Abstract: Footwear comprises a sole assembly having a ground-contacting side, and an upper coupled to the sole assembly opposite the ground-contacting side. The upper defines a foot compartment configured to receive a wearer's foot. The sole assembly defines a plurality of sole-assembly vents that extend through the sole assembly and that are open both to the ground-contacting side and to the foot compartment of the upper.

Abstract: A method of operating a fitness tracking system includes generating movement data corresponding to movement of a user, sampling the generated movement data at a first sampling rate as first sampled data when operating the fitness tracking system in an activity detection mode, and sampling the generated movement data at a second sampling rate as second sampled data when operating the fitness tracking system in a workout mode. The second sampling rate is greater than the first sampling rate.

Abstract: Footwear comprises a sole assembly having a ground-contacting side, and an upper coupled to the sole assembly opposite the ground-contacting side. The upper defines a foot compartment configured to receive a wearer's foot. The sole assembly defines a plurality of sole-assembly vents that extend through the sole assembly and that are open both to the ground-contacting side and to the foot compartment of the upper.

Abstract: A method of operating a fitness tracking system includes generating movement data corresponding to movement of a user, sampling the generated movement data at a first sampling rate as first sampled data when operating the fitness tracking system in an activity detection mode, and sampling the generated movement data at a second sampling rate as second sampled data when operating the fitness tracking system in a workout mode. The second sampling rate is greater than the first sampling rate.

Abstract: A method of operating a fitness tracking system includes generating movement data corresponding to movement of a user, sampling the generated movement data at a first sampling rate as first sampled data when operating the fitness tracking system in an activity detection mode, and sampling the generated movement data at a second sampling rate as second sampled data when operating the fitness tracking system in a workout mode. The second sampling rate is greater than the first sampling rate.

Abstract: A method of operating a fitness tracking system includes generating movement data corresponding to movement of a user, sampling the generated movement data at a first sampling rate as first sampled data when operating the fitness tracking system in an activity detection mode, and sampling the generated movement data at a second sampling rate as second sampled data when operating the fitness tracking system in a workout mode. The second sampling rate is greater than the first sampling rate.

Abstract: A shoe is provided for use by a user and for use with an external reset system that is operable to transmit a reset signal. The shoe comprises a sole, a detector, a memory, a controller, and a receiver. The sole has a top surface for supporting the foot of the user when being worn by the user. The detector generates a parameter signal based on a detected parameter. The controller generates a control signal to activate said detector. The controller further generates a modification signal based on the received reset signal. The memory stores parameter data based on the parameter signal. The memory further modifies the stored parameter data based on the modification signal. The receiver receives the reset signal.

Abstract: A system includes a shoe and a pod. The pod is disposed at the shoe and includes a positioning component and an altimeter. The positioning component determines a first geodetic location of the shoe at a first time, whereas the altimeter determines a first elevation of the shoe at the first time. The first positioning component additionally determines a second geodetic location of the shoe at a second time and generate shoe distance data based on the first geodetic location and the second geodetic location. The altimeter additionally determines a second elevation of the shoe at the second time. The positioning component additionally determines a total distance traveled based on the shoe distance data, the first elevation and the second elevation.

Abstract: A device is provided for use by a user, wherein the device includes a first sensor, a second sensor and an efficiency generating component. The first sensor detects a first parameter and generates a first detected signal based on the first detected parameter. The second sensor detects a second parameter and generates a second detected signal based on the second detected parameter. The efficiency generating component generates an efficiency signal based on the first detected signal and the second detected signal.

Abstract: A system includes a shoe, a timer, a positioning component, a controlling component, a memory and a processing component. The timer establishes a time frame. The positioning component determines a first geodetic location of the shoe at a first time within the time frame and determines a second geodetic location of the shoe at a second time within the time frame. The controlling component is disposed at the shoe and generates activity data based on the first geodetic location, the second geodetic location and the time frame. The memory is disposed at the shoe and stores the activity data. The processing component retrieves the activity data from the memory and wirelessly transmits processed activity data based on the activity data. The positioning component further determines a first geodetic location total time corresponding to a total time the shoe is located at the first geodetic location within the time frame.

Abstract: A system includes a biometric detector and a band of stretchable fabric. The biometric detector detects a biological parameter. The biometric detector is fastened to the band of elastomer fabric.

Abstract: A system includes a shoe and a pod. The pod is disposed at the shoe and includes a positioning component and an altimeter. The positioning component determines a first geodetic location of the shoe at a first time, whereas the altimeter determines a first elevation of the shoe at the first time. The first positioning component additionally determines a second geodetic location of the shoe at a second time and generate shoe distance data based on the first geodetic location and the second geodetic location. The altimeter additionally determines a second elevation of the shoe at the second time. The positioning component additionally determines a total distance traveled based on the shoe distance data, the first elevation and the second elevation.

Abstract: A shoe is provided for use by a user and for use with an external reset system that is operable to transmit a reset signal. The shoe comprises a sole, a detector, a memory, a controller, and a receiver. The sole has a top surface for supporting the foot of the user when being worn by the user. The detector generates a parameter signal based on a detected parameter. The controller generates a control signal to activate said detector. The controller further generates a modification signal based on the received reset signal. The memory stores parameter data based on the parameter signal. The memory further modifies the stored parameter data based on the modification signal. The receiver receives the reset signal.

Abstract: A device is provided for use by a user, wherein the device includes a first sensor, a second sensor and an efficiency generating component. The first sensor detects a first parameter and generates a first detected signal based on the first detected parameter. The second sensor detects a second parameter and generates a second detected signal based on the second detected parameter. The efficiency generating component generates an efficiency signal based on the first detected signal and the second detected signal.

Abstract: A shoe has a sole having a capacitive sensor and a force actuating mechanism, and a wireless receiver. The capacitive sensor can detect and sense whether or not there is a foot is in the shoe. The force actuating mechanism can operate like a piston in an inactive mode (first position) and active mode (second position), wherein the active mode extends the force actuating mechanism's extending mechanism from first position to second position. The wireless receiver can retrieve any information in regards to geodetic locations from the capacitive sensor based on the capacitance signal.

Abstract: The invention is directed to intelligent systems for articles of footwear that adjust automatically in response to a measured performance characteristic. The intelligent systems include one or more adjustable elements coupled to a mechanism that actuates the adjustable elements in response to a signal from a sensor to modify the performance characteristic of the article of footwear. The intelligent system adjusts the performance characteristics of the article of footwear without human intervention.

Abstract: The invention is directed to intelligent systems for articles of footwear that adjust automatically in response to a measured performance characteristic. The intelligent systems include one or more adjustable elements coupled to a mechanism that actuates the adjustable elements in response to a signal from a sensor to modify the performance characteristic of the article of footwear. The intelligent system adjusts the performance characteristics of the article of footwear without human intervention.

Abstract: The invention is directed to intelligent systems for articles of footwear that adjust automatically in response to a measured performance characteristic. The intelligent systems include one or more adjustable elements coupled to a mechanism that actuates the adjustable elements in response to a signal from a sensor to modify the performance characteristic of the article of footwear. The intelligent system adjusts the performance characteristics of the article of footwear without human intervention.

Abstract: The invention is directed to intelligent systems for articles of footwear that adjust automatically in response to a measured performance characteristic. The intelligent systems include one or more adjustable elements coupled to a mechanism that actuates the adjustable elements in response to a signal from a sensor to modify the performance characteristic of the article of footwear. The intelligent system adjusts the performance characteristics of the article of footwear without human intervention.