Abstract: The present invention relates to cold water immersion therapy systems and, more particularly, to an ice container assembly configured to rapidly chill treatment water within a tub. The ice container assembly includes an ice container configured to hold treatment ice and a lid defining internal fluid channels and impingement ports. An agitator module including a pump draws treatment water from the tub and delivers the treatment water toward the treatment ice to chill the treatment water before returning it to the tub to form a recirculating treatment water loop. Removable or permanent internal structures, within the ice container, including one or more fins and/or conductive inserts, accelerate treatment ice formation prior to use. The system is configured to promote release and upward movement of the treatment ice during melting, increasing the exposed treatment ice surface area, which improves treatment water chilling efficiency.

Abstract: The present invention relates to a biometric bridge system configured to be positioned between a wearable device and the skin of a user. The system comprises an enclosure housing a controller, rechargeable power supply, and biometric sensor interfaces. The top surface of the biometric bridge couples with the wearable device, while the bottom surface conforms to the user's skin, enabling pass-through sensing, relay sensing, and enhanced sensing modes. The enclosure features dual-surface alignment structures that allow the biometric bridge to mate with both the wearable device and a charging base, enabling simultaneous recharging. Optionally, a thumb tab can extend from the enclosure to aid ergonomic placement and removal. The controller is web-enabled and may transmit biometric data wirelessly to external computing devices or remote servers. The system supports expanded sensing functionality, modular integration, and seamless operation without disrupting the wearable device's form factor.

Abstract: The present invention relates to systems and methods for conducting cold water exposure therapy using structured treatment ice and integrated water circulation. The system includes an ice container configured to form and hold treatment ice, and an agitator module comprising a pump, battery, and impingement ports that direct treatment water onto the treatment ice to rapidly chill the water. The ice container can be immersed in a treatment tank, such as a standard bathtub, allowing a user to undergo cold exposure therapy without requiring permanent infrastructure. Enhanced features include turbulence-inducing impingement ports, mobile app connectivity for session tracking, and a freezing chamber with thermally conductive supports for efficient ice formation. The reusable system enables precise thermal control, user immersion, and fast deployment in both clinical and at-home settings.

Abstract: The present invention relates to systems and methods for conducting temperature-controlled water exposure therapies using a modular, portable chilling system. The system includes an ice container configured to form treatment ice with enhanced surface geometry and an attachable agitator module housing a pump, rechargeable battery, and controller. During operation, treatment water is drawn through an inlet, circulated via impingement ports towards the treatment ice, and returned to a treatment tank, resulting in rapid and uniform cooling. The system supports interchangeable components, ergonomic transport, and sealed, self-contained operation without external plumbing. Method embodiments include biometric-guided therapy configurations, modular preparation workflows, and predictive session personalization using wearable data. The system can be monitored and configured using a software application linked via wireless communication.

Abstract: The present invention relates to systems and methods for conducting temperature-controlled water exposure therapies using a modular, portable chilling system. The system includes an ice container configured to form treatment ice with enhanced surface geometry and an attachable agitator module housing a pump, rechargeable battery, and controller. During operation, treatment water is drawn through an inlet, circulated via impingement ports towards the treatment ice, and returned to a treatment tank, resulting in rapid and uniform cooling. The system supports interchangeable components, ergonomic transport, and sealed, self-contained operation without external plumbing. Method embodiments include biometric-guided therapy configurations, modular preparation workflows, and predictive session personalization using wearable data. The system can be monitored and configured using a software application linked via wireless communication.