The invention provides a shoe with a sole providing a dynamic heel support, the shoe comprising a rubber outsole, a midsole comprising a harder elastic material, a softer elastic material, and at least one insert having a higher elastic hardness than the harder elastic material and the softer elastic material, and a higher resistance against bending, wherein the harder elastic material has elastic hardness in a range 1.3 to 3 times higher than the softer elastic material. The shoe is is distinguished in that the harder elastic material is arranged in a band inside the periphery along the sides and heel of the midsole, wherein the softer elastic material is arranged in the midsole inside the band of the harder elastic material, wherein the at least one insert is arranged within the softer elastic material, at least in the heel part of the midsole, and wherein the thickness of the softer elastic material above the insert in the heel part of the midsole is at least 0.5 times the thickness of the insert and the thickness of the softer elastic material below the insert in the heel part of the midsole is at least 1 times the thickness of the insert as measured at a centreline of the insert, excluding the thickness of any ribs on the inlay.

An article of footwear is provided and includes an upper and a sole secured to the upper and including a stabilizing member extending outwardly from the upper, where the stabilizing member includes a groove that separates the stabilizing member into a medial balancing member and a lateral balancing member so that the medial balancing member and the lateral balancing member move independently of each other to provide balance and stability on different terrains. The medial balancing member and a lateral balancing member also include a slot and a plate inserted into each slot.

A chamber may include a first barrier portion, a second barrier portion, a peripheral bond, an interior bond, and a fold. The first barrier portion defines a first surface of the chamber. The second barrier portion defines a second surface of the chamber, the first surface being opposite the second surface. The peripheral bond joins the first barrier portion and the second barrier portion to form an interior void within the chamber and seal a fluid within the interior void. The interior bond is spaced inward from the peripheral bond and joins the first barrier portion and the second barrier portion. Additionally, the fold is in the second barrier portion and extends away from the interior bond and through a majority of a thickness of the chamber.

A sole structure for an article of footwear includes a midsole having a medial edge and a lateral edge. The sole structure also include a first lower rib extending from the medial edge to the lateral edge of the midsole. The first lower rib includes a portion spaced from the midsole between the medial edge and the lateral edge. The sole structure further includes a medial flex member disposed between the midsole and the first lower rib near the medial edge and a lateral flex member disposed between the midsole and the first lower rib near the lateral edge. The medial flex member and the lateral flex member are configured to flex the first lower rib relative to the midsole in response to a force of a predetermined magnitude.

A sole arrangement for an article of footwear with a gradient depth value is provided. In one aspect of the disclosure, the sole arrangement extending from an end of a posterior area of the sole arrangement to an end of an anterior area of the sole arrangement, wherein the posterior area of the sole arrangement being formed under a heel area and the anterior area of the sole arrangement being formed under a forefoot area of a foot. The sole arrangement having an upper facing surface and a ground engaging surface, wherein the upper facing surface being on an opposite side of the sole arrangement than the ground engaging surface. The sole arrangement having a maximum posterior depth value. The sole arrangement having a maximum anterior depth value. The maximum posterior depth value may be smaller than the maximum anterior depth value by a first margin.

A sole arrangement for an article of footwear with a gradient depth value is provided. In one aspect of the disclosure, the sole arrangement extending from an end of a posterior area of the sole arrangement to an end of an anterior area of the sole arrangement, wherein the posterior area of the sole arrangement being formed under a heel area and the anterior area of the sole arrangement being formed under a forefoot area of a foot. The sole arrangement having an upper facing surface and a ground engaging surface, wherein the upper facing surface being on an opposite side of the sole arrangement than the ground engaging surface. The sole arrangement having a maximum posterior depth value. The sole arrangement having a maximum anterior depth value. The maximum posterior depth value may be smaller than the maximum anterior depth value by a first margin.

A sole structure for an article of footwear may have a midsole system that includes a sole plate having a forefoot region and a midfoot region. The sole plate may have a foot-facing surface and a ground-facing surface opposite to the foot-facing surface. The sole plate may define a through hole extending from the foot-facing surface to the ground-facing surface in the forefoot region. The through hole may be closer to a medial edge of the sole plate than to a lateral edge of the sole plate. The sole plate may have ridges extending longitudinally in the midfoot region and in the forefoot region. 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.

A sole structure for an article of footwear includes a midsole having a medial edge and a lateral edge. The sole structure also include a first lower rib extending from the medial edge to the lateral edge of the midsole. The first lower rib includes a portion spaced from the midsole between the medial edge and the lateral edge. The sole structure further includes a medial flex member disposed between the midsole and the first lower rib near the medial edge and a lateral flex member disposed between the midsole and the first lower rib near the lateral edge. The medial flex member and the lateral flex member are configured to flex the first lower rib relative to the midsole in response to a force of a predetermined magnitude.

The invention provides a shoe (1) with a sole providing a dynamic foot arch support, the shoe comprising a rubber outsole (9) and an upper (10), the shoe further comprises a midsole (2), the midsole comprising a harder elastic material (4), a softer elastic material (5), wherein the harder elastic material has elastic hardness in a range 1.3 to 3 times higher than the softer elastic material. The shoe is distinguished in that the harder elastic material is arranged in a band (3) inside the periphery of the midsole, wherein the softer elastic material (5) is arranged in the midsole inside the band of the harder elastic material, and the shoe further comprises: a support structure (8) arranged below the softer elastic material in direction medial to lateral and positioned from vertically below to 4 cm in front of the naviculare bone center of a typical user with feet fitting the shoe size, wherein the support structure has higher elastic hardness than the harder elastic material, with a larger vertical dimension medial compared to lateral as seen with the shoe standing on a horizontal surface, providing increased support under the medial side of the foot arch compared to the lateral side of the foot arch.

A method of forming a plate for an article of footwear is disclosed. The method includes applying a first strand portion to a base layer including positioning adjacent segments of the first strand portion to form a first layer on the base layer. The adjacent segments of the first strand portion having a greater density across a width of the plate between a medial side and a lateral side at a forefoot region of the plate than at a midfoot region of the plate and at a heel region of the plate. The method also includes applying at least one of heat and pressure to the first strand portion and to the base layer to conform the first strand portion and the base layer to a predetermined shape.