Abstract: A docking system for an automatic swimming pool cleaner includes a dock and a sensor. The sensor may obtain information about the automatic swimming pool cleaner and/or for controlling the APC or other equipment for a swimming pool or spa. A method includes controlling an automatic swimming pool cleaner based on information obtained by a sensor on a dock of a docking system. A pool system may include a light source on a pool light and/or a user device, and the automatic swimming pool cleaner may be controlled based on a light-based signal from the pool light and/or the user device.

Abstract: A cleaning system for swimming pools and spas may include an automatic swimming pool cleaner and an anti-theft system for the automatic swimming pool cleaner. In some cases, the anti-theft system may be an active system generating an active response based on a safety situation. Additionally or alternatively, the anti-theft system may provide increased prevention and/or deterrence to theft.

Abstract: An automatic swimming pool cleaner system includes an automatic swimming pool cleaner and optionally a control box. The automatic swimming pool cleaner and/or the control box may display a temperature measurement of a swimming pool determined by the automatic swimming pool cleaner within the swimming pool on the control box associated with the automatic swimming pool cleaner and/or on the automatic swimming pool cleaner. A method includes displaying on an automatic swimming pool cleaner or on the control box associated with the automatic swimming pool cleaner a temperature measurement of a swimming pool determined by the automatic swimming pool cleaner within the swimming pool.

Abstract: An automatic swimming pool cleaner (APC) for swimming pools and spas may be used to monitor and/or determine a waterline level of the swimming pool or spa. Optionally, the determined waterline level may be provided on a user interface of an external device such as but not limited to a control box or a user device. An alert may be provided to a pool owner or other user based on the waterline level relative to a threshold waterline level. Optionally, at least one piece of equipment associated with the swimming pool or spa may be controlled based on the determined waterline level.

Abstract: An automatic swimming pool cleaner (APC) for swimming pools and spas may skim a waterline of a swimming pool or spa while the APC is on a surface of the swimming pool or spa. The APC may include two inlets—a first inlet may receive or collect water during a surface-cleaning operation of the APC, and a second inlet may receive or collect water during a skimming operation of the APC. Optionally, at least one of the two inlets is adjustable between an open configuration and a closed configuration.

Abstract: Apparatus and methods for counteracting, e.g., drift of automatic swimming pool cleaners are detailed. In particular, a drifting cleaner may recover its movement by altering traction speed of the motive element(s) on one side of its body. Such alteration may occur when the cleaner is travelling along a generally horizontally-oriented pool bottom, climbing up or down a wall, or otherwise moving within a pool.

Abstract: Automatic swimming pool cleaners (APCs) may include debris filters accessible from externally of the swimming pools in which the APCs are operating. The APCs may be programmed to climb to waterlines of the pools and present their debris filters above the waterlines for removal by users positioned outside the pools. Sensors may determine whether the filters have been reinstalled within the APCs, thus allowing the APCs to return to cleaning service.

Abstract: A swimming pool cleaner may operate within a pool during a cleaning cycle. The duration of the cleaning cycle may be tailored, or optimized, for the pool by determining a maximum length of time between, for example, a rotation of the cleaner and when it next detects a wall of the pool during a designated interval. As another example, deducing information relating to rotation speed of the cleaner also may be useful in determining the tailored cleaning cycle.

Abstract: Automatic swimming pool cleaners may include cable storage systems for storing an electrical cable on, in, or near a body of the automatic swimming pool cleaner. Some cable storage systems may include a cable storage device on the body of the automatic swimming pool cleaner and/or on a cover for the body of the automatic swimming pool cleaner. Cable storage systems may additionally or alternatively include a cable storage device on the electrical cable. The automatic swimming pool cleaners may be configured and balanced to be supported by their rear portions essentially upright when stored.

Abstract: Concepts relating to automatic swimming pool cleaners (APCs) are detailed. Some concepts may involve communication with APCs either in or out of the water of swimming pools or spas, while other concepts may concern battery charging or management or other operational aspects of cleaner usage in a pool or spa, among others. Many of the concepts may be applicable to avoid need for a robotic APC to be wired to an external control device.

Abstract: A swimming pool cleaner may include motive elements intentionally driven in an unbalanced manner. This unbalanced driving may allow a cleaner to maintain contact with (“hug”) walls of a pool, allowing the cleaner to, e.g., obtain information allowing mapping of the pool perimeter.

Abstract: Swimming pool cleaners may operate autonomously within pools and spas. The cleaners need not include any external hoses or cords, and their bodies may be oriented at pool waterlines so as to make their on-board filters readily accessible for removal. The cleaners may dock at docking stations for various purposes, including (but not limited to) for charging any on-board battery and communicating electronically with the docking station or other external equipment.

Abstract: An automatic swimming pool cleaner (APC) may include a sensor for detecting adjacency of a pool wall or other object. Following such detection, the APC may reorient itself so as to re-approach the wall (or other object) in a manner better suited for cleaning the area. The reorientation may occur through, for example, changing speeds of motors on-board the APC, directions of travel of the cleaner, or both.

Abstract: Techniques and methods for wirelessly communicating with equipment such as, but not necessarily limited to, automatic swimming pool cleaners (APCs) are detailed. An accelerometer or other sensor on-board an APC may recognize such communications. In some cases, varying operation of a motor or other feedback generator of the APC may provide sonic or other feedback in response to the communications.

Abstract: A swimming pool cleaner may operate within a pool during a cleaning cycle. The duration of the cleaning cycle may be tailored, or optimized, for the pool by determining a maximum length of time between, for example, a rotation of the cleaner and when it next detects a wall of the pool during a designated interval. As another example, deducing information relating to rotation speed of the cleaner also may be useful in determining the tailored cleaning cycle.

Abstract: An automatic swimming pool cleaner having a body can be caused to travel laterally along a surface of a swimming pool by varying a characteristic of operation of at least one motive element. For example, a first motive element (such as a brush and/or wheel on one side of the body) can be driven at a different speed and/or in a different direction than a second motive (such as a brush and/or wheel on the opposite side of the body) element to cause the automatic pool cleaner to move laterally along the surface of the swimming pool.

Abstract: The invention relates to a device for extraction of a swimming pool cleaning robot. The device comprises: a support frame; a plate which can be deployed beyond the support frame and below the latter; means for controlling the deployment of the said plate.

Abstract: A swimming pool cleaner may operate within a pool during a cleaning cycle. The duration of the cleaning cycle may be tailored, or optimized, for the pool by determining a maximum length of time between, for example, a rotation of the cleaner and when it next detects a wall of the pool during a designated interval. As another example, deducing information relating to rotation speed of the cleaner also may be useful in determining the tailored cleaning cycle.

Abstract: Swimming pool cleaners may operate autonomously within pools and spas. The cleaners need not include any external hoses or cords, and their bodies may be oriented at pool waterlines so as to make their on-board filters readily accessible for removal. The cleaners may dock at docking stations for various purposes, including (but not limited to) for charging any on-board battery and communicating electronically with the docking station or other external equipment.

Abstract: A swimming pool cleaner may include motive elements intentionally driven in an unbalanced manner. This unbalanced driving may allow a cleaner to maintain contact with (“hug”) walls of a pool, allowing the cleaner to, e.g., obtain information allowing mapping of the pool perimeter.