A particular embodiment of a storage system includes at least one storage device. The storage device can store working clothing. The storage system further includes a wired and/or wireless charging device. The wired and/or wireless charging device can transmit electrical energy to an energy storage unit of the work clothing. The wired and/or wireless charging device can charge different work-clothing items of the work clothing. The work clothing can be disposed in the storage device. The storage system further includes a sensor device that can sense a characteristic variable of the work clothing.

A kit of parts may include an article of footwear and a customization device. The customization device and the article of footwear may be particularly designed to limit or prevent customization in particular areas of the article of footwear. Additionally, a method for customizing an article may include acquiring information regarding the fit of an article and forming apertures in the article using the fit information.

Articles of footwear with localized traction regions. An article of footwear includes an upper with a shell and a sole assembly coupled to the upper. The sole assembly includes an outsole with a traction surface and a heel region from which a heel projects. The sole assembly and the upper collectively define a foot compartment. The traction surface includes a plurality of distinct localized traction regions, each of which has a traction coefficient that is different than that of at least one other localized traction region. The traction surface further defines and/or includes a stirrup glide surface. The stirrup glide surface is configured to permit the article of footwear to be selectively inserted into and removed from a stirrup of a saddle by sliding along a tread surface of the stirrup without obstruction by the stirrup.

A shoe system includes a sole and a shoe upper connected with the sole. A gap is disposed between a first upper portion and a second upper portion. The shoe system also includes a first permanent connector permanently connected to the first upper portion; a second permanent connector permanently connected to the second upper portion, and a removable and printable connector strap connectable with the shoe upper. First and second releasable connector portions of the removable and printable connector strap are releasably connectable with the first and second permanent connectors, respectively.

An intelligent insole is provided. The intelligent insole includes an insole body, a pressure sensor, a temperature sensor, a humidity sensor and a signal collector. The pressure sensor, the temperature sensor and the humidity sensor are formed on the surface of the insole body, and the above sensors and the insole body are manufactured via the same 3D printing process. The pressure sensor senses the pressure signal from the insole body in contact with the foot. The temperature sensor and the humidity sensor respectively sense the temperature signal and the humidity signal of the insole body. The signal collector is respectively electrically connected to the pressure sensor, the temperature sensor and the humidity sensor to receive the pressure signal, the temperature signal and the humidity signal and then transmit the signals to a signal receiver via wireless transmission.

A method for distinguishing a foot motion of a user by placing a pedometer at a foot of a user includes the steps of collecting an accelerating data from an accelerometer in a real time manner; filtering the accelerating data via a smoothing filter and a Kalman filter; generating a step data that represents number of steps taken by the user in response to the accelerating data through the smoothing filter; generating an activity data that represents a foot motion of the user in response to the accelerating data through the Kalman filter; and combining the step data and the activity data to form a resulted data that distinguishes the foot motion with step count of the user.

An article of footwear including an outsole, a fabric upper and at least one connector including a first male member co-molded with the fabric upper and a second female member. The first member includes at least one rib and the second member includes at least one groove, where the at least one connector is secured to the outsole by inserting the second member in the outsole and engaging the at least one rib of the first member with the at least one groove of the second member.

An article with a color change portion and a method of changing color. The article includes at least one color change portion capable of changing colors. The color change portion includes composite material including a photonic lattice. The color change portion can change colors according to one or more performance parameters. The article can be connected to a computer and the color change portion can be controlled using the computer

A messaging apparatus for wearable items. The messaging apparatus may comprise a light source, at least one sensor to detect an event, and a controller to control the flashing of the light source in response to the detection of the event. The controlling of the flashing of the light source may generate at least one visible element that is visible to a viewer. Further, the light source may not be adapted in the form of the at least one visible element, but rather, the controlled flashing of the light source may be in the form of the at least one visible element.

A wearable may be provided with or configured to provide interactive skin. The interactive skin may be configured for accepting touch input from a user. The interactive skin may include one or more flexible layers and may include or be mounted under a transparent display cover layer such as a layer of clear glass or plastic. Interactive skin may include a touch-sensitive layer that allows a user to provide touch input to the wearable. Display pixels on interactive skin may be used to display visual information to the user. The interactive skin may be configured for detecting a condition of at least one wearable and generating an output function in response to the detected condition.