A toy arrow that has a shaft with a head end and a tail end is described herein. A head is associated with the head end of the shaft. Fins are associated with the tail end of the shaft. Extending hooks extend outward from the sides of the head.

A flying toy for throwing and/or catching includes an elongated body forming a fuselage. The body extends along a longitudinal axis from a front end to a rear end. A lift-generating wing is non-movably attached in relation to the body. A horizontal stabilizer is disposed at or near the rear end of the body, where the horizontal stabilizer disposed behind the lift-generating wing. A vertical stabilizer is disposed at or near the rear end of the body, where the vertical stabilizer is disposed behind the lift-generating wing. A push surface is attached to the body and extends perpendicular in relation to the longitudinal axis. The push surface faces towards the rear end of the body. The push surface allows a user to push the flying toy forward when thrown.

A flying toy for throwing and/or catching includes an elongated body forming a fuselage. The body extends along a longitudinal axis from a front end to a rear end. A lift-generating wing is non-movably attached in relation to the body. A horizontal stabilizer is disposed at or near the rear end of the body, where the horizontal stabilizer disposed behind the lift-generating wing. A vertical stabilizer is disposed at or near the rear end of the body, where the vertical stabilizer is disposed behind the lift-generating wing. A push surface is attached to the body and extends perpendicular in relation to the longitudinal axis. The push surface faces towards the rear end of the body. The push surface allows a user to push the flying toy forward when thrown.

The present invention relates to a toy which holds and launches multiple paper airplanes. It utilizes a user input device, such as a trigger or button, to initiate firing. On initiation one or more paper airplanes are advanced into a spinning wheel, which is powered by an electric motor, that accelerates the paper airplanes out of the toy. Upon leaving the toy, the paper airplanes fly through the air to their target.

The present invention relates to a toy which holds and launches multiple paper airplanes. It utilizes a user input device, such as a trigger or button, to initiate firing. On initiation one or more paper airplanes are advanced into a spinning wheel, which is powered by an electric motor, that accelerates the paper airplanes out of the toy. Upon leaving the toy, the paper airplanes fly through the air to their target.

A flying to that automatically flies out of its container when the container is opened. A toy has a self-contained power source, a processor coupled to the power source by a circuit and a propeller driven by the actuator. The processor controls an actuator that drives the propeller. The toy defines an opening from an external surface to the circuit. A container for the toy defines a seat for the toy that uniquely forces an orientation of the toy when in the container. The container has a lid and a mechanical interrupter that inserts into the opening when the lid is closed. Opening the lid causes withdrawal of the mechanical interrupter to close the circuit. The toy automatically flies out of the container responsive to the circuit closing.

In an aspect, an augmented reality game system is provided including a mobile smart device such as a smart phone and a remotely controlled drone. The mobile smart phone device is programmed to display an augmented environment, being the real environment viewed by the camera and a virtual environment superimposed over images of the real environment. The drone is controlled via commands transmitted wirelessly by the mobile smart device. The mobile smart device is programmed to execute a video game, which includes activities requiring a player to control the drone in relation to the augmented environment displayed on the mobile smart device video screen. The drone is powered by a rechargeable battery, and the video game includes activities that keep the player occupied with the game whilst the drone's rechargeable battery recharges.

In an aspect, an augmented reality game system is provided including a mobile smart device such as a smart phone and a remotely controlled drone. The mobile smart phone device is programmed to display an augmented environment, being the real environment viewed by the camera and a virtual environment superimposed over images of the real environment. The drone is controlled via commands transmitted wirelessly by the mobile smart device. The mobile smart device is programmed to execute a video game, which includes activities requiring a player to control the drone in relation to the augmented environment displayed on the mobile smart device video screen. The drone is powered by a rechargeable battery, and the video game includes activities that keep the player occupied with the game whilst the drone's rechargeable battery recharges.

A toy paper airplane conversion kit has a nose-piece with a combination capacitor mounting portion and nose clip connected to a rear, electric motor driven propellor unit by a lead receiving, square section conductor conduit which keys into a complementary socket of the motor mount, maintaining the rear propellor unit tilted upward. The nose-piece has a combination capacitor mount and nose clip with two paper-clamping, cantilever spring arms extending rearwardly in spaced-apart, coplanar, side-by-side relation under the capacitor mounting portion and having converging portions adjacent rear free ends and, a stubby, paper spreading, crease stuffing fin from the nose-piece, rearward of free ends of the springs. The capacitor mouth receiving a charging plug of a battery pack unit.

A new method of dynamic control of a rotary-wing drone in throw start includes the steps of: a) initializing a predictive-filter altitude estimator; b) the user throwing the drone in the air with the motors turned off; c) detecting the free fall state; d) upon detecting the free fall state, fast start with turn-on of the motors, open-loop activation of the altitude control means, and closed-loop activation of the attitude control means; e) after a motor response time, stabilizing the drone by closed-loop activation of the altitude control means, and closed-loop activation of the attitude control means; f) detecting a stabilization state such that the total angular speed of the drone is lower than a predetermined threshold; and g) upon detecting the stabilization state, switching to a final state in which the drone is in a stable lift condition and pilotable by the user.