An article of footwear including an upper and a sole assembly configured to provide broad base structural support and stability to a wearer's foot to promote pain prevention in the wearer. The footwear can include a midsole including a stability bridge that enhances torsional rigidity in an arch region, a bifurcated rigid central shank disposed in the arch region under the stability bridge that is visible to a viewer of the footwear and an outsole disposed below the midsole and the bifurcated central shank. The outsole can include a ladder tread section, disposed below the bifurcated central shank, that less than 5 mm above a lowermost surface of the remainder of the outsole so that the outsole includes a substantially flat ground contacting surface to promote stability. The outsole also can include an upwardly curved rearmost heel strike tread, and heel and/or forefoot impact absorption comfort pods in associated midsole voids.

Footwear used for high performance activities such as running can be adhesively attached to the plantar surface of feet rather than uppers or straps. The upper surface of the protective layer of the footwear can have adhesive regions that secure the foot to the footwear and other regions that are not adhesively coupled to the foot. The adhesive regions can be under the heel, along the lateral side of the foot, under the first through fifth metatarsophalangeal (MTP) joints and around the perimeter of the foot above the plantar surface.

When dancing en pointe, the wearer's weight is typically supported by their toes. Pointe shoes, including a shank and a toe box, are worn to support the wearer's toes. However, the wearer's weight is mainly supported by their toes when dancing en pointe. A pointe shoe (100) is provided including a two-part fastener (110, 210) for adhering the wearer's heel and/or arch region of their foot to the shank (130) of the pointe shoe. In this way, when dancing en pointe, at least some of the wearer's weight is transferred to the toe box via the two-part fastener and the shank, such that pressure on their toes (320) is reduced.

A sole structure for an article of footwear includes a unitary sole with a first cushioning body having a first hardness and a second cushioning having a second hardness greater than the first hardness. Both the first and the second cushioning bodies are exposed at a periphery of the sole. The second cushioning body may have a wedge surface that interfaces with a lateral extremity of the first cushioning body and angles laterally outward toward a lateral side exterior surface of the sole from a lower extent to an upper extent of the wedge surface. The second cushioning body may underlie the first cushioning body in a portion of a forefoot region of the sole such that the first cushioning body establishes a foot-facing exterior surface and the second cushioning body establishes a ground-facing exterior surface of the sole where the first cushioning body overlies the second cushioning body.

An active suspension orthotic support system is disclosed. The suspension orthotic support system comprises at least one variable resistance beam extending from a heel section to a mid-arch section of the footwear, wherein rotation of the variable resistance beam from a first position to a second position causes a resistance provided by the variable resistance beam to vary between a minimum resistance to a maximum resistance.

An article of footwear including an upper and a sole assembly configured to provide broad base structural support and stability to a wearer's foot to promote pain prevention in the wearer. The footwear can include a midsole including a stability bridge that enhances torsional rigidity in an arch region, a bifurcated rigid central shank disposed in the arch region under the stability bridge that is visible to a viewer of the footwear and an outsole disposed below the midsole and the bifurcated central shank. The outsole can include a ladder tread section, disposed below the bifurcated central shank, that less than 5 mm above a lowermost surface of the remainder of the outsole so that the outsole includes a substantially flat ground contacting surface to promote stability. The outsole also can include an upwardly curved rearmost heel strike tread, and heel and/or forefoot impact absorption comfort pods in associated midsole voids.

A sole structure for an article of footwear includes a unitary sole with a first cushioning body having a first hardness and a second cushioning having a second hardness greater than the first hardness. Both the first and the second cushioning bodies are exposed at a periphery of the sole. The second cushioning body may have a wedge surface that interfaces with a lateral extremity of the first cushioning body and angles laterally outward toward a lateral side exterior surface of the sole from a lower extent to an upper extent of the wedge surface. The second cushioning body may underlie the first cushioning body in a portion of a forefoot region of the sole such that the first cushioning body establishes a foot-facing exterior surface and the second cushioning body establishes a ground-facing exterior surface of the sole where the first cushioning body overlies the second cushioning body.

An orthotic support assembly includes a first orthotic support that is attachable to a sole of a shoe to abut a support surface upon which a user is walking. The first orthotic support has a rounded profile thereby facilitating the sole of the shoe to roll on the first orthotic support when the user walks. A second orthotic support is attachable to the sole of the shoe and the second orthotic support has a rectilinear profile to inhibiting the sole of the shoe from rocking on the first orthotic support when the user walks. A third orthotic support is attachable to the sole of the shoe and the third orthotic support has a trapezoidal profile. In this way the sole of the shoe is oriented level on the ground to facilitate a user with an unstable foot to walk in a level orientation.

An orthotic support assembly includes a first orthotic support that is attachable to a sole of a shoe to abut a support surface upon which a user is walking. The first orthotic support has a rounded profile thereby facilitating the sole of the shoe to roll on the first orthotic support when the user walks. A second orthotic support is attachable to the sole of the shoe and the second orthotic support has a rectilinear profile to inhibiting the sole of the shoe from rocking on the first orthotic support when the user walks. A third orthotic support is attachable to the sole of the shoe and the third orthotic support has a trapezoidal profile. In this way the sole of the shoe is oriented level on the ground to facilitate a user with an unstable foot to walk in a level orientation.

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.