A toy vehicle control mechanism for performing stunts includes a rod coupled to a connection piece that permits a user to selectively manipulate a toy vehicle. The rod includes a rod-tip and a shaft, and the connection piece is formed as a loop or arch shaped structure that is secured to a toy vehicle as an interface for the rod-tip. The rod-tip has an interior opening and an exterior notch with a solid section separating the notch from the opening. The rod-tip and connection piece are configured so that the connection piece can travel around within the opening and be manipulated by selectively engaging the rod-tip's notch with various portions of the connection piece.

A toy vehicle control mechanism for performing stunts includes a rod coupled to a connection piece that permits a user to selectively manipulate a toy vehicle. The rod includes a rod-tip and a shaft, and the connection piece is formed as a loop or arch shaped structure that is secured to a toy vehicle as an interface for the rod-tip. The rod-tip has an interior opening and an exterior notch with a solid section separating the notch from the opening. The rod-tip and connection piece are configured so that the connection piece can travel around within the opening and be manipulated by selectively engaging the rod-tip's notch with various portions of the connection piece.

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 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.

The present disclosure provides a drift toy car including a power assembly, a steering assembly, a control assembly, a driving wheel, a driven assembly, and a housing. The power assembly, the control assembly, and the driven assembly are all mounted in the housing, the power assembly is connected to the driving wheel to provide power to the toy car, a connecting plate of the steering assembly is connected to a driven wheel device of the driven assembly, and the connecting plate is controlled by the steering assembly for turning a preset angle; the control assembly is configured to receive control instructions and control the steering assembly, making the driven wheel device perform steering; once the movement direction of the driven wheel device deviates from the movement direction of the driving wheel, the toy car performs steering and drift.

A remote control model car and console is disclosed. The remote control model car and console includes a model car includes an ECU and a console that is wirelessly connected to the model car through the ECU. The console includes a movable chassis, a steering wheel, a pedal, a seat, a monitor, a support rod, and a support frame. The support rod is fixed to the movable chassis on one side. The monitor is fixed to an upper end of the support rod. The support frame is fixed to an upper end of the movable chassis. The seat is fixed at an inner side of the support frame, and the pedal is fixed to the support frame on the side of the seat adjacent to the monitor.

A remote control model car and console is disclosed. The remote control model car and console includes a model car includes an ECU and a console that is wirelessly connected to the model car through the ECU. The console includes a movable chassis, a steering wheel, a pedal, a seat, a monitor, a support rod, and a support frame. The support rod is fixed to the movable chassis on one side. The monitor is fixed to an upper end of the support rod. The support frame is fixed to an upper end of the movable chassis. The seat is fixed at an inner side of the support frame, and the pedal is fixed to the support frame on the side of the seat adjacent to the monitor.

A toy includes a vehicle body having a front portion and a rear portion. A pair of rear wheels is coupled with the rear portion and located on the vehicle so as to at least partially support the rear portion. A first electric motor is drivingly coupled with the at least one rear wheel. There is a pair of front wheels coupled with the front portion and located on the vehicle so as to at least partially support the front portion. The wheels have two sets of 3-dimensional spokes act as a level of shock absorbent freedom of rotation and a freedom of translation thereby to absorb kinetic energy from an impact force.

A toy includes a vehicle body having a front portion and a rear portion. A pair of rear wheels is coupled with the rear portion and located on the vehicle so as to at least partially support the rear portion. A first electric motor is drivingly coupled with the at least one rear wheel. There is a pair of front wheels coupled with the front portion and located on the vehicle so as to at least partially support the front portion. The wheels have two sets of 3-dimensional spokes act as a level of shock absorbent freedom of rotation and a freedom of translation thereby to absorb kinetic energy from an impact force.

A speech remote control device includes a speech input unit, a speech identification unit, a motion setting unit, a transmit unit and a receiving unit. The speech input unit converts a received speech command into a speech signal. The speech identification unit receives the speech signal, and transmits an encoded message. The motion setting unit receives and decodes the encoded message to generate a combination message with a proceeding control command and a turning control command, or comprising a series of sub-combination messages. The transmitting unit receives and transmits the combination message to the receiving unit provided on the remote control car. The remote control car is driven by the receiving unit to automatically change direction or make more than one turn during proceeding. Thus, only one speech command controls the remote control car to simultaneously proceed and make a turn without sending any additional command for changing direction.