The present disclosure relates to a therapy system, a bed system including the same, and an operating method of the therapy system. The therapy system according to an embodiment of the present disclosure includes an electrocardiogram sensor to sense an electrocardiogram, a controller to determine a state step based on the electrocardiogram and to generate an oxygen control signal corresponding to the state step, an oxygen supply device to release oxygen having a concentration higher than an oxygen concentration in the atmosphere during an output time corresponding to the state step, based on the oxygen control signal. The controller may release the oxygen having a target concentration corresponding to the state step based on the oxygen control signal. Also, the controller may control a wavelength or a time of a light so as to correspond to the state step.

Methods, systems, and techniques for providing neurofeedback and for training brain wave function are provided. Example embodiments provide a Brain Training Feedback System (“BTFS”), which enables participants involved in brain training activities to learn to evoke/increase or suppress/inhibit certain brain wave activity based upon the desired task at hand. In one embodiment, the BTFS provides a brain/computer interaction feedback loop which monitors and measures EEG signals (brain activity) received from participant and provides feedback to participant. The BTFS may use an FFT based system or machine learning engines to deconstruct and classify brain wave signals. The machine learning based BTFS enable optimized feedback and rewards, adaptive feedback, and an ability to trigger interventions to assist in desired brain transitions.

The present disclosure provides a system and a method for affecting, planning and/or designing a space to result in a stimulation of one or more senses of a subject that is located in the space for inducing a desired physiological response to the subject. For example, by applying the output of the system or the method on the space, the space can induce a desired conditional, behavioral, and/or emotional response such as concentration, aggression, calmness, amazement, confusion, etc. The physiological response is manifested by a measurable physiological effect. For example, the physiological response can be exhibited by any one of a neuronal response such as the creation of a certain brainwave, hormone secretion, change in heart rate, respiration rate or blood pressure, or any combination thereof. In response to an input of a desired physiological response, environmental features are selected to be applied in the space to obtain the desired effect. The output data includes execution profile that may affect on any one of the senses of the subject.

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.

The invention relates to an immersive device (1) comprising a screen (2) and at least two multisensory cases (4), each case comprising at least one device (32) for generating an air flow and a sound-generating device (34), as well as a control device designed to manage the emission of sound and air by independently controlling each case.

The invention provides a personal micro-climate system that reduces the energy requirement to keep a person cool by providing a personal air-conditioned space specially for bed-ridden patients. A dome is provided to create a personal space that just cools the area where the patient is at avoiding wasting energy in cooling the room's floor, ceiling, walls and empty space. The cooling system can be energized through solar power, deep cycle battery packs, small power plant or through a combination thereof. The system allows for the movement of an automatic or semi-automatic bed. A transparent cover is stretched over a frame structure to allow for maximum visibility from the inside out and vice versa. The system allows ease of opening an attendant window for patient care or to help a bedridden patient in an emergency. Breathing tubes, feeding tubes, IV lines, sensors and cables can be fed into the dome through openings between a mattress cover and the micro-climate dome. The personal microclimate system serves as a positive or negative personal isolation chamber provided with high-efficiency particulate air filters and ultraviolet germicidal irradiation systems. An anteroom can be added next to the micro-climate dome and/or a secondary larger structure may be added to enclose the micro-climate dome.

The invention relates to a device for olfactory stimulation of a patient with a plurality of scents, said device comprising: —a source (2) of a carrier gas (G); —a plurality of scent odorization circuits, each odorization circuit (4) comprising: —a container (18) containing an odorous volatile substance (V), —a container inlet line (26), provided with a container inlet valve (28), connecting an inlet (30) of said container with said source of carrier gas, and —a container outlet line (36), provided with a container outlet valve (38), connecting an outlet (40) of said container with an exit line (12); —a control unit (8), configured to control said container inlet valve and container outlet valve according to a medical protocol.

A sleep suite includes a main structure defining a sleep chamber, a plurality of sensors configured to monitor conditions of the sleep chamber, a plurality of devices configured to change the conditions of the sleep chamber, and a control panel. The control panel automatically controls the plurality of devices to change the conditions of the sleep chamber based on predetermined settings for the plurality of devices and the conditions monitored by the plurality of sensors.

Virtual reality method intended to be implemented in a virtual reality system, the method including the production of a stimulus in the system during a period of stimulation, the stimulus including: a projection of an image sequence; a production of a first sound signal including a soundtrack linked to the progress of the image sequence; a production of a second sound signal having a first frequency and a third sound signal having a second frequency, the second sound signal being audible from one ear and the third sound signal being audible from the other ear of the user; a production of a fourth sound signal including a spoken presentation; during an initial portion of said predetermined period, the stimulus further including an induction signal; and during a final portion of said predetermined period, the intensity of the sound signals decreasing in intensity until a zero intensity, and the image sequence decreasing in intensity until a zero intensity.

A Zen facilitation system includes: a first storage part storing a plurality of avatars corresponding to a plurality of members belonging to a group performing Zen; a second storage part storing at least one virtual Zen space; at least one input receiving part receiving an input from each of the members; a display image generation part generating a Zen action image in which some of the plurality of avatars perform Zen in the Zen space in accordance with an input regarding a Zen action through the input receiving part; and a display part displaying a Zen action image generated in the display image generation part.