The figure system includes: a plurality of drive units each including an actuator that generates rotative force; and a figure including a plurality of movable mechanisms and a plurality of flexible wires. The movable mechanisms each include a movable body that operates by the rotative force and an operation amount detector that detects an amount of operation of the movable body. The flexible wires include their respective first ends that are coupled to the movable bodies. The rotative force generated by one of the actuators is transmitted to corresponding one of the movable bodies through one of the flexible wires.

The figure system includes: a plurality of drive units each including an actuator that generates rotative force; and a figure including a plurality of movable mechanisms and a plurality of flexible wires. The movable mechanisms each include a movable body that operates by the rotative force and an operation amount detector that detects an amount of operation of the movable body. The flexible wires include their respective first ends that are coupled to the movable bodies. The rotative force generated by one of the actuators is transmitted to corresponding one of the movable bodies through one of the flexible wires.

In one aspect, a humanoid batter toy system comprising: a baseball home plate for mounting a baseball batter humanoid, wherein the baseball home plate comprises: a bottom plate, a top plate, wherein the top plate is coupled with the bottom plate, wherein a cavity between the coupled top plate and bottom plate includes a lever coupled with a first gear of a set of gears that are coupled with a leg shaft in a leg of the baseball batter humanoid and wherein the set of gear transfers the torque force to the leg shaft; and the baseball batter humanoid comprising: wherein the leg shaft is coupled to a hip gear in the baseball batter humanoid, wherein the hip gear receives the torque force and uses the torque force to cause an upper torso of baseball batter humanoid to rotate a baseball bat held by the baseball batter humanoid in a batter swinging motion, wherein the upper torso of the baseball batter humanoid comprises a metal wire rope passing through the center of the rotation of an upper torso portion of the baseball batter humanoid, wherein the metal rope is placed in a central manner within the upper torso portion such that when metal wire rope is pulled, the shoulder rotation of the baseball batter humanoid occurs without impacting the torso rotation, and wherein the baseball batter humanoid is mounted to the top plate such that the leg shaft receives the torque force from the set of gears.

In one aspect, a humanoid batter toy system comprising: a baseball home plate for mounting a baseball batter humanoid, wherein the baseball home plate comprises: a bottom plate, a top plate, wherein the top plate is coupled with the bottom plate, wherein a cavity between the coupled top plate and bottom plate includes a lever coupled with a first gear of a set of gears that are coupled with a leg shaft in a leg of the baseball batter humanoid and wherein the set of gear transfers the torque force to the leg shaft; and the baseball batter humanoid comprising: wherein the leg shaft is coupled to a hip gear in the baseball batter humanoid, wherein the hip gear receives the torque force and uses the torque force to cause an upper torso of baseball batter humanoid to rotate a baseball bat held by the baseball batter humanoid in a batter swinging motion, wherein the upper torso of the baseball batter humanoid comprises a metal wire rope passing through the center of the rotation of an upper torso portion of the baseball batter humanoid, wherein the metal rope is placed in a central manner within the upper torso portion such that when metal wire rope is pulled, the shoulder rotation of the baseball batter humanoid occurs without impacting the torso rotation, and wherein the baseball batter humanoid is mounted to the top plate such that the leg shaft receives the torque force from the set of gears.

A toy robot doll having upper and lower body portions and wheels that may be controlled by an operator with a remote smart device. A lower platform is connected to the lower body portion and an upper platform is connected to the upper body portion. A set of springs is mounted between the upper and lower platforms for biasing the platforms apart, and three cams and six cam followers move the platforms toward one another, move the doll's arms forward and outward, and move a head right and left. Another two cams pivot the head up, where all of the movements simulate dance steps and body movements that an operator may program using the smart device.

The disclosure herein relates to dolls and action figures that are capable of lifelike movement via a manual controller. In some embodiments, only the movement of the arms or legs is manually controlled. In another embodiment, the movement of both the arms and legs is manually controlled. In some embodiments, the actuator gearing system includes a clutch to help prevent the gears from stripping. In other embodiments, the controller is removable.

The disclosure herein relates to dolls and action figures that are capable of lifelike movement via a manual controller. In some embodiments, only the movement of the arms or legs is manually controlled. In another embodiment, the movement of both the arms and legs is manually controlled. In some embodiments, the actuator gearing system includes a clutch to help prevent the gears from stripping. In other embodiments, the controller is removable.

A sculpture device has a base, a figurine, a control element, a cover, and a device attachment clip. The control element has a magnetic mechanism for moving the figurine along an upper surface of the base in correspondence with movement of the control element along a lower surface of the base. The cover is coupled to the base and encloses a device interior of the sculpture device. The device attachment clip is coupled to the cover and has a through-hole or a sculpture lens. The device attachment clip removably attaches the sculpture device to an electronic device in a manner such that the through-hole or the sculpture lens is aligned with a camera lens of the electronic device allowing an operator to view the figurine and the device interior on a display screen of the electronic device when the camera is activated.

An action robot including a body, a movable part mounted on a connection hole provided in the body and including a connector, a fastening member including a body part fastened to the movable part and a head part connected to the body part, a wire rotating the connector to maintain a state where the movable part is mounted on the connection hole, a wire groove extending in a perimeter direction of the connector at an outer perimeter of the connector, the wire being wound around the wire groove, a fixing groove provided on one surface of the connector contacting the head part, the wire passing through the fixing groove, and a pair of communication holes communicating the fixing groove with the wire groove is provided.

An action robot includes a connector configured to connect a body to a movable part, a joint including a rotational body fastened to the movable part, a joint shaft provided to protrude from the rotational body, and a joint shaft supporting part provided in the connector to have a ring shape, the joint shaft being inserted into the joint shaft, a wire connected to the movable part to pull the movable part in a direction in which the joint is bent, a wire path provided in the connector, the wire path including an inlet which is disposed in the body and through which the wire passes, and a supporter disposed in the body to support the wire. An upper end of the supporter overlaps the inlet in a horizontal direction.