1228results about "Toy vehicles" patented technology

A powered wheeled riding device is configured to receive left and right foot inputs from a user and, in response, control left and right motors to move respective left and right wheels forward and rearward in unison with the left and right foot inputs, in order to steer the device without changing the orientation of the wheels relative to the frame of the riding device. The riding device has at least one unpowered rear wheel. The rear wheel is mounted on a wheel mount that is free to rotate about a vertical axis such that the rear wheel is free to point in any direction.

A children's ride-on vehicle includes a vehicle body comprising a substantially rectangular shape, a steering wheel, a front wheel assembly, a steering column, and a seat located above a storage compartment. The steering wheel has a substantially rectangular shape. The seat comprises a flat panel. The plane of the seat is coplanar with the top surface of the vehicle body. The vehicle comprises a connecting frame. The connecting frame is telescopically connected to the vehicle body. The vehicle comprises a removably connected cleaning attachment. The vehicle can be converted to a piece of luggage.

A radio-controlled model vehicle is provided including a model vehicle chassis, a vertically mounted motor, and a rear axle, configured to pivot in a vertical direction relative to the model vehicle chassis via one or more rear axle linkages. The rear axle also includes a vertical rear axle differential. The model vehicle further includes a gear reduction transmission including a spur gear comprising spur gear teeth offset from a spur gear center portion, and a pinion gear engaged with the spur gear teeth. In addition, the model vehicle includes a vertical, extendable driveshaft that has one end attached to the spur gear center portion and another end attached to the rear axle differential. Wherein the driveshaft extends through the spur gear and the motor powers propulsion wheels coupled to the rear axle via the gear reduction transmission, driveshaft and rear axle differential.

The invention relates to a toy car, which comprises a car head and a car body, the car head being connected with the car body; the car head comprises a base, a first channel is arranged in the base, the base is further provided with a swallowing mechanism, the swallowing mechanism comprises two swallowing wheels arranged on the base, and the two swallowing wheels are rotatably connected to two sides of the first channel respectively; and an object to be swallowed is swallowed into the first channel through the swallowing wheels.

A swingable toy includes: a swingable body supported to be rotatable around a first rotation axis and including a cam follower located lower than the first rotation axis; and an eccentric cam member provided to be allowed to contact the cam follower and supported to be rotatable eccentrically around a second rotation axis located lower than the first rotation axis. The first rotation axis and the second rotation axis are arranged to intersect each other when viewed in a vertical direction.

A reconfigurable toy vehicle transporter includes a first transporter that is reconfigurable between a first configuration and a second configuration, the first transporter including a base portion including a first surface having a first track, the base portion including a first compartment in which a toy vehicle can be stored, and a repositionable portion movably coupled to the base portion, the repositionable portion having a second compartment in which a toy vehicle can be stored, the repositionable portion including a second surface having a second track, the repositionable portion being placeable in a first position located above the first surface of the base portion and in a second position in an end-to-end arrangement with the base portion in which the first track and the second track are aligned and continuous. A second transporter is removably coupleable to the first transporter.

The utility model relates to the field of automobile models, and discloses a rotary quick connection structure of a chassis and an automobile shell, which comprises the chassis and the automobile shell. The vehicle shell is connected with a clamping piece, and the clamping piece is provided with a clamping part; the chassis is provided with a rotary quick connecting device, and the rotary quick connecting device comprises a mounting box, a clamping block and a rotary driving piece; the mounting box is provided with an inlet and outlet, the clamping block is slidably arranged on the mounting box and can be switched between a clamping position and a loosening position, the clamping block comprises a clamping part, when the clamping block is switched to the clamping position, the clamping part extends out of the mounting box through the inlet and outlet and is clamped with the clamping part, and when the clamping block is switched to the loosening position, the clamping part retracts into the mounting box; the rotary driving piece is rotatably arranged on the mounting box and comprises a driving part and a handle part, the handle part extends out of the mounting box, and the driving part is arranged in the mounting box and connected with the clamping block. According to the utility model, the automobile shell and the automobile chassis can be quickly disassembled and assembled, so that the maintenance and replacement efficiency of functional parts in the automobile model is improved.

One embodiment of the present invention discloses a remote-controlled toy vehicle with omnidirectional adjustable steering, comprising: a vehicle body having a remote control receiving circuit; a remote control device capable of communicating with the remote control receiving circuit; at least one steering means mounted on the vehicle body; and a plurality of wheels; wherein each steering means comprises a steering drive means, a pivot rod, a connecting rod, at least one swivelable member, and at least one wheel bracket, with the number of swivelable members. The present remote-controlled toy vehicle with omnidirectional adjustable steering can steer at various angles, enabling flexible control over its driving direction, while having a simple structure and offering convenient control and adjustment operations.

A radio-controlled (RC) model vehicle body assembled with a panel connection system is provided. The system includes a first panel section having a mounting tab offset from a first panel outer surface and a tab mounting hole in the mounting tab. The system also includes a second panel section having a receiving slot and an offset panel mounting hole both offset from the second panel outer surface. The system includes a panel bracket comprising having an offset bracket first section and a bracket second section. The panel bracket further includes a first bracket mount in the offset bracket first section and a second bracket mount in the bracket second section. The second panel section is fastened to the panel bracket using the first bracket mount and the offset panel mounting hole and the mounting tab is inserted into the receiving slot and fastened to the second bracket mount.

Provided is a deployable toy transport vehicle, which comprises a cab portion and a trailer portion, the trailer portion comprises a vehicle seat, a middle carriage and a vehicle roof which are slidably connected in a pulling manner, the vehicle seat, the middle carriage and the vehicle roof are unfolded into a linear runway by pulling the middle carriage and the vehicle roof, connectors are arranged at rear ends of the vehicle seat and the middle carriage and are used for guiding the middle carriage and the vehicle roof to translate horizontally and vertically, and the cab portion is provided with a transmitter of a toy trolley.

A traveling toy includes: a traveling toy body including a wheel, the wheel being rotatable about a rotation shaft; an eccentric shaft provided on the wheel in a state of being parallel to and spaced apart from the rotation shaft; a swing member provided swingably and detachably on the traveling toy body by a shaft support structure, the swing member including a coupling shaft; and a link member coupling the eccentric shaft and the coupling shaft. The link member is detachably coupled to the coupling shaft.

A steering mechanism of a model vehicle which improves steering control accuracy is provided. The steering mechanism of the model vehicle includes the servo motor for steering configured to rotationally drive a steerable wheel of a model vehicle in a steering angle direction, the servo motor for steering being positioned between arm parts and the steerable wheel, the arm parts extending from a vehicle body side of the model vehicle to the steerable wheel. The servo motor for steering includes an output shaft parallel to a steering rotation axis of the steerable wheel and is configured to rotationally drive the steerable wheel by the output shaft.

A crane assembly (1) for a toy vehicle has a crane arm (5) and a frame (16) on which the crane arm (5) is pivotally mounted about a base joint (17). A lifting device (22) serves to move a free end of the crane arm (5) between at least one lowered and at least one raised position. The lifting device (22) has an actuating rotary element, a movable cam carrier (27), a transmission lever (30), and a frame-fixed cam carrier (34). The movable cam carrier (27) has a first movable cam (29) and is linearly displaceable relative to the frame (16). The movable cam carrier (27) is operatively connected to the actuating rotary element for its displacement. One lever end of the transmission lever (30) is designed as a cam end (31) which is guided by means of the movable cam (29).The other lever end of the transmission lever (30) is designed as a pivot end (32) which is pivotally mounted on the crane arm (5) about a lever joint (33). The cam end (31) of the transmission lever (30) is guided, at least in one section of the total displacement path of the crane arm (5) between the lowered and raised positions, by means of a frame-fixed cam (35) of the frame-fixed cam support (34). The frame-fixed cam (35) has an ascending cam profile such that the cam end (31) of the transmission lever (30) is itself raised when the crane arm (5) is moved between the lowered and raised positions. This results in a crane design with improved handling of the liftable crane arm.

To provide a travel toy which can reduce occurrence of noise in a high pitch.SOLUTION: A travel toy 1 has, on a lower face of a body 2, axle reception parts 40, 50 integrally formed with the body 2. The pair of right and left axle reception parts 40 are provided on a front side of the body 2. On the other hand, the pair of right and left axle reception parts 50 are provided on a rear side of the body 2. The axle reception parts 40, 50 rotatably support axles 13, 23. The axle reception parts 40, 50 are formed into a substantially rectangular shape whose one side being a lower side is opened, when viewed from an axial direction.SELECTED DRAWING: Figure 5

A children's ride-on vehicle includes a vehicle body comprising a substantially rectangular shape, a steering wheel, a front wheel assembly, a steering column, and a seat located above a storage compartment. The steering wheel has a substantially rectangular shape. The seat comprises a flat panel. The plane of the seat is coplanar with the top surface of the vehicle body. The vehicle comprises a connecting frame. The connecting frame is telescopically connected to the vehicle body. The vehicle comprises a removably connected cleaning attachment. The vehicle can be converted to a piece of luggage.

The utility model discloses a miniature bubble blowing device. The miniature bubble blowing device comprises a liquid storage box, a bubble blowing sheet, a baffle, a motor and fan blades, a mounting plate for fixing the motor is arranged above the liquid storage box; the motor is electrically connected with an external control panel; the fan blades are mounted on a transmission shaft of the motor; the bubble blowing sheet comprises a connecting seat, a connecting rod and a bubble blowing ring; the baffle is fixedly connected with the connecting seat; the connecting seat is hinged to the liquid storage box through a connecting shaft; the fan blades are opposite to the baffle; an included angle formed by the baffle and the bubble blowing ring is 90 + / -5 degrees; in a natural state, the bubble blowing ring falls into the liquid storage box under the action of gravity, and at the moment, the included angle between the baffle and the horizontal plane is 60 + / -5 degrees; after the baffle is blown over by the fan blades, the included angle between the bubble blowing ring and the horizontal plane is 75 + / -5 degrees. The technical scheme has the biggest advantages of being simple in structure, convenient to install, small in overall size and light.

The utility model discloses a charging type wireless remote control toy car, and belongs to the technical field of remote control toy cars. Comprising a driving seat and a remote controller, a steering device, a bus control template, a driving motor and a storage battery which are in wireless connection with the remote controller are arranged in the driving seat, and the circumferential outer walls of a plurality of first driving wheels and second driving wheels are sleeved with anti-skid rubber tires; a plurality of first springs and second springs can be used for being matched with a first protective shell and a second protective shell correspondingly to conduct buffering and damping on the vehicle head and the vehicle tail of the remote control vehicle, damage to the vehicle caused by frontal impact is reduced, a plurality of rotating rollers can be used for being matched with a buffering rubber sleeve, friction force generated when the remote control vehicle turns can be reduced, and steering flexibility and stability are improved; and a plurality of movable limiting rods can be used for limiting the anti-skid rubber tire, so that the situation that the anti-skid rubber tire shifts or falls off in the driving process is avoided, and the overall stability is improved.

A toy vehicle includes a toy vehicle body and a pair of wheel supports located on opposite sides of the toy vehicle body. In one embodiment, each of the wheel supports includes a pair of wheels rotatably mounted to the wheel support. The toy vehicle has a drive system that includes a pair of motors, each of which is operable to move one of the wheel supports and the wheels coupled to the wheel support. Each wheel support is movable between a retracted position in which the wheel support extends along a side of the toy vehicle body, and an extended position in which the wheel support extends downwardly from the toy vehicle body with a front end of the wheel support being spaced apart from the toy vehicle body.

A toy vehicle apparatus for performing a burnout function includes a burnout panel mounted to a base. A vehicle model having a rotatable wheel is mounted to the base with the rotatable wheel lying on the burnout panel, which comprises an abrasive material. The vehicle model comprises a wheel motor for rotating the rotatable wheel with respect to a body of the vehicle model such that the rotatable wheel abrades against the burnout panel. The rotatable wheel comprises an abradable material such that particulates of the abradable material are emitted from the rotatable wheel when the rotatable wheel is abraded against the burnout panel. The particulates simulate or generate smoke similar to that generated in a burnout performed with a road vehicle.

An educational toy (1) includes a self-moving vehicle (10) adapted to move and steer freely on a two-dimensional surface (2) such as a table leaf. A tangible, three-dimensional marker (20) includes at least one RFID tag (21) is used to wirelessly trigger a specific action of the vehicle (10), e.g. turn 90 degrees right, when the vehicle (10) enters a readout range of the marker (20). The marker (20) can be placed freely on the surface (2) and cannot be overrun by the vehicle (10). Thus, the vehicle (10) is instructed to perform a certain action, e.g. take a 90 degrees left turn, using the marker (20). Then, the vehicle (10) moves forward until a next marker (20′) is found from which the vehicle (10) receives its next instruction. This enables the educational toy (1) to teach programming during play, which reduces the risk that a user will lose interest.

To propose an information processing device, an information processing method, and an information medium that can control operation of a moving body adaptively to position information corresponding to a predetermined arrangement pattern.SOLUTION: An information processing device comprises an information acquisition unit for acquiring position information from a sensor constituted so as to read a predetermined arrangement pattern, and an operation control unit for controlling operation of a first moving body including movement in a real space on the basis of the position information.SELECTED DRAWING: Figure 1

The invention relates to a toy car 1 with wheels 2, 3 and a steering unit, and to a toy car system including a toy car 1 of this kind. The steering unit comprises a steering drive 4 acting on at least one of the wheels 2 and a control device 5 acting on the steering drive 4. The at least one wheel 2 acted upon by the steering drive 4 is steerably mounted on the body of the toy car 1 so that it is steerable with a variable steering angle α. The steering unit determines the yaw rate ω of the toy car 1 about its vertical axis z. z The steering drive 4, the control device 5 and the yaw rate sensor 6 together determine the yaw rate ω z to a predetermined target value. The toy car system includes a track 12 for the toy car 1, and the control device 5 includes at least one sensor 9 for detecting the predetermined track 12.

A toy car tire includes a tire main body and a filler core. The tire main body includes an inner cavity and a first opening. The inner cavity is surrounded and formed by a side wall of the tire main body, and the first opening is in communication with the inner cavity. The filler core is inserted into the inner cavity through the first opening. The filler core is configured for filling the inner cavity. Therefore, the filler core is capable of filling the inner cavity of the tire main body to support the tire main body, making the tire main body fuller and less prone to deformation. Moreover, compared with an inflatable tire, since the inner cavity is filled with the filler core, the toy car tire is not afraid of being punctured. Even if punctured, the tire main body of the tire is still full.

Disclosed is a building block coilover, comprising: an outer tube with an external thread, on which an adjustment ring with an internal thread is held axially adjustable, a piston rod guided in the outer tube by a guide, with a spring perch arranged axially opposite the guide, and a preload spring held between the adjustment ring and the spring perch, wherein the guide is designed as a slot guide.