1588results about "Self-moving toy figures" patented technology

A simulation tail swinging installment includes a base plate, an electromagnetic coil disposed on the base plate, a battery module configured for supplying power to the electromagnetic coil, and a control circuit coupled to the battery module. The simulation tail swinging installment further includes a furcated component having two arms disposed with respect to the electromagnetic coil, with the two arms located on opposite sides of the electromagnetic coil, respectively. Each of the arms includes a permanent magnet positioned in correspondence with the electromagnetic coil. The furcated component is mounted to the base plate through a pivot connected to the base plate. A first driving cable and a second driving cable are attached to the two arms, respectively. The first driving cable and the second driving cable extend through and along two side portions of a simulation tail and secured to a distal end of the simulation tail.

A simulation tail swinging installment includes a base plate, an electromagnetic coil disposed on the base plate, a battery module configured for supplying power to the electromagnetic coil, and a control circuit coupled to the battery module. The simulation tail swinging installment further includes a furcated component having two arms disposed with respect to the electromagnetic coil, with the two arms located on opposite sides of the electromagnetic coil, respectively. Each of the arms includes a permanent magnet positioned in correspondence with the electromagnetic coil. The furcated component is mounted to the base plate through a pivot connected to the base plate. A first driving cable and a second driving cable are attached to the two arms, respectively. The first driving cable and the second driving cable extend through and along two side portions of a simulation tail and secured to a distal end of the simulation tail.

A robot system including a robot, an operator control center and having a communication system connecting the robot and control center wherein an operator in the control center responds with natural movements to stimulus signals from the robot environment by issuing commands that control the robot. In one embodiment, the operator occupies a command chair with an exoskeletal arm that is secured to the "shoulder" (backrest) of the chair. The operator slides his hand into a glove of the invention attached to the end of the exoskeletal arm. He views the robot environment through a video screen and exerts control in response to views presented on the screen. The communication system sends signals to the operator glove in response to conditions at the robot site prompting the operator to take appropriate action.

A behavior controlling apparatus by which the mobility area of a robot apparatus may be controlled in a simplified manner using plural landmarks. A landmark recognition unit 410 uniquely recognizes the landmarks to acquire the landmark position information rPo(x,y,z). A landmark map building unit 420 integrates the totality of the landmark position information rPo(x,y,z) sent by the landmark recognition unit 410 to build a landmark map which has integrated the geometric topology of the landmarks. Using the landmark map information rPoxN, a mobility area recognition unit 430 builds a mobility area map representing a mobility area for the robot. Using the mobility area map, sent from the mobility area recognition unit 430, a behavior controller 440 controls the autonomous behavior of the robot apparatus 1 so that the robot apparatus 1 will not come out of or into the mobility area.

Image data obtained by image-capturing by a pet robot is stored in a memory, and any of conditions whether the memory capacity is scarce, a captured image transfer instruction is made, or the battery capacity of the pet robot is scarce is satisfied, the pet robot is controlled to move to the charging apparatus. When the pet robot arrives at the charging apparatus, the image data is transferred to the charging apparatus. When the completion of transfer of the image data is detected, the image data already transferred is erased depending upon selection by the user.

A robot apparatus which, by exploiting limited resources highly efficiently, is capable of making expressions matched to the motion or to complex variegated feeling or instinct states, representing the crucial information in achieving smooth communication with the human being, is disclosed. A method of expression by the robot apparatus is also disclosed. The robot apparatus expresses plural states, such as emotional states or the processing states of perceptual recognition, by a light radiating device loaded at a location of the head part of the humanoid robot apparatus walking on two legs. The light radiating device includes e.g. the color hue, saturation and patterns of light emission as expressive units represented independently of one another. A plural number of orthogonal states, that is, the emotional states and the states of perceptual recognition, are expressed simultaneously, using a plural number of the orthogonal representations of the light radiating device correlated by a unit for correlating plural reciprocally orthogonal states, derived from the own inner states or external stimuli, with at least one expressive unit.

The present invention aims to provide a robot having the structure suitable for freely moving about in the environment where there is an obstacle within the house, for example. The robot includes a communication section transmitting by wireless an image taken by the camera to a base station, and via the base station to a communication terminal making the radio communication with the base station, and receiving by wireless the movement target position information specified on the image by an operation of the communication terminal via the base station, and a motion control section that moves the robot up to a movement target position specified by the movement target position information acquired in the communication section.

A movable robot includes a main body unit, and at least three wheel units connected with the main body unit. The wheel units have respective contact portions for contact with a floor surface. The contact portions are rotatable about respective axes. The main body unit moves along the floor surface as the contact portions rotate. Lines projected onto the floor surface and originating from the axes of rotation of the contact portions are spaced at substantially equal angular intervals. At most two of the axes are on a common plane. Each of the wheel units includes a motor base, a rotation drive motor supported on the motor base, a casing being rotatable relative to the motor base about related one of the axes and having related one of the contact portions, and a device for transmitting a rotational force generated by the rotation drive motor to the casing.

A toy system comprises a surface (1) provided with position encoding information; and a toy (2, 20) arranged to be movable across the surface (1), said toy (2, 20) comprising at least one sensor (4) for reading said position encoding information, and processing means (3) arranged to process the position encoding information read by the sensor (4) and to determine the position of the toy (2, 20) on said surface (1) on the basis of said position encoding information.

A robot apparatus which, by exploiting limited resources highly efficiently, is capable of making expressions matched to the motion or to complex variegated feeling or instinct states, representing the crucial information in achieving smooth communication with the human being, is disclosed. A method of expression by the robot apparatus is also disclosed. The robot apparatus expresses plural states, such as emotional states or the processing states of perceptual recognition, by a light radiating device loaded at a location of the head part of the humanoid robot apparatus walking on two legs. The light radiating device includes e.g. the color hue, saturation and patterns of light emission as expressive units represented independently of one another. A plural number of orthogonal states, that is, the emotional states and the states of perceptual recognition, are expressed simultaneously, using a plural number of the orthogonal representations of the light radiating device correlated by a unit for correlating plural reciprocally orthogonal states, derived from the own inner states or external stimuli, with at least one expressive unit.

A hovering remote-control flying craft having a molded frame assembly includes a plurality of arms extending from a center body with an electric motor and corresponding propeller on each arm. In various embodiments, the motor and propeller are mounted downward-facing at a distal portion of each arm with a motor cover over the motor. The center body can be formed of a two-piece molded structure that sandwiches a circuit board to provide structural support for the frame. The circuit board can include a plurality of tabs that facilitate mounting of wire connectors, and can also provide antennas and emitters for both IR and RF communications. In some embodiments, a removable safety ring protects the propellers from lateral contact.

A robot apparatus 1 is to be electrically charged autonomously. An electrical charging device 100 is provided with two markers, namely a main marker 118 and a sub-marker 119, and the heights of the markers are pre-stored in the robot apparatus. When the robot apparatus 1 is to find the direction and the distance to the electrical charging device 100, a CCD camera 20 finds the direction vector of the marker from the photographed image. This direction vector is transformed into a position vector of a camera coordinate system {c} and further into a position vector of the robot coordinate system {b}. The coordinate in the height-wise direction in the robot coordinate system {b} is compared to the pre-stored height to find the distance between the markers and the robot apparatus and the direction of the robot apparatus.

Ball robot comprising a shell, a diametric main axle, at least one pendulum, and a drive mechanism comprising at least two drive motors, wherein the drive motors are arranged on the pendulum(s) in the vicinity of the inner surface of the shell. There is also provided a ball robot with a ball attached to the shell concentric the shell, and a drive mechanism located inside the shell and supported by the diametric axle, wherein the diametric axle is arranged to accommodate for dimensional changes of the shell along the main axis of rotation.

An ambulatory mechanical leg system drives a mechanical leg (100, 21) with a crank (91) to pivot about a pivot axis (102) to produce uniform rectilinear motion at the distal end (41) of the leg (100, 21) during a stride stroke (51) portion of a crank revolution or cycle and then lifts the distal end (41) to fast-return it in a step stroke (61) during the remainder of the revolution to a starting point for the next stride stroke (51). The crank (91), leg (100, 21) and pivot axis (102) sizes and proportional lengths or distances are modeled to an angular profile that produces nearly constant velocity, and mechanical structures maintain nearly rectilinear motion, of the distal end (41) of the leg (100, 21) during the stride stroke (51).

A toy and software application accessory extends the distinguishing play experience of a particular toy to a digital play experience on personal digital assistant, personal navigation device, or other electronic device like an iPod or iphone with an accelerometer, speaker, and a touch-sensitive display screen. The software application accessory creates a digital play experience or video game on the electronic device that presents avatars, dialog, and backgrounds that convincingly accessorize the physical toy. Wireless connectivity to a PC and the Internet allows the toy or the electronic device to download updates, modifications, and enhancements to its basic program. New personalities can be downloaded that change the toy play experience, and extend the play life of the toy by introducing new and creative play experiences. A personality accessory kit includes the new personalities, clothes, props, and other matching accessories.

The invention relates to a player humanoid robot, a method and computer programs associated therewith. The prior art does not disclose any humanoid robot able to move on its lower limbs, to perform gestures, to communicate visual and / or audible signs, to receive same and interpret them so as to deduce therefrom appropriate behaviors for participating in a game in time as compere, questioner, questioned, investigator or mobile stake for the game. The hardware architectures, internal software and software for programming the robot of the invention make it possible to carry out these functions and to create new game experiences in which the boundaries between virtual world and real world are shifted once again.

A personal robot including a first smart device, a robot main body, and a second smart device is implemented as a first type where the first smart device is wirelessly connected to the robot main body, as a second type where the first smart device is mounted on and connected to the robot main body in a wired manner, or as a third type where the second smart device is wirelessly connected to the robot main body where the first smart device is mounted on and connected to the robot main body in a wired manner. In the third type, the robot main body is connected to the first smart device in a wired manner and wirelessly connected to the second smart device, and a robot main body control unit controls the robot main body according to simultaneously processed data from the first and second smart devices.

A behavior control system of a robot for learning a phoneme sequence includes a sound inputting device inputting a phoneme sequence, a sound signal learning unit operable to convert the phoneme sequence into a sound synthesis parameter and to learn or evaluate a relationship between a sound synthesis parameter of a phoneme sequence that is generated by the robot and a sound synthesis parameter used for sound imitation, and a sound synthesizer operable to generate a phoneme sequence based on the sound synthesis parameter obtained by the sound signal learning unit.

Ball robot comprising a shell, a diametric main axle, at least one pendulum, and a drive mechanism comprising at least two drive motors, wherein the drive motors are arranged on the pendulum(s) in the vicinity of the inner surface of the shell. There is also provided a ball robot with a ball shaped shell, a diametric axle attached to the shell concentric with the main axis of rotation of the shell, and a drive mechanism located inside the shell and supported by the diametric axle, wherein the diametric axle is arranged to accommodate for dimensional changes of the shell along the main axis of rotation.

A hovering remote-control flying craft having a molded frame assembly includes a plurality of arms extending from a center body with an electric motor and corresponding propeller on each arm. In various embodiments, the motor and propeller are mounted downward-facing at a distal portion of each arm with a motor cover over the motor. The center body can be formed of a two-piece molded structure that sandwiches a circuit board to provide structural support for the frame. The circuit board can include a plurality of tabs that facilitate mounting of wire connectors, and can also provide antennas and emitters for both IR and RF communications. In some embodiments, a removable safety ring protects the propellers from lateral contact.

A provisional desired motion trajectory of an object is determined based on a moving plan of the object. Then, it is determined whether a robot leg motion can satisfy a necessary requirement. The requirement is related to a position / posture relationship between the object and the robot, and a determination of whether the requirement can be satisfied is made at a future, predetermined step. A restrictive condition related to robot leg motion is satisfied at each step up to the predetermined number of steps. If the requirement is satisfied, then a desired gait is generated on the basis of the provisional desired motion trajectory. Otherwise, a desired gait is generated on the basis of a desired motion trajectory of the object according to a corrected moving plan.

In a robot device, an action selecting / control system includes a plurality of elementary action modules each of which outputs an action when selected. An activation level calculation unit calculates an activation level AL of each elementary action on the basis of information from an internal-state manager and external-stimulus recognition unit and with reference to a data base. An action selector selects an elementary action whose activation level AL is highest as an action to be implemented. Each action is associated with a predetermined internal state and external stimulus. The activation level calculation unit calculates an activation level AL of each action on the basis of a predicted satisfaction level variation based on the level of an instinct for an action corresponding to an input internal state and a predicted internal-state variation predictable based on an input external stimulus.

A robot control system includes a user information acquisition section (12) that acquires user information that is obtained based on sensor information from at least one of a behavior sensor that measures a behavior of a user, a condition sensor that measures a condition of the user, and an environment sensor that measures an environment of the user, a presentation information determination section (14) that determines presentation information that is presented to the user by the robot based on the acquired user information, and a robot control section (30) that controls the robot to present the presentation information to the user. The user information acquisition section (12) acquires second user information that is the user information about a second user, and the presentation information determination section (14) determines the presentation information presented to a first user based on the acquired second user information. The robot control section (30) causes the robot to present the presentation information determined based on the second user information to the first user.

A toy for teaching the logical thought process of computer programming has a plurality of stackable blocks with each block having a memory for the storage of at least one computer programming instruction. When the plurality of stackable blocks are mechanically stacked, a plurality of instructions are electrically connected forming a computer program. A main block is configured so that the plurality of stackable blocks can be mechanically stacked on the main block. A computer is electrically connected to receive the computer program. A robot is connected to the computer, with the computer controlling the robot in response to the computer program.

Disclosed herein is a mobile robot, and system and method for autonomous navigation of the same. The mobile robot includes a communications module for transmitting a light source control signal to selectively control light sources of a landmark array to flicker, an image processing module for calculating image coordinates of the light sources from an image signal, a pose calculation module for calculating position coordinates of the mobile robot, a motion control module for calculating a moving path and controlling the mobile robot to move along the moving path, and a main control module for controlling interoperations of the modules and general operations of the mobile robot.

Provided is an information processing system including a display device for displaying an image on a display screen, and a robot apparatus for performing input / output of information from / to a user. The information processing system acquires a position of the display screen in a real space, and moves the robot apparatus based on the acquired position of the display screen.