Abstract: A ride-on vehicle includes a main chassis and a plurality of wheels connectable to the main chassis. The main chassis includes a front chassis portion and a rear chassis portion. The front chassis portion is movable relative to the rear chassis portion between a nested state and an expanded state. The main chassis has a volume in the nested state that is less than a volume of the main chassis when in the expanded state. The ability to transform the main chassis of the ride-on vehicle provides many benefits to shipping, storing, and displaying the ride-on vehicle to and at retail outlets.

Abstract: A bicycle including a main frame, a steering assembly coupled to the main frame, a front wheel coupled to the steering assembly and a bicycle accessory assembly coupled to the bicycle, such as the steering assembly. The bicycle accessory assembly includes a bicycle accessory and a first tool-less connector for connecting the bicycle accessory to the bicycle in a tool-less manner. The second tool-less connector may be used to secure the bicycle accessory to the bicycle. A method of connecting a bicycle accessory assembly to a bicycle is also disclosed.

Abstract: A steering wheel assembly for use with a ride-on vehicle which has a frame with at least two wheels. The steering wheel assembly comprises a steering rod operatively coupled to the frame of the ride-on vehicle. The steering rod includes a chuck secured to the steering rod. The chuck includes a body extending between a base and an upper end. The steering wheel assembly further comprises a steering wheel with a sleeve adapted to be coupled to the chuck in a tool-less manner such that the steering wheel is configured to be engaged by a rider for moving the steering wheel and thereby steering the ride-on vehicle.

Abstract: A child vehicle includes a front frame having a handlebar with a steering tube and a front fork having a fork stem and a front wheel, a rear frame including a head tube and a rear wheel, and a sleeve assembly mounted to the front frame and engaging the rear frame to rotatably connect the front and rear frames in a tool-less manner. A method of tool-less assembly of a child vehicle includes inserting an end of the fork stem through the head tube, sliding an inner sleeve over the end of the fork stem and positively connecting the inner sleeve to the fork stem, sliding the outer sleeve over an end of the steering tube, connecting the steering tube to the fork stem, and connecting the outer sleeve to the inner sleeve. A child vehicle having a rear wheel connected to the vehicle in a tool-less manner and a method of achieving such a tool-less connection is also disclosed.

Abstract: A child vehicle includes a power mechanism having a motor, at least one wheel selectively operatively coupled to the motor, and a propulsion switch coupled to the power mechanism and having a first position and a second position. The first position is from a user-initiated force. The propulsion switch automatically moves to the second position upon disengagement of the force. In the first position, the child vehicle is in the first operational mode and the wheel is being driven by the motor. In the second position, the child vehicle is in the second operational mode and the wheel is allowed to rotate substantially free from drag or resistance due to the motor. A method is also disclosed.

Abstract: A method of packaging a bicycle having at least one wheel axle with exposed ends in a shipping carton. The method includes attaching a guard over at least one of the exposed ends of the axle by sliding the axle through a slotted opening in the guard and using the guard to tighten a fastener to positively secure the guard on the axle. A distal surface of the guard is aligned with a side of the carton and the bicycle is placed into the carton with the distal guard surface adjacent to a side of the carton.

Abstract: In one aspect, a child vehicle is provided comprising a motor, a wheel selectively operatively coupled to the motor for driving the child vehicle under the power of the motor, and a motor drive selector mechanism. The motor drive selector mechanism allows the child vehicle to be operated in a first operational mode wherein the wheel is driven by the motor and a second operational mode wherein the wheel is substantially free from drag or resistance due to the motor. A method of operating the child vehicle is also provided.

Abstract: A foldable tricycle includes a first frame, a second frame movably coupled to the first frame, and a seat for supporting a rider, wherein the seat operates as an actuator for moving the first and second frames relative to each other. Additionally, a method of handling a foldable tricycle movable between a first position and a second position includes applying a force to the seat of the tricycle, wherein the applied force on the seat causes the tricycle to move from the first position to the second position.

Abstract: A wheel converting mechanism for a child vehicle having a wheel includes an elongate body having a first portion, a second portion, and a third portion, wherein the third portion of the elongate body is configured to be coupled to the wheel of the child vehicle. The first portion and second portion are coupled together through a pivot joint that allows the second portion to pivot relative to the first portion about a pivot axis defined by the pivot joint. Additionally, the second portion and the third portion are coupled together through a swivel joint that allows the third portion to rotate relative to the second portion about a swivel axis defined by the swivel joint. A method of moving a wheel of a child vehicle is also disclosed.

Abstract: A pedaled vehicle includes a frame having a crank for receiving a power input from a rider, a wheel rotatably coupled to the frame, and a drive system. The drive system includes a first sprocket operatively coupled to the crank, a second sprocket operatively coupled to the wheel, and a power transmitting element operatively coupled to the first and second sprockets for transmitting the power input from the rider at the crank to the wheel for moving the pedaled vehicle. The power transmitting element forms a closed-loop configuration and is arranged relative to the frame such that the power transmitting element is configured to be assembled to the vehicle or replaced on the vehicle without having to break the closed-loop configuration of the power transmitting element.

Abstract: A pedaled vehicle includes a frame having a crank for receiving a power input from a rider, a wheel rotatably coupled to the frame, and a drive system. The drive system includes a first sprocket operatively coupled to the crank, a second sprocket operatively coupled to the wheel, and a power transmitting element operatively coupled to the first and second sprockets for transmitting the power input from the rider at the crank to the wheel for moving the pedaled vehicle. The power transmitting element forms a closed-loop configuration and is arranged relative to the frame such that the power transmitting element is configured to be assembled to the vehicle or replaced on the vehicle without having to break the closed-loop configuration of the power transmitting element.

Abstract: A wheel converting mechanism for a child vehicle having a wheel includes an elongate body having a first portion, a second portion, and a third portion, wherein the third portion of the elongate body is configured to be coupled to the wheel of the child vehicle. The first portion and second portion are coupled together through a pivot joint that allows the second portion to pivot relative to the first portion about a pivot axis defined by the pivot joint. Additionally, the second portion and the third portion are coupled together through a swivel joint that allows the third portion to rotate relative to the second portion about a swivel axis defined by the swivel joint. A method of moving a wheel of a child vehicle is also disclosed.

Abstract: A pedaled vehicle includes a frame, a wheel rotatably coupled to the frame, a crank assembly operatively coupled to the wheel and having a bore, a pedal received in the bore, and a spring clip for securing the pedal to the crank assembly. The spring clip includes at least one flexible tab or leg capable of flexing between a first configuration, where the spring clip allows a shaft of the pedal to pass through the bore, and a second configuration, where the pedal shaft is prevented from being removed from the bore. A method for coupling a pedal to a vehicle in a tool-less manner is also disclosed.

Abstract: A foldable tricycle includes a first frame, a second frame movably coupled to the first frame, and a seat for supporting a rider, wherein the seat operates as an actuator for moving the first and second frames relative to each other. Additionally, a method of handling a foldable tricycle movable between a first position and a second position includes applying a force to the seat of the tricycle, wherein the applied force on the seat causes the tricycle to move from the first position to the second position.

Abstract: A child vehicle includes a front frame having a handlebar and at least one front wheel, and a rear frame movably coupled thereto and having at least one rear wheel. At least one graphical interface is coupled to the vehicle and includes a placard having a frame secured to the vehicle and a working surface disposed generally within the frame. The working surface is configured to be marked thereon by the child using a marking utensil so as to create an artistic expression for customizing the vehicle. A tool-less coupling between the front and rear frames and an associated method of a tool-less assembly of a child vehicle are also disclosed.