A floating pool monitor and alarm device is disclosed with a 360 degree HD camera that captures live pool video and wirelessly transmits it to a mobile device of a pool owner. The device allows for remote monitoring of the pool. The HD camera is enclosed by a transparent dome that is disposed at the bottom of the device, thereby capturing the pool video from an underwater perspective, which allows visibility below the surface of the water down to the bottom of the pool. The mobile device includes a mobile app that displays the live video feed and enables the pool owner to hear audio from the poolside, speak to anyone in or around the pool via a speaker, arm or disarm an alarm, receive alarm notifications, make emergency calls, and view video with night vision to show the pool when light is low.

A swimming pool Smart Boat for pool maintenance and water safety is described. The Smart Boat includes chlorine and pH sensors for monitoring water quality and is capable of releasing chemicals into the pool water based on monitoring. A screen panel is configured to trap debris in the pool. Additionally, the Smart Boat provides for water safety by monitoring water disturbances which indicate a swimmer has entered the pool and sending an alert based on the detection of a disturbance. A remote control unit provides alerts and controls navigation, the release of chemicals and the screen panel position.

Real-time detection and alerting for swimming pool safety includes obtaining signals from sensor devices installed in a swimming pool area having a swimming pool, ascertaining, based on the obtained signals, that an individual has entered the swimming pool and identifying, based on the obtained signals, characteristics of the individual who has entered the swimming pool, determining whether to raise an alert about the individual having entered the swimming pool, the determining being based at least in part on location of one or more other individuals relative to the swimming pool area and on checking pre-configured parameters for alerting, and performing processing based on the determining whether to raise an alert.

Disclosed in this document are beach safety devices, beach safety systems, and methods of use referred herein as BSDS. The BSDS utilizes various connected, electronic tools that improve the safety, operational efficiency, and emergency response time of a designated beach. In one form, the BSDS utilizes a visual warning system utilizing a colored warning light language. The BSDS comprises at least one central command tower CCT having various combinations of warning lights, audio generator, an emergency button, a life ring handle detector, and a beach monitoring module to process and initiate a response to beach condition data and emergency signals. Some embodiments further comprise one or more zone emergency towers networked with the CCT that are spread across the beach front or pier to extend the safety coverage across the beach. Other BSDS peripherals include a life ring node, a modular buoy node, a sensor buoy node.

The present disclosure envisages an IOT based management system for assisting users around a swimming pool. The system comprises a plurality of sensors configured to sense a plurality of parameters corresponding to various pre-defined events associated with said swimming pool; a control unit communicatively coupled to said plurality of sensors through a communication network to receive said plurality of parameters and configured to process said plurality of parameters based on at least one machine learning algorithm to generate actionable intelligence in the form of signals associated with said pre-defined events corresponding to said plurality of parameters; and at least one IOT based actuating mechanism configured to receive said signals and perform at least one action upon reception of said signals.

A computer implemented method including receiving, by a monitoring system that is configured to monitor a property and from an electronic pool device that is configured to monitor a swimming pool at the property, sensor data, analyzing, by the monitoring system, the sensor data, based on analyzing the sensor data, generating, by the monitoring system, an instruction to activate a camera of the electronic pool device, providing, by the monitoring system to the electronic pool device, the instruction to activate the camera, receiving, by the monitoring system from the electronic pool device, image data, analyzing, by the monitoring system, the image data, based on analyzing the image data, identifying a monitoring system action to perform, and performing the monitoring system action.

A sensing system for a floating pool system for detecting and alerting a user of disturbances and detecting various levels and releasing chemicals into a liquid medium. The system comprises a controller that can comprise a wireless communication module and at least one sensor, and a receiving device can be configured to receive a signal from the wireless communication module. The controller can comprise at least one tilt sensor that is generally in an open position and closes with a waking event. The controller sends a message to the receiving device when a waking event occurs, alerting the user to a disturbance and possibly dangerous situation.

A buoyant camera system is disclosed herein. The buoyant camera system comprises a buoyant body having a top-side and a bottom-side. A top-camera is attached to the top-side of the buoyant body. The top-camera is protected by a top-dome that is configured to protect the top-camera from fluid. A bottom-camera is attached to the bottom-side of the buoyant body. The bottom-camera is protected by a bottom-dome that is configured to protect the bottom-camera from fluid. A controller is disposed within the buoyant body. The controller is in electrical communication with the top-camera and the bottom-camera. A program may direct the controller to be in wireless communication with the mobile device. The program may be configured to send and receive audio and video to the mobile device.

A monitoring system for use in a recreational watercraft operable to improve driver awareness of a surface rider engaged in a surface water sport supported by the watercraft. The surface rider may be towed by the watercraft or riding a wake provided by the vehicle. Sensors monitor the conditions of the surface rider and a processor analyzes the sensor data to generate feedback indicating status conditions to the driver. Multimodal feedback may be achieved using a plurality of feedback indicators having different modes of operation.

The present disclosure envisages an IOT based management system for assisting users around a swimming pool. The system comprises a plurality of sensors configured to sense a plurality of parameters corresponding to various pre-defined events associated with said swimming pool; a control unit communicatively coupled to said plurality of sensors through a communication network to receive said plurality of parameters and configured to process said plurality of parameters based on at least one machine learning algorithm to generate actionable intelligence in the form of signals associated with said pre-defined events corresponding to said plurality of parameters; and at least one IOT based actuating mechanism configured to receive said signals and perform at least one action upon reception of said signals.