摘要:
A pool cleaner (10) that may include a drive mechanism (30) for moving the pool cleaner; a housing (70) that has a first fluid opening (11) and a second fluid opening (14); a filtering unit (20) that comprises a filter enclosure (105), a cleaning element (90,100,131,143,92,150,142) and a filtering element (106); and a rotating mechanism (40) that is configured to introduce a relative rotation between the cleaning element and the filtering element thereby causing the cleaning element to clean the filtering element.
摘要:
The invention relates to an underwater station (200) which may include a filter manipulator (261) that is arranged to input a filter (176) into a pool cleaning robot (100) that is located in a filter replacement position and to assist in positioning the filter at a filtering position in which the filter is at least partially disposed within a fluid path formed between a first fluid opening and a second fluid opening of the housing thereby allowing the filter to apply a filtering operation on fluid that passes through the fluid path.
摘要:
A cleaning robot (10) may be provided and may include a housing (20) comprising at least one inlet and an outlet; a filtering unit for filtering fluid; a bypass mechanism (40,140) for bypassing the filtering unit; and a fluid suction unit that is arranged to direct towards the outlet fluid that (a) passes through the at least one inlet and (b) passes through at least one out of the filtering unit and the bypass mechanism (40,140).
摘要:
A pool cleaning robot (10) comprising two side panels (14) and a front end therebetween and being adapted for moving generally parallel to the side panels. The robot is adapted for moving in a first direction which is perpendicular to an expected sidewall of the pool, and capable of moving in a second direction which is oriented at an acute angle to the first direction. At least one of the side panels comprises at least one projection (132) whose leading area is disposed remote from the robot and projects beyond any other part of the robot in the first direction, at least when the front end of the robot faces in the second direction.
摘要:
A pool cleaning robot (10) comprising two side panels (14) and a front end therebetween and being adapted for moving generally parallel to the side panels. The robot is adapted for moving in a first direction which is perpendicular to an expected sidewall of the pool, and capable of moving in a second direction which is oriented at an acute angle to the first direction. At least one of the side panels comprises at least one projection (132) whose leading area is disposed remote from the robot and projects beyond any other part of the robot in the first direction, at least when the front end of the robot faces in the second direction.
摘要:
A cleaning robot for a swimming pool has a body unit with a battery power pack, adapted to move along the floor and/or walls of the pool. The robot may comprise a tail portion adapted for floating on the surface of the pool. The tail portion may have a float user interface. The robot may have a memory adapted to store a certain orientation of the robot and a controller to align the robot's orientation in accordance with the stored orientation. The robot may further be adapted to perform straight and stepped laps, to move in known mutually angled directions independently of the swimming pool's shape. The robot may perform a plurality of cleaning modes.
摘要:
A pool cleaning robot (21) includes a housing (251), a propulsion mechanism configured to propel the pool cleaning robot along an interior surface of a pool; brushes to clean surfaces of the pool during a cleaning cycle, a filtering system (252), a suction mechanism to draw liquid from the pool through an inlet into the housing and to discharge it from an outlet; and a detachable module (250) that is detachably coupled to the housing or to any other part of the pool cleaning robot, wherein at least one of the following is true: (a) the detachable module is a battery, (b) the detachable module comprises inductive electrical transfer connections, and (c) the detachable module comprises inductive data transfer connections.
摘要:
A pool cleaning robot (21) includes a housing (251), a propulsion mechanism configured to propel the pool cleaning robot along an interior surface of a pool; brushes to clean surfaces of the pool during a cleaning cycle, a filtering system (252), a suction mechanism to draw liquid from the pool through an inlet into the housing and to discharge it from an outlet; and a detachable module (250) that is detachably coupled to the housing or to any other part of the pool cleaning robot, wherein at least one of the following is true: (a) the detachable module is a battery, (b) the detachable module comprises inductive electrical transfer connections, and (c) the detachable module comprises inductive data transfer connections.
摘要:
A method of evaluating slipperiness of a floor surface of a water pool by inducing one or more rotation scans of a pool equipment unit by driving a power pulse to one or more electric motors configured to rotate the pool equipment unit deployed on a floor surface of a water pool and at least partially submerged in water of the water pool, accumulating power values of the power pulse while its level is above a motor operation threshold, accumulating values of angular velocity of the pool equipment unit measured starting after the power pulse drops below the threshold until the pool equipment unit stops rotating; computing work energy invested to rotate the pool equipment unit based on the power values and the angular velocity values; computing a slipperiness index of the floor surface based on the work energy; and initiating one or more actions according to the slipperiness index.
摘要:
Disclosed herein are systems and methods for estimating water turbidity using image data, comprising analyzing a plurality of images of one or more objects submerged in water captured under water from a plurality of distances, calculating a luma value for each of a plurality of pixels along one or more gradient lines across the object(s) in each of the plurality of images, calculating, for each image, a respective maximal intensity change between a lowest luma value and a highest luma value of the pixels along the gradient line(s) in the respective image, evaluating a turbidity of the water based on mapping of the respective maximal intensity change to each of the plurality of distances, and initiating one or more actions in case the turbidity exceeds a certain threshold.