Devices and computer technology configured to enable enhanced simulated bicycle steering, for use with a stationary training system
Devices and computer technology are configured to enable enhanced simulated bicycle steering for use with a stationary training system. For example, one embodiment includes a device configured to support and enable simulated steering of a bicycle front wheel, for use with a stationary training system, optionally including a sensor device configured to provide a steering signal for user by a bicycle simulator software application. Further embodiments include computer technology configured to provide bicycle simulation functionality, including steering. Simulation of steering is in some embodiments based on a combination of handlebars turning and bicycle tilt, and may account for counter-steering motions.
1 . A bicycle trainer assembly, comprising:
a body that is configured to receive a bicycle having no rear wheel, wherein the trainer assembly is configured to engage with the drivetrain of the bicycle and offer controlled resistance to operation of the drivetrain of the bicycle;
a control unit embedded in the bicycle trainer assembly, the control unit being configured to wirelessly communicate with a simulation system external of the bicycle trainer assembly; and
a data collection and transmission hub provided by the control unit, wherein the data collection and transmission hub is configured to receive multiple wireless signals from multiple wireless devices, including at least one wearable physiological sensor which wirelessly pairs to the control unit in preference to the simulation system, such that the control unit is configured to provide to the simulation system a single wireless signal which embeds data provided by the wearable physiological sensor;
wherein the control unit is configured to collect performance data from one or more of:
a velocity input configured to receive a signal representative of user interaction with a bicycle drivetrain mechanism;
a steering input configured to receive a signal representative of user interaction with a bicycle handlebar turn mechanism; and
a tilting input configured to receive a signal representative of user interaction with a bicycle tilt mechanism;
wherein the control unit is configured to collect, via wireless communications, physiological data from a wearable physiological sensor; and
wherein the control unit is additionally configured to communicate, via wireless communications, data derived from the performance data and the physiological data to an external device that executes software, thereby providing a bicycle riding simulator program that includes a graphical simulator interface that is rendered on a display screen.
2 . A bicycle trainer assembly according to claim 1 , wherein the wearable physiological sensor includes a heart rate monitor.
3 . A bicycle training system, comprising:
a structure configured to allow a conventional bicycle to be used for stationary ride simulation, the structure including;
a body that is configured to receive a bicycle having no rear wheel, wherein the trainer assembly is configured to engage with the drivetrain of the bicycle and offer controlled resistance to operation of the drivetrain of the bicycle;
a control unit configured to receive multiple signals from multiple devices, including at least one wireless signal, process those multiple signals, and provide a single wireless signal to a simulator system, thereby enabling the simulator system to receive data derived from each of the multiple devices via a single source; and
a data collection and transmission hub provided by the control unit, wherein the data collection and transmission hub is configured to receive multiple wireless signals from multiple wireless devices, including at least one wearable physiological sensor which wirelessly pairs to the control unit in preference to the simulation system, such that the control unit is configured to provide to the simulation system a single wireless signal which embeds data provided by the wearable physiological sensor;
wherein the multiple signals include any two or more of:
a velocity input configured to receive a signal representative of user interaction with a bicycle drivetrain mechanism;
a steering input configured to receive a signal representative of user interaction with a bicycle handlebar turn mechanism; and
a tilting input configured to receive a signal representative of user interaction with a bicycle tilt mechanism;
wherein the bicycle training system is additionally configured to collect physiological data from a wearable physiological sensor; and
wherein the bicycle training system is additionally configured to communicate data derived from performance data and the physiological data to an external device that executes software, thereby providing a bicycle riding simulator program that includes a graphical simulator interface that is rendered on a display screen.
4 . A bicycle training system according to claim 3 , wherein the multiple signals include one or more wireless signals from bicycle monitoring sensors, including at least one sensor configured to measure any one or more of: velocity, steering angle, tilt, and cadence.
5 . A bicycle training system according to claim 4 , wherein the multiple signals include at least one signal from a device that collects physiological data from a wearable physiological sensor.