 such as an office or hospital (see general layout of FIG. 6). Additionally, so the nozzle is not viewable in a room, the nozzle might add the purified water vapor to the air ducting system proximate where the air enters the room or other predefined area. This is typically more preferred given its unobtrusive and unseen configuration to the individuals within the building or building space.

[0022] Referring to FIGS. 5 and 6, the humidifier may be employed in a residential home 44 or in a commercial building 46. By providing a plurality of humidistats or linking the humidifier control to a computer control system, various humidity levels in different rooms of a structure may be regulated, controlled, and achieved. This is particularly beneficial in buildings that may require different humidity levels in different rooms and/or automatically regulated humidity levels, such as a hospital. While a hospital requires different humidity levels in different areas, the prevention of contaminants in the atmosphere is also of particular importance. Such objectives are achieved by the present invention through the invention use of the carbon nanomaterials that produce highly pure and essentially bacterial and viral free water that is also free of other contaminants. Because of the highly pure nature of the water the orifice of the nozzle can be sized to create water vapor that easily evaporates into the air without water condensing on a surface within a room or air flow ducting or other conduit. When associated with the structure's ventilation system, as previously discussed, the ability to measure and control humidity levels in various portions of the structure is present and such humidity levels can be measured with one or more humidistats and automatically regulated through the use of a computer system.

[0023] It is to be understood that variations and modifications can be made on the aforementioned structure without departing from the concepts of the present invention, and further it is to be understood that such concepts are intended to be covered by the following claims unless these claims by their language expressly state otherwise.