A joint for an orthopedic device, which comprises a first joint arm with a recess, a second joint arm that projects into said recess and is connected therein to the first joint arm so as to pivot about a pivot axis, and at least one spacing element that is arranged inside the recess between the first joint arm and the second joint arm and through which the pivot axis runs, wherein the at least one spacing element is accessible from outside, and particularly projects out of the recess.

A knee orthosis (1) for support of a knee joint in the case of instability comprises a thigh portion (4), which is attachable on the thigh, and a lower leg portion (5), which is attachable on the lower leg, which lower leg portion (5) is provided with splint elements (12), which are connected in an articulated way, via articulation means (13), to hinge plates (14) attached on the thigh portion (4). The lower leg portion (5) has a lower half shell (9), which in the region remote from the knee is borne in the splint elements (12) in a way pivotable about a pivot axis (15). Via a longitudinally stable, flexible traction (17) the lower half shell (9) is pushed ventrally against the lower leg, the pressure increasing with bending of the knee. An optimal support of the knee joint is thereby achieved, especially when the cruciate ligaments are injured.

An adjustable brace includes a first portion for supporting one surface of a patient and a plurality of adjustable portions that allow the internal cross section of the brace to be adjusted. When a limb is injured, a patient may have a swollen limb and the adjustable brace can be set to a large cross section. As the limb heals, the swelling decreases and the limb cross section also decreases due to atrophy. The adjustable couplings are adjusted to reduce the cross section to properly fit the limb of the patient and provide proper protection and support during the healing process.

A textile part, in particular a textile orthopedic aid, having a textile main panel as well as at least one functional element from plastics material which is disposed on the main panel, wherein at least one planar cover element which engages only in portions across the functional element disposed in the main panel and which also extends across the main panel is provided, wherein the cover element is connected to the main panel and/or the functional element, and the functional element is connected to the main panel in a materially integral manner.

A dynamic tension system connects to an orthopedic device having a frame and a hinge connected to the frame. The dynamic tension system includes a cable, an adjustment mechanism connected to the cable and arranged to incrementally wind or release the cable, and a tension control device connected to the adjustment mechanism and arranged to limit the adjustment mechanism from winding of the cable past a predetermined tension level.

Provided are a connecting module and a motion assistance apparatus including the same, the connecting module including a case provided to incline downward from a space recessed between a waist and a hip of a user to a hip joint of the user, a power transmitting assembly disposed in an internal portion of the case, and a supporting module connecting portion disposed at an output terminal of the power transmitting assembly and to be fastened with a supporting module that supports a leg of the user.

A dynamic tension system connects to an orthopedic device having a frame and a hinge connected to the frame. The dynamic tension system includes a cable, an adjustment mechanism connected to the cable and arranged to incrementally wind or release the cable, and a tension control device connected to the adjustment mechanism and arranged to limit the adjustment mechanism from winding of the cable past a predetermined tension level.

An ankle joint mechanism to be fitted on an ankle of a user to assist motion of a body of the user, includes: a lower leg link to be disposed along a lower leg of the user; a foot holder configured to hold a foot of the user; a plantar/dorsi flexion mechanism configured to connect the lower leg link and the foot holder to each other so as to be pivotable about a plantar/dorsi flexion axis of an ankle joint of the user; an adduction/abduction mechanism configured to connect the lower leg link and the foot holder to each other so as to be pivotable about an adduction/abduction axis of the ankle joint; and an inversion/eversion mechanism configured to connect the lower leg link and the foot holder to each other so as to be pivotable about an inversion/eversion axis of the ankle joint.

The present invention involves a brace garment arranged for enveloping at least in part a joint of a human user comprises an extensible matrix fabric, at least one low elasticity web portion having a zonal fabric different from the matrix fabric, and at least one corresponding tension member disposed to induce tension in the at least one low elasticity web portion. The one boundary between the low elasticity web portion and the matrix fabric is a continuously knitted boundary. The garment may comprise conduits knitted into the matrix fabric and the low elasticity web portion for guiding the at least one tension member. The path of the tension member spatially relates the at least one tension member to at least one natural ligament of the knee, at least one of the low elasticity web portions being disposed to apply pressure to a side of the knee.

The invention relates to a dynamic correction splint (1) with two splint parts (5, 6) connected to each other via a joint (2). Spring bases (25, 26) of a spring device (27) are each coupled to a splint part (5, 6) in such a way that pivoting the splint parts (5, 6) leads to an altered biasing of the spring device (27). The spring device (27) exerts a correction moment onto the splint parts (5, 6) acting in the direction of a correction position of the splint parts (5, 6). The spring device (27) is configured and coupled to the splint parts (5, 6) in such a way that the absolute value of the correction moment increases as the correction position of the splint parts (5, 6) is approached. It is possible that a switching mechanism (40) is present. The switching mechanism (40) is actuated in a motion-controlled way by the pivoting of the splint parts (5, 6) and at its actuation changes the coupling of the splint parts (5, 6) with the spring device (27).