Provided are methods, apparatus and articles for vehicles, such as or relating to a skid-plate shock absorber, body mounting, chassis assembly, component securing, engine mounting, slipper clutch, and transmission housing that may be employed in the assembly, operation, and control of vehicles.

The invention relates to a modular construction system comprising at least one object and a coupling element releasably connectable to the object, wherein: the object comprises at least one surface with at least one opening, which opening comprises a number of inward extending lips arranged distributed over the periphery of the opening; the coupling element comprises a body with an axial axis arrangeable in the opening, which body is provided along its outer periphery with at least one outward extending locking cam; wherein the coupling element is arrangeable in at least one arranging orientation in the opening of the object, and is rotatable in the opening relative to the object to at least one locking orientation, in which locking orientation the coupling element is locked in an axial direction and a rotational direction. The invention also relates to a coupling element, object and tool intended and configured to form part of such a modular construction system. External elements such as a skin plate, a fabric, a cord or the like can be attached to a structure according to the invention by means of an attaching element with a shank and a widened head, which shank can be inserted releasably into a continuous opening of a coupling element.

Disclosed is a self-aligning magnetic stationary accessory for use atop a spherical RC controlled self-propelled device. A novel device is employed includes a toy robot having first and second pairs of magnets aligned respectively with opposite polarities disposed in the stationary accessory. The spherical body with its stationary accessory allow the user to simply and precisely navigate the spherical body in a particular orientation for optimal RC controlled manipulation of the robot by a user.

Disclosed is a self-aligning magnetic stationary accessory for use atop a spherical RC controlled self-propelled device. A novel device is employed includes a toy robot having first and second pairs of magnets aligned respectively with opposite polarities disposed in the stationary accessory. The spherical body with its stationary accessory allow the user to simply and precisely navigate the spherical body in a particular orientation for optimal RC controlled manipulation of the robot by a user.

The present disclosure relates to packaging boxes for toy cars. The packaging box of the present disclosure serves a dual purpose, firstly for packaging the toy car and secondly, the packaging box serves as an accessory for the toy car. The packaging box comprises a container element and a lid element, each comprising at least one upright longitudinal sidewall and at least one lateral foldable sidewall, wherein the longitudinal sidewall and the foldable sidewall of the container element and the lid element engage with each other defining a track, which can be employed for displacing the toy car thereon.

The present disclosure relates to packaging boxes for toy cars. The packaging box of the present disclosure serves a dual purpose, firstly for packaging the toy car and secondly, the packaging box serves as an accessory for the toy car. The packaging box comprises a container element and a lid element, each comprising at least one upright longitudinal sidewall and at least one lateral foldable sidewall, wherein the longitudinal sidewall and the foldable sidewall of the container element and the lid element engage with each other defining a track, which can be employed for displacing the toy car thereon.

A toy racing car can be propelled via various manners, including, for example, a pull-back recoil mechanism, a remote-control driven battery powered mechanism, or the like. The toy car can include one or more activators that, when activated by an impact against another object, eject the driver in the car or a portion thereof, such as a head that extends from the toy car.

The present disclosure provides a collision judgment method and apparatus. The method includes: determining, by a moving device, according to acceleration data collected by an acceleration sensor, that the moving device collides; sending collision information to the corresponding control device, including at least a moving device identifier and a collision time; sending, by the corresponding control device, the collision information to a collision judgment device; detecting, by the collision judgement device, whether at least two collision information sent by the at least two control devices is received within a predetermined time interval; when the at least two collision information is received within the predetermined time interval, and a difference between collision times carried in the at least two collision information is less than a preset threshold, determining that moving devices corresponding to moving device identifiers carried in the at least two collision information collided with one other.

The present disclosure provides a collision judgment method and apparatus. The method includes: determining, by a moving device, according to acceleration data collected by an acceleration sensor, that the moving device collides; sending collision information to the corresponding control device, including at least a moving device identifier and a collision time; sending, by the corresponding control device, the collision information to a collision judgment device; detecting, by the collision judgement device, whether at least two collision information sent by the at least two control devices is received within a predetermined time interval; when the at least two collision information is received within the predetermined time interval, and a difference between collision times carried in the at least two collision information is less than a preset threshold, determining that moving devices corresponding to moving device identifiers carried in the at least two collision information collided with one other.

A radio-controlled (RC) toy includes a pair of RC toy vehicles having toy bodies with generally planar base portions. Each toy vehicle has a plurality of wheels rotatably mounted thereon. A coupling arrangement stacks the toy vehicles along a stacking axis that is generally perpendicular to the base portions, and connects the toy vehicles together in a stacked vehicle configuration in which the base portions face each other. At least one RC controller controls movement of at least one of the toy vehicles for individual vehicle movement in a single vehicle configuration over a support surface, and for joint movement of the toy vehicles in the stacked vehicle configuration over the support surface.