An insole of an embodiment of the disclosed technology is formed by way of taking an insole of an existing shoe (or footwear), tracing the existing insole on to a flat sheet of material, and cutting out a new insole in the same shape (side edge dimensions) as the original or substantially there-so. The material is resilient but can be made malleable at a higher temperature using such materials known in the art. It is raised to a higher temperature, then placed into the existing shoe on top of or in place of the existing insole. A person then wears the shoe with the new (hot) insole causing the insole to compress. Upon cooling and while still wearing same, the insole retains a new compressed shape formed to bottom contours of the foot of the wearer.

An insole of an embodiment of the disclosed technology is formed by way of taking an insole of an existing shoe (or footwear), tracing the existing insole on to a flat sheet of material, and cutting out a new insole in the same shape (side edge dimensions) as the original or substantially there-so. The material is resilient but can be made malleable at a higher temperature using such materials known in the art. It is raised to a higher temperature, then placed into the existing shoe on top of or in place of the existing insole. A person then wears the shoe with the new (hot) insole causing the insole to compress. Upon cooling and while still wearing same, the insole retains a new compressed shape formed to bottom contours of the foot of the wearer.

An ankle foot orthotic assembly may have an ankle foot brace configured to be inserted into an interior cavity of a protective foot covering. The ankle foot brace is configured to receive a removable insole and a user's ankle and foot, the bottom portion inwardly extending along a perimeter of the rear heel portion, the internal foot side portion, the external foot side portion, the removable insole having a bottom surface configured to be inserted adjacent to a top portion of the inwardly extending bottom portion. The brace has releasable straps to secure the insole and the user's ankle and foot inside a cavity formed by the brace. The insole is configured with an angular incline from a ball of the foot regain to distal toe region at an angle of between 18 and 30 degrees.

The present invention discloses a weight-bearing structure of high-heel footwear that is coupled to an outsole of high-heeled footwear, or in which a sole cover part becomes an outsole of the high-heeled footwear to linearly contact the ground during a loading response.

An embodiment of the present invention provides a weight-bearing structure of high-heeled footwear, including: a heel part linearly contacting the ground; a strut part extending from the heel part; and a sole cover part extending from the strut part.

An orthotic support structure or shell may be used with footwear intrinsically or as a removable and transferable device. The footwear may be a sandal assembly including a sole, a strap and an orthotic shell. The strap is attached to the sole and configured to secure the sole against the foot. The orthotic shell is positioned within the sole and formed from a semi-rigid material. The orthotic shell includes a heel portion configured to support a heel region of the foot, and a midfoot portion connected to the heel portion and configured to support an arch region of the foot, the midfoot portion comprising an arched shank having a curved convex shape. The arched shank is configured to deflect under a downward force applied thereon which reactively rotates the heel portion toward the heel region of the foot.

The present invention relates to a midsole for dispersing the pressure of the mesopodium and the metatarsal bones, and a shoe having the same, the midsole having, installed in a metatarsal bone portion and mesopodium portion of the central upper part thereof, a midfoot support for receiving an inner sole, which protrudes upwardly so as to support the mesopodium, and having a bridge groove formed in a metatarsal bone portion of the lower part thereof, wherein the bridge groove consists of three components, and has been improved so as to be capable of supporting joints between the metatarsal bone body and basal tarsus metatarsal bones.

The present invention relates to a midsole for dispersing the pressure of the mesopodium and the metatarsal bones, and a shoe having the same, the midsole having, installed in a metatarsal bone portion and mesopodium portion of the central upper part thereof, a midfoot support for receiving an inner sole, which protrudes upwardly so as to support the mesopodium, and having a bridge groove formed in a metatarsal bone portion of the lower part thereof, wherein the bridge groove consists of three components, and has been improved so as to be capable of supporting joints between the metatarsal bone body and basal tarsus metatarsal bones.

Provided is a shoe or device for inserting into a shoe, having a shallow channel on a top side of a contoured insole or shoe, specifically under the 1.sup.st metatarsal shaft of the wearer. The shoe also has a rear region or heel cup positioned to underlying a wearer's calcaneal tuberosity, the rear region being shaped to accommodate a planer surface of the wearer's calcaneal tuberosity, an upper surface of said rear region having a raised portion underlying an area of the wearer's calcaneus immediately forward of the wearer's calcaneus tuberosity.

Provided is a shoe or device for inserting into a shoe, having a shallow channel on a top side of a contoured insole or shoe, specifically under the 1.sup.st metatarsal shaft of the wearer. The shoe also has a rear region or heel cup positioned to underlying a wearer's calcaneal tuberosity, the rear region being shaped to accommodate a planer surface of the wearer's calcaneal tuberosity, an upper surface of said rear region having a raised portion underlying an area of the wearer's calcaneus immediately forward of the wearer's calcaneus tuberosity.

The present invention is an insert having a raised region that contacts an arch region of a wearer's foot, which may be selectively reinforced with a removable supplemental support. In exemplary embodiments, the insert includes a heel region adapted to receive at least a region of a heel of a wearer, and the raised region has a length situated along a width of the insert and adapted to underlie a calcaneus-midtarsal connection of a foot the wearer. The raised region is defined by a bottom semi-cylindrical surface that forms a cavity below the raised region so that an apex of the bottom semi-cylindrical surface lies above a bottom flat surface of the insert. Inside the cavity, the support is removably coupled to the cavity for selectively increasing or decreasing a rigidity of the raised region of the insert in order to apply a user-selected therapeutic pressure.