A work shoe, in particular a safety shoe, includes at least one passive protection unit which is intended to passively protect a shoe wearer at least against mechanical and/or electrical loads, and includes at least one active protection unit which has at least one sensor unit which is intended to detect at least one characteristic variable at least in order to enable a protection function and/or a comfort function. The sensor unit is configured at least for detecting at least one person-related characteristic variable and/or at least one environmental characteristic variable.

A sole for cycling shoe includes a forefoot section, a heel section and an arch section connected between the forefoot section and the heel section, a longitudinal axis and a tilting axis defined between the forefoot section and the heel section, a deviation angle defined between the tilting axis and the longitudinal axis, a middle part extending through the forefoot section, the arch section and the heel section, and two side wing portions defined at two opposite sides relative to the middle part. The rigidity of the middle part is higher than the two side wing portions. The middle part extends in the arch section along the tilting axis. Based on the above-described technical features, the overall structure of the sole has sufficient rigidity with enhanced torsionability on the rear end thereof, making the cycling shoe more comfort.

A sole structure for an article of footwear comprises a sole plate including a midfoot region and at least one of a forefoot region and a heel region. The sole plate has an undulating profile at a transverse cross-section of the sole plate. The undulating profile includes multiple waves each having a crest and a trough. The sole plate has ridges corresponding with the crest and the trough of each wave and extending longitudinally throughout the midfoot region and the at least one of a forefoot region and a heel region.

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 midfoot region of the plate than at a forefoot 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.

An article of footwear can comprise: an upper, and a sole assembly connected to the upper to form a receptacle for a human foot, the sole assembly can comprise: a cushion comprising an exterior wall that forms an enclosure; an antenna disposed within the enclosure; and a microchip connected to the antenna. A method of manufacturing an article of footwear can comprise: positioning an electronic communication device between two plies of polymer laminate; heating the two plies of polymer laminate to form a weld area and a cushion area, wherein the electronic communication device becomes encapsulated between the two plies of polymer laminate, inflating the cushion area with a gas; and sealing the cushion area.

A sole structure for an article of footwear comprises a midsole having four stacked polymeric sheets bonded to one another to define a first cushioning layer, a second cushioning layer, and a third cushioning layer. Each cushioning layer comprises a sealed chamber retaining gas in isolation from each other sealed chamber. Bonds between adjacent ones of the sheets are arranged such that the third cushioning layer is stacked directly above the first cushioning layer with the second cushioning layer bordering both the first cushioning layer and the third cushioning layer, and the sealed chamber of the second cushioning layer includes a plurality of elongated segments each extending lengthwise across a longitudinal midline of the midsole at a respective acute angle to the longitudinal midline.

The disclosed exemplary apparatuses, systems and methods provide a three-dimensional shoe sole foam, produced via a layer-by-layer additive manufacturing process in which regions of respective layers of pulverant are selectively melted via introduction of electromagnetic energy. These apparatuses, systems and methods may include layers of the pulverant comprising at least thermoplastic polyurethane polymer (TPU) coated upon a sacrificial base particle, wherein the TPU is coated via one of spray drying and a fluidized vessel.

The walking device has a shoe bottom (10) with a midsole (16). A soft heel part (20) is arranged in a recess (18) of the midsole (16) and the outsole (22) has a form that is rounded convexly in the walking direction. The reinforcing element (12), forming an insole, is arranged on the upper surface (44) of the midsole (16) and fastened to it. In the production of the walking device, the upper (14) is joined to the reinforcing element (12) to form a structural unit, which is then mounted on the midsole (16), for example by adhesive bonding.

A customizable therapeutic or occupational shoe sole and methods of producing the shoe sole are provided. The shoe sole includes an outsole, a midsole made from a shock absorptive material and an energy returner integrated with the midsole via an opening in the midsole. The energy returner includes a front lever arm secured to a front bottom recess of the midsole and includes a rear lever arm secured to a rear top recess of the midsole. The rear lever arm includes a lever arm joint for coupling the rear lever arm to the front lever arm. In some embodiments, shoe sole includes an adjustable base to enhance body mass control of the subject via a plantar flexor tendon, thereby customizing for unique biomechanics by relocating the adjustable base relative to the rear lever arm.

The disclosure relates to articles of footwear and components thereof, including outsoles, which can be used in conditions normally conducive to the accumulation of soil on the outsoles. In particular, the disclosure relates to articles of footwear and components thereof including an outsole having a dispersion present on a ground facing surface of the outsole. The dispersion compositionally includes a polymeric continuous phase and a hydrophilic dispersant, and exhibits a water uptake rate greater than 20 grams/(meter.sup.2-minutes.sup.1/2). The outsoles can prevent or reduce the accumulation of soil on the footwear during wear on unpaved surfaces such as sporting fields. When the outsoles are wetted with water, the outsoles can become more compliant and/or can rapidly uptake and/or expel water, which can prevent soil from adhering to the outsole and/or can assist in shedding soil present on the outsole.