A sensory enclosure system for improving the sensory management or sleeping habits of individuals with sensory sensitivities or sleeping problems. The system has an interior formed by multiple wall panels that connect to or mate with a platform intended to accommodate furniture such as chairs, mattresses, and bean bags. The enclosure's interior is enclosed by a ceiling or roof panel that connects to or mates with the wall panels. Additionally, the system features one or more door panels to allow entry and exit to the interior space. It may also incorporate an AI-environmental controller capable of managing various environmental factors and communicating with remote devices that are monitoring environmental factors and a user of the system.

A device is described for delivering a therapeutic vibration to a body. The device may include at least two motors in a housing with unbalanced masses coupled to their axles, such that vibration of the masses causes the two motors and housing to vibrate at a beat frequency 80. The motors and housing may be coupled to the body via a platform which places the motors and housings at or near a resonant structure in the body, creating a coupled oscillation between the platform and the body. The vibration may be based on the input signal, such that the system applies the vibration based on the input signal to the user, wherein the signal may be an audio or video signal. The system may be configured to measure and manipulate the flow of cerebral spinal fluid.

Introduced are methods and systems for a sleep pod. An occupant of a sleep pod can have a personalized sleeping experience based on an analysis of biological signals, environmental characteristics, occupant history, and other factors.

A medical cabin system comprises a safety protection structure, an identification structure, an environment simulation structure, a radiotherapy isolation structure, and one or more other independent walls. The safety protection structure is disposed on an entrance of the medical cabin system. The identification structure is disposed on a medical equipment of the medical cabin system or in an enclosed space defined by a stereo location region of the medical cabin system. The environment simulation structure is disposed on a top portion and at least one side wall of the medical cabin system. The radiotherapy isolation structure isolates the stereo location region from a radiotherapy region of the medical cabin system. The independent walls define at least one enclosed space with the radiotherapy isolation structure.

An isolation chamber and disinfection system. The novel system includes an enclosure for providing a sturdy, lightless and soundproofed environment and for containing a solution for supporting a user in a state of floatation; a disinfection system for disinfecting the solution, the disinfection system including an ultraviolet disinfection system and an ozone injection system; and a pump for removing the solution from the enclosure and circulating it through the disinfection system at a predetermined flow rate. The enclosure is formed from interlocking, foam-insulated panels and lined with a potable liner that holds the solution. In relationship to the isolation chamber, in accordance with the present teachings, an improved method of disinfection is taught using UV radiation with ozone injection. Ozone has a short half-life and leaves substantially no toxic byproducts. Verification of disinfection can be accomplished by monitoring the dissolved ozone, which can be determined accurately utilizing a dissolved ozone sensor system.

A device and method for administering light and acoustic vibrations for therapeutic treatment of one or more users is disclosed. The device has acoustic transducers positioned along a longitudinal center plane and comprises two longitudinal side sections that take an elliptical segment form. The acoustic transducers direct acoustic vibrations upwards, and the device also has light fixtures that direct light downward in the device interior. The components of the device work together to provide auditory, ocular, and dermal stimulation with a substantial reduction in undesirable rattling and echo.

Provided is a disclosure for a mobile sensor platform including various hardware and software to perform sensing operations of various occupants in the mobile sensor platform.

A therapeutic environmental light and image system and related methods are provided. A controller controls a lighting system and one or more images displayed on a display monitor to create a virtual window in a patient recovery room that simulates characteristics of a real window. Optionally, circadian full-spectrum light cycling is delivered via a prescriptively-selected circadian light cycle, which may or may not be configured based on the images provided on the display monitor. Additionally, ultraviolet light from an ultraviolet light source may be dosed to the patient to favorably impact biologic functions and other health aspects of the patient, to facilitate patient recovery.

The configurations herein are directed to a sleep trolley system for automation of sleep disruption. Such a unique system often includes a platform support system; a natural habitat chamber configured for an animal subject, wherein the natural habitat chamber is removeably disposed thereon the platform support system; an agitator disposed therein the natural habitat chamber, wherein the agitator is configured with a first magnetic component to provide magnetic coupling; a trolley affixed to the platform support system; wherein the trolley is configured with a second magnetic component, wherein the second magnetic component exerts a magnetic attraction force with the first magnetic component coupled to the agitator as disposed therein the natural habitat chamber; and a control system configured to move the trolley along a dimension of the platform support system so as to guide the agitator along a corresponding length of the natural habitat chamber via the magnetic attraction force.

By combining efficient manufacturing technology, design for user-centric comfort and accessibility with advanced automated operator control and operational features, the float tank methods and systems described herein provide clients with a personalized float experience, voice and non-tactile control interfacing, and float facility owners with highly profitable and reliable equipment.