A training apparatus for teaching and practicing skills for sports. The apparatus includes at least one removable electronic device having at least one proximity sensor, a playing surface having a cavity which receives the at least one removable electronic device, and a gamepiece, such as a ball. Each proximity sensor is adapted to sense the gamepiece and activates a visual or audio indicator on the at least one removable electronic device if the gamepiece is within a range of the at least one proximity sensor.

A building and demolition game apparatus includes a base, a plurality of rectangular block elements, a monitoring unit, a game control unit and a force generating unit. The base has an assembly platform located on an upside of the base. The rectangular block elements layered to form a tower, which is stood on the assembly platform. The tower has upper and lower layers held by frictional coupling between the layers. The tower height increases during game play by removing block elements from one or more lower layers to build up successive upper layers upon the assembly platform. The monitoring unit is disposed in the base to obtain at least two boundary conditions by continuously monitoring. The game control unit is disposed in the base to generate a control signal according to a predetermined threshold and the at least two boundary conditions. The force generating unit is disposed in the base and under the assembly platform. The force generating unit is applying a force forward to the assembly platform according to the control signal generated by the game control unit.

A robotic platform is configured to transport a cup. The robotic platform includes a rack housing that has a top side and a bottom side. The top side has a plurality of cup slots configured to accommodate the cup. At least one drop detection sensor and at least one obstacle avoidance sensor are mechanically coupled to the rack housing. An integrated circuit is electrically coupled to a battery, the at least one drop detection sensor, and the at least one obstacle avoidance sensor, a first geared motor and a second geared motor. The geared motors are attached to wheels. The integrated circuit is programmed to determine if a sensor has a data above set point, and then executing a move path.

A smart magic cube with a ball shaft includes the ball shaft, six center blocks, eight corner blocks fitted with the center blocks, and twelve edge blocks fitted with the corner blocks and the center blocks. The center blocks are respectively arranged on a rotating shaft sensing assembly of the ball shaft. The smart magic cube with the ball shaft has a, clever design. Six printed circuit boards consist an electronic control system of the ball shaft. With each rotating shaft sensing assembly installed on each of the printed circuit boards, position sensing of the smart magic cube is accurate and a rate of lost steps of the smart magic cube is reduced. Further, the smart magic cube is not assembled by wire welding, has high integration, has a low cost, and is easy to assemble.

Disclosed are a smart spindle with a replaceable battery, and a smart Rubik's cube. The smart spindle comprises a core (100), a sensor (200) and a main control module (310), wherein the core (100) comprises a housing (110) with a cavity (111); the main control module (310) is mounted inside the cavity (111); the sensor (200) is electrically connected to the main control module (310); the sensor (200) is mounted at the core (100); the cavity (111) is also used for mounting a battery (400), the housing (110) is provided with a notch (112) for having access to the battery (400), and the notch (112) is in communication with the cavity (111); or, the exterior of the housing (110) is used for mounting the battery (400), and the housing (110) is provided with a through hole (113), such that the cavity (111) is in communication with the exterior of the housing (110) via the through hole (113). When the power for the smart Rubik's cube is insufficient, a player can remove the used battery and replace same with a fresh battery, such that the smart Rubik's cube can continue to be used immediately, without the need to perform charging and the need to stop use for a period of time, thereby facilitating the use by the player.

A smart center shaft, a smart Rubik's Cube, and a timing method therefor. The smart center shaft comprises a core, a sensor, and a master control module. The core comprises a housing having a cavity. The sensor is mounted on the core. The sensor comprises a stator and a rotor. The stator is fixed on the housing. The rotor is configured to be connected and rotate simultaneously with a Rubik's Cube layer of the smart Rubik's Cube, thus allowing the rotor to rotate with the Rubik's Cube layer relative to the stator. The master control module is mounted within the cavity. The master control module is electrically connected to the sensor. The master control module acquires a rotation signal of the Rubik's Cube layer on the basis of the relative rotation between the rotor and the stator. The sensor and the core form one integral body, the degree of integration is high, and the consideration of complex assembly relations between the stator and a center block or an intermediate connecting block is avoided.

A programmable die may feature a robust frame structure housing a plurality of display screens which may be programmed to display any number of possible data. Any number of sides are possible, so long as they can be read. The die may be programmed remotely, such as through an app, or manually. The displays may be LCD screens or electronic paper, or any later discovered and suitable device. A battery may be directly or inductively charged.

An amusement game with a parabolic ball launcher for projecting a ball that will attempt to strike a primary hoop target, which can pivot or oscillate. The primary target allows the stricken ball to fall through and attempt to hit one of the two openings on a suspended platform positioned on a rotating wheel, which has openings toward the periphery of the wheel to eventually rest the ball. The rotating wheel has programmable displays corresponding to each of the openings on the periphery of the wheel, which can be adjusted based on user input to reflect new parameters or values.

The present disclosure provides a game scoring and tracking system, including a playing surface, a projectile, a central unit, at least one speaker, a first corner illuminated indicia, a second corner illuminated indicia, a third corner illuminated indicia, a fourth corner illuminated indicia, a first goal, and a second goal. The first goal and the second goal are configured to receive the projectile from the playing surface. The first goal and the second goal each include an at least one sensor communicatively coupled to the central unit. The at least one sensor detects the projectile entering the applicable goal. The at least one speaker outputs various sounds and the first corner illuminated indicia, the second corner illuminated indicia, the third corner illuminated indicia, and the fourth corner illuminated indicia illuminate in numerous sequences to indicate the status of a game event.

The present disclosure provides a game scoring and tracking system, including a playing surface, a projectile, a central unit, at least one speaker, a first corner illuminated indicia, a second corner illuminated indicia, a third corner illuminated indicia, a fourth corner illuminated indicia, a first goal, and a second goal. The first goal and the second goal are configured to receive the projectile from the playing surface. The first goal and the second goal each include an at least one sensor communicatively coupled to the central unit. The at least one sensor detects the projectile entering the applicable goal. The at least one speaker outputs various sounds and the first corner illuminated indicia, the second corner illuminated indicia, the third corner illuminated indicia, and the fourth corner illuminated indicia illuminate in numerous sequences to indicate the status of a game event.