An apparatus, system, and method for connecting an auxiliary device to a model vehicle are provided. The apparatus includes an accessory port connected to an electronic speed controller and an accessory connector connected to the auxiliary device. The system further includes a battery and accessory port connected to an electronic speed controller. An accessory connector connected to the auxiliary device is designed to connect to the accessory port. The electronic speed controller provides control to the auxiliary device. The method includes providing an electronic speed controller connected to an accessory port and connecting an accessory connector to the accessory port. The accessory connector is further connected to the auxiliary device. The method further includes attaching the auxiliary device to the model vehicle and controlling the auxiliary device via the electronic speed controller.

The present disclosure relates to a toy that provides attachable wheeled base for a mobile device to turn the mobile device into a wheeled toy. In one embodiment, the disclosed toy comprises a four linkages with each linkage connecting a wheel, a first alignment telescoping rod connecting the first linkage and the third linkage, a second alignment telescoping rod connecting the second linkage and the fourth linkage, a first flat bar that connects the first linkage and the fourth linkage, and a second flat bar that connects the second linkage and the third linkage. The flat bars form a scissor structure so that when it expands, the alignment telescoping rods will retract causing distance between first and second linkage and distance between third and fourth linkage to increase, and distance between first and third linkage and distance between second and fourth linkage to decrease.

The disclosure relates to the technical field of toy vehicles, in particular to a pull back vehicle capable of switching travelling lines including a pull back vehicle chassis. The pull back vehicle chassis includes a driving gear box, driving wheel, a driving gear, a steering wheel shaft, steering wheels and a centering spring. The pull back vehicle chassis is fixedly installed with the driving gear box, the driving gear box is fixedly connected with a driving axle, the driving axle is fixedly connected with the driving gear, and the driving axle is fixedly connected with the driving wheel, and the pull back vehicle chassis is fixedly connected with the steering wheel shaft.

The self-propelled toy includes a vehicle body, wheels connected to the vehicle body, a battery provided at the vehicle body, a motor using electric power stored in the battery to output drive power for running use, an imaging device connected to the vehicle body so as to capture an image of an area in front of the self-propelled toy, an operating part operated by a user so as to make the imaging device operate, and a charging port supplying electric power from an outside power source to the battery. The operating part is provided at a top part of the vehicle body at one side from a centerline of vehicle width of the self-propelled toy, and the charging port is provided at a side part of the vehicle body at the same side as the operating part from the centerline of vehicle width.

The self-propelled toy includes a vehicle body, wheels connected to the vehicle body, a battery provided at the vehicle body, a motor using electric power stored in the battery to output drive power for running use, an imaging device connected to the vehicle body so as to capture an image of an area in front of the self-propelled toy, an operating part operated by a user so as to make the imaging device operate, and a charging port supplying electric power from an outside power source to the battery. The operating part is provided at a top part of the vehicle body at one side from a centerline of vehicle width of the self-propelled toy, and the charging port is provided at a side part of the vehicle body at the same side as the operating part from the centerline of vehicle width.

A suspension shock absorber for remote control (RC) cars includes an inner tube and an outer tube coaxial with each other. The hollow area inside the inner tube defines a hollow chamber where a piston and a piston rod slidably moves. A shock cap seals the top of the inner tube and the outer tube. The space between the coaxial inner tube and outer tube is used as an inter-tube bypass route through which bypass oil flows. The shock cap has a bypass passage connecting the inter-tube bypass route with the upper portion of the hollow chamber. A bypass valve in line with the co-axis of the inner tube and the outer tube is disposed on top of the shock cap and used to regulate the amount of oil flow through the bypass passage.

A magnetic conductive car model includes a frame, a wheel positioned below the frame, a shell magnetically connected with the frame, a power supply arranged on the frame and a power consumption component positioned on the shell, when the frame is magnetically connected with the shell, the power supply is electrically connected with the power consumption component. The present disclosure can not only quickly and conveniently separate and assemble the shell and the frame, but also quickly and conveniently connect or disconnect a circuit between the shell and the frame, which is very convenient for maintenance and installation and improves use experiences of users.

A toy vehicle is enabled to rotate or turn down a gradient, leading with the end of the vehicle having the greatest tendency to slide or translate laterally. The steerable toy vehicle is enabled for interactive play on a play surface dynamically oriented by the user.

A toy vehicle is enabled to rotate or turn down a gradient, leading with the end of the vehicle having the greatest tendency to slide or translate laterally. The steerable toy vehicle is enabled for interactive play on a play surface dynamically oriented by the user.

The present invention provides for a protective enclosure comprising a base comprising a first continuous mating surface and at least one conveyance aperture, a cover comprising a second continuous mating surface, wherein the second continuous mating surface is configured to form a seal with the first continuous mating surface, and a clamp, wherein at least a portion of the clamp is coupleable to the base, wherein a mouth of the clamp is configured to be offset from the aperture when the clamp is coupled to the base, wherein the clamp comprises a first sealing layer, and wherein the clamp is configured to seal the aperture against contaminants. The protective enclosure may be configured for use in a remotely controllable model vehicle to protect a control module.