A sole structure for an article of footwear having an upper includes a cushion member and a chassis. The cushion member extends from a forefoot region to a heel region of the sole structure. The cushion member includes a first series of lobes alternating with a first series of recesses along a length of the cushion member. The first series of lobes and the first series of recesses extend along one of a medial side of the sole structure and a lateral side of the sole structure. The chassis is disposed between the cushion member and the upper and includes a series of first supports alternating with a second series of recesses. The supports of the series of first supports are aligned and in contact with respective lobes of the first series of lobes and the second series of recesses are aligned with the first series of recesses.

A sole structure for an article of footwear having an upper includes a cushion member and a chassis. The cushion member extends from a forefoot region to a heel region of the sole structure. The cushion member includes a first series of lobes alternating with a first series of recesses along a length of the cushion member. The first series of lobes and the first series of recesses extend along one of a medial side of the sole structure and a lateral side of the sole structure. The chassis is disposed between the cushion member and the upper and includes a series of first supports alternating with a second series of recesses. The supports of the series of first supports are aligned and in contact with respective lobes of the first series of lobes and the second series of recesses are aligned with the first series of recesses.

A sole for sports shoes is provided including a base or tread component, a top or midsole component and at least one intermediate or elastic cushioning component. Advantageously, the sole is able to provide high cushioning, elastic yield and stability thanks to the mechanical or structural characteristics of the sole.

A sole for sports shoes is provided including a base or tread component, a top or midsole component and at least one intermediate or elastic cushioning component. Advantageously, the sole is able to provide high cushioning, elastic yield and stability thanks to the mechanical or structural characteristics of the sole.

An article of footwear includes a medial side portion, a lateral side portion, and an outsole extending from the medial side portion to the lateral side portion and configured to contact a ground surface. The outsole may include a first portion having a first traction surface configured for engaging the ground surface, the first traction surface disposed on the medial side portion and including one or more first traction elements. The outsole may further include a second portion having a second traction surface configured for engaging the ground surface, the second portion disposed on the medial side portion and extending in a superior direction from the first portion, the second traction surface including one or more second traction elements.

An article of footwear includes a medial side portion, a lateral side portion, and an outsole extending from the medial side portion to the lateral side portion and configured to contact a ground surface. The outsole may include a first portion having a first traction surface configured for engaging the ground surface, the first traction surface disposed on the medial side portion and including one or more first traction elements. The outsole may further include a second portion having a second traction surface configured for engaging the ground surface, the second portion disposed on the medial side portion and extending in a superior direction from the first portion, the second traction surface including one or more second traction elements.

Footwear articles are fabricated with materials and includes a structure that enable the articles to be non-toxic, natural, biodegradable, and/or environmentally-friendly. The structure of the footwear articles is configured for a user's foot, including aspects which allow for precision rigidity or flexibility within the footwear article. The footwear articles are capable of including cycling footwear articles. The cycling footwear articles are further capable of including aspects which provide enough rigidity to couple to clipless pedal systems on a bicycle, and other aspects which allow for a flexibility when walking. Methods of forming the footwear articles and related packaging systems are provided, which also utilize non-toxic, natural, biodegradable, and/or environmentally-friendly materials.

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.

An article of footwear including a sole structure attached to an upper defining an internal void configured to receive a foot of a wearer is described. The sole structure includes a sole body portion having a central ridge element located in an aperture in the sole body portion and the central ridge element is configured to contact the ground and move relative to the aperture.

The present invention relates to an enhanced method for the manufacture of a plastic component (135), in particular a cushioning element for sports apparel, the method comprising: opening a mold (100) by a predetermined amount into a loading position, wherein the mold comprises at least two mold parts (110, 112) and wherein the amount by which the mold is opened influences an available loading volume of the mold, loading a material comprising expanded particles (130) into the loading volume, closing the mold into a closed position, wherein during closing of the mold the mold parts are moved together over different distances (140) in different areas of the mold, compressing the expanded particles by closing the mold and fusing at least the surfaces of the expanded particles to mold the plastic component.