A cleaning robot for lifting dust and with multi-directional suction ports comprises a cleaning robot main body, at least one dust lifting device and at least one dust suction port disposed at a bottom of the cleaning robot main body, and the dust suction port is disposed around the dust lifting device. During traveling process of the cleaning robot main body of the cleaning robot for lifting dust and with multi-directional suction ports provided by the present invention, dust deposited on a bottom of fluff of a carpet is lifted by the dust lifting device by pushing, beating or blowing, and then the lifted dust is sucked into a dust collecting box disposed in the cleaning robot main body by the dust suction port to achieve an object of effectively cleaning the carpet.

A cleaning robot for lifting dust and with multi-directional suction ports comprises a cleaning robot main body, at least one dust lifting device and at least one dust suction port disposed at a bottom of the cleaning robot main body, and the dust suction port is disposed around the dust lifting device. During traveling process of the cleaning robot main body of the cleaning robot for lifting dust and with multi-directional suction ports provided by the present invention, dust deposited on a bottom of fluff of a carpet is lifted by the dust lifting device by pushing, beating or blowing, and then the lifted dust is sucked into a dust collecting box disposed in the cleaning robot main body by the dust suction port to achieve an object of effectively cleaning the carpet.

A cleaning apparatus for use by hand and/or with a robotic device includes a nozzle that expels fluid, air or liquid, out of an open end of a housing of the cleaning apparatus. Simultaneously, a vacuum device is suctioning debris through the housing and into a vacuum port. The simultaneous use of suction and expelled fluid through a single apparatus generates turbulent airflow and effectively loosens and removes debris attached to surfaces without the need for the housing to contact the surfaces.

A cleaning apparatus for use by hand and/or with a robotic device includes a nozzle that expels fluid, air or liquid, out of an open end of a housing of the cleaning apparatus. Simultaneously, a vacuum device is suctioning debris through the housing and into a vacuum port. The simultaneous use of suction and expelled fluid through a single apparatus generates turbulent airflow and effectively loosens and removes debris attached to surfaces without the need for the housing to contact the surfaces.

An example of a robotic cleaner, consistent with the present disclosure, may include a body, an agitator chamber defined in the body, a suction motor fluidly coupled to the agitator chamber and configured to cause air to flow into the agitator chamber, and at least one air jet assembly coupled to the body, the air jet assembly being configured to generate an air jet, the air jet being configured to urge debris toward the agitator chamber.

An example of a robotic cleaner, consistent with the present disclosure, may include a body, an agitator chamber defined in the body, a suction motor fluidly coupled to the agitator chamber and configured to cause air to flow into the agitator chamber, and at least one air jet assembly coupled to the body, the air jet assembly being configured to generate an air jet, the air jet being configured to urge debris toward the agitator chamber.

In all vacuum cleaners, the head of the vacuum is the source of particle removal. With this mechanism, the min vacuum pressure can be reached at zero atmosphere, and it takes the particles from the floor and guide them through the vacuum line. The generation of a zero-atmosphere pressure requires a high speed and high current AC/DC motor air turbine, which creates lots of noise and consumes high amounts of energy.

The new idea in this patent proposes an injection of pressurized air inside of the vacuum cleaner head chamber to lift up the particles easily and guide them towards the vacuum line. This mechanism, which does not present any limitations of high-pressure generation, will provide higher electrical efficiency, lower noise production, and much cleaner performance.

The improved vacuum cleaner is a recirculating type vacuum cleaner with a suction mechanism, air retrieving passageway, and dirt collecting member, that has an detachable nozzle formed as an elongated hollow hose that is attached between the exhaust port on the surface of the vacuum body and an inlet on the vacuum head. The nozzle is adapted to push air downward onto the surface to be vacuumed to dislodge dirt and particles in the surface where the air and dirt into air retrieving opening on the vacuum head.

The improved vacuum cleaner is a recirculating type vacuum cleaner with a suction mechanism, air retrieving passageway, and dirt collecting member, that has an detachable nozzle formed as an elongated hollow hose that is attached between the exhaust port on the surface of the vacuum body and an inlet on the vacuum head. The nozzle is adapted to push air downward onto the surface to be vacuumed to dislodge dirt and particles in the surface where the air and dirt into air retrieving opening on the vacuum head.

An articulating blower nozzle that maintains directional orientation of a high velocity air flow while the blower is being swung by an operator. The dynamic nozzle blows the debris to a specific point while the blower is swung from side to side, thereby collecting the debris is a specific area without the operator having to constantly reorient their body to complete the work.