A detection device includes sensor device configured to obtain environmental information about surroundings of a small vehicle, an output unit outputting the environmental information to a control device of the small vehicle, and a mount configured to be attached to a rider of the small vehicle so as to hold the sensor device and the output device.

A suspension assembly for a vehicle includes a swing arm having a proximal end configured to be pivotally connected to a frame of the vehicle, and a distal end configured to support a ground-engaging member of the vehicle. The suspension assembly also includes a rocker link pivotally connected to the swing arm about a rocker link pivot axis from which first and second portions of the rocker link extend in divergent directions. The suspension assembly also includes a linking arm configured to be pivotally connected to the frame, and pivotally connected to the first portion of the rocker link. The suspension assembly also includes a shock absorber that is at least one of: pivotally connected to the linking arm, and configured to be pivotally connected to the frame. The shock absorber is pivotally connected to the second portion of the rocker link.

A system for adjusting the damper force on the suspension system of a bicycle is provided. Sensors are placed on the front shock and rear shock to measure the amplitude of displacement or acceleration in the time domain and generate a zenith position, velocity, force, and work based on the measured values. The system calculates a curve fit approximation curve for the relationships of zenith position versus velocity and uses the approximation curves to generate and display recommended damper settings for the front shock and rear shock. Using the data ensures that the bicycle suspension data is balanced, such that the front shock and rear shock respond similarly to the same event.

A system for adjusting the damper force on the suspension system of a bicycle is provided. Sensors are placed on the front shock and rear shock to measure the amplitude of displacement or acceleration in the time domain and generate a zenith position, velocity, force, and work based on the measured values. The system calculates a curve fit approximation curve for the relationships of zenith position versus velocity and uses the approximation curves to generate and display recommended damper settings for the front shock and rear shock. Using the data ensures that the bicycle suspension data is balanced, such that the front shock and rear shock respond similarly to the same event.

A fore-aft self-balancing transportation device, typically in a pair, one for the right foot and the other for the left foot of a rider. The platform is limited in size and positioned with a top surface wholly above the drive wheel, such that the platform straddles the axis of rotation of the drive wheel. The wheel may extend laterally to enhance side-to-side stability. The devices are configured for hands-free control, a device being driven forward or backward in response to the fore-aft tilt angle of a rider's foot on the platform (and hence, the fore-aft tilt angle of that platform). Various embodiments and features are disclosed.

A fore-aft self-balancing transportation device, typically in a pair, one for the right foot and the other for the left foot of a rider. The platform is limited in size and positioned with a top surface wholly above the drive wheel, such that the platform straddles the axis of rotation of the drive wheel. The wheel may extend laterally to enhance side-to-side stability. The devices are configured for hands-free control, a device being driven forward or backward in response to the fore-aft tilt angle of a rider's foot on the platform (and hence, the fore-aft tilt angle of that platform). Various embodiments and features are disclosed.

The present invention relates to all terrain vehicles having at least a pair of laterally spaced apart seating surfaces. More particularly, the present invention relates to trail compliant side-by-side all terrain vehicles.

The present invention relates to all terrain vehicles having at least a pair of laterally spaced apart seating surfaces. More particularly, the present invention relates to trail compliant side-by-side all terrain vehicles.

There is described a quick-release arrangement for mounting a bicycle wheel (2) to a hub of a bicycle frame (1) using a single-sided mount. The quick-release arrangement includes a number of levers (12) each movable between a closed position, in which the wheel is retained to the bicycle hub, and an open position in which the wheel is freely removable. A locking ring (21) is mounted to the bicycle wheel and is rotatable between an open position and a locked position. When the locking ring (21) is in the locked position, hooks (24) on the locking ring (21) are engageable with pins (26) mounted on the levers (12), to prevent the levers (12) from moving out of their closed positions. The locking ring (21) may be mounted to a lever cover plate (18) which is fixed to the wheel and arranged so as to partially cover the levers (12) when they are in their closed positions. The lever cover plate (18) may have a window (27) through which an indicator is visible to indicate the position of the locking ring (21).

A vehicle wheel axle assembly including: an axle extending along an axial axis having a first end and a second end axially opposed to the first end; a hub shell rotatable about the axle and about the axial axis; a frame element having a dropout for connection with the axle. The axle is a cantilevered axle with a first end removably connected to the dropout. The first end includes an axially outwardly facing first end face. The dropout includes an axially inward facing inboard face and an open slot to receive the axle adjacent the first end, with the open slot including an open entrance portion, a closed terminus region, slot sidewalls extending between the entrance portion and the terminus region. The axle is generally radially inwardly assembled to the open slot through the open entrance.