Abstract:
A hand vacuum cleaner has a cyclone having a cyclone axis of rotation that extends between the front and rear ends of the cyclone. A main body houses a suction motor. The suction motor is positioned at a lower end of the main body and forward of a battery pack provided at a lower end of a pistol grip handle.
Abstract:
A surface cleaning device includes a body, a suction opening, a suction source, and a separation chamber. The body has a handle and a receptacle. The suction source is at least partially located within the body. The suction source is in fluid communication with the suction opening and is operable to draw a fluid mixture of liquid and air through the suction opening. Liquid is separated from the fluid mixture in the separation chamber. The separation chamber is coupled to the body for rotation relative to the receptacle about a rotational axis. The separation chamber includes an inlet in fluid communication with the suction opening, an outlet in fluid communication with the suction source, and a drainage outlet in fluid communication with the receptacle.
Abstract:
A liquid vacuuming device for drawing off and vacuuming up liquids may include a housing (1), an extractor device formed by at least one extracting lip (7) for extracting and collecting the liquid in front of at least one vacuum mouth (5), a vacuuming device that features a motor-driven vacuum subassembly and is able to vacuum an air/liquid flow mixed with the liquid to be vacuumed up along a flow pathway from the vacuum mouth (5) through an intake channel (4) into the housing (1), a separating device (13) for separating the liquid from the air and a tank for receiving the separated liquid. The device may further include an on/off function that turns on the motorized drive or increases the motor power when pressure is exerted upon the extracting lip (7) and turns off the motorized drive or reduces the motor power when the pressure decreases. Similar functionality may be implemented by an orientation switch.
Abstract:
A surface cleaning apparatus with mist spray or water spray arrangement, characterized in that, the apparatus comprises: a mist spray or liquid spray arrangement for spraying cleaning solution in liquid or mist form onto a surface of an object for cleaning; a suction mouthpiece arranged for removing the cleaning solution and environmental air from the surface of the object for cleaning in a timely manner; a first tank unit having a tank cavity for receiving the cleaning solution; and a suction unit for generating a negative pressure for providing a suction force such that the cleaning solution is guided into the tank unit while the environmental air is discharged. The apparatus of the present invention has both suction function for cleaning and mist spray or water spray function at the same time, additional separate mist spray or water spray device is not required and operational convenience is provided.
Abstract:
The invention relates to a vacuum suction and cleaning apparatus comprising a nozzle (38), ventilation means (40), a clean water tank (20), an air-water separator (50), a recovery tank (4) for soiled liquid and/or dirt, a handle (5) for manipulation with one hand, a heating means (19) using a ceramic for electrical and thermal insulation.It is wherein the separator (50) comprises a brush (2) driven in rotation, that prolongs the ventilation means (40), rotating with a turbine (11) or nozzle (51) serving as support, and that the apparatus (100) comprises an air evacuation hose (6) incorporated in the handle (5) prolonging a by-pass, and that the recovery tank (4) is located under the separator (50).
Abstract:
A glass surface cleaning machine includes a supporting frame which has a fluid receiving chamber provided therein and includes a supporting arm frontwardly extended therefrom, a wiper blade transversely mounted on a front edge of the supporting arm of the supporting frame for wiping on a glass surface, and a vacuum device supported by the supporting frame. The vacuum device includes at least a fluid suction nozzle supported underneath the wiper blade and in communication with the fluid receiving chamber and an impeller to create a low pressure within the fluid receiving chamber with respect to the atmosphere pressure so as to create a sucking effect for removing fluid from the glass surface through the fluid suction nozzle and directing the fluid to deposit in the fluid receiving chamber.
Abstract:
An automate glass surface cleaning machine includes a supporting frame which has a fluid receiving chamber provided therein and includes a supporting arm frontwardly extended therefrom, a wiper blade transversely mounted on a front edge of the supporting arm of the supporting frame for wiping on a glass surface, and a vacuum device supported by the supporting frame. The vacuum device includes at least a fluid suction nozzle supported underneath the wiper blade and in communication with the fluid receiving chamber and a motor powers an impeller to create a low pressure on one side of the impeller and a high pressure on the other side thereof so as to create a sucking effect for removing fluid from the glass surface through the fluid suction nozzle and directing the fluid to deposit in the fluid receiving chamber.
Abstract:
A method for cleaning a mirrored glass. The method includes affixing a pad to a portable, power tool; applying a composition containing an abrasive to the pad; applying the pad to the mirrored glass surface; operating the tool in a rotary motion at high speed until the mirrored glass surface is clean; and removing any excess composition from the mirrored glass surface. A composition for use in cleaning mineral deposits off mirrored glass surfaces and includes a non-toxic, biodegradable solution having a pH less than 7.0 in combination with an abrasive selected from the group consisting of ground pumice stone, calcium carbonate, aluminum oxide, and diatomaceous earth. A preferred acid composition has a pH of about 4.0, and contains an abrasive with a particle size between about 3 to about 5 microns.
Abstract:
An ice and snow clearing device includes a brush, a heating element, a scraper and means for electrically powering the heating element. The sweeping member brushes snow or ice from the surface that is to be cleared. The scraper is connected to the rear of the brush to remove snow or ice remaining in the path of the brush. The heating element softens snow or ice remaining on the surface after operation of the brush to facilitate removal by the scraper.