Abstract: An athletic device is worn by a participant during an athletic event (e.g., a race). In one example, a race course is provided with a plurality of mats or signal devices along the race course. The mats may have antennas and generate a magnetic field. The device may include a chip system having an RFID tag and a display. As the participant progress along the course, the tag is triggered at each mat and race data may be displayed on the device. Data relating to a location of the participant may also be provided to the participant during the athletic event.

Abstract: An athletic device is worn by a participant during an athletic event (e.g., a race). In one example, a race course is provided with a plurality of mats or signal devices along the race course. The mats may have antennas and generate a magnetic field. The device may include a chip system having an RFID tag and a display. As the participant progress along the course, the tag is triggered at each mat and race data may be displayed on the device. Data relating to a location of the participant may also be provided to the participant during the athletic event.

Abstract: An athletic device is worn by a participant during an athletic event (e.g., a race). In one example, a race course is provided with a plurality of mats or signal devices along the race course. The mats may have antennas and generate a magnetic field. The device may include a chip system having an RFID tag and a display. As the participant progress along the course, the tag is triggered at each mat and race data may be displayed on the device. Data relating to a location of the participant may also be provided to the participant during the athletic event.

Abstract: A non-linear user interface display presented at a desktop conforms to dimensions of a user detected by a depth camera, such as by presenting the user interface along an arc having a radius determined from a reach of the user detected by the depth camera. Windows presented in the arc vary in size based upon their position relative to a user focus, such as by detecting a user gaze direction or by comparing position to a central display mat. User gestures control presentation of visual images in the arc, such rotating visual image windows in a circular manner around the arc radius and to different orientations in the arc relative to the user.

Abstract: A non-linear user interface display presented at a desktop conforms to dimensions of a user detected by a depth camera, such as by presenting the user interface along an arc having a radius determined from a reach of the user detected by the depth camera. Windows presented in the arc vary in size based upon their position relative to a user focus, such as by detecting a user gaze direction or by comparing position to a central display mat. User gestures control presentation of visual images in the arc, such rotating visual image windows in a circular manner around the arc radius and to different orientations in the arc relative to the user.

Abstract: An athletic device is worn by a participant during an athletic event (e.g., a race). In one example, a race course is provided with a plurality of mats or signal devices along the race course. The mats may have antennas and generate a magnetic field. The device may include a chip system having an RFID tag and a display. As the participant progress along the course, the tag is triggered at each mat and race data may be displayed on the device. Data relating to a location of the participant may also be provided to the participant during the athletic event.

Abstract: An athletic device is worn by a participant during an athletic event (e.g., a race). In one example, a race course is provided with a plurality of mats or signal devices along the race course. The mats may have antennas and generate a magnetic field. The device may include a chip system having an RFID tag and a display. As the participant progress along the course, the tag is triggered at each mat and race data may be displayed on the device. Data relating to a location of the participant may also be provided to the participant during the athletic event.

Abstract: An athletic device is worn by a participant during an athletic event (e.g., a race). In one example, a race course is provided with a plurality of mats or signal devices along the race course. The mats may have antennas and generate a magnetic field. The device may include a chip system having an RFID tag and a display. As the participant progress along the course, the tag is triggered at each mat and race data may be displayed on the device. Data relating to a location of the participant may also be provided to the participant during the athletic event.

Abstract: An athletic device is worn by a participant during an athletic event (e.g., a race). In one example, a race course is provided with a plurality of mats or signal devices along the race course. The mats may have antennas and generate a magnetic field. The device may include a chip system having an RFID tag and a display. As the participant progress along the course, the tag is triggered at each mat and race data may be displayed on the device. Data relating to a location of the participant may also be provided to the participant during the athletic event.

Abstract: An athletic device is worn by a participant during an athletic event (e.g., a race). In one example, a race course is provided with a plurality of mats or signal devices along the race course. The mats may have antennas and generate a magnetic field. The athletic device may include a chip system having an RFID tag and a display. As the participant progress along the course, the tag is triggered at each mat and race data may be displayed on the device. Data relating to a location of the participant may also be provided to the participant during the athletic event.

Abstract: An athletic device is worn by a participant during an athletic event (e.g., a race). In one example, a race course is provided with a plurality of mats or signal devices along the race course. The mats may have antennas and generate a magnetic field. The athletic device may include a chip system having an RFID tag and a display. As the participant progress along the course, the tag is triggered at each mat and race data may be displayed on the device. Data relating to a location of the participant may also be provided to the participant during the athletic event.

Abstract: A personal athletic device is worn by a runner during a race. A race course is provided with a plurality of mats along the race course. The mats have antennas and generate a magnetic field. The personal athletic device has a chip system having an RFID tag and a display. As the runner progress along the course, the RFID tag is triggered at each mat and race data is displayed on the device.

Abstract: A personal athletic device is worn by a runner during a race. A race course is provided with a plurality of mats along the race course. The mats have antennas and generate a magnetic field. The personal athletic device has a chip system having an RFID tag and a display. As the runner progress along the course, the RFID tag is triggered at each mat and race data is displayed on the device.

Abstract: A personal athletic device is worn by a runner during a race. A race course is provided with a plurality of mats along the race course. The mats have antennas and generate a magnetic field. The personal athletic device has a chip system having an RFID tag and a display. As the runner progress along the course, the RFID tag is triggered at each mat and race data is displayed on the device.

Abstract: A watch that advantageously allows an athlete, such as a runner, to conveniently and instantly calculate a pace at which a distance was traveled. The watch includes a chronographic process and a pace calculation process. In order to determine a pace, the athlete enters the travel distance into the pace calculation process. The athlete then initiates a count by the chronographic process when he or she starts traveling the designated distance. When the athlete finishes traveling the designated distance, he or she stops the count, so that the chronographic process measures the total elapsed time required to travel the designated distance. The pace calculation process then obtains the total elapsed time from the chronographic process, and divides the designated travel distance by the total elapsed time to calculate the pace at which the distance was traveled.

Abstract: A watch that advantageously allows an athlete, such as a runner, to conveniently and instantly calculate a pace at which a distance was traveled. The watch includes a chronographic process and a pace calculation process. In order to determine a pace, the athlete enters the travel distance into the pace calculation process. The athlete then initiates a count by the chronographic process when he or she starts traveling the designated distance. When the athlete finishes traveling the designated distance, he or she stops the count, so that the chronographic process measures the total elapsed time required to travel the designated distance. The pace calculation process then obtains the total elapsed time from the chronographic process, and divides the designated travel distance by the total elapsed time to calculate the pace at which the distance was traveled.

Abstract: A watch that advantageously allows an athlete, such as a runner, to conveniently and instantly calculate a pace at which a distance was traveled. The watch includes a chronographic process and a pace calculation process. In order to determine a pace, the athlete enters the travel distance into the pace calculation process. The athlete then initiates a count by the chronographic process when he or she starts traveling the designated distance. When the athlete finishes traveling the designated distance, he or she stops the count, so that the chronographic process measures the total elapsed time required to travel the designated distance. The pace calculation process then obtains the total elapsed time from the chronographic process, and divides the designated travel distance by the total elapsed time to calculate the pace at which the distance was traveled.

Abstract: A personal athletic device is worn by a runner during a race. A race course is provided with a plurality of mats along the race course. The mats have antennas and generate a magnetic field. The personal athletic device has a chip system having an RFID tag and a display. As the runner progress along the course, the RFID tag is triggered at each mat and race data is displayed on the device.