A stick surface cleaning apparatus has a cyclone unit provided in the wand.

A dust collector in one aspect of the present invention comprises a dust collection portion, a communication portion, and an interlock operation control portion. When the communication portion receives an interlock command transmitted from an electric working machine, the interlock operation control portion makes the dust collection portion operate interlocking with the electric working machine. The interlock operation control portion includes a storage portion, in which identification information specific to the electric working machine with which the dust collection portion is to be made to perform the interlock operation is stored.

A vacuum cleaner includes an odor neutralizer and dust plume abatement system. The odor neutralizer and dust plume abatement system delivers a mist to a working air path of the vacuum cleaner, such as at or upstream of a working air treatment assembly defining a portion of the working air path.

The invention refers to a vacuum cleaner (10) comprising a housing (15) with first components arranged therein which interoperate with one another in order to realize a first air flow (42) for a vacuum cleaning functionality. The first components comprise a first electric motor (40) and a first turbine (38) actuated by the first electric motor (40) in order to create the first air flow (42) and a low-pressure in a dust collecting chamber (22) of the vacuum cleaner (10) provided with an inlet opening (24) in order to suck in dust and small particles into the dust collecting chamber (22). The vacuum cleaner (10) further comprises second components separate from the first components and the second components interoperate with one another in order to realize a second air flow (100) for a purifying functionality of dust-laden air surrounding the vacuum cleaner (10). The second components comprise a second electric motor (96), a second turbine (98) actuated by the second electric motor (96) in order to create the second air flow (100), and at least one air filter element (104) through which the second air flow (100) is drawn in order to filter out most of the dust contained in the dust-laden air of the second air flow (100).

A motor driving apparatus for a cleaner includes a DC terminal capacitor, an inverter including switching elements configured to convert the DC power into AC power, a motor configured to operate the inverter, an impeller connected to the motor and configured to circulate air, and a printed circuit board having a first surface that mounts the switching elements and faces toward the motor and the impeller, and a second surface that mounts the DC terminal capacitor. The printed circuit board includes circuit elements mounted on a first area of the first surface and configured to carry a current having a level greater than or equal to a predetermined level. The first area is positioned in a flow path of the air circulated by the impeller.

An interlocking adapter in one aspect of the present disclosure includes a current path, an electric load, a switch, and a controller. The controller turns on and off the switch in synchronization with a change of an alternating-current voltage received from an electric outlet of an electric apparatus in response to reception of an interlocking command signal from a working machine so as to supply a load current from the electric outlet to the electric load. The controller turns on and off the switch at a specified ratio of a time every cycle of the alternating-current voltage.

A vacuum cleaner includes an odor neutralizer and dust plume abatement system. The odor neutralizer and dust plume abatement system delivers a mist to a working air path of the vacuum cleaner, such as at or upstream of a working air treatment assembly defining a portion of the working air path.

Vacuum cleaners to be mounted in a vehicle are disclosed. Some of the vacuum cleaners have a modular design that allows the vacuum cleaners to be arranged, assembled, and/or installed in different configurations and to fit in different spaces within the vehicle. Vacuum cleaners may include a vacuum module, a collector module, and/or a hose storage module. An interconnecting duct is configured to operatively couple the vacuum module and the collector module in any one of a plurality of different predefined assembly configurations. The collector module may have a debris canister that may be lifted straight out of a collector housing. The vacuum cleaner may be installed in a vehicle in a manner to allow easy removal of the debris canister without disconnecting and/or removing other portions of the vacuum cleaner.

In a vacuum cleaner electric blower is driven by power supplied by a secondary battery. A dust-collector is configured to catch and collect dust and dirt sucked by driving the electric blower. A detector is configured to detect a remaining amount of the secondary battery. A controller is configured to control suction force of the electric blower. In the case cleaning is finished when the remaining amount of the secondary battery detected by the detector is equal to or less than a predetermined value, the controller sets the parameter to reduce the suction force of the electric blower for the next cleaning. In the case cleaning is finished when the remaining amount of the secondary battery detected by the detector is not equal to or less than the predetermined value, the controller sets the parameter to increase the suction force of the electric blower for the next cleaning.

Vacuum cleaners to be mounted in a vehicle are disclosed. Some vacuum cleaners include a collector module configured to collect debris and a motor/impeller unit connected to the collector module. The collector module includes an air inlet and an air exhaust opening, and the motor/impeller unit is configured to draw air through the collector module from the air inlet to the exhaust opening. A hose storage module is connected to the air inlet, and a vacuum hose is stored inside the hose storage module.