Abstract:
A system and method for dispensing a treatment fluid is provided. The system includes a surface maintenance machine, a fluid reservoir, an air blower, and one or more fluid dispensing systems. The one or more fluid dispensing systems each include one or more nozzles in fluid communication with the air blower. The air blower generates an air pressure and dispenses air through the one or more nozzles while the treatment fluid is dispensed through the one or nozzles. The dispensing of air and treatment fluid dispenses the treatment fluid in a mist, fog, or spray to a surface. A method for dispensing a treatment fluid is also provided. The method includes generating an electrically charged treatment fluid and dispensing the electrically charged treatment fluid from the one or more nozzles to a surface.
Abstract:
A surface maintenance machine comprises a surface maintenance head assembly with attached surface maintenance tool for collecting debris/fluid using a fluid delivery/recovery system. Embodiments include an outlet nozzle configured to dispense cleaning fluid exiting the outlet nozzle on the surface maintenance tool. The outlet nozzle is fluidly connected to a cleaning fluid source which can vary the intensity of cleaning fluid exiting the outlet nozzle such that different intensities of the cleaning fluid correspond to the cleaning fluid being dispensed on different areas of the surface maintenance tool. Embodiments also include a second outlet nozzle, located opposite the first, which is configured to dispense cleaning fluid exiting the outlet nozzle on the surface maintenance tool. Further embodiments include a pump which can vary the intensity of cleaning fluid exiting the outlet nozzle in a cyclical manner and suspend the cleaning fluid from exiting the outlet nozzle.
Abstract:
A surface maintenance machine is provided having a maintenance head assembly positioned substantially within an envelope of the machine. The maintenance head assembly has at least one maintenance tool attachable thereto. The machine also includes a tool eject mechanism positioned below an upper surface of the body. The tool eject mechanism can generate a drop force sufficient to overcome the force between the maintenance tool and the maintenance head assembly. The tool eject mechanism can have an eject button extending above the upper surface of the deck. The eject button can be actuable by at least a portion of the upper surface of the body of the machine when the maintenance head assembly is raised toward the upper surface of the body of the machine beyond a transport position into a tool eject position. When actuated, the tool eject mechanism can eject the maintenance tool from the maintenance head assembly.
Abstract:
An automatic and dynamic maintenance scheduling system for surface cleaning machines. Based on the receipt or lack of receipt of machine usage data from the machine, the system will adjust or maintain scheduled service call dates.
Abstract:
A cleaning solution generator (40) comprising a housing (42) with an interior reservoir (60) and a brine tank (102), the cleaning solution generator (40) being configured to generate an alkaline solution from a mixed solution and to operably direct the generated alkaline solution to the interior reservoir (60) of the housing (42).
Abstract:
An impeller assembly and method of providing a plurality of radially-aligned aerodynamic channels including a rim plate defining a plurality of blades and the backplate defining a blade interlock structure for aligning and coupling the plates together. The rim plate defines a plurality of fluid-engaging blades with the aerodynamic channels being defined between adjacent pairs of the blades. The interlock structure includes a plurality of tine-shaped interlocks extending from the backplate. Each blade of the impeller may engage the interlock structure in a saddle manner. The backplate is defined by areas of reduced thickness allowing outer portions of the backplate to flex (rotate) toward further contact with the rim plate. The impeller assembly is provided with a plurality of aerodynamic channels defined by complex curved surfaces of the back plate and the rim plate to improve efficiency.
Abstract:
Device for dispensing a fragant, electrochemically-activated liquid, the devide comprising: an electrolysis cell configured to electrochemically activate the liquid and to diffuse one or more fragant compounds into the liquid to provide the fragant, electrochemically-activated liquid; a switch configured to be actuated between a first state and a second state, wherein the switch energizes the electrolysis cell in the first state and de-energizes the electrolysis cell in the second state; and a dispenser located downstream from the electrolysis cell and configured to dispense the fragant, electrochemically-activated liquid, whereby the electrolysis cell further comprises an ion exchange membrane disposed within the cell housing between the anode electrode and the cathode electrode.
Abstract:
An apparatus (10, 50, 80, 300, 500, 1200, 1300, 1400, 1500,1700, 1810) and method are provided. The method includes for example, treating a liquid in an apparatus to increase suspension properties of the liquid and dispensing the treated liquid (250, 302, 306, 308, 1414, 1504, 1917) from the apparatus to a surface or volume of space (252, 304, 1506) so as to create an electrically conductive path by the treated liquid from the apparatus to the surface or volume of space. During the step of dispensing, an alternating electric field (E) is generated from the apparatus to the surface or volume of space, through the liquid along the conductive path, wherein the electric field is sufficient to destroy at least one microorganism (256) from the surface or in the volume of space.
Abstract:
A method and apparatus (10, 400, 500, 500', 700, 800, 980) are provided for passing water through an electrolysis cell (18, 50, 80, 406, 552, 708, 804) having an anode and a cathode (60, 62, 84, 86, 100, 104, 108, 204, 206) separated by an ion selective membrane (58, 208). The cathode has a larger surface area than the anode. The method includes: applying an energization voltage at a first polarity (300) to the anode and the cathode (60, 62, 84, 86, 100, 104, 108, 204, 206) to produce an anolyte liquid and a catholyte liquid (70, 72, 76); temporarily reversing the energization voltage to a second polarity for a short time duration (302) to reduce deposits on at least one of the anode or cathode (60, 62, 84, 86, 100, 104, 108, 204, 206) and then returning the energization voltage to the first polarity (300); and dispensing a substantially constant supply of the anolyte liquid from the anode chamber (54) and the catholyte liquid from the cathode chamber (56) during the applying and reversing steps, the supply of catholyte being greater than the supply of anolyte per unit of time.
Abstract:
An impeller assembly including a pair of plates with one of the plates having a plurality of blades and an interlock structure for aligning and coupling the plates together. A disclosed example of the interlock structure includes a plurality of latch members extending from one plate and locking into apertures of the other plate. The interlock structure may also include a plurality of channels engaging the blades. The blades of the impeller may engage a pair of latch members in a saddle manner. A method of using the impeller assembly within an air blower is also disclosed.