Methods of manufacturing a low-profile brace for treating a ligament injury are provided. Among other features, a method of manufacturing includes providing a liner and permanently attaching provided first and second metal components configured to be formed to the shape of a thigh and a calf of the patient; and providing upper and lower lateral rigid members, each having a three-dimensional structure comprising a recessed portion extending along a length of the respective lateral rigid member. The recessed portion includes a substantially y-shaped portion that is: disposed at a proximal end of the lower lateral rigid member or at a distal end of the upper lateral rigid member, and further raised outwardly away from the patient's leg from adjacent portions of the recessed channel that separate the substantially y-shaped portion from a perimeter of the lower or upper lateral rigid member. Related methods of use are also provided.

A heated massaging joint brace comprising a brace structure and a first material. A plurality of massaging elements are disposed on an interior of the first material. A heating element is further disposed on the interior of the first material. A power source is operably coupled to the heating element and the plurality of massaging elements. A controller is disposed on an exterior of the brace structure. The controller can control the speed of the massaging elements and the heat of the heating element. The heated massaging brace can be attached to a wearer to heat and massage the area covered by the brace.

An orthotic device includes an upper arm section for receiving an upper portion of an arm of a subject, a forearm section for receiving a forearm section of the arm, and at least one elbow joint rotatably coupling the upper arm section and the forearm section. In the orthotic device, the forearm section includes a release control operatively coupled to the at least one elbow joint, where the release control is configured to transition the at least one elbow joint from a restricted motion state to a free motion state when the release control is activated.

A versatile orthopedic device is arranged to convert between ligament and osteoarthritis treatment, and to accommodate a variety of leg anatomies. The orthopedic device is preferably configured as a double-upright brace indicating struts, frame component sections and associated hinges preferably intended to be along both medial and lateral sides of a wearer's leg. A strap kit with an unloading strap system may be added to the orthopedic device for conversion into an orthopedic device for osteoarthritis relief.

The present invention is a knee brace includes a thigh sleeve that completely wrap around part of the thigh, a calf sleeve that completely wrap around part of the calf, and a pair of double hinges that positioned on both lateral and medial side of the knee. The thigh sleeve and the calf sleeve are removably mounted to each other through the pair of double hinges. The double hinges positioned on both side of the knee enables the user to move their leg without hinderance, but also prevent the user from hyperextending the knee in unwanted or damaging direction.

An external ankle brace is disposed on the exterior of a shoe having a heel portion, a toe portion, a sole, and oppositely disposed sides. The external ankle brace comprises a rigid heel enclosure having a rear portion, configured to receive the heel of the shoe, and a forward portion having a medial sidewall and a lateral sidewall for collectively and concurrently at least partially encircling the sides of the shoe. A lateral upright extension is present. A medial upright extension is present. A lower fastening system comprises at least one lower adjustable connecting strap for extending underneath the sole of the shoe. An upper fastening system comprises at least one upper connecting strap for selectively connecting the lateral sidewall to the medial sidewall across the top of the shoe.

Embodiments of the present disclosure provide a knee joint brace and a knee joint supporting method using the same. The knee joint brace includes: a support frame including two support stands, the two support stands being arranged in parallel with and spaced from each other; at least one adjusting band connected to the support frame; a rotating dual-disc disposed on each of the two support stands, each of the two support stands being capable of bending about the rotating dual-disc; and a supporting band disposed at one end of the support frame and configured to support the support frame in an extending direction of the support stand.

An orthotic device includes an upper arm section for receiving an upper portion of an arm of a subject, a forearm section for receiving a forearm section of the arm, and at least one elbow joint rotatably coupling the upper arm section and the forearm section. In the orthotic device, the forearm section includes a release control operatively coupled to the at least one elbow joint, where the release control is configured to transition the at least one elbow joint from a restricted motion state to a free motion state when the release control is activated.

A joint assembly may include a first rolling cam that includes a first cam portion, and a first extension extending from the first cam portion, and a second rolling cam that includes a second cam portion to be in contact with the first cam portion, and a second extension extending from the second cam portion.

An articulated coupling or joint (10) for orthopedic braces or orthoses comprises a pair of bars or uprights (14, 15), a proximal end of each of these being rotatingly mounted around an axis defined by its rotation pin (25), this proximal end of the bars or uprights being toothed and engaging with a common grooved cylindrical cursor (20) translatable along an additional axis, the other distal end of the respective bars (14, 15) being fixable to a portion of the body of the patient to be treated. Each bar or upright (14, 15) is mounted on a respective element (12, 13) on which the respective rotation pin (25) is mounted and which itself is rotatingly mounted on an additional pin (18) coaxial with the additional axis; moreover, the additional pin (18) is mounted on a platform (11), a surface of which rests against the body of a patient to be treated, the two bars (14, 15) thus being able to simultaneously rotate both around their own primary centres of rotation represented by their rotation pins (25) and around a common centre of rotation represented by the additional pin (18).