A knee brace includes a support module including a first body, a second body, and a hinge movably coupling the first body to the second body. The includes a pin on one of the first and second bodies, and a receptacle on the other of the first and second bodies. The receptacle is configured to receive the pin therein, such that the pin is rotatable and translatable within the receptacle. The knee brace also includes a fastener configured to releasably attach the knee brace to a leg. One of the first and second bodies couples with a first portion of the leg via the fastener, and the other of the first and second bodies couples with a second portion of the leg via the fastener. The first and second portions of the leg are separated by a knee joint of the leg.

Disclosed is an electronically adjustable joint, and associated systems and methods. A joint position of a multiple-axis joint, e.g., a 3-axis joint, can be tracked, as the joint moves through two or more dimensions. In an illustrative embodiment, the joint can provide a mechanical equivalent of a physical joint, e.g., a shoulder, elbow, hip, or knee, which can accommodate motion in rotational angle and/or tilt angle. In some embodiments, the joint includes electronically adjustable friction. An illustrative application provide electronically adjustable joints for an aging simulation suit, wherein one or more joints can be controllably stiffened in selective ranges, such that a wearer of the suit can experience the effects of aging, arthritis and/or other ailments. In an illustrative embodiment, a sensor can use four discrete 2-axis magnetometers to calculate the position of the magnet on the arm of the joint, to continuously sense and track the angle of the joint. In some embodiments, the system includes a mechanism, e.g., a servo, which can controllably tighten a socket around a ball joint, wherein the system can controllably adjust friction on the joint.

Methods and apparatus for an orthopedic device. In one embodiment, the orthopedic device includes a first panel defining opposed first and second sides; a second panel having a first end secured to the first side of the first panel along a seam, and a second end securable to the second side of the first panel at a location site; and a first strap having a first end secured to the first side of the first panel along the seam and laying under the second panel, and a second end securable to the second side of the first panel at the location site. The orthopedic device may include a dynamic force strap that includes three ends, that collectively helically extend between upper and lower portions of the orthopedic device and connect to the first panel.

An orthotic medical device, including a proximal receiving element receiving part of an upper area of a human limb and a distal receiving element receiving part of a lower area of the human limb. The distal receiving element, with part of the lower limb area are pivotally movable with respect to the proximal receiving element. A foot supporting arrangement is adapted to receive at least a portion of a foot of the human limb, A first ankle joint, is fixedly attached to the foot supporting arrangement and to the distal receiving element on a first, and a second ankle joint arrangement is disposed on a second side and includes a rigid elongated element slidably disposed within a channel in the distal region of the distal receiving element, and an ankle joint fixedly attached to the foot supporting arrangement and to a distal end of the rigid elongated element.

A sliding assembly may include a supporting frame having a proximal end and a distal end, a sliding frame partially inserted to the supporting frame, and a supporting member disposed between the supporting frame and the sliding frame to prevent the supporting frame from directly contacting the sliding frame, wherein the sliding frame is configured to move relative to the supporting frame.

A hand orthosis for bending and/or stretching at least one finger of a patient's hand, comprising a force-introducing device fastened to a splint, which is coupled with at least one finger segment paired with the finger of the patient's hand, wherein the at least one finger segment comprises a plurality of modular members interconnected in an articulated manner. The modular members each have at least one bayonet link on a first front side and at least one bayonet hook, corresponding to the bayonet link, on a second front side for the formation of a bayonet connection between adjacent modular members providing a bayonet joint. In addition, the invention relates to a modular member for using in a hand orthosis and a method of producing a hand orthosis.

The application relates to an active joint orthosis, particularly an orthosis for the hip joint, with an extended therapeutic function and including a joint splint with articulated arms that can be pivoted relative to one another and a pad that can be actively moved via a coupling joint or cam profile on one articulated arm.

A knee brace includes a body and a handle. The handle comprises an attachment mechanism, such as a slot, to engage the knee brace. The handle may include a slot, or aperture, for receiving one or more components of the knee brace, such as a linkage. The knee brace, or components thereof, may be constructed of an elastic synthetic polymer, such as nylon.

A knee orthosis is provided. In described embodiments, the knee orthosis is designed to follow a natural movement of a wearer's knee along an asymmetric helicoidal axis of rotation. In some embodiments, the knee orthosis has hinges with shells having displacing geometric centers which do not coincide. In some embodiments, the knee orthosis is made of femoral and tibial hinges manufactured as single integral pieces. In some embodiments, the orthosis is configured to realign the wearer's knee in a frontal plane. Corresponding methods for designing and manufacturing a custom knee orthosis are also provided.

A wrist orthosis (1) for support of a patient's wrist, comprising a wire frame (2) for engagement with a forearm (F), wrist (W), and hand (H) of a patient, the wire frame (2) comprising a radial wire section (3) configured to extend in a distal direction along the forearm, wrist and toward a radial side of the hand. The radial wire section (3) is connected to a palmar wire section (4) configured to extend in lateral direction from the radial side of the hand along a palmar region (6) thereof toward an ulnar side of the hand. The palmar wire section (4) is connected to an ulnar wire section (5) configured to extend from the ulnar side of the hand in proximal direction toward an along the wrist and forearm. The radial and ulnar wire sections (3,5) are laterally spaced apart along an intermediate dorsal region (7) of the hand.