An aircraft windshield wiper system includes a wiper arm, a wiper blade coupled to a first end of the wiper arm, and an output shaft coupled to a second end of the wiper arm. The wiper blade includes a fluid dispensing system including nozzles, a fluid control unit, fluid lines, fluid source, and a user interface. The wiper blade with the fluid dispensing system is configured to dispense a variety of fluids directly from the wiper blade onto the windshield of an aircraft.

Provided is a cleaning method of reducing the power consumption. The cleaning method including: generating a jet of a cleaning liquid from a nozzle; moving the nozzle so that the jet collides with a target portion of a workpiece; acquiring a current position of the nozzle; determining whether the current position is within a target region corresponding to the target portion; ejecting the jet having an ejection pressure of a first pressure when the current position is within the target region; and ejecting the jet having the ejection pressure lower than the first pressure when the current position is other than the target region.

A container scanning system includes: a camera/sensor unit movably mounted on a container handling crane, having a camera and/or sensor for scanning the exterior surface of a container; a control unit configured to control movement of the camera/sensor unit; and a rail mounted on a support beam of the container handling crane, the camera/sensor unit being movably mounted on the rail. The container scanning system includes a washing station mounted on the support beam or the rail at a predetermined location. In a washing mode, the control unit moves the camera/sensor unit to the predetermined location and controls the washing station to wash at least a surface of the camera and/or sensor.

The invention relates to a high pressure cleaning system including a high pressure cleaning appliance operable with at least one variable operating parameter that has a pump assembly, at least one accessory that is in or is bringable into flow connection with a high pressure outlet of the pump assembly, an input unit, at least one control unit coupled to the input unit, and an output unit coupled to the at least one control unit, wherein an object to be cleaned is specifiable by the input unit and a cleaning recommendation is providable on the output unit by the at least one control unit in dependence on the specification, and wherein at least one interaction element is provided for the user, linked to the cleaning recommendation, on the output unit for transmitting interaction information to the at least one control unit, in particular in dependence on the cleaning recommendation.

The present invention relates to a system (1) for cleaning an optical sensor (3), notably of a motor vehicle, comprising: —an element (5) for spraying a cleaning liquid, —a tank (7) of cleaning liquid fluidically connected to the element (5) for spraying cleaning liquid, —a pump (9) configured to pump the cleaning liquid from the tank (7) to the element (5) for spraying the cleaning liquid, the system (1) also comprising a containment wall (11) for the cleaning liquid, which is movable between a retracted position in which the containment wall is configured to be positioned outside the field of view of the optical sensor (3) and a cleaning position in which the containment wall (11) is configured to be positioned in front of the optical sensor (3) so as to define a collection vessel (13) for the cleaning liquid, and in that it comprises an evacuation pipe (15) for the cleaning liquid that is connected both to the collection vessel (13) in the cleaning position and to the tank (7) of cleaning liquid.

A system (100) and method for cleaning one or more main solar panels (9) installed on structures floating on a surface of a water body (11) disclosed. The system (100) has a plurality of cleaning units (12) installed on one or more main solar panels (9). Each of the cleaning unit (12) has a water pump (1) capable of uplifting water from the water body (11) thorough a water filter and deliver it to a discharge pipe (3). A flexible water intake pipe (2) installed as a conduit to lift water from the water body (11) to the water pump (1) installed on a control unit (5). The mini solar panel (4) installed on the cleaning unit (12) is used for generating electrical energy for powering the water pump (1), wherein the control unit (5) is used to control the functioning of the water pump (1).

The present invention relates to a hydro auger post hole cleaner. The invention allows for more efficient removal of residual debris from auger-drilled holes. The system can be combined with augers incorporated into engine-mounted machines such as, but not limited to, skid steers, pressure diggers, backhoes and crane diggers. The system uses a toggle-operated pump powered by the machine's battery and controlled with a relay and switch to pump water from water tanks through a water hose to the drill auger on the engine-mounted machine's arm and into an auger-drilled hole. Water causes the debris in the hole to conglomerate and adhere to the auger. The auger is removed from the hole and the adhered conglomeration is removed from the auger, thereby, removing debris from the hole without manual effort.

A docking station includes a base and a cleaning member assembly. The cleaning member assembly includes at least one cleaning member, a first bracket, a second bracket, and a power source. Each of the at least one cleaning member is mounted on the first bracket and the second bracket. One of the first bracket and the second bracket is a fixed bracket, and the other is a movable bracket. The movable bracket is driven to reciprocate along a straight line, in order to drive each the cleaning member to swing relative to the first bracket around a central axis.

A system includes a frame, a spot-free water generator, a booster pump, a tank, a first pressure washer, and a first on-demand pump. The frame is configured to be received within and coupled to a portion of an interior of a vehicle. The spot-free water generator includes a carbon filter, a pre-filter, and a plurality of membranes and is configured to generate spot-free rinse water from tap water. The booster pump receives tap water from an exterior water inlet port and delivers the tap water to the spot-free water generator at a predetermined pressure. The tank is coupled to the frame and receives and stores at least a portion of the spot-free rinse water generated by the spot-free water generator. The first on-demand pump is coupled to the frame and is configured to deliver spot-free rinse water from the tank to the first pressure washer.

The present disclosure is a food injection needle cleaning system and method. The food injection needle cleaning system comprises a cleaning fluid tank coupled to high-pressure pump configured to pump cleaning fluid through at least one inlet, a channel, and at least one outlet of a food injection needle to dislodge and remove debris as well as sanitize the needle. The present disclosure comprises a high-pressure chamber configured to secure the food injection needle and seal around the needle such that fluid enters the needle through an inlet of the high-pressure chamber and exits the needle through a waste line.