A dynamic pressure controlling footwear is disclosed and includes a main body, a control box and plural dynamic pressure controlling components. The main body includes a vamp disposed on an airbag. The control box includes a microprocessor and is disposed on a top surface region of the vamp. Each dynamic pressure controlling component is positioned on the airbag and includes an actuating pump and a pressure sensor packaged on a substrate by a semiconductor process. The substrate is positioned on the airbag and electrically connected to the microprocessor of the control box through a conductor. The actuating pump is in fluid communication with the airbag for inflating the airbag. The pressure sensor detects an inner pressure of the airbag to generate a pressure information. The microprocessor enables or disables the actuating pump according to the pressure information, so that the inner pressure of the airbag is adjusted.

A dynamic pressure controlling footwear is disclosed and includes a main body, a control box and plural dynamic pressure controlling components. The main body includes a vamp disposed on an airbag. The control box includes a microprocessor and is disposed on a top surface region of the vamp. Each dynamic pressure controlling component is positioned on the airbag and includes an actuating pump and a pressure sensor packaged on a substrate by a semiconductor process. The substrate is positioned on the airbag and electrically connected to the microprocessor of the control box through a conductor. The actuating pump is in fluid communication with the airbag for inflating the airbag. The pressure sensor detects an inner pressure of the airbag to generate a pressure information. The microprocessor enables or disables the actuating pump according to the pressure information, so that the inner pressure of the airbag is adjusted.

The present invention relates to an electrical insole technical field, more particularly, involved to an insole. The insole includes an insole body, a lower pad and a mounting box. The insole body is provided with a bottom surface, a first rear end and a first front end. The lower pad is provided with a second front end and a second rear end; the second front end is correspondingly stacked with the first front end, the second rear end is correspondingly folded with the read end; the mounting box is fixed in the mounting cavity. The lower pad of the insole is correspondingly stacked with the bottom surface of the insole body, with the stacked design, the insole can be assembled quickly and easily, with less assembly procedures.

Systems and apparatus related to an automated footwear platform including a button assembly for controlling a footwear lacing apparatus are discussed. In an example, the button assembly can include a bushing and an actuator. The bushing can include an actuator housing surrounded by an outer flange. The actuator housing can include an exterior side and an interior side relative to the footwear platform. The actuator can include a plurality of actuator bodies disposed within the actuator housing. Each actuator body of the plurality of actuator bodies can include a switch interface adapted to interact with a switch on a lacing engine.

Systems and apparatus related to an automated footwear platform including a button assembly for controlling a footwear lacing apparatus are discussed. In an example, the button assembly can include a bushing and an actuator. The bushing can include an actuator housing surrounded by an outer flange. The actuator housing can include an exterior side and an interior side relative to the footwear platform. The actuator can include a plurality of actuator bodies disposed within the actuator housing. Each actuator body of the plurality of actuator bodies can include a switch interface adapted to interact with a switch on a lacing engine.

Systems and apparatus related to an automated footwear platform including an actuator assembly for controlling a footwear lacing apparatus are discussed. In an example, an actuator assembly can include an actuator frame with a plurality of integrated actuators. The actuator frame is adapted to interconnect elements of the actuator assembly, the actuator frame including a width, a length, and a thickness where the width and length form an exterior surface and an interior surface separated by the thickness. The plurality of actuators are integrated into the actuator frame, each actuator of the plurality of actuators including an actuator head extending from the exterior surface and a button interface extending from the backside of the actuator head through the interior surface.

Systems and apparatus related to an automated footwear platform including an actuator assembly for controlling a footwear lacing apparatus are discussed. In an example, an actuator assembly can include an actuator frame with a plurality of integrated actuators. The actuator frame is adapted to interconnect elements of the actuator assembly, the actuator frame including a width, a length, and a thickness where the width and length form an exterior surface and an interior surface separated by the thickness. The plurality of actuators are integrated into the actuator frame, each actuator of the plurality of actuators including an actuator head extending from the exterior surface and a button interface extending from the backside of the actuator head through the interior surface.

A tensioning system for use with an article of footwear includes a pulley assembly. The pulley assembly may include a first disc and a second disc connected by a central shaft. A tensioning element can be engaged around the central shaft. A ring element can be used to prevent the tensioning element from disengaging the pulley when there is slack in the tensioning element. The pulley assembly can include a guide portion that guides a tensioning member so as to restrict the entry angle of segments of the tensioning member.

A shoe includes: a heel portion; a toe portion; a sole portion; and an electrical assembly. The electrical assembly includes at least: a magnetometer configured to determine a direction of movement of the shoe; and an accelerometer configured to determine acceleration of the shoe. Direction and acceleration data are used to generate a display of a map indicating traversal of a route by a wearer of the shoe at user interface of a user device.

A shoe includes: a heel portion; a toe portion; a sole portion; and an electrical assembly. The electrical assembly includes at least: a magnetometer configured to determine a direction of movement of the shoe; and an accelerometer configured to determine acceleration of the shoe. Direction and acceleration data are used to generate a display of a map indicating traversal of a route by a wearer of the shoe at user interface of a user device.