Abstract: A wireless transmit/receive unit (WTRU) comprise a processor configured to receive configuration information from a network, wherein the configuration information indicates that the WTRU is configured to process data of a first data type and data of a second data type, wherein the data of the first data type comprises user plane data, and wherein the configuration information further comprises one or more parameters for buffer management for the second data type and a threshold to send a buffer status report associated with the data of the second data type. The processor may store the data of the first data type in a first buffer, store the data of the second data type in a second buffer, and send the buffer status report and at least a portion of the data of the second data type.

Abstract: A method may be implemented by a wireless transmit/receive unit (WTRU), including receiving information indicating first applicability conditions and a first configuration for a first artificial intelligence or machine learning (AIML) model category and second applicability conditions and a second configuration for a second AIML model category. It may be determined whether the first AIML model category is applicable to a cell based on the first applicability conditions and first configuration, and whether the second AIML model category is applicable based on the second applicability conditions and second configuration. A report may be sent indicating applicability of the first AIML model category and second AIML category to the cell. It may be determined that the first AIML model category is no longer applicable based on the first configuration. An indication that indicates that the first AIML model category is no longer applicable to the cell may be sent.

Abstract: A wireless transmit/receive unit (WTRU) may be configured to receive a configuration information. The WTRU may be a remote WTRU. The configuration information may comprise one or more measurement conditions. The measurement conditions may be associated with one or more relay WTRUs. The WTRU may determine whether the one or more measurement conditions are satisfied and may determine a priority for each associated relay WTRUs. The priority may be based on the time difference between when the WTRU received the configuration information, and when the WTRU determined an associated measurement condition was satisfied. The WTRU may select between the one or more relay WTRUs based on the determined priority.

Abstract: A wireless transmit/receive unit (WTRU) may be configured to receive a reconfiguration message. The WTRU may be a remote WTRU. The reconfiguration message may be associated with a target. The WTRU may be configured to determine one or more conditions associated with the target. The reconfiguration may be transmitted from a second WTRU. The second WTRU may be a relay WTRU. In some scenarios, the WTRU may be configured to determine whether the target triggers the one or more conditions. The WTRU may be configured to select a target based on the one or more triggered conditions. In some scenarios, the WTRU may be configured to transmit a configuration acknowledgement message based on the selected target.

Abstract: A salt chlorine generator is provided in the form of a housing including an inlet opening designed to receive an incoming water flow, an outlet opening designed to release an outgoing chlorinated water flow, and a chlorinator mounted in a fluid cavity defined between the inlet opening and the outlet opening. The salt chlorine generator also includes a gas removal device positioned downstream from the chlorinator and proximate to the outlet opening. The gas removal device includes a gas engagement portion in fluid communication with the fluid cavity and a stream engagement portion in fluid communication with a chlorinated water stream, the stream engagement portion having a first upstream end and a second downstream end. The first upstream end defines a first opening with a first cross-sectional area, and the second downstream end defines a second opening with a second cross-sectional area.

Abstract: A system and method for monitoring and controlling power for connected aquatic devices includes a power module designed to generate power and transmit the energy to an energy storage module. A controller can be connected to one or more pool components of a connected aquatic system and one or more peripheral devices connected to the pool components. The system can receive and process requests from the pool components and peripheral devices, including low-power notifications, to provide the energy stored in the energy storage module.

Abstract: Disclosed are systems and methods for selecting images using motion data. Video data and motion metadata can be received from a camera. A frame in the video data can be selected using the motion metadata. An image can be generated using the selected frame. A user interface comprising an element based on the image can be generated.

Abstract: A variable speed pumping system coupled to a fluid circuit of an aquatic application is provided. The variable speed pumping system includes a pump having a motor, a variable speed drive in electrical communication with the motor, a pump housing designed to substantially enclose the motor and the variable speed drive, an onboard controller coupled to the variable speed drive, and an electrical communication assembly in communication with the onboard controller. The electrical communication assembly includes an IO expansion module. A plurality of pool pad devices is communicatively coupled to the onboard controller, and an external sensing device is communicatively coupled to the onboard controller. The onboard controller is configured to transmit instructions to control the plurality of pool pad devices, receive data from the external sensing device, and transmit the received data to one of a server or a remote user device.

Abstract: A system and a method for performing an automated winterization process for a swimming pool or spa are provided. A temperature sensor collects a sensed temperature value, which is transmitted and processed by a control system of a connected aquatic system. Based on the sensed temperature value, the swimming pool or spa control system executes the automated winterization process for the swimming pool or spa. The automated winterization process includes displacing water with air using an air-moving device in a first loop path and a second loop path using one or more actuated automatic valves.

Abstract: Classification of cell data includes obtaining a target dataset and an artificial intelligence (AI) model trained to identify relationship(s) between cells of a row and classify whether a focus cell of the row is erroneous based on the identified relationship(s), and applying the AI model to the target dataset to identify erroneous cell(s) thereof. The applying includes selecting a row of cells of the target dataset, inputting the selected row of cells to the AI model with an identification of a focus cell, the focus cell to be classified by the AI model, classifying the focus cell to obtain a classification of the focus cell, the classifying identifying whether the focus cell is erroneous, and outputting an indication of the classification of the focus cell.

Abstract: A method of operating a variable speed pumping system. The method includes measuring a first power consumption value of a pool pump at a first speed, estimating a first total dynamic head value at the first speed, measuring a second power consumption value of the pool pump at a second speed, estimating a second total dynamic head value at the second speed, and generating a system friction curve based on the first total dynamic head value and the second total dynamic head value. The method also includes categorizing the variable speed pumping system into a pumping system category based on the system friction curve and recommending a modification to the variable speed pumping system based on the pumping category.

Abstract: Structural designs and design concepts are provided for golf clubs and golf club heads that have a club face composed of an array of pins arranged so the ends of the pins cooperate to define the ball-striking surface of the club face. The ends of the pins can form a ball-striking surface that is planar or concave; the pins can be flush with the club face, or can project therefrom. Some embodiments provide an adjustment mechanism mechanically attached to the pins and actuated to modify forces imparted on the pins and change their responsiveness to a ball strike. The example embodiments of the Figures include optimized drivers and irons, but in various embodiments the invention is suitable for producing an optimized version of any conventional type of golf club, including without limitation drivers, woods, irons, hybrids, wedges, and putters.

Abstract: Systems and methods are provided to operate one or more devices by a variable speed pumping timer. In one embodiment, the variable speed pumping timer operates the one or more devices through a pump. In another embodiment, the variable speed pumping timer operates a first device through a pump and directly operates a second device without using the pump. In yet another embodiment, the variable speed pumping timer directly operates the one or more devices without using a pump. After the variable speed pumping timer operates the one or more devices, the pump and the one or more devices remain connected to a power source and thus, remain functional.

Abstract: Methods, apparatuses, and procedures for enhancements to data forwarding for dual active protocol stack handover in wireless communications are disclosed. In an example, a method implemented by a wireless transmit/receive unit for wireless communications includes determining a first point and a second point for time prediction, and a data forwarding window is defined by the first point and the second point. The method also includes sending, to a network entity, a measurement report including the first point and the second point, and receiving a feedback message including information indicating at least one of a third point or a fourth point for time prediction. At least one of the third point or the fourth point is generated based on the data forwarding window.

Abstract: Procedures, methods, architectures, apparatuses, systems, devices, and computer program products are disclosed that may be implemented in a wireless transmit/receive unit (WTRU) for enhancing conditional reconfiguration procedures. In one representative embodiment, the WTRU may receive information associated with a conditional reconfiguration, and the information may respectively indicate a measurement resolution and/or a measurement period for at least one measurement report quantity associated with a conditional reconfiguration. After receiving the information, the WTRU may perform, over the measurement period, measurements on the at least one measurement report quantity according the measurement resolution. On condition the conditional reconfiguration is triggered, the WTRU may perform a random access procedure. After the random access procedure, the WTRU may send a measurement report for the random access procedure to a base station.

Abstract: Procedures, methods, architectures, apparatuses, systems, devices, and computer program products directed to artificial intelligence-specific idle/inactive/connected mode measurements procedure. In an embodiment, a method implemented by a wireless transmit receive unit (WTRU), the method comprising: receiving, from a network, a first message comprising a configuration about AI/ML model training and associated measurements and logging periodicity; performing minimization of drive test (MDT) measurements; selecting an AI/ML model for training based on the based on the first message; training the selected AI/ML model based on MDT measurements; and in response to accuracy of the trained model above a configured accuracy threshold, triggering transition to connected state and reporting to the network the trained AI/ML model identity and AI/ML model parameters.

Abstract: Procedures, methods, architectures, apparatuses, systems, devices, and computer program products for handover procedures which use network predicted measurements. For example, a wireless transmit/receive unit (WTRU) may receive a handover command. The WTRU may receive a first set of measurements from a network. For example, the first set may be predicted measurements. The network may use artificial intelligence and/or machine learning models to generate the first set. The WTRU may obtain (e.g., measure and/or predict) a second set of measurements. The first and/or second set of measurements may be associated with a (e.g., same) first time interval and/or confidence level. Based on a comparison between the first set and second set, the WTRU may determine (i) to execute a handover, in a second time interval, and/or (ii) send feedback information. For example, the WTRU may determine an ideal time to actually execute the handover.

Abstract: Disclosed are systems and methods for selecting images using motion data. Video data and motion metadata can be received from a camera. A frame in the video data can be selected using the motion metadata. An image can be generated using the selected frame. A user interface comprising an element based on the image can be generated.

Abstract: Procedures, methods, architectures, apparatuses, systems, devices, and computer program products may be used to communicate with a wireless network. A wireless transmit/receive unit (WTRU) may be configured to multiplex the transmission of measurement data, as control plane data, between the WTRU and a network entity via a first wireless path and the transmission of measurement data, as user plane data, between the WTRU and the network entity via a second wireless path. Switching to/from the second wireless path may be based on a state of the first wireless path, a state of the network, a state of the WTRU and/or an amount of measurement data to be communicated by the WTRU or which has been communicated by the WTRU.