A sole or insole for an orthopedic shoe for persons with hallux valgus. The sole or insole includes a main part located at least under and supporting the Digitis Pedis II to V and the ball of the foot, and an element movably connected to the main part that is located under and supports the Digitis Pedis I. The main part of the sole or insole includes a cavity under the Digitis Pedis II to V and/or the transverse arch of the foot that contains a hydraulic, mechanical, pneumatic, electric or other device that causes rotary movement of the moveable element in the horizontal plane laterally away from the main part during a walking movement, in particular caused by the compressive force caused by the wearer's own weight on the sole or insole.

An article of footwear is provided having an elevated plate structure incorporated in the sole structure and optionally including a fluid-filled chamber. The elevated plate structure can include an upper plate and a plurality of legs extending downward toward the outsole. End portions of the legs can engage an upper region of the outsole. The elevated plate structure can form a cage region that can optionally include a fluid-filled chamber substantially disposed therein. The elevated plate structure can further include a lower plate disposed at an upper region of the outsole, which can form a lower portion of the cage region. Portions of the legs can be integrated with impact-attenuating members in the heel region in various configurations and can provide features for the impact-attenuating members, such as support, impact-attenuation and adjustable impact-attenuation features.

A sole or insole for an orthopedic shoe for persons with hallux valgus. The sole or insole includes a main part located at least under and supporting the Digitis Pedis II to V and the ball of the foot, and an element movably connected to the main part that is located under and supports the Digitis Pedis I. The main part of the sole or insole includes a cavity under the Digitis Pedis II to V and/or the transverse arch of the foot that contains a hydraulic, mechanical, pneumatic, electric or other device that causes rotary movement of the moveable element in the horizontal plane laterally away from the main part during a walking movement, in particular caused by the compressive force caused by the wearer's own weight on the sole or insole.

A sole structure for an article of footwear is provided. The sole structure includes an outsole having a ground-engaging surface and an upper surface formed on an opposite side of the outsole than the ground-engaging surface. A first cushion is disposed proximate to a medial side of the sole structure and includes a first fluid-filled chamber attached to the upper surface of the outsole and a second fluid-filled chamber attached to the first fluid-filled chamber and disposed between the first fluid-filled chamber and the upper. A second cushion is disposed proximate to a lateral side of the sole structure and includes a third fluid-filled chamber attached to the upper surface of the outsole and a fourth fluid-filled chamber attached to the third fluid-filled chamber and disposed between the third fluid-filled chamber and the upper. The second cushion is fluidly isolated from the first cushion.

A sole structure for an article of footwear has a sole plate that may include a midfoot region, and also may include a forefoot region or a heel region. The sole plate may have a foot-facing surface with ridges extending longitudinally in the midfoot region and in the forefoot region or heel region. The sole plate may have a ground-facing surface with grooves extending longitudinally in correspondence with the ridges. A thickness of the sole plate from the foot-facing surface to the ground-facing surface may vary at a transverse cross-section of the sole plate through the ridges, or along a length of at least one of the ridges, or at both the transverse cross-section and along the length of the at least one of the ridges. The ridges may have crests at least some of which may extend non-parallel with one another in a longitudinal direction of the sole plate.

There is provided a semiconductor device, including a semiconductor substrate, an interlayer insulating layer formed on the semiconductor substrate, a bonding electrode formed on a surface of the interlayer insulating layer, and a metal film which covers an entire surface of a bonding surface including the interlayer insulating layer and the bonding electrode.

A sole structure for an article of footwear comprises a sole plate that includes a foot-facing surface with a forefoot portion, and a ground-facing surface opposite from the foot-receiving surface. A tension member is operatively secured to the ground-facing surface and has a portion configured to move relative to the sole plate during dorsiflexion of the sole structure in a first portion of a flexion range, and interfere with the sole plate during dorsiflexion of the sole structure in a second portion of the flexion range greater than the first portion altering the rate of the resultant torque.

A plurality of orthotic systems are provided. One bi-layer system is constructed from a single sheet of fabric that is molded into two layers. One tri-layer system includes a base layer; a mid-layer; and an upper layer. The upper layer is joined to the mid-layer and the mid-layer is joined to the base layer. The coupling of the base layer, the mid-layer and the upper layer create a rear spring section, a mid-spring section and a front spring section in which the upper layer is suspended over the mid-layer and the heel portion is suspended on the proximal heel end of the base layer.

The present invention relates to a sole for sports shoes including a base or tread component, a top or midsole component and at least one intermediate or elastic cushioning component.

An active footwear suspension system is disclosed. The footwear system provides dynamic suspension using at least one or more variable resistance beams. At least one or more VRB from an anchor plate positioned forward of and/or aft of an arch section of the footwear, thus providing selectable suspension to the wearer. The selected rotation of the VRBs from a first position to a second position provides customized suspension between a minimum resistance to a maximum resistance per zone.