Abstract: A method and apparatus for programming an electronic speed controller for a radio controlled model including a programmer for interfacing a personal computer to the RX port of the electronic speed controller. The electronic speed controller software may be updated, modified or replaced through the RX port.

Abstract: Apparatuses for remote control by a remote object is disclosed that includes one or more sensors configured to communicate with the remote object to obtain ranging information of the apparatus relative to the remote object; and a processing system configured to provide local control of the apparatus based on the ranging information.

Abstract: Methods of establishing a fully operable remotely controlled model vehicle system for a model vehicle. The method includes the steps of transferring a model vehicle, including a receiver for receiving a control signal from a remote control signal source to control operation of the model vehicle, the transfer being from a first party to a second party, and the transfer taking place without the remote control signal source, and the second party providing the remote control signal source following transfer of the model vehicle to the second party to complete the fully operable remotely controlled model vehicle system. The transfer from the first party to the second party may be a sale of the model vehicle with the receiver, but without the remote control signal source.

Abstract: A hand held remote controlled toy vehicle. The toy vehicle includes a motor that can be activated by a wireless signal. The motor is coupled to a drive wheel by a drive gear assembly. Activation of the motor turns the drive wheel and propels the vehicle. The drive gear assembly can be de-coupled from the drive wheel so that the toy vehicle can be manually propelled in a free-wheeling mode.

Abstract: An illustrative toy vehicle is provided having a two-section chassis and a pivot mechanism rotatably attaching the two sections. The vehicle has the ability to move in multiple orientations and execute movements including a side rollover movement where the pivot mechanism assists in directing the vehicle to roll over from a first orientation to a second orientation about a central axis. A modified wheel design further assists in facilitating movements including the rollover movement. The vehicle may perform movements without user control where the vehicle responds to external factors, such as objects or terrain or the vehicle may use control systems such as radio or remote control with a transmitter/receiver pair, on vehicle switches or sensors utilizing interactive preprogrammed content.

Abstract: A radio controlled R/C car including, a body supported on a plurality of wheels including at least one drive wheel, a remote control in communication with a controller on the car, a plurality of removable panels each panel including a latch to hold the panel in a first position on the car body and each latch associated with a plunger movable from a first position holding the latch in place to a second position releasing the latch, a first spring biasing the plunger to the first position and a second spring loaded by the latch the second spring biasing the panel away from the first position such that the panel springs away from the car body to simulate a crash. Once all the panels are released a sound plays and a driver ejects from the car and the car stops. Two or more cars can be used in a demolition derby where the last car still running with a driver would be the winner.

Abstract: A radio controlled (RC) vehicle includes a receiver that is coupled to receive an RF signal from a remote control device, the RF signal containing command data in accordance with a first coordinate system, wherein the first coordinate system is from a perspective of the remote control device. A motion sensing module generates motion data based on the motion of the RC vehicle. A processing module transforms the command data into control data in accordance with a second coordinate system, wherein the second coordinate system is from a perspective of the RC vehicle. A plurality of control devices control the motion of the RC vehicle based on the control data.

Abstract: The present invention relates to an electronic device, and in particular, to the input and output of data from the electronic device. An object is connected to the electronic device and configured to convert a portion of the audio signal output by the electronic device into an audible output. The object also converts a portion of the audio signal output by the electronic device into an infrared signal that is emitted to a toy vehicle. With the object connected to the electronic device, the electronic device is able to remotely control the toy vehicle while the object outputs sound effects and other audible sounds.

Abstract: A method for creating low-cost interactive entertainment robots is disclosed. The cost of the robots is reduced by using a commodity computing device: smart phone, and by having robotic bodies use a decoder of a set of movement commands that facilitates the interoperability between a variety of smart phones and a variety of robotic bodies. Smart phones are equipped with powerful CPU, touch screen, USB, camera, microphone, Bluetooth, WI-FI, etc. They are fit for being the robot control units with the relevant robot applications installed. The cost of robotic bodies can be reduced by minimizing the amount of processing and sensing there and having them focus on mechanical movements. Furthermore, by defining and using a set of movement commands that promotes interoperability between a variety of robot control units and a variety of robotic bodies, the cost of robotic bodies can be reduced through mass production.

Abstract: A hand held remote control unit includes a wireless signal transmitter configured to transmit a fixed frequency (tone) signal and a manually operated switch to selectively operate the transmitter to transmit the wireless tone signal. A toy has an appropriate wireless signal receiver and control circuit responsive to the tone signal that controls one or more electrically operated devices that can provide at least two different, electrically activated responses of the toy apparent to an observer. The control circuit provides a sequence of two or more different predetermined responses of the toy in response to sequential reception and loss of the tone signal, the sequence of responses being repeated after completion.

Abstract: A remote control device having a touch screen for remotely directing a toy, such as a remote control vehicle or airplane, is provided.

Abstract: A toy workover rig modeling the kind used to service oil and gas wells. The workover rig includes a wheeled truck. An extensible mast is pivotally fastened to the truck. A remotely-controlled pivoting assembly is connected to the truck for selectively moving the mast from a horizontal, traveling position to a vertical, substantially perpendicular operating position. A remotely-controlled telescoping assembly is connected to the truck for selectively extending the mast from a retracted position to an extended position. A remotely-controlled hoisting assembly is connected to the truck for lifted selected objects within the mast.

Abstract: A slim, two-sided remote controlled toy vehicle with high speed, high maneuverability and high shock and crash resistance. A remote control scheme based on digital signals embedded in infrared beams allows improved control and high-speed terrestrial and aerial stunt capabilities. The toy intelligently implements infrared communication, on board micro-control units, flip sensors, sounds, lights and other pre-programmed actions. Various stunt accessories are also provided, to increase the play value of the toy.

Abstract: In an embodiment of the present invention, an interactive remote controlled toy (10) is provided. The toy (10) includes a vehicle (200) and a plurality of motion sensitive controllers (100) that cooperate to control the vehicle. The plurality of controllers (100) cooperate such that their relative orientation (110) determines the speed and direction the vehicle (200) moves.

Abstract: A method for controlling a remote toy by means of a motion sensing device and/or a touch screen on a mobile device. The mobile device can be a standard mobile phone, tablet, or any other device equipped with either a motion sensing device, touch screen, or both for controlling specific movements on a remote toy.

Abstract: A driving motor is connected to a rear wheel side axle. A steering motor is installed at the center of the front part side of a chassis. An eccentric weight is mounted on a rotation shaft of the steering motor longitudinally along a vehicle body. A controller is used to control the rotation direction of the steering motor. When the eccentric weight rotates in one direction by power of the steering motor, front wheels move in one of the vehicle width directions, by which yaw rotation takes place on the chassis. The eccentric weight rotates reversely, by which reverse yaw rotation takes place on the chassis.

Abstract: A method, apparatus and system for interfacing with multiple gaming devices are disclosed. A universal controller includes a communication channel designed to selectively establish one or more bidirectional communication links between the controller and the gaming devices. A data collection unit communicatively coupled to the communication channel is designed to collect data related to a gaming experience of the first gaming device and a gaming experience of the second gaming device. The data collection unit is also designed to transfer to the second gaming device the gaming experience of the first gaming device to affect the gaming experience of the second gaming device. A storage unit communicatively coupled to the data collection unit is designed to store the collected data. Further, an input assembly that includes multiple input elements is included. Each input element is designed to be selectively mapped to one or more functions of the gaming devices.

Abstract: The present invention provides a remote-controlled ornithopter capable of flying forward in the upright position, which includes X-shaped main wings? having opposite phases to offset moments applied to a fuselage of the ornithopter. The ornithopter includes the fuselage (100), the X-shaped main wings (200), which are provided on the front end of the fuselage, tail wings (300), which are provided on the medial portion or the rear end of the fuselage, and a tail rotor (400), which controls a direction in which the fuselage flies. The ornithopter further includes a drive unit (500), which operates the main wings, and a flight control unit (600), which has a receiver to receive a signal for controlling the drive unit and the tail rotor. The ornithopter further includes a remote controller (700), which transmits the signal for controlling the drive unit and the tail rotor to the receiver.

Abstract: A shooting toy where players determine whether or not a shot has hit a target based on image recognition is provided. A determination section (43) of a controller (5) determines whether or not the shot has hit the target based on image recognition by comparing a target image to be recognized, acquired by a target image data acquiring section (41) with a reference image stored in a reference image data storing section (45). A game executing section (35) proceeds with the game based on a hit signal outputted from the determination section (43).

Abstract: A toy system includes a drivable surface that includes location encoding markings. A toy vehicle or mobile agent is provided that includes a drive motor, an imaging system for taking images of the markings, a vehicle wireless transceiver, and a microcontroller operatively coupled to the motor, the imaging system, and the vehicle wireless transceiver. A basestation is provided that includes a controller operatively coupled to a basestation wireless transceiver. Via wireless communication between the wireless transceivers of the toy vehicle and the basestation, an action to be implemented by the toy vehicle can be determined by the basestation and communicated to the toy vehicle, whereupon the microcontroller of the toy vehicle controls detailed movement of the toy vehicle on the drivable surface based on images taken of the markings of the drivable surface by the imaging system to cause the toy vehicle to implement the action on the drivable surface.

Abstract: A toy car and a remote control regulate the speed of the car. A source of supplemental power selectively energizes the drive motor thereby to selectively permit the vehicle to move faster than the normal speed. A sensor measures the voltage to the vehicle motor. After stepping up the voltage to the drive motor, and detecting a drive motor current increase in excess of the capability of vehicle, the source of supplemental power is disabled. When a normal low voltage state is detected, the source of supplemental power in the vehicle is enabled whereby the motor supply voltage is permitted to increase above a normal low voltage state permitting more power to be provided to motor.

Abstract: The present invention provides a video-captured model vehicle simulator including at least one model vehicle, a track layout, at least one video imaging unit, at least one computer, at least one input device and/or control system and a customised software application whereby the simulator provides a user with a realistic simulation of the operation of a vehicle.

Abstract: Apparatuses for remote control by a remote object is disclosed that includes one or more sensors configured to communicate with the remote object to obtain ranging information of the apparatus relative to the remote object; and a processing system configured to provide local control of the apparatus based on the ranging information.

Abstract: A novelty system for attaching to a vehicle featuring a first housing designed to resemble a front or a head of a mascot and a second housing designed to resemble a back portion or a tail of the mascot; means of attaching the housings to the front and rear of the vehicle, respectively; a speaker disposed in the first housing for emitting sounds such as animal sounds or fight songs; a motor disposed in the second housing for moving or rotating the second housing; and a remote control for controlling the first and second housings.

Abstract: A system and method are provided for low power electronic speed control for a model vehicle. A remote controlled model vehicle system may comprise a motor, a transmitter, a receiver, and an electronic speed control device. The electronic speed control device comprises a user interface and is at least configured to control a magnitude of average power applied to the motor in response to a user input. The electronic speed control device can operate under at least two profiles, wherein a desired profile is selected by the user. In one embodiment, under a first profile the electronic speed control device applies 100% magnitude of average power to the motor in response to maximum forward throttle, and under a second profile the electronic speed control device applies a percentage magnitude of average power lower than 100% and greater than 0% to the motor in response to maximum forward throttle.

Abstract: A radio controlled R/C car including, a body supported on a plurality of wheels including at least one drive wheel, a remote control in communication with a controller on the car, a plurality of removable panels each panel including a latch to hold the panel in a first position on the car body and each latch associated with a plunger movable from a first position holding the latch in place to a second position releasing the latch, a first spring biasing the plunger to the first position and a second spring loaded by the latch the second spring biasing the panel away from the first position such that the panel springs away from the car body to simulate a crash. Once all the panels are released a sound plays and a driver ejects from the car and the car stops. Two or more cars can be used in a demolition derby where the last car still running with a driver would be the winner.

Abstract: In accordance with the present invention, electronic mixing is provided between multiple instruction channels from multiple users of a single controlled object such that each user can have partial control over the object at the same time. The percentage of partial control is adjusted between users according to any combination of the number of users, preset or user set percentages, randomness, or computer generation.

Abstract: Disclosed is an automobile toy, including: a first chassis to support an axle of a front wheel; and a second chassis to support an axle of a rear wheel, wherein the first and second chassis are rotatably connected with each other by a rotating shaft that lies along a width direction of the automobile toy, and a spring for biasing the first and second chassis is arranged between the first and second chassis, so as to bias the front wheel and the rear wheel to an approaching direction to the ground.

Abstract: A traveling toy system is provided, in which it becomes possible to reduce the amount of information transmitted to a video display device. In the traveling toy system, a video camera, a video camera controller which is adjustably controls at least a frame rate of the video camera, a signal transmission device which transmits a video signal outputted from the video camera to a video display device, and electric storage means for power supply are mounted on the traveling toy which travels on a traveling lane using a potential energy. The traveling toy system further includes a traveling toy carrier device which carries the traveling toy from a position where the potential energy is low to a position where the potential energy is high. The video camera controller changes the frame rate so that when a traveling speed of the traveling toy is higher than a given speed, the frame rate may be increased from the frame rate at the time that the traveling speed is lower than the given speed.

Abstract: The present invention provides an unconventional and proprietary radio control (RC) or infrared remote control (IR) toy model/airplane which can intentionally shift or change its center of gravity (COG) to different positions along the longitudinal centerline of the aircraft or fuselage. The incremental shifting or moving of the COG from front to rear or vice versa incrementally changes the “angle of attack” of the wing, thereby producing a variable range of viable flight attitudes and resultant terminal velocities (top speeds). Therefore, users can easily select an appropriate speed for the airplane to fly in limited indoor spaces or in larger outdoor areas. Additionally, the COG shifting of the present invention can be applied not only to RC and IR controlled toy models/aircrafts but may also be implemented into real aircrafts including manned and unmanned aircraft for civilian and/or military applications.

Abstract: A remotely controlled transformable toy vehicle that is remotely transformable from a standing position to a flying position, where the toy performs like a helicopter and also to a driving position, where the toy performs like a wheeled vehicle. Transformations are carried out on-the-fly by remote control and the toy vehicle has the ability to maintain proper center of gravity for stable flight, takeoff and landing.

Abstract: A toy vehicle includes a chassis, a front road wheel supported for rotation from the chassis and a rear road wheel supported for rotation from the chassis. A reversible motor is supported from the chassis and is operatively coupled with one of the front and rear road wheels so as to rotate at least one of the front and rear road wheels to propel the toy vehicle in a forward direction. A wheelie mechanism is operatively connected to the motor and has a first end pivotally attached to the central axis of one of the front and rear road wheels.

Abstract: The present invention is concerned with a toy apparatus system. The system includes a remote control car unit and a control unit, which are communicable with each other wirelessly, and an external computer connectable with the car unit and/or the control unit for modifying programs for use by the car unit and/or the control unit.

Abstract: A play set comprises master and slave toy vehicles and a stationary base unit. The master toy vehicle includes a radio frequency (RF) receiver to be controlled by a manually operated RF remote control unit and an infrared (IR) transmitter configured to broadcast an IR tracking signal. The slave toy vehicle includes a directional receiver to detect the source of the IR tracking signal and an on-board, self-directing control circuit coupled to the at least one directional receiver to control the slave toy vehicle to chase the master toy vehicle. The base unit includes a platform with a game controller and one or more targets mounted so as to move when struck by the master toy vehicle. The game controller and one or both of the toy vehicles are configured for one way or two way wireless communication between the game controller and toy vehicles(s). The game controller is configured to initiate and control one or more modes of game play through the targets or communication with the toy vehicles.

Abstract: A method, apparatus and system for interfacing with multiple gaming devices are disclosed. A universal controller includes a communication channel designed to selectively establish one or more bidirectional communication links between the controller and the gaming devices. A data collection unit communicatively coupled to the communication channel is designed to collect data related to a gaming experience of the first gaming device and a gaming experience of the second gaming device. The data collection unit is also designed to transfer to the second gaming device the gaming experience of the first gaming device to affect the gaming experience of the second gaming device. A storage unit communicatively coupled to the data collection unit is designed to store the collected data. Further, an input assembly that includes multiple input elements is included. Each input element is designed to be selectively mapped to one or more functions of the gaming devices.

Abstract: An interactive doll is disclosed where the doll is controlled by a remote control. When the user pushes a button on the remote control, it can cause the doll and the remote control to interact via electromagnetic transmissions where both emit sounds simultaneously or at different times. The remote control can represent various items, including mobile phones and birthday cakes.

Abstract: A remotely-controlled vehicle is disclosed. According to various embodiments, the vehicle includes components that may be added to an existing vehicle or added at the time of manufacture. The components include at least one of a pneumatic projectile launcher and a water cannon, a rocket launcher having one or more rockets launchable from the vehicle, at least one video camera system for capturing and transmitting video images, and a controller for controlling the projectile launcher, water cannon, rocket launcher, and video camera system. Each of the one or more rockets may include at least one solid-propellant rocket motor, and each of the one or more video camera systems may include at least one video camera mounted for selective orientation in at least one plane.

Abstract: A storage housing is provided for stowing a remote control toy. The housing comprises a substantially box shaped body with an interior compartment. The compartment has a platform for movement between two positions, and a door for moving between an open and closed position. There is a remote controller for operating the platform and door in a selected manner and also for operating the remote controlled toy. The housing can additionally be part of a vehicle and have wheels.

Abstract: A remote control ball assembly includes a housing, an actuating device having a circuit board disposed in the housing and having a processing device and a signal receiving device attached to the circuit board, two motors each include a wheel attached to a spindle and contacted with the housing, and a radio transmitter includes another processing device and an angle detector and a signal emitting device attached to another circuit board for detecting a status of the radio transmitter and for emitting the status signal to the signal receiving device, which then actuates the motors and the wheels to operate or to move the housing on land and on water without being operated by the fingers of the user.

Abstract: A toy apparatus may include a frame and a shell that may extend over and around the frame so that the apparatus takes on the appearance of an animal or thing. The frame may support a power source, a motor, drive and support wheel(s), a controller, one or more sensors and/or switches, and an audio emitting device(s). The sensor(s) and/or switches may include one or more of a photo sensor; a pressure, touch or contact sensor; an audio sensor; or any combination of these or similar sensors or switches that are positioned on the “front” and “top” of the frame. The apparatus may also be positioned in and interact with one or more separate or interconnected environments. These environments may include one or more platforms or enclosures, ramp(s), “exercise” wheel(s) and other light or sound emitting devices.

Abstract: A motorized toy vehicle or Wall Racer that is capable of operating on vertical and inverted horizontal surfaces such as walls and ceilings, while being manufacturable at reasonable cost and operable on batteries having sufficient lifetime as to be enjoyable. One or more battery-powered fans draw air from around all or defined portions of the periphery of the chassis of the Wall Racer through a carefully-shaped duct, so that the air in the portion of the duct immediately adjacent the surface flows at high velocity and low pressure; the relatively greater pressure of the surrounding air urges the vehicle against the surface, allowing it to operate on vertical surfaces, such as walls, or inverted on horizontal surfaces, such as ceilings.

Abstract: Systems and methods are provided for controlling one or more servos coupled to a model vehicle. An input signal having a series of input pulses encoded at an input pulse repetition frequency is received at a receiver coupled to a model vehicle having one or more servos. The input signal is decoded at the receiver. A servo control pulse is generated using at least one of the input pulses at the receiver. The servo control pulse is outputted to at least one of the servos at an output pulse repetition frequency that is different from the input pulse repetition frequency.

Abstract: 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. An electrically operated steering actuator is mounted on the front portion and is drivingly coupled to the at least one front wheel to rotate the front wheels to steer the toy vehicle. When the vehicle is inverted, the sensor detects the orientation change and signals a microprocessor inside the vehicle, the microprocessor responds to the signal and changes the left/right motor control signal to the steering motor and the forward/backward motor control signal on the driving motor.

Abstract: A moveable electronic toy includes two wheels, two motors configured for driving the two wheels, a deviation detecting module, an adjusting module and a driving module. The deviation detecting module is configured for detecting angular velocities of the two wheels to determine an angular velocity difference between the two wheels. The adjusting module is configured for generating an adjusting signal indicative of the angular velocity of which wheel to be adjusted and an adjustment value of the angular velocity according to the angular velocity difference. The driving module is configured for receiving the adjusting signal and driving a corresponding motor using a pulse-width modulator.

Abstract: A system and method for operating robots in a robot competition. One embodiment of the system may include operator interfaces, where each operator interface is operable to control movement of a respective robot. A respective operator interface may be in communication with an associated operator radio, where each radio may have a low power RF output signal. A robot controller may be coupled to each robot in the robot competition. A robot radio may be coupled to a respective robot and in communication with a respective robot controller and operator radio. The robot radios may have a low power RF output signal while communicating with the respective operator radios. Alternatively, the radios may be short range radios, where a distance of communication may be a maximum of approximately 500 feet.

Abstract: A radio control transmitter for a model is disclosed wherein a control range is limited to not to exceed a maximum control range without using a mechanical means. In accordance with the transmitter, an added control range being a sum of two or more of the control ranges is calculated, whether the added control range exceeds a maximum control range set to correspond to the operating section of the object to be controlled is determined, and the control range is corrected when the added control range exceeds the maximum control range.

Abstract: A motorized toy vehicle or Wall Racer that is capable of operating on vertical and inverted horizontal surfaces such as walls and ceilings, while being manufacturable at reasonable cost and operable on batteries having sufficient lifetime as to be enjoyable. One or more battery-powered fans draw air from around all or defined portions of the periphery of the chassis of the Wall Racer through a carefully-shaped duct, so that the air in the portion of the duct immediately adjacent the surface flows at high velocity and low pressure; the relatively greater pressure of the surrounding air urges the vehicle against the surface, allowing it to operate on vertical surfaces, such as walls, or inverted on horizontal surfaces, such as ceilings.

Abstract: A racing toy including: a running body including, a driving mechanism for automatic running, and a running control section to enhance running ability of the running body and to reduce running ability of a competing running body; a signal storing section to store a plurality of running control signals regarding the running ability of the running body; and a selection control section to randomly select a running control signal from among the running control signals stored in the signal storing section, wherein the running control section enhances the running ability of the running body and/or reduces the running ability of the competing running body according to the running control signal selected by the selection control section.

Abstract: A system, apparatus, and method for providing a soft-start for a toy vehicle configured to be operated by a person. The method includes receiving a throttle signal operable to induce motion via a motor operating as a drive mechanism of the toy vehicle. A transition signal may be generated based on the throttle signal. The transition signal may be applied to effect operation of the motor. The transition signal may be a pulse width modulated signal having a duty cycle between 20 and 100 percent to provide for an acceleration that avoids the problems of conventional control systems. The transition signal may be ramped in a linear or non-linear fashion. The system may couple the soft-start control circuit between a ground terminal of a battery of the toy vehicle and motor(s), thereby allowing the soft-start control circuit to operate on a low voltage (i.e., not the high voltage of the battery).

Abstract: A toy vehicle has a chassis with road wheels movement including one or two each mounted to pivot about a general vertical axis to steer. A steering mechanism includes a turning member mounted so as to pivot about the generally vertical axis and supporting one road wheel for rotation about a horizontal axis for movement of the vehicle and about the generally vertical axis to steer the vehicle. A control member slides across the chassis. A magnetic body pivots on a pivot axis extending front and rear. The magnetic body has a central axis perpendicular to the pivot axis with opposite magnetic poles of the body locate along the central axis on opposite sides of the pivot axis. A crank is connected at one end with the magnetic body and at an opposite end with the elongated opening of the control member. A coil surrounds the magnetic body and rotates the magnetic body by the passage of an electric current in a selected direction through the coil thereby pivoting each road wheel connected with the control member.