Compression systems and methods may include a garment configured to be donned on, for example, a head and a neck of a body. For example, the garment may include a static garment portion configurable to apply a static pressure to a portion of the head and a dynamic garment portion including one or more pressure applying regions controllable to apply pressure to the head and neck. Further, a controller may be configured to control pressure applied by the one or more pressure applying regions.

A massage mechanism includes a connecting seat, a supporting seat assembly, upper massage arms, lower massage arms, a kneading shaft and a first driving assembly. The first driving assembly is used for driving the kneading shaft to rotate, such that a connecting member and a connecting shaft are driven to perform a reciprocating motion on each supporting seat assembly, and upper massage rolling wheels and lower massage rolling wheels are close to each other or away from each other, so as to achieve a shoulder clamping action. The two upper massage arms and the upper massage rolling wheels are driven to be close to each other or away from each other, and the two lower massage arms and the lower massage rolling wheels are close to each other or away from each other, so as to achieve a kneading action.

An actuator array includes an elongated base and a plurality of pneumatic actuator elements removably attached to the base. The base is made of a pliant and inextensible material. The actuator elements are configured to be inflated and interfere with each other in use to generate a bending motion supported by the base. At least one parameter associated with the actuator elements is selected to control a three-dimensional (3-D) profile of the bending motion.

A roller massage table has a leg under each comer, a leg disposed under the center of the table, and a roller mechanism mounted within the center of the table. The roller mechanism includes a spring-loaded wheel and is slidingly mounted to a pair rails on the underside of the table enabling the roller mechanism to move up and down along a single axis.

In various embodiments a method of synergistically using a neuromodulation stimulator and a robotic exoskeleton for the restoration of voluntary movement and greater muscle activation in chronically paralyzed subjects is provided. The noninvasive neuromodulation system delivers signals to facilitate the restoration and/or enhancement of neurological function where at least one effect is strengthened stepping capacity that can be further substantiated when coupled with robotic exoskeleton assistance.

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 modular stimulus applicator system and method are disclosed. The system includes a plurality of wirelessly controlled stimulus pods configured to be anchored to a patients body, and configured to deliver stimulus to the patients body. The stimulus can be heat, vibration, or electrical stimulus, or any combination thereof. The stimulus pods can be charged by a charging station that prevents the stimulus pods from being in contact with the patients body during charging.

The progress of what has previously been considered idiopathic scoliosis it is arrested and corrected by exercises that gradually stretch the spinal cord to catch and keep up with bone growth. An inventive frame enables such exercises by precluding the movement of the spinal column that is a result of the shorter spinal cord.

A wearable neck brace uses, for example, only three actuators but provides natural motion of the head and neck. This is achieved despite the fact that the head has six degrees of freedom including 3 translation and 3 rotation. In embodiments, a wearable neck brace actively controls the head of the wearer responsively to commands from a user interface such as an eye tracking input device. In further embodiments, a force-field is generated by actuators to provide assistance and/or training for weak muscles. Spring compensation may be provided for a passive support with flexibility. Encoders may be provided to generate treatment logs to support analysis of a patient's condition or progress or to provide therapy-facilitating (or athletic training-facilitating) feedback to the user.

An ambulatory respiratory assist device utilizes a cuirass worn on the chest and/or abdomen and supported by a hip belt so that it does not place a load on the patient's shoulders. The belt also supports a ventilator that includes a pump and its power supply, valving, controls and auxiliary equipment. The device is optionally integrated with auxiliary features such as chest wall vibration, which can be achieved by utilizing cuirass pressure modulation, with shoulder or upper arm supports for simulating the “tripod position”, with positive pressure ventilation apparatus, or with patient monitoring. Shoulder or upper arm supports can extend directly from the belt to the shoulders or upper arms, utilized independently of the cuirass, and optionally integrated with one or more of the above-mentioned auxiliary features.