Person support apparatuses having exercise features are disclosed herein. In various embodiments, a person support apparatus includes a support surface, a footboard, a sensor, and a passive resistance mechanism. The support surface has a foot end and a head end, and the footboard is located near the foot end of the support surface, extending above the support surface. The footboard may include a pressure surface positioned to receive a pressing force. The footboard is freely slidable from an extended position to a retracted position with respect to the foot end of the support surface. The sensor provides a signal indicative of a magnitude of the pressing force incident on the pressure surface of the footboard. The passive resistance mechanism is coupled to the footboard, and resists a motion of the footboard to the extended position.

A mouse-type rehabilitation exercise device includes a mouse body on which a hand is mounted, a wheel moving the mouse body, a first motor aligning a position of the wheel such that the mouse body moves to a desired direction, a second motor rotating the wheel such that the wheel aligned by the first motor moves to a desired position, a clutch disposed between the second motor and the wheel to enable and disable a power transmitting to the wheel from the second motor, and a controller controlling a driving of the first motor, the second motor, and the clutch.

A myofascial release apparatus can include a head member and a shaft configured to couple to the head member and to releasably mount the head member to a weightlifting rack. This can be accomplished, for example, by threading the shaft of the apparatus through apertures on a support member of the weightlifting rack and placing a securing member or securing loop on the shaft to prevent the shaft from retreating through the support member during use. The apparatus can be included in a kit having one or more of the following additional components: a washer, a magnet, collars, two or more additional head members, or a handle. The head members can be any suitable shape, including a blunt nub head, a precision nub head, and/or a broad nub head.

A far infrared (FIR) sauna cabin equipped with a far infrared (FIR) heating elements constructed of ceramic, carbon, and/or light emitting diodes (LED), designed for therapeutic use in a sauna, capable of emitting far infrared energy, and heating an individual's skin for purposes of rejuvenation, anti-aging, weight loss, and acne therapy. The FIR heating element emits IR energy in a wavelength and frequency optimum for resonant absorption by the human body, resulting in the release of toxins stored within subcutaneous fatty deposits, which are then carried out of the person's system as he or she sweats. The FIR sauna is operated by a system comprising a local control system and a remote computer running access control software. A user account is configured containing a user's allowed privileges. When a user swipes an access card, the remote computer verifies the requested privilege. If allowed, the local system energizes the sauna system.

A fitness ball has first and second hemispheres, which are connectable to form a complete sphere. The first hemisphere supports a motor having a pair of rotatable eccentric masses at opposite ends of a common drive shaft. The second hemisphere supports a rechargeable battery pack, electronic circuitry and indicators LEDs. The electronic circuit controls the charging of the battery pack and also selectively provides electrical power from the battery pack to the motor to control the rotational speed of the motor to rotate the eccentric masses. The rotating eccentric masses cause vibrations that are communicated from the motor to the two hemispheres. The vibration frequency is controlled by the rotational speed of the motor. The hemispheres have outer covers having a configuration that is easy to grip such that the vibrations are communicated to a users hands. The ball is substantially balanced about an equatorial plane.

The exercise equipment with dynamically-adjustable resistance is a therapeutic device. The exercise equipment with dynamically-adjustable resistance is used by the patient for resistance exercises. The exercise equipment with dynamically-adjustable resistance presents a continuously adjustable resistance that acts as a counterforce for the patient. The exercise equipment with dynamically-adjustable resistance includes a load transfer structure, a load generating structure, and a control circuit. The control circuit and the load generating structure mount on the load transfer structure. The control circuit controls the measured value of the load presented to the patient. The load generating structure generates the load that is presented to the patient. The load transfer structure transfers the load generated by the load generating structure to the patient.

A myofascial release apparatus can include a head member and a shaft configured to couple to the head member and to releasably mount the head member to a weightlifting rack. This can be accomplished, for example, by threading the shaft of the apparatus through apertures on a support member of the weightlifting rack and placing a securing member or securing loop on the shaft to prevent the shaft from retreating through the support member during use. The apparatus can be included in a kit having one or more of the following additional components: a washer, a magnet, collars, two or more additional head members, or a handle. The head members can be any suitable shape, including a blunt nub head, a precision nub head, and/or a broad nub head.

A device for training and rehabilitation of a limb is provided. The device provides a board with a plurality of movement tracks to allow for controlled movement of the limb in various directions. Blockers and other controlling structures may be arranged on the device to limit range of motion of the movement of the limb.

The exercise equipment with dynamically-adjustable resistance is a therapeutic device. The exercise equipment with dynamically-adjustable resistance is used by the patient for resistance exercises. The exercise equipment with dynamically-adjustable resistance presents a continuously adjustable resistance that acts as a counterforce for the patient. The exercise equipment with dynamically-adjustable resistance includes a load transfer structure, a load generating structure, and a control circuit. The control circuit and the load generating structure mount on the load transfer structure. The control circuit controls the measured value of the load presented to the patient. The load generating structure generates the load that is presented to the patient. The load transfer structure transfers the load generated by the load generating structure to the patient.

A dual-purpose physiotherapy instrument includes a base, electromagnetic drives, a plate body and a movable board. The plate body is mounted on the upper end of the base. A surface of the plate body away from the base includes stoppers. The movable board is mounted to the plate body in a detachable manner. A first surface on the movable board includes limit holes that are matched with the stoppers. The middle part of a second surface opposite to the first surface includes a protruding portion. When the first surface of the movable board is mounted to the plate body, the movable board can integrally vibrate up and down. When the second surface of the movable board is mounted to the plate body, the protruding portion is pressed against the plate body to cause the two ends of the movable board to swing up and down relative to the support portion.