15results about "Isolation chambers" patented technology

An eyeshade for a respiratory therapy system is disclosed. The eyeshade includes an eyeshade structure arranged to engage with a patient substantially around a perimeter of an eye of the patient in use. When the positioning and stabilizing structure applies a force to the eye-obscuring structure, the eye-obscuring structure is arranged in opposed relation to the patient's face. The eyeshade is configured to interact with a respiratory therapy system to assist in respiratory therapy.

The present invention relates to a multi-functional support system employing weighted modules configured to simulate buoyancy on land, thereby providing enhanced comfort, pressure distribution, and floating sensations for applications such as sleep, therapy, recreation, and ergonomic work environments. The multi-functional support system comprises a supporting frame, a plurality of weighted modules, and a ventilation unit. The multi-functional support system avoids the drawbacks of water-based flotation devices, such as leakage, heavy weight, and high maintenance requirements, while still delivering the therapeutic benefits of buoyant support. The multi-functional support system is adaptable in size, density, and configuration to meet the needs of diverse users, including children, adults, and individuals with limited mobility, and that incorporates features for breathability, hygiene, safety, and long-term durability.

A bed enclosure assembly is provided. In preferred embodiments, the bed enclosure assembly comprises a plurality of vertical walls spaced apart to form a plurality of openings coupled together by a ceiling and a floor. A plurality of doors are configured to close off the openings such that the enclosure can be completely closed off. A bed is positioned within the enclosure. The enclosure has copper cladding that covers each vertical wall in the plurality of vertical walls in its entirety. A plurality of crystals are located within the plurality of vertical walls of the bed enclosure.

The invention relates to a device for acting on at least parts of the body of a user, in particular with medical-cosmetic radiation and / or by mechanical influence, comprising means for acting on the human body, which have adjustable operating parameters, and a controller, which is connected to the means for acting and sets the operating parameters. A device for acting on at least parts of the body of a user, which device can be set to the needs of the user, in particular even during operation, is provided according to the invention in that at least one microphone is provided, by means of which voice inputs of the user for controlling the operating parameters can be captured, and in that the microphone is connected to an evaluation unit, which converts voice inputs captured by the microphone into control commands for the means for acting.

A therapeutic device includes a base having a first plurality of light emitting devices and a bed supported by the base. A hood is movable between an open position and a closed position, wherein the hood comprises a second plurality of light emitting devices. The device includes first and second end caps attached to opposing ends of the base, wherein when the hood is in the closed position, a substantially enclosed chamber is formed between the base, the hood and the end caps. The device includes at least one airborne energy configured to be delivered into the enclosed chamber through at least one of the end caps. A controller is configured to control the type, intensity and duration of light emitted from the first and second plurality of light emitting devices and the at least one airborne energy to control an environment within the enclosed chamber.

An external ventilation system of a capsule pod sleeping chamber that includes a wall with an exterior side that faces a communal space and an interior side that faces an interior of the capsule pod sleeping chamber. The external ventilation system further includes a duct to route first air out from the communal space to an area separated from air of the capsule pod sleeping chamber, where the duct is located between the exterior side and the interior side, and there is an aperture located on the exterior side opening into the duct.

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.

Disclosed are bioadaptive environments, such as immersive multi-sensory environments that respond to biofeedback from a subject within the environment, and provide interactive and synergistic visual, auditory, tactile, and olfactory stimuli. In some aspects the bioadaptive environments are designed to enhance the therapeutic benefits from states of increased neuroplasticity and non-ordinary or altered states of consciousness, including both pharmacologically induced and non-pharmacologically induced. In some aspects, the bioadaptive environments are designed to enhance the setting for and subjective experience of psychedelics. In some aspects, disclosed bioadaptive environments enhance the therapeutic benefits of psychedelics and other plasticity-inducing agents, including when used to treat mental health disorders and neurodegenerative disorders, as well as for the improvement of wellbeing.

A smart mattress and adaptive actuation systems for a flexible fabric are disclosed. The mattress can include a flexible fabric associated with a sleeping or resting structure configured to engage a user arranged in a prone, semi-prone, or sitting position. An actuation assembly can be configured to manipulate the sleeping or resting structure. In one example, the actuation assembly includes a plurality of size-changing components, and the sleeping or resting structure can be responsive to sizes of the size-changing components. The actuation assemblies can be included in a sealable sleeping or resting structure, which can alter at least a vibration, a light, a sound, or a composition and pressure of a gaseous environment of a user.

A self-contained, hyperthermic conditioning unit and selectively controllable environment for exercising. The unit comprises a base portion having a bed therein and a removable cover connected to the base portion to enclose a personal compartment within the unit. One or more heating elements provide heat to the personal compartment and one more pieces of physical exercise equipment are provided within the personal compartment.

An eye cover for use with a respiratory therapy system is disclosed. The eye cover includes an eye-covering structure arranged to engage the patient generally around a periphery of a patient's eyes in-use. The eye-covering structure is arranged to be held in opposing relation to the patient's face when a force is applied to the eye- covering structure by a positioning and stabilising structure. The eye cover is configured to interact with the respiratory therapy system to aid in respiratory therapy.

A Life Force MedBed Pod (herein referred to as a ‘pod’) is disclosed. The pod is comprised of several main parts: a chamber for patients; a computer with ‘life force’ software; a life force watch; a life force real time vitals mobile device software application; a Bluetooth surround-sound bar; a life force heated, massage and vibration mat; a set of grounding sheets; a frequency generator; an oxygen generator and body recharging rods. The pod combines five therapies that enhance sleep for the body, including but not limited to: frequency; electron donation; electro body balance; vibration and oxygenation. Other embodiments of the pod system can include a decompression option and a remote patient monitoring (RPM) system. An object of the invention is to enhance rest effectiveness and promote overall health.

A sleep pod apparatus for simulating riding in an operating motor vehicle to soothe an occupant of the sleep chamber to sleep includes a housing which defines an interior space therein and defines an opening to the interior space. A processor and a vibration motor are mounted in the housing. The vibration motor is operatively coupled to the processor and is configured to vibrate the cushion when activated by the processor. The vibration motor is configured to simulate a vibration of a motor vehicle on a passenger thereof.

The present invention relates to a device for applying energy to a human body. The device comprises a contact surface 2 which defines an application region in which a human body can be placed in the effective range of the energy. The device further comprises at least one means for outputting the energy directed substantially onto the application region, and at least one means for generating a vapour mixture comprising at least one cannabinoid. The device according to the invention also comprises at least one means for guiding the vapour mixture, which has an effective dose of at least one cannabinoid, into the surroundings of the breathing orifices of a human body. The present invention further relates to a method for operating such a device, and to the use of vapour mixtures comprising at least one cannabinoid in designated devices.

A smart mattress and an adaptive actuation system for a flexible fabric are disclosed. The mattress may include a flexible fabric associated with a sleep or rest structure configured to engage a user in a prone position, a semi-prone position, or a sitting position. The actuation assembly may be configured to manipulate a sleep or rest structure. In one example, the actuation assembly includes a plurality of dimensionally varying components, and the sleep or rest structure may respond to the dimensions of the dimensionally varying components. The actuation assembly may be included in a sealable sleep or rest structure that may alter at least the composition and pressure of vibrations, light, sound, or a gaseous environment of a user.