Bicycle climbing and descending training device
A training device for use with a bicycle includes a shuttle guide member including a lower end and an upper end that define an axis therebetween. A shuttle is operably coupleable to a front end of the bicycle and translatable along the axis by a drive coupled to the shuttle. When coupled to the front end of the bicycle, translation of the shuttle along the axis by the drive results in each of a rotation of the shuttle guide member about a pivot and a change in elevation of the front end of the bicycle.
1. A training device for use with a bicycle having a front end, the training device comprising:
a shuttle guide member comprising a lower end and an upper end, the lower end and the upper end defining an axis therebetween;
a shuttle operably coupleable to the front end of the bicycle and translatable parallel to the axis; and
a drive coupled to the shuttle to translate the shuttle parallel to the axis, the drive comprising a motor and a belt, the belt coupled to the shuttle, and the motor coupled to the belt such that rotation of the motor causes movement of the belt and translation of the shuttle;
wherein, when coupled to the front end of the bicycle, translation of the shuttle parallel to the axis by the drive results in each of a rotation of the shuttle guide member about a pivot and a change in elevation of the front end of the bicycle.
2. The training device of claim 1 further comprising a control module communicatively coupled to the drive, the control module adapted to transmit control signals to the drive to cause the drive to translate the shuttle.
3. The training device of claim 2 , wherein the control module includes a communications module configured to receive control signals from a remote device.
4. The training device of claim 3 , wherein the remote device is one of a user computing device and a bicycle trainer.
5. The training device of claim 3 , wherein the control signals received from the remote device are provided by the remote device in response to the remote device processing cycling ride data including changes in elevation.
6. The training device of claim 2 , further comprising a sensor communicatively coupled to the control module, the sensor adapted to obtain data corresponding to at least one of a position or an orientation of at least one of the bicycle, the shuttle, or the shuttle guide member and to transmit the data to the control module.
7. The training device of claim 6 , wherein the sensor is a potentiometer coupled to the drive.
8. The training device of claim 2 further comprising a vibration feedback system communicatively coupled to the control module, the vibration feedback system configured to induce a vibration in at least one of the shuttle guide member and the shuttle.
9. The training device of claim 8 , wherein the vibration feedback system comprises an actuator coupled to the at least one of the shuttle guide member and the shuttle, the actuator configured to activate in response to a vibration control signal received from the control module, thereby inducing the vibration in the at least one of the shuttle guide member and the shuttle.
10. The training device of claim 2 , wherein the control module is configured to receive input from a user of the training device and to provide control signals to the drive in response to receiving the input from the user.
11. The training device of claim 1 , wherein the lower end comprises a curved foot and the pivot is provided by contact between the curved foot and a surface on which the training device is disposed.
12. The training device of claim 1 further comprising a fixed base, wherein the pivot is a rotational coupling between the shuttle guide member and the fixed base.
13. The training device of claim 1 wherein the drive is coupled to the shuttle guide member such that the drive rotates about the pivot in response to translation of the shuttle.
14. A climbing trainer comprising:
a shuttle guide member comprising a base and an upper end, the base and the upper end defining an axis therebetween;
a shuttle disposed within the shuttle guide member, the shuttle comprising an axle assembly coupleable to a front wheel mount of a bicycle to operably connect the bicycle to the climbing trainer;
a drive coupled to the shuttle and adapted to move the shuttle parallel to the axis between a lower shuttle position and an upper shuttle position; and
a curved foot coupled to the base of the shuttle guide member, wherein the curved foot permits tilting of the climbing trainer in response to movement of the shuttle when the bicycle is operably connected to the axle assembly and the shuttle moves between the lower shuttle position and the upper shuttle position.
15. The climbing trainer of claim 14 further comprising a control module communicatively coupled to the drive, the control module adapted to transmit control signals to the drive to cause the drive to translate the shuttle parallel to the axis, the control module comprising at least one of a controller configured to receive inputs from a user of the climbing trainer from which the control signals are derived or a communications module configured to communicatively couple with a computing device and to receive control signals from the computing device.
16. The climbing trainer of claim 15 further comprising a sensor communicatively coupled to the control module, the sensor adapted to obtain data corresponding to at least one of a position or an orientation of at least one of the bicycle, the shuttle, or the shuttle guide member and to transmit the data to the controller.
17. The climbing trainer of claim 14 , wherein the axle assembly comprises a pair of axle inserts coupled to the shuttle, each of the pair of axle inserts comprising an insert body coupled to the shuttle and a first axle extending from the insert body to couple the axle assembly to a first front wheel mount.
18. The climbing trainer of claim 17 , wherein each of the pair of axle inserts further comprises a second axle extending from the insert body opposite the first axle, the second axle adapted to couple the axle assembly to a second front wheel mount different than the first front wheel mount.
19. The climbing trainer of claim 14 further comprising a vibration feedback system configured to induce a vibration in at least one of the shuttle guide member and the shuttle.
20. The climbing trainer of claim 19 , wherein the vibration feedback system comprises an actuator coupled to the at least one of the shuttle guide member and the shuttle, the actuator configured to activate in response to a vibration control signal, thereby inducing the vibration in the at least one of the shuttle guide member and the shuttle.
21. The climbing trainer of claim 14 further comprising a plurality of layered slats disposed along opposite sides of the shuttle guide member, the plurality of layered slats coupled to the shuttle.
22. A training device for use with a bicycle, the training device comprising:
a shuttle guide member comprising a lower portion and an upper portion;
a shuttle operably coupleable to the bicycle and translatable between the lower portion and the upper portion; and
a drive coupled to the shuttle to translate the shuttle;
wherein the shuttle guide member comprises a curved foot such that when coupled to the bicycle, translation of the shuttle by the drive results in pivoting of the shuttle guide member about the curved foot and a change in orientation of the bicycle to simulate climbing.
23. The training device of claim 22 further comprising a control module communicatively coupled to the drive, the control module adapted to transmit control signals to the drive to cause the drive to translate the shuttle.
24. The training device of claim 23 , further comprising a sensor communicatively coupled to the control module, the sensor adapted to obtain data corresponding to at least one of a position or an orientation of at least one of the bicycle, the shuttle, or the shuttle guide member and to transmit the data to the control module.
25. The training device of claim 24 , wherein the sensor is a potentiometer coupled to the drive.
26. The training device of claim 23 further comprising a vibration feedback system communicatively coupled to the control module, the vibration feedback system configured to induce a vibration in at least one of the shuttle guide member and the shuttle.
27. The training device of claim 26 , wherein the vibration feedback system comprises an actuator coupled to the at least one of the shuttle guide member and the shuttle, the actuator configured to activate in response to a vibration control signal received from the control module, thereby inducing the vibration in the at least one of the shuttle guide member and the shuttle.
28. The training device of claim 23 , wherein the control module is configured to receive input from a user of the training device and to provide control signals to the drive in response to receiving the input from the user, the input corresponding to the change in orientation of the bicycle to stimulate climbing.
29. The training device of claim 23 , wherein the control module includes a communications module configured to receive control signals from a remote device.
30. The training device of claim 29 , wherein the remote device is one of a user computing device and a bicycle trainer.
31. The training device of claim 29 , wherein the control signals received from the remote device are provided by the remote device in response to the remote device processing cycling ride data including changes in elevation.
32. The training device of claim 22 wherein the drive is fixed relative to each of the shuttle guide member and the curved foot and translation of the shuttle by the drive further results in pivoting of the drive about the curved foot.