Disclosed herein are improved wearable devices with sports implements (e.g., hockey stick, tennis racket, golf club, etc.). A wearable device can be worn on any suitable part of a user's body (e.g., foot, leg, arm, etc.) or, alternatively, over a device (e.g., shoe) already worn on the user. The wearable device can be permanently affixed to a sports implement or, alternatively, can be adaptable with a sports implement selectable from a set of interchangeable sports implements. Such interchangeability can be provided by a coupling mechanism that is configured to detachably couple the wearable device to the sports implement. The coupling mechanism can include a receiver base integrated to a body of the wearable device and a complementary accessory base of the sports implement.

An article of footwear having a heel support assembly with a memory foam layer situated internally of a heel counter is provided. The memory foam layer may be laminated to the heel counter, for example, by adhesive or direct attachment. The heel memory foam layer may have a maximum thickness that is sufficient to embrace the heel of the wearer's foot potentially cradling the calcaneus, the retrocalcaneal bursa and the base of the Achilles tendon. The heel support assembly may also include a heel cradle extending around an external portion of the upper and including a lasting allowance. The heel cradle can provide torsional support in the arch region (or waist) of the article of footwear, for example when the heel support assembly is incorporated into an article of footwear with a strobel construction.

An article of footwear includes a navicular support structure on a medial side. The navicular support structure includes a non-stretch, tensioned material that reduces an interior volume of the upper of the article of footwear and redirects applied forces from the midfoot region of the article of footwear to other regions, such as the forefoot region.

An article of footwear includes a navicular support structure on a medial side. The navicular support structure includes a non-stretch, tensioned material that reduces an interior volume of the upper of the article of footwear and redirects applied forces from the midfoot region of the article of footwear to other regions, such as the forefoot region.

An article of footwear may include an upper incorporating a knitted component. An inlaid strand extends through the knitted component. A combination feeder may be utilized to inlay the strand within the knitted component. As an example, the combination feeder may include a feeder arm that reciprocates between a retracted position and an extended position. In manufacturing the knitted component, the feeder inlays the strand when the feeder arm is in the extended position, and the strand is absent from the knitted component when the feeder arm is in the retracted position.

An article of footwear may include an upper incorporating a knitted component. An inlaid strand extends through the knitted component. A combination feeder may be utilized to inlay the strand within the knitted component. As an example, the combination feeder may include a feeder arm that reciprocates between a retracted position and an extended position. In manufacturing the knitted component, the feeder inlays the strand when the feeder arm is in the extended position, and the strand is absent from the knitted component when the feeder arm is in the retracted position.

Articles for footwear, uppers for articles of footwear, and methods for fabricating articles of footwear are provided. In one example, an upper for an article of footwear includes a knitted component. The knitted component includes a plurality of knitted cushioning structures that define a cushioning region.

Articles for footwear, uppers for articles of footwear, and methods for fabricating articles of footwear are provided. In one example, an upper for an article of footwear includes a knitted component. The knitted component includes a plurality of knitted cushioning structures that define a cushioning region.

A sole structure may include chambers and a transfer channel containing an electrorheological fluid. Electrodes may be positioned to create, in response to a voltage across the electrodes, an electrical field in at least a portion of the electrorheological fluid in the transfer channel. The sole structure may further include a controller including a processor and memory. At least one of the processor and memory may store instructions executable by the processor to perform operations that include maintaining the voltage across the electrodes at one or more flow-inhibiting levels at which flow of the electrorheological fluid the through the transfer channel is blocked, and that further include maintaining the voltage across the electrodes at one or more flow-enabling levels permitting flow of the electrorheological fluid through the transfer channel.

A sole structure may include chambers and a transfer channel containing an electrorheological fluid. Electrodes may be positioned to create, in response to a voltage across the electrodes, an electrical field in at least a portion of the electrorheological fluid in the transfer channel. The sole structure may further include a controller including a processor and memory. At least one of the processor and memory may store instructions executable by the processor to perform operations that include maintaining the voltage across the electrodes at one or more flow-inhibiting levels at which flow of the electrorheological fluid the through the transfer channel is blocked, and that further include maintaining the voltage across the electrodes at one or more flow-enabling levels permitting flow of the electrorheological fluid through the transfer channel.