1299results about "Foot-rests" patented technology

A dual-posture Electric Assist Bicycle (EAB) permits a rider to assume a rider-upright position while peddling or a rider-recumbent position while coasting with the electric assist propulsion system engaged. The rider can alternate between positions safely and while in motion. The dual-posture EAB comprises: a seat assembly, a footrest assembly and an extended handlebar assembly. The EAB's seat assembly includes an inclined backrest that is typically affixed to the EAB's seat post. Left and right footrests are affixed near the EAB's headtube. The extended handlebar typically includes means for quickly repositioning the controls while under way to optimize ergonomics for whichever seating posture is being used. In another example of the invention the frame of the bicycle is foldable into a dolly configuration for easy moving and storage. In yet another example of the invention the seat assembly, extended handlebar assembly, footrest assembly and an electric assist propulsion system are provided in kit form for converting a standard peddle bicycle into a dual-posture EAB. In still another example of the invention a trailer is provided with the EAB for towing additional batteries.

A one-wheeled vehicle includes electric motors, a self-balancing system, and steering mechanism, wherein the electric motors and self-balancing system are disposed within the wheel of the one-wheeled vehicle. Side stirrup legs, which have foot pegs suitable for placement of a rider's feet while riding, are pivoted with respect to the wheel forks, such that the side stirrup legs may be rotated backwards and act as a kickstand for the one-wheeled vehicle. The side stirrup legs may be weighted with, for example, one or more batteries may be attached to the side stirrup legs to provide a weight distribution such that the one-wheeled vehicle does not fall forward when parked. A computational resource such as a microcontroller, or microprocessor-based controller, receives input signals indicative of operation of the twist throttle and brake, and responsive thereto produces signals to adjust the tilt angle relative to the acceleration and thereby reduce the need for a rider to lean forward or backwards.

The invention provides a method and apparatus utilized to mount a motorcycle fender, as well as one or more components, directly to an upper rear portion of a motorcycle frame. The upper rear portion of the frame includes one or more rear frame rails, each having a plurality of holes defined therein. These holes are further used in securing the fender and the one or more components.

A three-wheeled vehicle is designed for road use and has an internal combustion engine that drives a single rear wheel and a pair of steerable front wheels. The front wheels are partially covered by a fender assembly that includes a fender body and a fender support. The fender support moves in correspondence with the front wheels independent of the main frame. The fender also includes a lamp that is flush with the fender body.

A wheelchair footrest is provided having a footrest support member and a socket receptacle connected thereto. A swivel element is adjustably received for rotation within the socket receptacle. A foot plate is connected to the swivel element by a foot plate support member. The position of the swivel element is rotatably adjustable relative to the socket receptacle in yaw, pitch and roll directions. The swivel element has a socket engaging surface forming a portion of a sphere and the socket receptacle has an interior surface sized and shaped to mate with the socket engaging surface. The socket receptacle and the swivel element are fabricated from ferrous metals, and at least the interior surface of the socket receptacle and the socket engaging surface of the swivel element are subjected to a ferritic nitrocarburization surface treatment process.

A three-wheeled vehicle is designed for road use. The three-wheeled vehicle has an internal combustion engine that drives a single rear wheel and a pair of steerable front wheels. The vehicle is designed with optimal ranges for ergonomic comfort.

A motorcycle foot peg is constructed to absorb shocks and impacts that would otherwise be transmitted to a rider's foot during hard landings of a motorcycle. The impact and shock absorbing motorcycle foot peg has particular applicability to off-road motorcycles. The foot peg has a rigid mounting platform including a mounting plate from which a rigid foot support projects outwardly in cantilevered fashion. The foot support has a flat upper bearing surface and supports a foot pad formed of a resiliently compressible elastomeric material having a Shore A hardness of between about 30 and 60. A foot contact plate is located atop the elastomeric slab. The foot contact plate, the elastomeric slab, and foot support are connected together by bolts passing therethrough. The foot contact plate thereby resides in a floating relationship relative to the foot support and can move both toward the foot support and laterally relative to the foot support to cushion the rider's foot against shocks and impacts. Spacer washers may be provided about the shanks of the bolts to adjust a preload compression on the resilient pad.

The motorcycle foot support assembly has a foot support member, a rotation arm, a monolithic motorcycle-mounting bracket, and a releaseable bracket-to-arm locking mechanism. The rotation arm is attached between the inner surface of the foot support and the motorcycle-mounting bracket. The monolithic motorcycle-mounting bracket has a motorcycle-attachment portion and an arm-attachment portion, the latter portion for engagement with the rotation arm. The releaseable bracket-to-arm locking mechanism has an engagement pin that selectively engages with one of a plurality of predetermined stop holes whereby the releaseable bracket-to-arm locking mechanism may be selectively engaged to stop the relative rotation between the arm-attachment portion and the rotation-arm first end.

A recharging system for a rechargeable battery (281) of an inverted pendulum type vehicle (1) comprises a stand (86) for holding the vehicle in a substantially upright posture by using a supporting member (91, 96) that engages a prescribed part of the vehicle, a power feed device (95, 152) is provided on the stand, and a power take device (88, 151) provided on the vehicle. The power take device is positioned so as to couple with the power feed device when the prescribed part of the vehicle is engaged by the supporting member of the stand. The stand allows the vehicle to be placed in an upright posture simply leaning the vehicle against a part of the supporting member, and the electric connection between the rechargeable battery of the vehicle and the power source can be established at the same time without requiring any extra effort.

A selectively deployable extender is provided on the rear of a platform assembly of a stand-on lawnmower so as to permit an operator to position his or her feet further from the rear wheels than would otherwise be possible in order to increase operator comfort and / or to improve traction and / or maneuverability. By making the platform selectively deployable as opposed to simply providing a longer platform, the length of the machine can be reduced for storage and transport, and the risk of making damaging contact with an obstruction or with the ground while traveling up a hill is reduced. The extender may, for instance, be a plate or similar device pivotally attached to a rear end of a main platform and the main platform can be resiliently mounted to or at least partially isolated from a frame of the stand-on lawnmower.

A motorcycle foot peg is comprised of a shaft connected to a bracket via a pin and a cotter pin, a platform, an outer and inner latch, a spring, and a screw. A platform swivels on the shaft. The spring biases the outer latch to be held substantially perpendicular to the inner latch, and swivels on the shaft. When mounted to a motorcycle frame, the foot peg enables a motorcycle rider to fixedly engage their feet into the foot peg via fore and aft cleats on the bottom of their motorcycle boots. To release from the foot peg, the rider twists their boots past a certain angle. The platform pivots to expose either side of the platform and make proper contact between the bottom of the boot and the platform. Platform teeth give grip between the boot and the platform when rider is not engaged to the foot peg. A shaft leg prevents the foot peg from pivoting up and back relative to the motorcycle frame. A first cleat is mounted towards the front of a motorcycle boot and a second cleat rearward from the first. Screws secure cleats to the bottom of the motorcycle boot. Slots allow the cleat to be adjusted fore and aft. A rider clips into the forward cleat in order to absorb bumps in the terrain, and clips into the rearward cleat in order to operate the gear shift lever or operate the foot brake. For longer rides for comfort, it may be desirable to switch between being clipped into the forward and rearward cleats.

A two-wheel battery-powered vehicle having a platform, two wheels connected to the platform, a battery-powered wheel drive driving the two wheels, an attachment connected to the platform, and a sensor device arranged in the platform. A person standing on the platform and engaging the attachment moves the platform into an angle position corresponding to a body position of the person. Based on the angle position of the platform relative to a horizontal position, the sensor device controls the wheel drive such that the wheel drive, by acceleration or deceleration, keeps the vehicle and the person standing on the platform in a balanced position. The attachment has a leg support device for at least one leg of the person standing on the platform in order to keep the platform at a desired angle position. The leg support device is adjustable.

An all-terrain vehicle has a removable foot board arrangement. The foot boards are removably mounted to a mounting fixtures. The mounting fixtures are removably mounted to a set of corresponding mounting brackets. The mounting brackets are secured to the frame of the all-terrain vehicle. The foot boards extend outward beyond an outermost portion of the rims of the front wheels and serve as side guards.

A suspension system (10) for a vehicle for suspending a wheel (1) is disclosed. An outer rotor type motor (20) is provided within the wheel (1). The motor (20) has a stator (28, 30) provided on an outer surface of a cylindrical member (24) that defines space (70) open to at least an inboard side of the vehicle, and a rotor (22,26) rotatably supported by the cylindrical member (24). The wheel (1) receives the motor (20) and is connected to the rotor (22,26). The mounting portions of suspension arms (50,52,54) are provided on an inner surface of the cylindrical member (24).

A leaning vehicle has a frame pivotally connected to the lower end of a shock tower, the pivotal connection defining a frame leaning axis wherein the frame is adapted to lean to a right side and to a left side relative to the shock tower about the frame leaning axis. The leaning vehicle includes an actuator operatively connected to the frame and to the shock tower which is adapted to impart a leaning motion to the frame relative to the shock tower about the frame leaning axis.

A cycle (1) for use by a rider (11) over a terrain surface (36). The cycle (1) includes a frame (2) having front (3) and rear (4) portions; a seat (13); a front wheel (5) rotatable about a primary axis (17) and attached to a steering member (7); a steering mechanism (8) coupled to the steering member (7); a rear wheel (6), rotatably attached to the rear frame portion (4); a drive mechanism (21 or 88) operatively coupled to the front (5) and / or rear (6) wheel; at least one footrest (12, 92) on the front wheel (5). The steering member (7) is pivotally attached to the front frame portion (3) for rotation about a secondary axis (15) orthogonal to the primary axis (17). The cycle (1) is configured such that a rider (11) can be seated on the seat (13) in operative contact with the steering mechanism (7) when the cycle (1) is in motion, whilst permitting both feet of the seated rider (11) to reach the terrain surface (36) when the cycle (1) is stationary.

A four-wheeled vehicle includes a steering mechanism having a bar handle, right and left front wheels, and right and left rear wheels. The vehicle includes a front cover and a windshield disposed in front of the bar handle. The vehicle includes a driver's seat, and a rear passenger seat disposed behind the driver's seat and between the rear wheels. The rear passenger seat is directed forwardly. The vehicle includes a power unit part disposed below the rear passenger seat, and a body cover disposed rearwardly of the driver's seat.

A fuel tank is disposed under a flat footboard. A vehicle body cover is disposed laterally of the fuel tank. An opening introduces travelling wind to a space between the fuel tank and the vehicle body cover. A first exhaust pipe is located upstream of a catalyst and is connected to an exhaust port. A catalyst housing portion accommodates the catalyst, is connected to the first exhaust pipe, and extends backwardly from the first exhaust pipe. A second exhaust pipe is located downstream of the catalyst, is connected to the catalyst housing portion, extends backwardly from the catalyst housing portion, and is connected to a silencer. The first exhaust pipe at least partially overlaps with the fuel tank in a vehicle front view. The catalyst housing portion is at least partially disposed rearward of the space between the fuel tank and the vehicle body cover.