Abstract: A self-adhering cleaning block is disclosed. In some embodiments, the self-adhering cleaning block includes a first surface, a second surface opposite the first surface, and a handle extending out from a part of the second surface, where the material composition of the block may be essentially uniform, and where the material composition of the block may further comprise a non-ionic surfactant and a liquid component. In addition, a cleaning article including a self-adhering cleaning block is disclosed. Moreover, a method is disclosed. In certain examples the method comprises mixing a non-ionic surfactant and a liquid component to form an essentially uniform cleaning composition, and then extruding, pressing or casting the cleaning composition to form a cleaning block having a first surface, a second surface opposite the first surface, and a handle extending out from a part of the second surface.

Abstract: An infusion pump operable with a syringe having a syringe barrel and a syringe plunger includes a housing having a compartment to receive the syringe and defining a wall, and a syringe clamp moveable towards and away from the wall, the syringe clamp contacting the syringe barrel; a drive mechanism supported and structured and arranged to contact and end of the syringe plunger so as to be able to move the syringe plunger within the syringe barrel; a syringe barrel size sensor including a magnet operably coupled to the syringe clamp, and a sensing member supported by the housing and configured to generate an output indicative of a magnetic field associated with the magnet; and software installed on the pump and programmed to use the output to determine a size of the syringe barrel received by the compartment.

Abstract: A steam generating device has a handle and a nozzle or pad attached to the handle for treating a surface. The handle includes a heat exchanger, a water reservoir, a fluid conduit in fluid communication with the water reservoir and heat exchanger, and a fluid delivery system for moving water from the water reservoir, through the fluid conduit, and into the heat exchanger. A fuel powered heater is positioned on a side of the wall of the heat exchanger opposite the interior space of the heat exchanger. A first section of the wall of the heat exchanger transfers heat from the heater to water located in the heat exchanger for generating steam from the water located in the heat exchanger. A second section of the wall of the heat exchanger includes an opening that allows steam to exit the heat exchanger and handle and flow through the nozzle or pad.

Abstract: An infusion pump includes a housing having a compartment structured to receive a syringe and a drive mechanism supported by the housing. The drive mechanism is structured and arranged to contact a syringe plunger of the syringe and move the syringe plunger within a syringe barrel of the syringe. The infusion pump further includes a syringe plunger position sensor and a syringe barrel size sensor. The sensors each include a magnet positioned on the drive mechanism and a magnetic sensor array supported by the housing.

Abstract: A fluid delivery system for dispensing fluid can include a dispenser (10), such as a trigger engine-type dispenser, configured to draw fluid up from a container to dispense a foam-like spray. The dispenser (10) can be configured to draw fluid up from a container. A dispenser body can be configured to mount the dispenser to the container. The dispenser can include a nozzle (N) having an orifice (230), and a mesh (M) material can be placed on the nozzle (N) over the orifice (230). The mesh (M) material can be formed of a polymeric material in one example, and in another example, the mesh material can be formed of a stainless steel material. A method of assembling a dispenser configured to draw fluid up from a container is also disclosed, which can include providing a dispenser body configured to mount the dispenser to the container, securing a nozzle having an orifice to the dispenser body, and securing a mesh material to the nozzle.

Abstract: A spray nozzle assembly includes a rotating spray nozzle and a cap for attachment to a squeeze bottle. The spray nozzle includes at least one exit orifice and at least three sidewall portions. The cap includes an indicator on an upper surface.

Abstract: A fluid delivery system for dispensing fluid can include a dispenser, such as a trigger engine-type dispenser (100), configured to draw fluid up from a container. A nozzle assembly can include a nozzle (160), and a nozzle slide (112). The nozzle slide can be configured to slide and/or rotate relative to the shroud (102) to provide different dispensing modes. In alternative examples, the nozzle (160) can be configured to rotate in 30 degree increments relative to the shroud (102) to provide the different dispensing modes or the nozzle assembly can include a nozzle extension, and the nozzle extension can be configured to rotate relative to the shroud to provide different dispensing patterns out of the nozzle. In another example a first nozzle can be configured to provide one or more dispensing modes, and a second nozzle can be configured to provide a different dispensing mode than the first nozzle. Methods of dispensing fluids and methods of assembling fluid dispensers are also disclosed.

Abstract: A sprayer system includes a trigger sprayer having a trigger, a pump mechanism, and a nozzle. The sprayer system further includes a solvent reservoir for accommodating a solvent substance and a bottle for accommodating a concentrate substance. Further, the solvent reservoir is positioned above the trigger sprayer and is in fluid communication with the trigger sprayer and the bottle is positioned below the trigger sprayer and is in fluid communication with the trigger sprayer.

Abstract: A method of delivering a medical fluid to a patient includes enabling the attachment of an infusion pump housing to an external support, enabling the viewing of information right-side-up on a display screen of the infusion pump housing, enabling the rotation of the display screen approximately 90 degrees about an axis extending perpendicularly from the display screen, automatically reorienting the information on the display screen so that the information remains right-side-up after rotation, enabling the viewing of the information right-side-up on the display screen after rotation, and enabling the delivery of a flowable material to the patient through an infusion line attached to the infusion pump housing before and after rotation.

Abstract: An infusion pump including a drive mechanism; an assembly operable with the drive mechanism, the assembly configured to deliver a flowable material to a patient; a mountable housing holding the drive mechanism and configured at its front side to receive the assembly and at its backside to mount in either a first orientation or a second orientation to an external support, wherein the housing supports the drive mechanism and the assembly in each of the orientations; a controller operably connected to the housing; and a display operably connected to the controller and supported by the front side of the housing, the display configured to be rotatably responsive so that information displayed by the display is oriented right-side-up regardless of whether the assembly is in the first orientation or the second orientation.

Abstract: An infusion pump includes a housing having a compartment structured to receive a syringe and a drive mechanism supported by the housing. The drive mechanism is structured and arranged to contact a syringe plunger of the syringe and move the syringe plunger within a syringe barrel of the syringe. The infusion pump further includes a syringe plunger position sensor and a syringe barrel size sensor. The sensors each include a magnet positioned on the drive mechanism and a magnetic sensor array supported by the housing.

Abstract: An infusion pump includes a housing; a user interface carried by the housing; a pump actuator positioned by the housing so as to be able to actuate a medical fluid pump member; and wherein the user interface and the pump actuator are powered interchangeably by a first, rechargeable battery unit and a second battery unit, both the first and second battery units configured to power the user interface and the pump actuator at a place for which outside power is unavailable, and such that the user interface and the pump actuator can be powered by the second battery unit while the first battery unit is being recharged.

Abstract: A steam generating device has a handle and a nozzle or pad attached to the handle for treating a surface. The handle includes a heat exchanger, a water reservoir, a fluid conduit in fluid communication with the water reservoir and heat exchanger, and a fluid delivery system for moving water from the water reservoir, through the fluid conduit, and into the heat exchanger. A fuel powered heater is positioned on a side of the wall of the heat exchanger opposite the interior space of the heat exchanger. A first section of the wall of the heat exchanger transfers heat from the heater to water located in the heat exchanger for generating steam from the water located in the heat exchanger. A second section of the wall of the heat exchanger includes an opening that allows steam to exit the heat exchanger and handle and flow through the nozzle or pad.

Abstract: An infusion pump uses an improved shuttle mechanism to more reliably pump liquids in low volumes for medical and other purposes. The improved shuttle uses linear translation and wider, symmetric jaws to grasp infusate tubing and pump liquid infusate through the tubing. Adjustment of the linear motion allows a user to also adjust a pumping volume of the infusion pump. Other shuttles with wider jaws may also pump infusate using a rotary motion. In addition, more than one shuttle, such as two or three shuttles, may be used to approximate continuous pumping. A series of several smaller linear shuttles with sequential actuation may be used as a linear peristaltic pump for general peristaltic pump applications.

Abstract: A fluid dispensing device is provided that is capable of discharging fluid in multiple different directions simultaneously. The device may include a deflector which redirects an initial stream of fluid from the container into multiple sub-streams that are oriented in different directions. The device may create a spray pattern that substantially covers an entire 360 degree area surrounding the device, which may be advantageous for certain applications such as toilet bowl cleaner dispensers. A control valve or flow restrictor may be provided for preventing unintended discharge of fluid when the container is inverted.

Abstract: Rapid attach and release clamps for attaching to supports include a threaded rod, an arm pivotally attached to the threaded rod, and a knob having an exterior surface and an interior surface. The knob defines a passageway sized to fit the threaded rod. A lock comprises at least one thread and is rotatably attached to the interior surface of the knob. The lock is constructed and arranged to move between a closed position with the thread entering the passageway and engaging the threaded rod and an open position with the thread not entering the passageway. A lever is moveably attached to the clamp and constructed and arranged to rotate the lock about a pivot point.

Abstract: An infusion pump including a pump actuator; a fluid assembly operable with the pump actuator, the fluid assembly including an outlet line; a housing configured at its front side to receive the fluid assembly and at its backside to mount in either a first orientation or a second orientation to an external support, wherein the housing supports the pump actuator and the fluid assembly in each of the orientations, and wherein the outlet line extends from a surface of the housing; a controller operably connected to the housing; and a display operably connected to the controller and supported by the front side of the housing, the display configured to be rotatable responsive so that information displayed by the display is oriented right-side-up regardless of whether the surface from which the output extends is in the first orientation or the second orientation.

Abstract: An infusion pump uses an improved shuttle mechanism to more reliably pump liquids in low volumes for medical and other purposes. The improved shuttle uses linear translation and wider, symmetric jaws to grasp infusate tubing and pump liquid infusate through the tubing. Adjustment of the linear motion allows a user to also adjust a pumping volume of the infusion pump. Other shuttles with wider jaws may also pump infusate using a rotary motion. In addition, more than one shuttle, such as two or three shuttles, may be used to approximate continuous pumping. A series of several smaller linear shuttles with sequential actuation may be used as a linear peristaltic pump for general peristaltic pump applications.