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: Children's ride-on vehicles having improved motor assemblies. The vehicles are reduced-scale vehicles, often formed substantially from molded plastic, that are sized for use by children and which include battery-powered motor assemblies. The vehicles may include a noise-suppression device that is adapted to reduce electromagnetic noise, a cutoff device that is adapted to selectively restrict operation of the motor assembly, or both devices. In some embodiments, the cutoff device may be a temperature-sensitive cutoff device and/or a current-sensitive cutoff device. In some embodiments, the device is disposed within a motor housing provided with the vehicle.

Abstract: A race car system is disclosed. An illustrative embodiment of the race car system includes at least one car, at least one video camera provided on the at least one car, a car transmitter/receiver connected to the at least one video camera, a remote control transmitter/receiver adapted to exchange transmission signals with the car transmitter/receiver, a remote control central processing unit having a screen connected to the remote control transmitter/receiver and a speed control unit and a steering control unit connected to the remote control central processing unit.

Abstract: A controller (2) which transmits code signals in accordance with operation contents of a user, a drive unit (1) driven and controlled based on the code signals, and an extension unit (10) detachably mounted on the controller (2) are provided. A code signal obtaining device (31, 51, and 52) for obtaining the code signals output from the controller (2) and a process performing device (30 and 61) for deciding a state of the drive unit (1) based on the obtained code signals to perform a predetermined process based on the decision result are provided in the extension unit (10).

Abstract: A steering wheel adapted for replacing a rotatable control shaft-mounted finger dial of an RC control unit includes a wheel having a diameter at least as large as at least one dimension of a side of the RC control unit adjacent to the wheel, a coupler located on one side of the wheel for engaging the RC control unit, and at least one bore passing through the wheel. A fastener is positioned within the bore for removably connecting the wheel to the control shaft of the RC control unit.

Abstract: A model toy aircraft is adapted for remote control operation on land, on the water and in the air. The toy aircraft includes a pair of pontoons spaced apart by a horizontal wing forming a tunnel hull. A tail section is provided including one or more moveable directional flight control surfaces. A motive mechanism is mounted directly or indirectly to the wing for propelling the aircraft.

Abstract: A method (500) for providing entertainment. The method can include receiving at least one statistical parameter (140) of a first entity (150) that participates in real world events and updating a performance parameter of a toy (110) that moves in real space or of a gaming device (405). The performance parameter can correlate to a performance of the first entity. In one arrangement, the statistical parameter can be received in real time. The statistical parameter can be a statistical rating of the first entity relative to at least a second entity (155) with which the first entity is competing. In one arrangement, the statistical parameter can be received on a remote control unit (120) as a parameter update (170). The parameter update also can be communicated to the toy. Further, the toy can be controlled with the remote control unit.

Abstract: A controller for a radio-controlled toy, comprising a housing, a first interface disposed on a first side of the housing, a second interface disposed on a second side of the housing, and a steering wheel having a steering shaft, the steering shaft being adapted to be inserted into either of the first and second interfaces.

Abstract: Control over velocity of a model train may be determined based upon the speed of rotation of a control knob. A processor receives electronic pulses indicating rotation of the knob beyond a predetermined increment of angular distance. The processor calculates the amount of power ultimately conveyed to the model train based not only upon the number of pulses received, but also upon the elapsed time between these pulses. The shorter the elapsed time between pulses, the greater the change in power communicated to the train. Initially, a user can rapidly rotate the knob to attain coarse control over a wide range of velocities, and then rotate the knob more slowly to achieve fine-grained control over the coarse velocity. Utilizing the control scheme in accordance with embodiments of the present invention, in a compact and uninterrupted physical motion, a user can rapidly exercise both coarse and fine control over velocity of a model train.

Abstract: A method (700) and system (100) for remotely controlling a remote controlled vehicle (150) can include a wireless transceiver (154), at least one impact sensor (158, 160, 162, 164, 166 or 168) on the remote-controlled vehicle, and a processor (156) or processor (106) in a remote controller (102) operatively coupled to at least one impact sensor and the wireless transceiver. The processor can be programmed to sense (702) impacts to at least a portion of the remote-controlled vehicle, modify (704) operation of the remote-controlled vehicle in response to the at least one impact sensed, and transmit (706) information to a remote controller with respect to the at least one impact sensed. The system can further include another wireless transceiver (104) in the remote controller for controlling the remote-controlled vehicle and receiving communication from or originating from the remote-controlled vehicle or another remote-controlled vehicle in competition with the remote-controlled vehicle.

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 controller for a radio-controlled toy, comprising a housing, a first interface disposed on a first side of the housing, a second interface disposed on a second side of the housing, and a steering wheel having a steering shaft, the steering shaft being adapted to be inserted into either of the first and second interfaces.

Abstract: The toy system includes: a pair of motors; an operating device having a throttle lever for velocity direction and a steering device for course direction; a driving control device for controlling driving velocities of the respective motors so that the driving velocity of the pair of motors is varied in association with an operation amount of the throttle lever, and when the steering is operated from a neutral position, a difference occurs between the driving velocities of the pair of motors at a velocity ratio in association with the operation amount of the steering; a setting device for accepting a setting operation of a predetermined parameter by a user. The driving control device changes a correspondence relationship between the operation amount of the steering and the velocity ratio in an interlocking manner with the change of the setting value of the parameter.

Abstract: The invention generally relates to a method, apparatus, and system to synchronize timers or clocks of toys. A play-set includes a first toy having a first timer and a start button. The first toy can be designated as a master when the start button is depressed. After being designated as the master, the first toy sends a synchronization signal to begin synchronization. The play-set also includes a second toy communicatively linked to the first toy. The second toy has a second timer, and synchronizes the second timer to the first timer of the first toy in response to the synchronization signal. After timer synchronization, scripts are selected and a script start signal synchronizes the beginning of script play.

Abstract: A remote-control toy is provided that includes: a controller (2) that transmits a control signal according to an operation by a user; a movable body that is controlled to drive based on the control signal from the controller; and a field in which the movable body can move. The movable body includes a detecting unit that reacts to a predetermined object to be detected and outputs a detection signal, and a processing unit that performs predetermined processing in response to the output of the detection signal. The object to be detected can be placed in the field in such a manner that the position of the object to be detected can be changed.

Abstract: A programmable device such as a toy or novelty item and a remote controller has a keyboard which can be activated by a user to set up any one of multiple different motions of the toy. Sounds and lights can be activated to coordinate with the movement. The toy can be a car or other device capable of moving in the environment. The toy is also controllable solely by remote control through a transmitter in the remote controller and a receiver in the toy.

Abstract: A toy aircraft may include an airframe, which may include a fuselage and a wing assembly. The toy aircraft may include at least one propulsion unit mounted to the airframe. The at least one propulsion unit may be operable to propel the toy aircraft. The toy aircraft may include at least one energy source mounted to the airframe. The toy aircraft may include a controller mounted to the airframe. The controller may couple the energy source to one or more of the at least one propulsion unit. The controller may include a gate array, which may be configured to control operation of the propulsion unit to control flight of the toy aircraft.

Abstract: The present invention provides a play toy system using a remote-controlled traveling toy, which enables the remote-controlled traveling toy to make a movement that is more unexpected than before, for play. The remote-controlled traveling toy 1 includes one front wheel 5 and two rear wheels 7 and 9. The traveling toy is remotely controlled by remote control signals and is so constructed as to travel on a traveling surface of a play board. The diameter sizes of the two rear wheels 7 and 9 are different. With one front wheel 5 and two rear wheels 7, 9 having a different diameter, the remote-controlled traveling toy 1 can move most unexpectedly that anyone has ever experienced, according to the state of the traveling surface of the play board.

Abstract: A virtual scale model operating environment for controlling operational scale models. The virtual scale model operating environment includes a virtual controller that provides simulated environmental parameters normally associated with real operation. The virtual controller can display a simulated measure of the simulated environmental parameters to a user. Control of the operational scale model by a user is altered by the virtual controller in response to the simulated environmental parameters. The simulated environmental parameters vary due to various factors including the operation of the scale model by a user in order to provide more realistic play. The virtual controller further provides sound effects and phrases from a virtual voice through its own speakers or through headphones. The virtual controller has a microcontroller executing software algorithms to provide the simulated environmental parameters and alter actual control of the operational scale model.

Abstract: In a game machine, platen dots are provided on a traveling field. A plurality of self-propelled members are provided on the traveling field. Each self-propelled member includes a first linear motor and a second linear motor for respectively propelling the self-propelled member in a first direction and a second direction perpendicular to each other. A miniature member is coupled with a motor so as to be rotatably supported on each self-propelled member. A controller controls the motor such that a rotated angle of the miniature member is determined in accordance with a propelling direction of the self-propelled member.

Abstract: A toy vehicle including at least an on-board power supply, a plurality of wheels supporting the vehicle for itinerant movement, at least one motor operably coupled to at least one of the wheels to provide at least part of an itinerant movement, at least one light and a controller circuit configured to selectively supply power from the power supply to the motor(s) in response to commands from a transmitter remote from the toy vehicle and to selectively supply power to the at least one light in response to a signal indicating the vehicle is performing a particular maneuver, for example, either a special stunt or a transformation or both.

Abstract: A gun grip controller includes a rod-shaped controller body having a trigger-shaped lever and a steering dial or the like, for controlling a model car or the like, and a grip provided to protrude from the controller body. The grip is arranged so as to be rotatably attached to the controller body and also adapted so as to allow an occupation of both a protrusive position where the grip protrudes from the controller body in a direction crossing the longitudinal direction of the controller body, and a folded position where the grip is folded along the longitudinal direction of the controller body and adjacent to the outside of the controller body. Therefore, it is possible for the controller to occupy a compact configuration for packing and carrying purposes, in spite of its “gun-grip” configuration.

Abstract: A model train operating, sound and control system that provides a user with increased operating realism. A novel remote control communication capability between the user and the model trains. This feature is accomplished by using a handheld remote control on which various commands may be entered, and a Track Interface Unit that retrieves and processes the commands. The Track Interface Unit converts the commands to modulated signals in the form of data bit sequences (preferably spread spectrum signals) which are sent down the track rails. The model train picks up the modulated signals, retrieves the entered command, and executes it through use of a processor and associated control and driver circuitry. A speed control circuit located inside the model train that is capable of continuously monitoring the operating speed of the train and making adjustments to a motor drive circuit, as well as a novel smoke unit.

Abstract: The present invention provides an interactive robotic device having a body, a transport mechanism, a drive mechanism, a plurality of inputs and outputs for receiving, delivering and/or displaying information, including aural and/or visual information or signals, a container for carrying or holding items to be delivered or dispensed to a user, and a dispensing structure for dispensing items to a user.

Abstract: A transmitter for radio control with rotary control means on its both sides is provided.

Abstract: A toy vehicle comprises a lift mechanism which allows the toy vehicle to be lifted from a support surface in a lifting motion and roll end over end over end. The lift mechanism includes a lift arm pivotally mounted to a housing of the toy vehicle. A lift arm actuating motor is coupled to a lift arm drive screw that is in threaded engagement with a lift arm drive nut. A strut is coupled between the drive nut and the lift arm. In operation, the lift arm actuating motor drives the lift arm drive screw and causes the lift arm drive nut to drive the strut and move the lift arm into an extended position, causing the lift arm to engage a support surface to lift the toy vehicle. In the extended position, the toy vehicle is sufficiently rounded to permit the vehicle to roll end over end over end.

Abstract: A motorized mobile toy remote controlled by light beams. The remote control projects a spot on the ground, the toy, equipped with optical sensors, follows the spot. The optical sensor delivers instructions on the variation of the position of the spot compared to the center of the image, the processing of an electronic circuit then controls the motors to compensate the variation.

Abstract: An engine starter adapted to substitute for the traction rope type engine starter of the engine of a remote-control toy car is constructed to include a casing covered with a cover plate to hold a cushion, a driven bevel gear, a driving bevel gear, a locating block and a locating cap on the inside for enabling the starter rod of an electric auxiliary starter to be coupled to the polygonal coupling hole at the driven bevel gear and operated to start the engine.

Abstract: A system and method for controlling multiple model vehicles while using only a single remote control transmitter. A remote control signal transmitter is provided for transmitting control signals. The transmitted control signals are received by a single master model vehicle. The master model vehicle contains a remote control signal receiver and various motors that enable the master model vehicle to move along a first pathway in response to the control signals that are received. At least one slave model vehicle is provided that is coupled to the master model vehicle. The slave model vehicle(s) contain no motors but are rather propelled by the master model vehicle. Each slave model vehicle does not travel along the same pathway as the master model vehicle, but rather travels in formation in pathways that are adjacent to the pathway of the master model vehicle.

Abstract: The present invention provides an amusement device having a body, wherein the body has features, at least one motor for powering the device and at least some of the features, and an information receiving structure for receiving information from an information carrying item that is separate or discrete from the amusement device.

Abstract: Provided is a transmitter that includes a channel selector for modifying an operating frequency of a radio-controlled toy. The transmitter has a channel selection switch that enables a user to pick a channel from a set of predefined channels. The selected channel is then transferred to the toy. For example, a microcontroller unit within the transmitter may be used to detect the selected channel. The toy is placed in contact with the transmitter and the transmitter's microcontroller unit communicates the channel to a microcontroller unit inside the toy. The toy's microcontroller stores the channel in a memory in the toy. The toy then tunes to the stored frequency to receive control signals from the transmitter.

Abstract: According to an embodiment of the present invention, there is provided a remotely operated toy truck for loading and unloading a roll-on-roll-off dumpster, the truck comprising: a dumpster system including a ramp for raising and lowering in relation to the truck, and a means for moving the dumpster between a loaded position on the ramp and an unloaded position off the ramp; and an electronic system for receiving one or more remote control signals and transmitting the one or more signals to the dumpster system to control the positioning of the ramp and the means to move the dumpster between the loaded position and the unloaded position. The truck further comprises a chassis and a vehicular drive system.

Abstract: An amusement device is disclosed having an animal body portion and a remote control portion. The animal body portion may be a lizard having horns and a tail. A user may use the remote control to cause the animal to move. The animal body has at least one motor operably connected to the animal's head, legs, and tail. The motor causes the animal to walk forward, walk backward, or dance in place at the selection of the user, and causes the tail to move and the mouth of the animal's head to move. An extendable tongue protrudes from the mouth. The tongue may have a magnetic tip for connecting with a magnetic or metallic object. The device may also contain a speaker that plays music and/or words as selected by the user through the remote control. In one embodiment, the lizard dances while playing music.

Abstract: The present invention provides an amusement device having a body, wherein the body has features, at least one motor for powering the device and at least some of the features, and an information receiving structure for receiving information from an information carrying item that is separate or discrete from the amusement device.

Abstract: A controller for a radio-controlled toy, comprising a housing, a first interface disposed on a first side of the housing, a second interface disposed on a second side of the housing, and a steering wheel having a steering shaft, the steering shaft being adapted to be inserted into either of the first and second interfaces.

Abstract: A method for speed control for a motor of a locomotive of a model electric train is presented. A method in accordance with the present invention includes sensing an operating velocity of the motor and the operating current provided to the motor, and then producing a signal corresponding to the operating velocity and a signal corresponding to the operating current. A method in accordance with the present invention further includes providing the operating velocity signal and operating current signal to a controller and establishing a target motor velocity. A method in accordance with the present invention still further includes calculating a target current configured so that the motor reaches the target motor velocity, and then changing the operating current to the target motor current to achieve the target motor velocity.

Abstract: A remote controlled toy. The toy includes a powered projectile that can be launched from a remote controlled vehicle. The powered projectile and remote controlled vehicle may each have a motor controlled by a radio frequency (“RF”) transmitter. The projectile can be shaped as an airplane that is loaded into a launch platform of the remote controlled vehicle. The user can control movement of the vehicle with the RF transmitter. The transmitter may have a launch button that is depressed by the user to launch the airplane. While in flight the user can control the airplane through the RF transmitter. The motor of the vehicle may turn off when the airplane is launched.

Abstract: A security alarm device is replicated in a toy vehicle. The security device includes a remote control which also can control vehicle functions. The remote control may control alarm arm and disarm, alarm and vehicle sounds such as arm, disarm, alarm set off, engine revving, tire screeching, motor drive, and vehicle lights. The security alarm device includes an LED which indicates whether the alarm is armed or unarmed, and a motion sensor which sets the alarm off (e.g., emitting a siren sound) when the toy vehicle is moved in its armed state.

Abstract: An improved central speed control mechanism for remote control cars primarily comprises a housing and a cover, which are connectable to each other and are respectively provided with a pivot for connecting to the remote control car at one end and mounting helical gears at the other end. Inside of the housing is provided with a gear set, which comprises a positioning block, a plurality of bevel gears and axles. Axle holes are equally provided on the periphery of the positioning block, whereas a central hole with a cone surface is provided in the bevel gears for matching with the cone surface of the axle which is provided with a positioning pillar at the front end and a cone surface in the middle section. After the axle passes the end of the bevel gear provided with a O-ring through to the axle hole, and a washer is further provided at the rear of the axle to complete the assembly of the whole housing, the plurality of bevel gears of the gear set will engage with the helical gears of the two pivots.

Abstract: An all terrain vehicle having a casing, a motor assembly, a cradle supporting the propulsion system, and an outer shell. The casing surrounds the propulsion system with three connected rings, each ring capable of independent rotation. The cradle is positioned in the center of the vehicle and is attached to the innermost ring. The outer shell encircles the motor assembly, cradle, and casing, and is constructed from a plurality of vertical and horizontal bars. The vehicle rolls upon the ground while the cradle remains upright. The vehicle may be operated by a remote control or by a person seated within the vehicle.

Abstract: A wireless toy playset. The playset includes a small size vehicle that moves about a track. Movement of the vehicle is controlled by a wireless transmitter. At the discretion of a parent or end user the transmitter can either be structurally coupled to the track or physically separated from the track. By way of example, the transmitter may be docked into a docking station of the track. Structurally coupling the wireless transmitter to the track reduces the likelihood of separation, and possibly misplacement, of the transmitter from the playset. For example, when the playset is operated by a small child it may be desirable to structurally couple the wireless transmitter to the track to prevent the child from removing and losing the transmitter.

Abstract: The present invention provides a play extension system enhancing a fun of a toy system by use of network. The play extension system is used by combination with the toy system in which a user can change the setting of parameters affecting motion control of a driving machine, for extending a playing method with the toy system. In the system, the setting information corresponding to the setting state of the parameters is received from a predetermined user terminal through a network, and estimation on the obtained setting information is created by referring to a database which stores the setting information and the information for estimating the setting state correspondingly. The created estimation is transmitted to a predetermined destination through the network.

Abstract: A toy vehicle that is capable of lifting off a travel surface by means of a cam member. The toy vehicle comprises a chassis that has first and second ends and first and second drive wheels disposed between the first and second ends. The first and second drive wheels are aligned along an axis and are coupled to a drive system. To provide the toy vehicle with “tank steering” capabilities, the first and second drive wheels may be controlled independently of each other. One or more cam members aligned along the same axis as the first and second drive wheels are adapted to selectively rotate about the axis so that an outer edge contacts the travel surface, causing the toy vehicle to lift into the air. The cam members may be controlled by a cam motor, which operates independently of the drive system. In one embodiment, the toy vehicle and its cam members are adapted to be fully operable in an upright, first drive position and an upside-down, second drive position.

Abstract: A toy robot system includes a toy robot and a surface over which the robot can move. The surface is constructed from a number of modules of various types that may be joined together. Each module (except for spacer modules) includes at least one track segment along which the robot may move. Each module is square and each track segment extends from the center of the module to one side. A code readable by the robot is provided at the beginning of each segment so that the robot knows what type of module it is entering, and a code is provided at the center of each module so that the robot can calculate its position.

Abstract: An ergonomically comfortable remote control apparatus includes a transmission controller unit and a transmitter unit electrically connected together. The transmission controller unit includes a transmission-controller-unit handle. An accelerator control finger lever and a brake control finger lever project outward from a first side of the transmission-controller-unit handle. A clutch thumb lever projects outward from a second side of the transmission-controller-unit handle. A steering wheel is connected to a portion of the transmission-controller-unit handle at a location above the accelerator control finger lever, the brake control finger lever, and the clutch thumb lever. A finger-operated steering control handle is connected to the steering wheel. A hand operated gear shift slide actuator is supported on the steering wheel and operates an upshift actuator button and a downshift actuator button located on the steering wheel.

Abstract: A toy vehicle comprises a lift mechanism which allows the toy vehicle to be lifted from a supporting surface in a lifting motion. The lift mechanism includes a rotary member which engages a lifting lever hingedly attached to a chassis of the toy vehicle. In operation, the rotary member is abruptly moved by a biasing member into engagement with the lifting lever. The rotary member moves the lifting lever into an extended position, causing the lifting lever to engage the supporting surface, to lift the toy. The toy vehicle includes features to help permit operation of the lift mechanism only when the toy vehicle is in a proper operational condition.

Abstract: A modular robotic teaching tool including a plurality of modules that may be operated, for example, to play robot soccer, for introducing principles of mechanical engineering and robotics to prospective students. The teaching tool includes a modular robot that may be assembled in a plurality of configurations. The modular robot includes a body portion, first and second motors, first and second motor mounts, at least three wheels, two of which are mountable to the motors, at least one flipper module, and a remote control module for actuating the motors and the flipper module. The modular robot is advantageous in that it provides for an inexpensive, challenging, and entertaining introduction to some of the principles of robotics and mechanical engineering.

Abstract: A communication scheme is employed for transmitting control signals from a remote control to a toy vehicle. The remote control includes control switches, an encoder and a transmitter and the toy vehicle includes a receiver, a decoder and actuators for controlling the operation of the toy vehicle in accordance with received control signals. The encoder generates a continuous stream of control signal packets with each of the packets including a predetermined number of biphase encoded bits. Each biphase encoded bit is of the same predetermined width with a 50% duty cycle, including two transmit elements. For one binary state, both of the transmit elements are the same and for the other binary state both of the transmit elements are opposite. Each packet includes a first predetermined number of flag bits, a second predetermined number of data bits and at least one checksum bit.

Abstract: A remote controller has a body and a seat. A holding portion is between the body and the seat for being held by a hand of a user. The body is installed with a trigger and a rotary wheel for being held and operated by two hands of the user. The trigger is installed at an intersection of the body and the holding portion. The rotary wheel is installed on the body facing toward a lateral surface of the user. An angle is formed between an axial line of the rotary wheel and a moving direction of the trigger, wherein the angle is larger than 90 degrees.

Abstract: A universal chassis which may be assembled with modular componentry allowing for a play pattern with the user in which modification of the overall construction of the vehicle is encouraged. The modularity is purposely built in to allow users to modify their Battlebot chassis. In operating the configured vehicle, two motors, i.e., left and right, are provided with pulsed controlled operation to facilitate two-speed performance. The ability to transmit/receive IR signals modulated on one or more of multiple carriers facilitates the play pattern with simultaneous operation of multiple vehicles. An impact sensor or the like provides for detecting impacts, and processor control may be used for counting impacts in order to modify the functionality accorded to the user with the universal chassis.