Abstract: Systems and methods for monitoring athletic performances include determining “flight time,” e.g., the amount of time both feet are off the ground, and optionally “flight time” resulting from different types of activities, such as jogging, running, sprinting, jumping, etc. “Flight time” may help a player or coach better understand the effort the athlete is putting out, compare efforts of two or more players, gauge the athlete's performance change over time, and/or identify conditioning needs and/or areas for improvement. Such systems and methods also may generate and display various athletic performance metrics, such as: instantaneous flight time; average flight time; cumulative flight time during an athletic performance or other time period; instantaneous jump height; average jump height; cumulative jump height during an athletic performance or other time period; and comparisons of any flight time and/or jump height metric(s) of one player against another player and/or against himself/herself; etc.

Abstract: A sole structure for an article of footwear having an upper includes an outsole defining a first aperture, a cushioning member disposed on the outsole and defining a second aperture, and a plate disposed between the cushioning member and the upper. The plate includes an anterior-most point disposed in a forefoot region, a posterior-most point disposed closer to a heel region than the anterior-most point, a metatarsophalangeal (MTP) point disposed between the anterior-most point and the posterior-most point, and an anterior curved region having a radius of curvature extending through the forefoot region and a mid-foot region and including a forefoot curved portion extending from the MTP point to the anterior-most point and a mid-foot curved portion extending from the MTP point toward the posterior-most point. Overlapping portions of the first aperture and the second aperture expose a region of the plate.

Abstract: Aspects of the present invention relate to a dynamic woven material that is capable of undergoing a dimensional change in response to an external stimulus. The dynamic woven material comprises a plurality of discrete woven cells, where each woven cell comprises a reactive region and a non-reactive region. The reactive region changes from a first physical state to a second physical state when the woven material is exposed to the external stimulus. The woven material may be formed with zonal stretch properties by varying the areas occupied by the reactive region and the non-reactive region in each woven cell. For example, the bigger the area occupied by the reactive region in the woven cells in a particular zone of the dynamic woven material, the higher the level of stretch in the particular zone may be. Exemplary products manufactured from the dynamic woven material include, for example, articles of footwear.

Abstract: Systems and methods for monitoring athletic performances include determining “flight time,” e.g., the amount of time both feet are off the ground, and optionally “flight time” resulting from different types of activities, such as jogging, running, sprinting, jumping, etc. “Flight time” may help a player or coach better understand the effort the athlete is putting out, compare efforts of two or more players, gauge the athlete's performance change over time, and/or identify conditioning needs and/or areas for improvement. Such systems and methods also may generate and display various athletic performance metrics, such as: instantaneous flight time; average flight time; cumulative flight time during an athletic performance or other time period; instantaneous jump height; average jump height; cumulative jump height during an athletic performance or other time period; and comparisons of any flight time and/or jump height metric(s) of one player against another player and/or against himself/herself; etc.

Abstract: A portable manufacturing system includes an additive manufacturing device and a braiding device. The system also includes systems for capturing customized foot information from a foot. The additive manufacturing device can be used to form a footwear last having a geometry corresponding to the customized foot information. The footwear last can be placed through the braiding device to form a braided component for an article of footwear. A welding device can be used to attach overlay components to the braided component. Sole components may be separately formed and attached to the braided component.

Abstract: An article of footwear can include a braided upper. The structure of the braided upper may be manufactured using an article forming member and a braiding apparatus. The article forming member includes a body portion substantially similar to a last for shoemaking, as well as a flange portion that extends outward from the body portion. The article forming member moves through the braiding apparatus in varying orientations that can improve the efficiency of the braiding, enhance the braiding pattern, and enhance structural support of the braided upper.

Abstract: Systems and methods for monitoring athletic performances include determining “flight time,” e.g., the amount of time both feet are off the ground, and optionally “flight time” resulting from different types of activities, such as jogging, running, sprinting, jumping, etc. “Flight time” may help a player or coach better understand the effort the athlete is putting out, compare efforts of two or more players, gauge the athlete's performance change over time, and/or identify conditioning needs and/or areas for improvement. Such systems and methods also may generate and display various athletic performance metrics, such as: instantaneous flight time; average flight time; cumulative flight time during an athletic performance or other time period; instantaneous jump height; average jump height; cumulative jump height during an athletic performance or other time period; and comparisons of any flight time and/or jump height metric(s) of one player against another player and/or against himself/herself; etc.

Abstract: A last system and a method of making the last system are disclosed. The last system includes a last member and an exterior layer. The exterior layer becomes deformable when heated above a characteristic temperature. The method can include forming a braided footwear component on the last system. The exterior layer may be joined with the braided footwear component by heating the last system above the characteristic temperature.

Abstract: A last system and a method of making the last system are disclosed. The last system includes a last member and an exterior layer. The exterior layer becomes deformable when heated above a characteristic temperature. The method can include forming a braided footwear component on the last system. The exterior layer may be joined with the braided footwear component by heating the last system above the characteristic temperature.

Abstract: Sole structures include (a) a first midsole component formed at least in part from a first polymeric foam material, wherein the first midsole component forms at least a majority of a plantar support surface and at least a majority of a medial sidewall surface of the sole structure, and wherein the first midsole component includes a lateral side edge; and (b) a second midsole component formed at least in part from a second polymeric foam material, wherein the second midsole component forms at least a majority of a lateral sidewall surface of the sole structure, wherein the second midsole component includes a medial side edge that extends adjacent the lateral side edge of the first midsole component. The second polymeric foam material may have a higher durometer than the first polymeric foam material.

Abstract: Sole structures (e.g., midsoles and/or outsoles) and articles of footwear include heel-supporting areas and/or forefoot-supporting areas that include a central area (e.g., a central recessed area) and a plurality of surrounding rings. Additionally or alternatively, the sole structures (e.g., midsoles and/or outsoles) may include bands of material defined by recessed grooves to provide a bumpstop type impact-force attenuating structure.

Abstract: Systems and methods for monitoring athletic performances include determining “flight time,” e.g., the amount of time both feet are off the ground, and optionally “flight time” resulting from different types of activities, such as jogging, running, sprinting, jumping, etc. “Flight time” may help a player or coach better understand the effort the athlete is putting out, compare efforts of two or more players, gauge the athlete's performance change over time, and/or identify conditioning needs and/or areas for improvement. Such systems and methods also may generate and display various athletic performance metrics, such as: instantaneous flight time; average flight time; cumulative flight time during an athletic performance or other time period; instantaneous jump height; average jump height; cumulative jump height during an athletic performance or other time period; and comparisons of any flight time and/or jump height metric(s) of one player against another player and/or against himself/herself; etc.

Abstract: A foot support structure for an article of footwear or other foot-receiving device may include a first foot support portion disposed in a first orientation and a second foot support portion disposed in a second orientation different than the first orientation. A twist portion may extend continuously from the first foot support portion to the second foot support portion and twist from the first orientation to the second orientation A common face of the foot support member may extend over at least part of the first foot support portion, at least part of the second foot support portion and the twist portion.

Abstract: Foot-supporting elements for articles of footwear or other products may include: (a) a first diagonally-oriented plate that extends from a lateral heel location of an article of footwear to a medial forefoot location of the article of footwear; and (b) a second diagonally-oriented plate that extends from a medial heel location of the article of footwear to a lateral forefoot location of the article of footwear. These foot-supporting elements may be utilized in foot-receiving devices that may include: (a) a foot-covering member (such as an upper); and (b) a foot-supporting element engaged with the foot-covering member.

Abstract: An article includes a two layered braided upper assembly with an outer braided structure and an inner braided structure. The braided structures may have different braid patterns. The dual layered upper assembly can be manufactured using a braid machine with multiple rings of spools.

Abstract: Systems and methods for monitoring athletic performances include determining “flight time,” e.g., the amount of time both feet are off the ground, and optionally “flight time” resulting from different types of activities, such as jogging, running, sprinting, jumping, etc. “Flight time” may help a player or coach better understand the effort the athlete is putting out, compare efforts of two or more players, gauge the athlete's performance change over time, and/or identify conditioning needs and/or areas for improvement. Such systems and methods also may generate and display various athletic performance metrics, such as: instantaneous flight time; average flight time; cumulative flight time during an athletic performance or other time period; instantaneous jump height; average jump height; cumulative jump height during an athletic performance or other time period; and comparisons of any flight time and/or jump height metric(s) of one player against another player and/or against himself/herself; etc.

Abstract: Sole structures for articles of footwear, including athletic footwear, include: (a) an outsole component; (b) a midsole component engaged with the outsole component, wherein the midsole component includes at least one opening or receptacle; (c) at least one fluid-filled bladder system or foam system provided in the opening or receptacle; and/or (d) a rigid plate system including one or more rigid plates overlaying the fluid-filled bladder or foam system(s). The rigid plate(s) may be fixed directly to the midsole component or the rigid plate(s) may rest on the fluid-filled bladder(s) or foam somewhat above the surface of the midsole component when the sole structure is in an uncompressed condition. Articles of footwear and methods of making sole structures and articles of footwear including such sole structures also are described.

Abstract: An interchangeable bootie system includes an article of footwear and a plurality of interchangeable booties. Each bootie includes a support system configured to provide targeted support to different regions of the foot. This allows a user to select a bootie that provides the desired type of support for an athletic activity. An interchangeable bootie system with midsole portions having different types of cushioning systems is also disclosed. This allows a user to select a bootie with the desired type of support and the desired type of cushioning for an athletic activity. An interchangeable bootie and midsole insert system is also disclosed. Each midsole insert fits inside a bootie and includes a cushioning system configured to provide targeted cushioning to different regions of the foot. This allows a user to select a desired type of cushioning for an athletic activity.

Abstract: A braiding machine and method of forming an upper that includes braiding over a forming mandrel located adjacent to a ring. The braiding machine being capable of forming intricate braided structures.

Abstract: A braiding machine and method of forming an upper that includes braiding over a forming last that passes from a first side of a braiding point to a second side of the braiding point. The braiding machine being capable of forming intricate braided structures.