Methods and apparatus for human anatomical orthoses. In one embodiment, an orthoses is disclosed that has been integrated into a sock and includes a tensioning element that is configured to keep the top portion of the sock at or above a user's calf muscle, a rotary tensioning mechanism disposed adjacent to the top portion of the sock, a support cable that is weaved within the body of the sock such that the support cable is maintained in close proximity with a user's leg when tension is applied thereto, and a supporting structure that is coupled to the support cable, the supporting structure being disposed adjacent to a user's toes. Methods of manufacturing and using the aforementioned orthoses is also disclosed.

A garment for providing orthopedic support or therapy to a human body may include a tubular flexible element and a tension strap. The tubular flexible element may be disposed around at least some portion of a human body and include flexible and a touch fastener portions. The flexible portion may be at an exterior of the tubular flexible element and cover a first portion of the body. The touch fastener portion may be at the exterior of the tubular flexible element and cover a second portion of the body. The tension strap may include first and second ends, where the first end includes a first touch fastener to be coupled with the touch fastener portion at a first location, and the second end includes a second touch fastener to be coupled with the touch fastener portion at a second location, thereby applying tension between the first and second locations.

A non-water-activatable cast has one or more layers of sheet-like material which create a combined flexibility, stiffness, or rigidity so that the cast may be manually positioned in substantial contact with a lower extremity to be received within the cast. As such, the cast is not only readily deployable by a patient, but has predetermined flexibility located and selected to control ankle movement within a therapeutically appropriate range, whether used by itself or in association with a related orthosis, such as a CAM walker. In certain applications, the cast likewise offloads or otherwise redistributes force by virtue of the rigidity of the plantar impact surface on such cast and the rigidity of other cast portions.

A thumb orthosis, particular for correcting malpositions of the thumb in the carpometacarpal joint, includes a) a substantially dimensionally stable molded body bent in a U-shape, which is fitted on the hand between the thumb and index finger in the applied state and supports the thumb and fixes it at a distance from the index finger, wherein the molded body bent in a U-shape has a first end portion and a second end portion, and b) a strap which is fastened by one strap end to the first end portion of the molded body, wherein the second end portion of the molded body has a guiding element for guiding the strap, for example has a turning element for turning the strap back.

The invention provides an apparatus for use in determining the three-dimensional shape of an object, which apparatus comprises: an article, comprising a stretchable material, and a plurality of strain sensors positioned in contact with the material such that stretching of the material is detectable by the sensors; a computing device operatively coupled to the article and configured to receive output data from the sensors and to process the data to determine the three dimensional shape of the object. The invention also provides a method for providing a customized orthotic product using the apparatus.

The invention relates to a hand orthosis (1) for assisting the movements of a user's hand. The hand orthosis comprises a soft glove (2) adapted to receive at least a part of the user's hand with finger sections of the glove receiving each of the user's fingers. It further comprises at least one actuator box (3), and a power transmission (4) for transferring forces from the at least one actuator box to different parts of the glove via exo-tendons (5). The exo-tendons are arranged on a dorsal side, on a palmar side, or on both a dorsal side and a palmar side of the glove. The exo-tendons are arranged so that the glove can assist flexion, extension, or both extension and flexion of the fingers, respectively and so that the exo-tendons act on the fingers to produce motion that mimics the movement of a human hand. The hand orthosis provides different grasp types, self- adaptation of the fingers' motion to the shape of the object, and physiologically appropriate distribution of finger forces.

A spring adapter for arrangement on an orthopedic joint system is disclosed, where the orthopedic joint system includes an upper part and a lower part articulated thereto about a pivot axis. The joint system comprises a resistance element that exerts a resistive force on a pivoting movement about the pivot axis. The spring adapter comprises at least one pneumatic spring element, flexible spring element and/or torsion spring element and is tensioned when the upper part is pivoted relative to the lower part.

The present invention belongs to the field of medical accessories, more precisely to the field of accessories for protection against outer conditions such as impacts, high or low temperature and similar conditions that can harm a human being. The invention relates to a personalized accessory for protection of a body part, which comprises a protective element, which fits to the shape of the excrescence, a scar or a wound, and an adjustable part to which the protective part is attached, glued, sewed or inserted, wherein the adjustable part can be stretched or in any other way adjusted to the particular body part, which has to be protected. The said accessory is manufactured in the following way: first the body part with the injury is scanned or measured in order to obtain a 3D model of the scanned or measured body part. Then the protective element is made using a 3D printer or thermoforming with an adjustable mould, wherein the finished protective element is then attached to the adjustable part.

An orthopedic device has first and second struts connected to one another by a hinge system, and includes a dynamic control system and a counterforce system. The dynamic control system includes first and second dynamic components arranged on a first side of the orthopedic device to exert first and second dynamic forces according to a flexion angle of the hinge system. A counterforce system is located on a second side of the orthopedic device to counteract the first and second dynamic forces with at least one counterforce.

An optical scanning microscope includes an illumination system having a light source portion emanating from a light source, first and second polarizing beam splitters, and first and second optical channels disposed between the beam splitters. The light source portion is configured to emit a first illumination light beam comprising light of a first main polarization direction and of a second main polarization direction. The first beam splitter is configured to guide the light primarily into the first and channels, respectively. The second beam splitter is configured to form a second illumination light beam from light of the first and second main polarization directions from the first channel and second channels, respectively. The first and second channels are configured to emit the light of the first and second main polarization directions from the first and second channels, respectively, so as to have different types of convergence.