The present disclosure can provide a leg brace capable of reducing a pain in a knee while both enhancing its convenience and reducing the burden on an ankle. the leg brace including: a first pushing part that pushes a leg of the wearer outward so that an ankle bone is positioned above a heel bone; a second pushing part that pushes the leg of the wearer inward so that the ankle bone is positioned above the heel bone; a restraint part that restrains a positional relation between the first and the second pushing parts in which they face each other across the leg of the wearer; and a placement part on which a foot of the wearer is placed, the placement part being connected to the first pushing part or the second pushing part.

An orthotic support assembly is disclosed herein that is configured to be attached to a patient's foot. The support assembly defines a first, internal device and a second, external device. The internal device defines at least a portion that extends to a top of a user's foot when positioned within the external device.

An orthopedic walking boot includes a housing configured to encompass at least a user's foot, a mechanically adjustable ramp insert comprising a ramp surface and disposed in the housing, and an adjusting mechanism configured to adjust an elevation angle of the ramp surface. The mechanically adjustable ramp insert includes a base, a threaded shaft secured to the adjusting mechanism at a first end and configured to rotate with the adjusting mechanism, a first slider nut comprising internal threads, a bracket in physical contact with the ramp surface, a first support coupled to the first slider nut at a first end and to the bracket at a second end, and a second support coupled to the base at a first end and to the bracket at a second end.

A material includes a support layer comprising a woven fiber layer less than 30 mils thick. The support layer includes an elongate strap support. The support layer has a ratio of elongation to tensile strength (lb/in-width) that is less than 0.9 in a first direction and greater than 0.9 in a perpendicular second direction. The material additionally includes an adhesive layer on said support layer for adhesive attachment of said support layer to the outer skin surface of a user and a removable cover layer on said adhesive layer. Methods of use of the material and elongate strap support(s) to a human body include providing anatomical support or therapeutic effects.

Under the inventive process, the customised split insole is made by processing manually collected medical data and arch data along with plantar pressure distribution data and foot type data both of which are collected using a computer enabled Plantar Pressure Measuring Device in a first computer and processing these data in a second computer to generate a Projection Data which is expressed in Shore Hardness Value. Then, ranking of the projection data into a zone wise Ranking Index, determining the elasticity of the material to be used for the said Shore Hardness Value, converting the said shore hardness value into Surface Tessellation Language and transmitting the same to a third computer built into a 3D printing machine which selects a suitable material and its elasticity zone wise as per the Shore Hardness Value and 3D prints the same.

Methods for providing footwear configured to treat leg length discrepancy include manufacturing a plurality of footwear members. Each footwear member has a sole thickness, with sole thicknesses of the plurality of footwear members spanning a predetermined range of thicknesses. A corrective pair of footwear may be formed by selecting a left member having a first sole thickness and a right member having a second sole thickness, wherein the difference between the first and second sole thicknesses corresponds to an amount of leg length discrepancy to be corrected.

A method of manufacturing footwear and an article of footwear having a tapered heel in part defining an impact point associated with a padded impact zone which first strikes a surface upon a foot plant and a plate embedded within a sole of the article such that the plate supports the heel of the sole from flexing or collapsing. The impact point is part of an impact area (F) positioned adjacent an ankle pivot axis of the wearer's ankle, and in one aspect is positioned at or slightly posterior the ankle pivot axis. In one aspect the method includes configuring a sole of the footwear based on an ankle pivot characteristic or balance pivot characteristic of a wearer in a custom manufacture or based on the same of a typical or an ordinary wearer in a non-custom manufacture.

The present invention generally relates to orthopedic insoles, either aftermarket insoles that can be added onto or exchanged for the insoles an existing shoe was manufactured with, or insoles that a shoe is built around on during manufacture. Specifically, embodiments of the present invention relate to orthopedic insoles that comprise an angled forefoot area for varus correction. In particular, in embodiments of the present invention, the inside area of the inner right forefoot is raised to create an angle to accommodate forefoot varus. Also, in embodiments of the invention, the insoles may comprise a plantar fascial groove configured longitudinally on the arch of the innersole, for accommodation of tight fascia. Further, the heel area of the innersole may be elevated to accommodate for equinus foot. Insoles of the present invention provide both static and dynamic support.

A method for manufacturing stretch resistant plantar fascia support system is provided. The stretch resistant plantar fascia support system is adhesively applied to the foot of a patient for providing relief from plantar fasciitis. A portion of the stretch resistant plantar fascia support system is adhesively attached to the bottom surface of the foot for reducing stress on the plantar fascia.

An adjustable corrective shoe component is provided. The shoe component can be disposed in an inner lining of a shoe. The shoe component may include a shell formed conformal to an interior bottom surface of the shoe and curving upwards at sides of the shoe. The shell may include a forefoot section to accommodate a forefoot area of a foot, a middle section to accommodate a midfoot area of the foot, and a hind section to accommodate a hind area of the foot. The shoe component may include a strap attached to a medial side of the middle section and configured to pull the middle section towards a lateral side of the shoe to cause the middle section to support an arch of the foot.