877 results about "Cleanser" patented technology

Systems, methods, and computer program products for a robotic cleaner with an extendable cleaning surface are provided. An example robotic cleaning system may include a robotic cleaner having a housing and a cleaning pad movably attached to the housing. The cleaning pad may be movable to extend at least a portion of the cleaning pad beyond an edge of the housing.

A cleaning apparatus including a robot cleaner including a main body having a lower portion to which a mop is detachably mountable; and a station on which the robot cleaner is placeable, the station including a water storage container configured to store water, a washing chamber configured so that, while the robot cleaner is placed on the station and a mop is mounted to the lower portion of the main body, the mop is washable in the washing chamber, a steam generation device to generate steam using water from the water storage container, a pump configured to pump the water in the water storage container out of the water storage container, a first pipe to guide the water pumped out of the water storage container to the washing chamber, and a second pipe to guide the water pumped out of the water storage container to the steam generation device.

The invention relates to the field of intelligent preparation, and provides high-temperature-resistant and high-pressure-resistant lubricating oil and a preparation method thereof.The preparation method comprises the steps that a-olefin synthetic oil in a preset proportion is added into a blending kettle provided with a stirring device, then an antioxidant preservative, an extreme-pressure phosphorus-containing ash-free anti-wear agent and an amine high-temperature antioxidant are sequentially added into the blending kettle, stirring is conducted, and the high-temperature-resistant and high-pressure-resistant lubricating oil is obtained; the preparation method comprises the following steps: uniformly stirring at a first constant temperature to obtain a primary mixture, sequentially adding an antirust agent, a metal cleaning agent and a pour point depressant into the mixture, continuously stirring at a second constant temperature, intelligently controlling the stirring time by deeply analyzing the stirring state of the mixture in the stirring process, and finally preparing the high-temperature-resistant and high-pressure-resistant lubricating oil. Therefore, the quality and the performance of the high-temperature-resistant and high-pressure-resistant lubricating oil product can be effectively ensured.

In one aspect, a row unit configured for use with an agricultural implement includes a frame and a coulter supported by the frame and extending in a fore-aft direction of the row unit along a longitudinal centerline of the row unit. The row unit also includes a row cleaner supported by the frame relative to the coulter, with the row cleaner including first and second row cleaner disc. The first and second row cleaner discs are arranged relative to the coulter such that an initial point of engagement of the coulter with soil being processed by the row is located: (1) aft of soil entry locations of the first and second row cleaner discs in the fore-aft direction; and (2) forward of soil exit locations of the first and second row cleaner discs in the fore-aft direction.

The invention relates to the technical field of automatic control, and provides an intelligent detergent putting control method and system for automatic car washing equipment. The method comprises the following steps: acquiring a vehicle surface stain image through a high-precision camera, and identifying stain features to generate a multi-dimensional feature set; performing clustering division on the feature set to obtain a stain area feature set, and calling a car washing scheme parameter space; analyzing the region feature set based on the parameter space, and determining cleaning scheme parameters of each region; a cleaning agent putting part control logic is associated, and area putting control parameters are generated; the environment temperature and humidity are monitored in real time, and cleaning agent putting and feedback regulation and control optimization are carried out in combination with control parameters, so that the technical problems that existing automatic car washing equipment lacks pertinence during cleaning agent putting, the cleaning agent putting amount cannot be accurately controlled according to the actual stain condition of a car and environment changes, the car washing effect is poor, and cleaning agents are wasted are solved. The technical effects of improving the car washing quality, reducing the waste of the cleaning agent and achieving intelligent and accurate control are achieved.

Systems, devices, and methods for washing robotic cleaners are disclosed. An example robotic cleaning system may include a robotic cleaner, which may include a housing and at least one wet cleaning element including at least one cleaning surface on an underside of the housing. A docking station may include a base. A support may extend laterally from the base. The support may be configured to receive at least a portion of the robotic cleaner on top of the support. The support may define a cavity. At least one cleaning shuttle may be within the cavity and may include at least one spray nozzle and at least one mechanical contacting element. The spray nozzle(s) may be configured to spray cleaning fluid onto at least a first portion of the cleaning surface(s). The mechanical contacting element(s) may be configured to contact at least a second portion of the cleaning surface(s).

A cleaning tool adapted to couple with a hose of an extraction cleaner including a suction source is disclosed. The cleaning tool includes a tool body defining a suction pathway in fluid communication with the suction source. A removable tank defines an access opening to a reservoir. A hose adapter defines an outlet to the suction pathway. A suction nozzle defines a suction nozzle inlet in fluid communication with the suction pathway. An agitator block coupled to the suction nozzle, wherein the agitator block is adjustable between an agitation position and a self-clean position.

The present disclosure is generally directed to cleaning head for a vacuum system. The cleaning head includes an edge cleaner disposed on at least one side of the cleaning head to provide enhanced edge cleaning capabilities for the vacuum system.

A vehicle cleaner system includes a cleaner unit discharges a cleaning fluid toward a cleaning target mounted on a vehicle; a motor pump supplies the cleaning fluid to the cleaner unit; a normally closed type solenoid valve provided between the cleaner unit and the motor pump and switches between permission and non-permission of movement of the cleaning fluid from the motor pump to the cleaner unit; and a cleaner control unit controls the motor pump and the solenoid valve. The cleaner control unit sets an operation stop time period for stopping an operation of at least one of the motor pump and the solenoid valve, and after the cleaning fluid is discharged to the cleaning target, stops the operation of at least one of the motor pump and the solenoid valve during the operation stop time period based on a predetermined condition.

A two-dimensional mobile ultrasonic flaw detection and positioning device includes a mounting chassis, a mounting frame is fixedly connected to the left side of the upper end of the mounting chassis, a flaw detection mechanism is installed on the upper end of the mounting frame, the flaw detection mechanism includes a fixed frame, an L-shaped plate is slidably connected to the inner side of the fixed frame, a buffer plate is provided at the lower end of the L-shaped plate, a plurality of groups of ultrasonic probes are fixedly connected to the lower end of the buffer plate, and a first cleaning mechanism is installed on the inner side of the mounting frame. By providing the first cleaning mechanism, the output end of the second electric push rod is repeatedly extended and retracted, and the reciprocating movement of the slide bar can be realized, thereby driving the tooth plate to make the driven gear reciprocate, and then driving the cleaning brush to reciprocate to repeatedly clean the ultrasonic probe. The cooperation of the detergent nozzle and the cleaning brush can automatically clean the ultrasonic probe after the detection is completed, which is convenient for the next detection and effectively removes the coupling agent on the probe.

Figures 1.1 to 1.6 are six orthographic views of the first charging base for a vacuum cleaner, and Figures 1.7 and 1.8 are two perspective views thereof. The dashed lines in the views of the first charging base for a vacuum cleaner delineate parts which do not form part of the design sought to be registered: 1.1) Front view; 1.2) Rear view; 1.3) Left side view; 1.4) Right side view; 1.5) Plan view; 1.6) Bottom view; 1.7) Perspective view; 1.8) Perspective view.

The utility model relates to the technical field of seat angle adjuster production, in particular to a seat angle adjuster stamping part surface oil film cleaning device which comprises a cleaning box, supporting seats, a placing assembly, an oil cylinder, a lifting plate and a flushing assembly, the supporting seats are fixedly arranged at the two ends of the inner side of the cleaning box, the placing assembly is clamped in the supporting seats, and the oil cylinder is arranged in the cleaning box. The oil cylinder is fixedly arranged at the bottom of the cleaning box, the lifting plate is fixedly arranged at the telescopic end of the oil cylinder, the flushing assembly is arranged in one side of the cleaning box, and the placing assembly comprises a placing basket and an inserting plate. The oil cylinder drives the lifting plate to move, so that an internal cleaning agent flows to take away stripped oil stains, then the placing basket containing the stamping parts is clamped between the partition plates, and the water pumps on the surfaces of the partition plates pressurize water to wash the surfaces of the stamping parts, so that the cleaning effect is improved, and the subsequent machining quality is guaranteed.

A nozzle assembly for use on a vacuum cleaner includes a base unit, an outlet coupled to the base unit and pivotable with respect to the base unit, one or more wheels coupled to the base unit, and a suction chamber coupled to the base unit. The outlet is configured for engagement with a suction tube of the vacuum cleaner. The suction chamber includes a first agitator configured to rotate in a first direction, a second agitator configured to rotate in a second direction opposite from the first direction, and a suction port arranged between the first agitator and the second agitator.

The present disclosure provides a base station for a mobile cleaner. The base station includes a dock, a cleaning unit, a water assembly, and a self-checking module. The dock is configured to accommodate the mobile cleaner. The cleaning unit is configured to clean the mobile cleaner accommodated in the dock. The water supply assembly is configured to supply water to the cleaning unit from a water source. The self-checking module is configured to detect a malfunction regarding conveyance of water from the water source to the cleaning unit.

A dustcap comprises a body having a cylindrical portion configured to receive a ferrule of an optical fiber connector, and an end portion opposite the cylindrical portion. The end portion includes a receptacle. The dustcap has a built-in cleaner disposed within the receptacle. The dustcap further comprises a removable cover configured to couple to the end portion of the dustcap. In another embodiment, the end portion includes a flat surface, the cleaner is disposed on the flat surface of the end portion, and the cover is configured to receive the end portion of the dustcap. In another embodiment, the cover has a receptacle and the cleaner is disposed within the receptacle, whereas the body comprises an end portion configured to receive at least a portion of the cover with the built-in cleaner. Embodiments encompass cleaner assemblies and adapter dustcaps having built-in cleaners.

An example automatic kitchen cleaning system includes a control box configured to, in response to receipt of the start signal to initiate the first cleaning operation of the cooking range exhaust system, causing the first detergent and water to be mixed in a reservoir at the first target mixing ratio for form the first cleaning solution. The control box is further configured to, in response to receipt of the start signal to initiate the second cleaning operation of the waste conduit, causing the second detergent and water to be mixed in the reservoir at the second target mixing ratio to form the second cleaning solution.

According to the present disclosure, air cleaner assemblies, housings, serviceable filter cartridges and features, components, and methods, relating thereto are disclosed. In general, the features relate to systems that are configured to aid in inhibiting an improper cartridge from being installed in an air cleaner housing, during servicing. A variety of features are characterized, and in many examples, the cartridge includes a seal arrangement having radially directed seal surface with at least a first non-wavy or non-projection / recess section and a second wavy or projection / recess section. Examples are shown and described in detail.

The part cleaning device for mechanical equipment maintenance comprises a supporting mechanism and a part storage mechanism, a cleaning mechanism, a flushing mechanism and a drying mechanism which are arranged at the top of the supporting mechanism, the supporting mechanism comprises a supporting table, and a portal frame is fixedly connected to the top of the supporting table. The cleaning and drying device has the advantages of efficient cleaning and efficient drying, and the problems that due to the fact that a corresponding structure for mixing a cleaning agent and water is lacked in the cleaning box, no good mixing mechanism exists, the cleaning agent can not be evenly distributed in cleaning liquid, and a spray head at a fixed position can not completely cover the surfaces of all parts, and the cleaning effect is poor are solved. The problems that cleaning dead angles are easily formed for parts with complex shapes, grooves or narrow spaces, so that some parts are not thoroughly cleaned, and a hot-air blower at a fixed position possibly causes non-uniform heat distribution, so that part of the parts are not completely dried, and even the parts are possibly damaged due to local overheating are solved.

The invention relates to the technical field of chemical analysis, and discloses a cleaning effect detection device of a cleaning agent for automotive trim. Comprising an instrument shell, a transparent shell fixedly arranged on the outer surface of the instrument shell in a sleeving mode, a connecting disc arranged in an inner cavity of the instrument shell, an instrument body adaptively installed on the outer surface of the connecting disc, and a detection lens fixedly installed on the other side of the connecting disc and used in cooperation with the instrument body. By means of the driving assembly, the downward pressing stroke of the detection lens can be flexibly adjusted only by controlling the holding force, the posture requirement for downward pressing of the detection lens is greatly reduced, the effect that the device can be used in more complex in-vehicle environments is achieved, the force generated when the detection lens is pressed down can be converted into rotating power through the transmission assembly, and the detection lens can be driven by the transmission assembly to rotate. And the protection assembly and the driven assembly are driven to be synchronously opened, so that protection on the detection lens is relieved, and the detection lens is automatically protected when being retracted.

A sensor cleaning apparatus detects an object in a vicinity of a vehicle from information acquired by at least one sensor monitoring the vehicle vicinity, detects contamination on the sensor, and continues air cleaning in which high-pressure air is sprayed onto the sensor for a predetermined air cleaning time, in response to detecting that water droplets are attached to a sensor surface of the sensor. The sensor cleaning apparatus controls autonomous driving of the vehicle using information on the object detected, and outputs a command to clean the sensor with a cleaning liquid, in response to detecting contamination on the sensor and determining that cleaning with the liquid cleaner is possible. The sensor cleaning apparatus controls at least one liquid cleaning actuator to clean the sensor by spraying the cleaning liquid based on the command, and notifies that the sensor is being cleaned with the cleaning liquid.

Systems, devices, and methods for stain detection and cleaning using robotic cleaners are disclosed. An example robotic cleaning system may include a robotic cleaner. The robotic cleaner may include a housing, at least one wet cleaning element including at least one cleaning surface on an underside of the housing, at least one sensor, and at least one processor. The processor(s) may be programmed or configured to detect at least one stain on a surface to be cleaned based on sensor data from the at least one sensor and perform at least one cleaning operation based on the at least one stain.

A surface cleaner (10) includes a main body (12), a base (14), and a column (18) extending from the base. A supply tank (42) extends around a first portion of the column. A first end of the supply tank is on a first side of the column. A second end of the supply tank is on a second side of the column. A recovery tank (46) extends around a second portion of the column. A first end of the recovery tank is on the first side of the column. A second end of the recovery tank is on the second side of the column. The first end of the supply tank is adjacent the first end of the recovery tank. The second end of the supply tank is spaced from the second end of the recovery tank. A battery (98) is coupled to the main body between the second ends of the supply and recovery tanks.

The invention relates to the technical field of aircrafts, in particular to an electrified cleaning method and device for a high-voltage transmission line, and is used for cleaning the high-voltage transmission line. The method comprises the steps of determining an optimal receiving angle range of a cable through laboratory analogue simulation, obtaining wind speed and wind direction data above and below the cable in real time, establishing a simulation model to simulate changes of working parameters of an unmanned aerial vehicle under different wind speeds and wind directions, and outputting the working parameters of the unmanned aerial vehicle in the optimal receiving angle range to execute cleaning operation. And the cleaned cable is subjected to drying treatment. According to the method, double-machine collaborative operation is adopted, cleaning of the two sides of the cable can be completed through one-time flight, and the cleaning efficiency is greatly improved. Meanwhile, through analogue simulation and real-time data adjustment, effective coverage of the cleaning agent is ensured, generation of condensation or ice crystal effect is reduced, and cleaning quality and safety are improved. The method has remarkable technical advantages and application prospects, and a new solution is provided for electrified cleaning of power equipment.

The present invention relates to a connection assembly for a cleaner system, the connection assembly comprising: a station coupling part which supports and is coupled to the lower side of a cleaner station that suctions and collects dust inside a dust container of a cleaner; and a charging stand coupling part which is disposed below the station coupling part and to which a robot cleaner coupling plate and a charging stand are coupled, wherein a robot cleaner is coupled to the robot cleaner coupling plate and the charging stand supplies power to the robot cleaner. The present disclosure has the effect of improving space efficiency.

A drain cleaner includes a housing and inner and outer drums disposed in the housing. The inner drum is rotatable relative to the housing. The inner drum and the outer drum form an annular drum channel for receiving a drain cleaning cable. The inner drum defines an inner drum chamber. A drain cleaning cable is disposed within the annular drum channel. The drain cleaner includes a ferrous pick-up plate. The pick-up plate rotates with the inner drum. A sensor detects rotation of the ferrous pick-up plate.

An air cleaner includes: a blower having an outlet formed on an upper side thereof; a circulator disposed over the blower and configured to control a wind direction of air flowing upwardly through the outlet; and a mover coupled to the circulator and configured to change an arrangement of the circulator, wherein the circulator includes: a lower cover having a lower plate coupled to the mover, and having an inlet formed around the lower plate; an upper cover disposed over the lower cover and having an outlet; a blower fan rotatably disposed between the lower cover and the upper cover, and having a circular inlet formed on a lower side and an annular outlet formed on an upper side; and a motor disposed on an upper side of the lower plate, and rotating the blower fan.

An exhaust gas treatment facility includes a combustion chamber 1 for applying combustion treatment to exhaust gas, a nozzle for causing water to flow along the inner wall surface of the combustion chamber 1, a water supply line for supplying water to the nozzle, a primary wet scrubbing chamber 11, and a wet scrubber 20, etc. When removing a solid matter from the wet scrubber 20, an alkaline-based cleaning agent solution is injected to a lower water tank 44 from a chemical dispensing device 50, and a circulation pump 23 is operated to sprinkle water from a nozzle 21. Cleaning is ended if the detected pH by pH meters 52, 53 maintains a defined pH for a predetermined time or more.

Systems and methods of holistically controlling a heating, ventilation, air conditioning, and refrigeration (HVACR) system and a multi-contaminant air cleaner (MCAC) are disclosed. The method includes sensing, via at least one HVACR sensor, at least one comfort parameter; sensing, via at least one MCAC sensor, at least one air-quality parameter; determining, via a controller, minimum air changes of the HVACR system based on the at least one comfort parameter; and determining, via the controller, equivalent air changes of the MCAC and an indoor air quality (IAQ) score based on the at least one air-quality parameter. The method also includes controlling an operation of the HVACR system and controlling an operation of the MCAC based on the determined air changes to optimize an energy consumption.