A rollator for mobility assistance to a user is provided. The rollator includes a chassis foldable in a compacted configuration, wheels rotatably mounted to the chassis, wheel braking assemblies engageable with the wheels, and a pair of handgrips mountable to the chassis and operatively connected to the chassis. Both handgrips have to be configured in a handgrip displacement configuration to configure the wheel braking assemblies into a displacement configuration of the wheels and wherein both wheel braking assemblies are simultaneously in the displacement configuration. The rollator can include a seat assembly which can be configured in a raised configuration and a seated configuration. In the seated configuration, a pressure equal to or greater than a seat pressure threshold has to be applied on the seat for the wheel braking assemblies to be configured in the displacement configuration.

An apparatus includes a first wire and a second wire which are coupled to a right upper ankle belt and a right lower ankle belt, a third wire and a fourth wire which are coupled to a left upper ankle belt and a left lower ankle belt, an obtainer obtaining user information about a user and information about walking action of the user, and a controller controlling tensions of the first wire and the second wire at the same time and controlling tensions of the third wire and the fourth wire at the same time using a first stiffness target value corresponding to the first wire, a second stiffness target value corresponding to the second wire, a third stiffness target value corresponding to the third wire, and a fourth stiffness target value corresponding to the fourth wire that are determined based on the user information and the walk information.

An exoskeleton wheelchair system includes a base, one or more wheels coupled to the base, a body support connected to the base. The body support includes a back support, and one or more leg supports pivotally coupled to the back support. The exoskeleton wheelchair system also includes an actuator linked with the one or more leg supports and configured to rotate the one or more leg supports, a processor, a memory module, and machine readable instructions that, when executed by the processor, cause the processor to rotate the one or more leg supports with the actuator. The one or more leg supports pivot about a first axis when the back support is in a standing position mode, and the first axis is maintained at a fixed position when the one or more leg supports pivot about the first axis while the back support is in the standing position mode.

A lower limb exoskeleton system includes a back frame, hip joint movement mechanisms, telescopic thigh bars, knee joint movement mechanisms, shank bars, foot jump-down cushioning mechanisms, a waist binding frame, upper leg binding frames and lower leg binding frames. Two protruding ends of the back frame are connected with a top end of each of the telescopic thigh bars respectively via the hip joint movement mechanisms, bottom ends of the telescopic thigh bars are connected with a top end of the corresponding shank bars respectively via the knee joint movement mechanisms, and bottom ends of the shank bars are connected with the foot jump-down cushioning mechanisms. The waist binding frame is arranged on an inner side of a horizontal part of the back frame, and the upper leg binding frames and the lower leg binding frames are arranged on the telescopic thigh bars and the shank bars respectively.

The present soft tissue mobilization device has a quick-release bar clamp and various attachments for its jaws that exert pressure on soft tissue to improve mobility. The bar clamp allows for applying sustained and incremental pressure at various angles. The shape of the attachment surfaces that contact the soft tissue are either complementary toward each other, when they are intended to squeeze the targeted soft tissue between them, or to the body structure against which they are intended to press. Combining a more helpful means of generating and exerting pressure with the right surface contours significantly improves the overall effectiveness of the device, diminishes any associated pain and discomfort, and reduces the time necessary to achieve results.

A sexual aid apparatus with a safety feature includes (a) a shaft element configured to emulate a human penis and to be placed against genitals or inside a human orifice, (b) an electric vibrating motor located within the shaft element, the electric vibrating motor configured for vibrating the shaft element so as to produce sensation in a user utilizing the shaft element against genitals or inside a human orifice, (c) a flexible cord coupled to a distal end of the shaft element, the cord configured for having a tensile strength of at least 20 pounds per square inch, (d) one or more spherical elements coupled to the cord and located between ends of the cord, the spherical elements configured for insertion into a human orifice and for producing sensation in the user; and (e) one or more crystal elements coupled to the cord and located between the ends of the cord, the crystal elements configured for insertion into a human orifice and for producing sensation in the user.

A pebble bed sauna device includes a bed and a covering chamber movably disposed on the bed. When a human body lies on the bed, the covering chamber may cover, totally or partly, the human body. The bed includes, arranged in sequence from bottom to top, at least one bed heat-isolation member, at least one bed heating member, a plurality of energy stone layers, and a plurality of smooth pebble layers. The covering chamber is formed of at least one surface layer, at least one bonding layer, at least one chamber heat-isolation member, at least one chamber heating member, and at least one heat isolation element that are arranged in sequence from outside to inside and is controlled, for a heating temperature thereof, by a controller arranged on the bed and electrically connected to the bed heating member and the chamber heating member.

A centrifugal bed rotator is provided. The rotator includes a central pivot base; at least one riding arm attached at one end to the central pivot base; and a drive system attached to one end of the riding arm or the central pivot base drives the rotator with a support board having a wheel attached to the opposite end of the riding arm. The centrifugal bed rotator is useful for hypergravity therapy in health rehabilitation and exercise.

The present invention provides a device with a pressure control system and methods for controlling the application of negative pressure to an external surface of an individual for creating and/or maintaining patency of the upper airway passage. The device is configured to fit under the chin of a subject at an external location corresponding approximately with the subject's internal soft tissue associated with the neck's anterior triangle. The pressure control system contains control module elements that may include circuit board elements, digital output barometer elements, sensor elements, processing elements and memory elements to optimize device function and safety of the device through regulation of the flow rate of the air pump.

A chest compression device with a chest compression belt assembly including guards and sensors operable with a control system to control operation of the system depending on detection of proper installation of the guards.