A61L15/08

Multi-component frame for use in an orthopedic device
11547774 · 2023-01-10 · ·

A multi-component frame includes a first component made from a rigid structural material and a second component connected to at least an end portion the first component. The first component is constructed from a metal or metal alloy, and the second component is constructed from a material different from the first component. The first and second components form at least part of a length of the multi-component frame.

Multi-component frame for use in an orthopedic device
11547774 · 2023-01-10 · ·

A multi-component frame includes a first component made from a rigid structural material and a second component connected to at least an end portion the first component. The first component is constructed from a metal or metal alloy, and the second component is constructed from a material different from the first component. The first and second components form at least part of a length of the multi-component frame.

ANKLE FOOT ORTHOSES AND METHOD OF MANUFACTURING

Ankle foot orthoses (AFO) and methods of customizing an AFO. In one embodiment, the AFO includes a carbon fiber strut that includes a carbon fiber foot plate; a formable layer that is coupled with the carbon fiber foot plate, the formable layer being formable from an initial shape to a formed shape; an inner boot, where the formable layer being formed into the formed shape is configured to be formed around geometry of portions of the inner boot; and a moldable calf piece that is configured to be attached to the carbon fiber strut. The AFO may also include a strapping system that is coupled between the moldable calf piece and the inner boot. Methods of manufacturing and customizing the aforementioned AFO are also disclosed.

ANKLE FOOT ORTHOSES AND METHOD OF MANUFACTURING

Ankle foot orthoses (AFO) and methods of customizing an AFO. In one embodiment, the AFO includes a carbon fiber strut that includes a carbon fiber foot plate; a formable layer that is coupled with the carbon fiber foot plate, the formable layer being formable from an initial shape to a formed shape; an inner boot, where the formable layer being formed into the formed shape is configured to be formed around geometry of portions of the inner boot; and a moldable calf piece that is configured to be attached to the carbon fiber strut. The AFO may also include a strapping system that is coupled between the moldable calf piece and the inner boot. Methods of manufacturing and customizing the aforementioned AFO are also disclosed.

Multi-Functional Cleaning and/or Debridement Composition
20230056514 · 2023-02-23 · ·

The present invention relates to a new multifunctional debridement and/or antifouling composition comprising H.sub.2O.sub.2 at a final concentration of between 0.1-5% v/v, and a composite hydrogel formulation comprising pluronic acid at a concentration of 10-40% w/v, wherein the composition is in liquid form at room temperature. The composition disclosed herein is antimicrobial and/or anti-inflammatory and is particular useful in periimplantitis treatment and implant health maintenance, in periodontitis and periodontal health and in wound care and chronic ulcer care.

Electro-actuatable compression garments with shape memory elements

A compression garment having one or more flex frames that can be shortened or lengthened to apply or release a compressive force to the limb or other anatomical feature of a user. The compression garment can have a wire made of shape memory material (shape memory alloy). A controller of the compression garment can supply an electrical input to the wire, generating heat that can cause the wire to contract such that the flex frame deflects to a shorter length to apply a compressive force to the limb or other anatomical feature of the user. The one or more flex frames can be contracted in unison or in sequence to direct the flow of bodily fluids in the limb or other anatomical feature of the user.

ELECTRO-ACTUATABLE COMPRESSION GARMENTS WITH SHAPE MEMORY ELEMENTS

A compression garment having one or more flex frames that can be shortened or lengthened to apply or release a compressive force to the limb or other anatomical feature of a user. The compression garment can have a wire made of shape memory material (shape memory alloy). A controller of the compression garment can supply an electrical input to the wire, generating heat that can cause the wire to contract such that the flex frame deflects to a shorter length to apply a compressive force to the limb or other anatomical feature of the user. The one or more flex frames can be contracted in unison or in sequence to direct the flow of bodily fluids in the limb or other anatomical feature of the user.

MULTI-COMPONENT FRAME FOR USE IN AN ORTHOPEDIC DEVICE
20230105907 · 2023-04-06 ·

A multi-component frame includes a first component made from a rigid structural material and a second component connected to at least an end portion the first component. The first component is constructed from a metal or metal alloy, and the second component is constructed from a material different from the first component. The first and second components form at least part of a length of the multi-component frame.

MULTI-COMPONENT FRAME FOR USE IN AN ORTHOPEDIC DEVICE
20230105907 · 2023-04-06 ·

A multi-component frame includes a first component made from a rigid structural material and a second component connected to at least an end portion the first component. The first component is constructed from a metal or metal alloy, and the second component is constructed from a material different from the first component. The first and second components form at least part of a length of the multi-component frame.

Bioactive glass scaffolds, and method of making
09850157 · 2017-12-26 · ·

A glass, glass-ceramic, or ceramic bead is described, with an internal porous scaffold microstructure that is surrounded by an amorphous shield. The shield serves to protect the internal porous microstructure of the shield while increasing the overall strength of the porous microstructure and improve the flowability of the beads either by themselves or in devices such as biologically degradable putty that would be used in bone or soft tissue augmentation or regeneration. The open porosity present inside the bead will allow for enhanced degradability in-vivo as compared to solid particles or spheres and also promote the growth of tissues including but not limited to all types of bone, soft tissue, blood vessels, and nerves.