3687results about "Mechanical cleaning" patented technology

In a brush assembly of a cleaner including plural brushes arranged at the bottom surface of a cleaner body radially at regular intervals; plural supporting shafts for rotatively supporting the brushes; and a driving unit connected to the brushes in order to rotate the brushes, by arranging the plural brushes radially, dust and filth can be collected in a wider region, and accordingly a cleaning performance can be improved. In addition, by forming the brushes as a curved shape, it is possible to compact a size of the cleaner.

A robot cleaning system and a dust removing method of the same that are capable of moving a first dust collector mounted in a robot cleaner to a docking station to remove dust collected in the first dust collector. The robot cleaning system includes a robot cleaner having an opening, though which a first dust collector to collect suctioned dust is carried in and out of the robot cleaner, a docking station, to which the robot cleaner is docked to remove the dust collected in the first dust collector, and a collector moving unit to move the first dust collector to the docking station.

In a self-traveling cleaner of the present invention, a cleaning mechanism includes a brush mechanism rotatable along a floor surface and a driving mechanism for rotatingly driving the brush mechanism. The brush mechanism includes a rotation axis extending perpendicular to the floor surface, one arm projecting laterally from a lower end of the rotation axis, and a brush planted on the arm. The rotation axis is provided within a reverse side of the main body, and the arm has a rotation angle range in which the arm projects outwardly from an outer periphery of the main body and a rotation angle range in which the arm is contained within the outer periphery of the main body.

A remote control sweeper includes a wireless remote control receiver installed at the sweeper; a remote control for transmitting a direction control signal to the remote control receiver via a wireless transmission to control the moving direction of the sweeper, such that the sweeper can be moved to automatically clean up the dirt and collect the dust on a floor.

A brush roll is rotatably supported by bearings in a housing of a cleaning brush tool. One of the bearings is incorporated in a removable bearing arrangement that can be rotationally fastened and removed as needed on a cylindrical end of the housing. Preferably collar elements protruding cylindrically from the removable bearing arrangement form bayonet-type catch hooks that selectively engage with bayonet-type catch elements protruding radially outwardly from the cylindrical end sleeve of the housing. A detent on the housing engages a securing element on the removable bearing arrangement to secure the engaged bayonet-type fastening arrangement against rotational release thereof.

A robot cleaning system and a dust removing method of the same that are capable of moving a first dust collector mounted in a robot cleaner to a docking station to remove dust collected in the first dust collector. The robot cleaning system includes a robot cleaner having an opening, though which a first dust collector to collect suctioned dust is carried in and out of the robot cleaner, a docking station, to which the robot cleaner is docked to remove the dust collected in the first dust collector, and a collector moving unit to move the first dust collector to the docking station.

A surface cleaning apparatus has a cleaning unit that is mounted on a wheeled base.

The invention relates to a device for keeping optical elements (1) clean in motor vehicles, in particular sensor or camera covers. This is done according to the present invention by applying a directed stream of gas, in particular a stream of air (4), to the transparent cover (2) in such a way that when the cover moves (6) relative to the surroundings no ambient atmosphere (10), in particular no ambient air, reaches the surface (20) of the cover. According to one embodiment, using a nozzle (3) pressurized air (4) is blown in, producing a transverse air stream (9). It is also possible, using a cover, to form a buffer space in front of the cover in addition to the transverse air stream. In a further refinement, a cleaning nozzle and a heater for the cover can be provided, in order to also be able to perform cleaning when soiling has occurred during stationary operation and to remove icing at low temperatures. To this end the cleaning fluid and / or the supplied air may also be pre-heated.

A robot cleaner and a method for controlling the same are disclosed. The robot cleaner includes a body provided with a suction portion and a slope formed to be inclined at a lower end thereof, an auxiliary front wheel disposed at a rear side of the slope, a main wheel disposed at a rear side of the auxiliary front wheel and arranged such that a height of the main wheel is variable with respect to the body, and a driving unit to lower or raise the main wheel with respect to the body, wherein the driving unit lowers the main wheel when the auxiliary front wheel enters a stepped portion. The robot cleaner is capable of climbing up a higher stepped portion than in conventional cases.

The invention discloses a special automatic dust collecting cloth rolling machine for cloth processing. The special automatic dust collecting cloth rolling machine for cloth processing comprises a rack, wherein an unreeling roller and a reeling roller are separately mounted on the left and right outer walls of the rack; two partition plates successively partition the inner cavity of the rack intoa dust collecting chamber, a steam drying chamber and a wrinkle-removing chamber; a dust collecting box is mounted on the top of the dust collecting chamber; and a steam drier is arranged on the steamdrying chamber. The special automatic dust collecting cloth rolling machine for cloth processing provided by the invention is simple to operate. Arc-shaped rubber brushing hairs are arranged on the outer walls of two dust collecting wheels, and the rotating directions of the two dust collecting wheels are opposite to the cloth forwarding direction, so that dust and cloth chips on the outer wall of the cloth can be eliminated effectively. Steam drying holes are formed in the surface of the steam drying roller, so that the cloth is dried, deodorized, enhanced in aroma, dry-washed and sterilizedconveniently, the storage period of the cloth without dust is improved effectively, the steam dried cloth is ironed by means of an electric heating plate, wrinkles on the surface of the cloth are eliminated conveniently, and the levelness of the cloth is improved effectively.

A domestic appliance such as a cyclonic vacuum cleaner includes a component such as separating apparatus, carried by a chassis. A catch is provided and is operable to release the component from the chassis. The component and the chassis are able to move slightly with respect to each other. When the appliance is lifted, lugs on the separating apparatus move into slots on the chassis so as to inhibit release of the catch when the appliance is lifted. Thus, accidental release of the separating apparatus from the chassis is avoided.

A cleaning implement for cleaning a soft or a hard surface comprises a handle, a sweeper head, rotating blades and a collection bin. The bottom wall of the collection bin includes an opening that is covered by a cleaning sheet during the cleaning operation. The height of this bottom wall relative to the surface being cleaned is adjustable by a user. The cleaning implement can be used with a disposable cleaning sheet, which includes protrusions that are capable of removing entangled hair from a carpet surface.

This patent discloses a cleaning system for shopping carts. The cleaning system may include a prewash station, a wash station, a rinse station, a drying station, a physical disinfecting station, a conveyor, and a recovery tank. The wash station may include brushes. The drying station may include a fan configured to blow a thin sheet of air downward and onto the shopping cart. The physical disinfecting station may include an ultraviolet light generator. The conveyor may include a track system having hooks attached to chains that are configured to be moved by a conveyor motor. A frame may surround and support the stations. The cleaning system additionally may include a water recovery / supply system and an external spray wash hose attached to a reservoir to pre-prewash the shopping carts.

A system for controlling silica dust generated during the transfer of frac sand from a storage container through a conveyor system includes a system of conduits having a plurality of inlets for collecting silica dust generated at selected points along the conveyor system. An air system pneumatically coupled to the system of conduits generates a negative pressure at each of the inlets to induce the collection of silica dust at the selected points along the conveyor.

A soft-surface remediation (SSR) device and method of remediating soft surfaces using preferably forced air is disclosed. The device is lightweight, and easy-to-use and preferably includes an outer housing with an optional corner pickup region and a removable cover, an inner housing, a motor housing for housing a fan assembly, an optional disposal catch mechanism, an optional mounted delivery device, a first air channel with an air outlet, a second air channel with an air inlet, and a return air channel in close proximity to the disposal mechanism. The method of performing soft-surface remediation preferably includes use of this SSR device.

The invention relates to a device for splinting and / or maintaining a cavity, an organ duct and or a vessel in a human or animal body, said device including at least one compressible and self-expanding stent that is composed of at least three phases.

A vacuum container mounted on an inclined slope and having a liquid water storage container mounted beneath the incline of the vacuum container. The water storage container may support the vacuum container. The slope may be of sufficient angle to allow debris to be emptied from the vacuum container by gravity when the access door is opened. A filter housing may be mounted to and supported by the vacuum container. By flush mounting the clean out end of the filter housing with the clean out end of the vacuum container, a single access clean out door may be used to access both simultaneously. This compact design provides efficient interaction and plumbing between the water tank, vacuum tank and filter housing as well as concentrating weight and reducing floor space.

An automatic cart wash apparatus. The automatic cart wash apparatus provides improved cleaning of stock carts on a regular basis over manual cleaning by store employees. The automatic cart wash apparatus includes three main stages: a debris removal (vacuum) stage, a cleaning (wash, sanitize, rinse) stage, and a drying stage. The debris removal stage uses forced air and / or suction to remove solid and generally non-soluble waste, such as a paper or other trash and debris, from a stock cart. The cleaning stage uses a selection of detergents, sanitizing agents, and rinse agents to remove soluble or sticky waste, such as food and liquids, and to kill germs, viruses, and bacteria present on the cart. The drying stage removes excess liquids from the cart making it ready for use by the next customer.

An upright surface treating appliance includes a main body having a user operable handle, a surface treating head connected to a yoke moveable relative to the main body, a stand moveable relative to both the main body and the yoke between a supporting position for supporting the main body in an upright position, and a retracted position, and a stand retaining mechanism for releasably retaining the stand in the supporting position and from which the stand is releasable upon application of a force to one of the main body and the stand. The yoke is moveable relative to the main body in response to an impact on the surface treating head to apply said force to the stand. This allows the force of the impact on the surface treating head to be transferred through the stand to the stand retaining mechanism, which, depending on the magnitude of the impact, can release both the stand and the yoke for movement relative to the main body. This avoids the need to provide separate releasing mechanisms for both the yoke and the stand.