Abstract: The present invention relates, in various embodiments, to an improved bicycle trainer system having a horizontally acting stator assembly. The trainer system has been configured, at least in some embodiments, to operate as a “wheel off” trainer.

Abstract: Improved technology for use with bicycle training systems, in particular, an improved support platform assembly configured for use with a bicycle trainer system. Embodiments are directed to a rocker plate assembly, which provides movement (e.g., lateral and axial) to a bicycle supported by that assembly, for example, where the rocker plate assembly includes a stable stepping platform to assist a user when mounting/dismounting the bicycle.

Abstract: 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.

Abstract: A control system for a cycling trainer assembly, wherein the trainer assembly is configured to provide virtual shifting functionality, and wherein the trainer assembly is configured to be used with a partially deconstructed conventional bicycle. The control system includes an input for receiving a wireless control signal from a gear shifter component provided by the bicycle, and a component configured to process the control signal and in response trigger functionality that results in a virtual gear shifting operation by the cycling trainer assembly. In addition, a gear shifter component is configured to enable wireless gear shifting via a conventional bicycle. The gear shifter component includes embedded software that alternately configures the gear shifter configured to operate with a trainer device which provides a virtual shifting functionality.

Abstract: Support devices are configured to improve operation of stationary cycling trainer assemblies. For example, some embodiments provide removable footing devices that are configured to be mounted to existing cycling trainer assemblies, thereby to provide a resilient and/or oscillating interface between the trainer assembly and a support surface. This provides a more natural feel for the user.

Abstract: 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.

Abstract: The present invention relates, in various embodiments, to improved simulation technology for use with a stationary training system. In some embodiments, this includes use of sensors, for example, wearable sensors, to control simulation parameters (such as display and/or performance parameters). For example, in some embodiments, a body worn sensor, such as an accelerometer and/or gyroscope, is used thereby to infer body position attributes of a user and, in response, configure one or more simulation parameters. These may include, for example, display parameters (for example, whether a simulated avatar is seated or standing) and/or performance parameters (for example, simulated wind resistance).

Abstract: The present disclosure relates, in various embodiments, to improved simulation technology for use with a stationary training system. In some embodiments, this includes use of sensors, for example, wearable sensors, to control simulation parameters (such as display and/or performance parameters). For example, in some embodiments, a body worn sensor, such as an accelerometer and/or gyroscope, is used thereby to infer body position attributes of a user and, in response, configure one or more simulation parameters. These may include, for example, display parameters (for example, whether a simulated avatar is seated or standing) and/or performance parameters (for example, simulated wind resistance).

Abstract: 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.