Provided is a ventilated shoe. The shoe includes an upper. An outsole has an upper edge end provided on an upper sole part, an air chamber provided inside the upper edge end, and an ascending and descending edge surface provided on an outer edge of a lower sole part in such a way as to be inclined outwards and upwards from a bottom surface, the outer edge of the lower sole part being provided under the upper edge end to be opposite thereto. An insole is secured to the upper edge end to cover a top of the air chamber, with a plurality of ventilation holes being formed in a front portion thereof. A backflow prevention valve prevents outside air supplied to the air chamber from flowing backwards. An air inlet pipe supplies the outside air to the backflow prevention valve.

A system for measuring and controlling foot temperature. The system comprises a heating or cooling device including one or more sealed fluidic pathways having a cooling or heating fluid therein and disposed in or on an article of footwear or a sock. A pumping device coupled to the heating or cooling device is configured to circulate the fluid in the one or more sealed fluidic pathways. A heat exchanger coupled to the heating or cooling device is configured to remove or add heat from or to the fluid in the one or more sealed fluidic pathways. A controller coupled to the pumping device and the heat exchanger is configured to control the pumping device and the heat exchanger to cool or heat a foot located inside the article of footwear or the sock.

A breathable stationary bicycle shoe for use with a stationary bicycle. The bicycle shoe of the present disclosure may preferably include a breathable lightweight mesh upper, allowing for greater breathability and comfort compared to existing bicycle shoes. The breathable stationary bicycle shoe may comprise a bottom portion equipped with a cleat, such as a clipless bicycle pedal cleat, such as an SPD® cleat, which may allow it to securely connect to the pedals of a stationary bike.

Device suitable for being integrated in footwears soles, acting as cushioning, energy dissipation and stabilization means, including: a cushioning element made of a first material having a viscoelastic behavior; a conditioning element positioned under the cushioning element and made of a second material having a viscoelastic behavior; and a containing element positioned above the cushioning element and covering also the conditioning element. The cushioning element having first empty regions that are first through holes and second through holes and channels to pushing out the air when the device is subjected to a compression load.

An article of footwear with an upper including a ribbon structure is disclosed. The ribbon structure comprises ribbon sections running in at least two different directions. Ribbon sections are connected at nodes that may move substantially independently of other nodes. The ribbon structure can provide strength along one of the directions and may simultaneously remain slack in the other direction.

An article of footwear with an upper including a ribbon structure is disclosed. The ribbon structure comprises ribbon sections running in at least two different directions. Ribbon sections are connected at nodes that may move substantially independently of other nodes. The ribbon structure can provide strength along one of the directions and may simultaneously remain slack in the other direction.

An upper for an article of footwear, the upper including a base layer defining a least a portion of the upper and polymer threads stitched to the base layer. The polymer threads may include a core composed of a first material and a coating composed of a second material, where the melting point of the first material is higher than the melting point of the second material. The polymer threads may be bonded to the base layer by the coating of the polymer threads. The polymer threads may include one or more polymer thread sets stitched in pattern(s) on area(s) of an outer surface of the base layer to provide targeted characteristics to area(s) on the upper. In some embodiments, the polymer threads may be bonded to the base layer with heat and/or pressure.

A bonded mesh composite panel can be used to form a three-dimensional upper shell that includes extensions used for double-lasting and/or to otherwise provide a shelf to support foam padding. The foam padding may be, e.g., a foam midsole. The extensions of the upper shell may be located in a lower portion of the shell and may be bonded to the foam midsole in a heel, midfoot and/or forefoot regions.

A bonded mesh composite panel can be used to form a three-dimensional upper shell that includes extensions used for double-lasting and/or to otherwise provide a shelf to support foam padding. The foam padding may be, e.g., a foam midsole. The extensions of the upper shell may be located in a lower portion of the shell and may be bonded to the foam midsole in a heel, midfoot and/or forefoot regions.

A motor module includes a motor and a casing including a partition wall. The accommodation space includes first and second accommodation spaces. The partition wall includes a base that partitions the first and second accommodation spaces in an axial direction. The base includes a wiring including a lead-out port and a guide groove extending from the lead-out port. The lead wire is led out from the lead-out port and located in the guide groove. The casing includes a tape and a seal. The tape covers at least a portion of the wiring from below. The seal is located in at least a portion of a space defined by the wiring and the tape.