31results about How to "Realistic action" patented technology

A toy drive mechanism having extensions such as leg and neck members covered with a plush covering. The drive mechanism is operative to move the leg, back, and head members in coordinated movements imitating an animal tugging or pulling on a rope. The realistic movement is provided by a series of rotating devices, some on differing axes relative to the drive shaft, and an information processor activated by one or more switches located throughout the body. One switch in particular, located between the neck and head and motivated by a user pulling on the rope in the toy's mouth, will cause the toy to exert a pulling motion accompanied by sound effects.

A motion decoy having a body and wings in the form of a waterfowl provides a realistic biaxial wing beat motion. The wing beat motion simultaneously includes a flapping action and a rotation action. The flapping action can sweep through an obtuse angle, while at the same time the rotating action that changes the angle of incidence of the wings at different angular positions. The compound biaxial wing beat motion better replicates the motion of live waterfowl, especially during the “lighting” phase of flight.

The Field Decoy System is a way of making motion in a hunter's field decoys without wind or with or without the use of motors to move the decoys. This motion system can move decoys even on windless days. A hunter needs just to pull the activation cord that is connected to all the decoy stakes. As the activation or activation cords are moved and stretch the bungee cord, the decoys rotate on the stake in a rotary motion. This rotary motion imitates the side-to-side wobbling movement of birds on the move, while feeding in a field. This style of motion will make wary game birds more apt to land by them believing that the decoys are real feeding birds.

The decoy suspension system is attached to a tree branch or other suitable support and suspends a decoy above the ground. The system includes a reel containing a retractable and extendible line. The reel is attached to the branch or support with a strap having mating hook and loop fasteners. The ease of the reel is preferably camouflaged. The line is preferably a low visibility transparent monofilament fishing line or similar material. The distal end of the line has a small toggle pin attached thereto that can be inserted into the back of the decoy to attach the decoy to the line. The decoy is preferably formed of thin sheets of foam plastic. The decoy may be partially filled with any readily available material to add mass. The swinging and swaying of the decoy at the end of the line produces realistic movement that attracts game animals to the site.

A decoy mounting stake is disclosed having remote string-controllable rotation. The mounting stake includes a rotatable vertical shaft having a top end configured to attach to a decoy and a bottom end configured to be inserted into the ground at a hunting location; a pair of first and second control arms, each attached to the rotatable vertical shaft and extending outward from the vertical shaft; and first and second control line mounting holes respectively placed at the ends of the first and second control arms at a distance from the shaft. Control lines can be attached to the mounting holes, and rotation and movement of a decoy attached to the decoy mounting stake can be controlled by a hunter in a remote blind via the control lines.

A multi-segmented, soft-bodied, artificial fishing lure or swim bait with a natural profile includes plastic control planes in each body segment to generate a lure that is stable in the water, and demonstrates realistic swimming motions in a range of retrieve speeds and even when allowed to sink. At least one clear, stiff plastic control plane is inserted in each body segment to generate a lifelike swimming motion when the lure is retrieved. Each control plane may be moved within a range of positions to provide realistic motions for specific fishing techniques. The control planes inserted into and sometimes through the lure body are invisible in the water and are adjustable to accommodate a range of water conditions, densities and temperatures. The placement of control planes create the ability to limit unnatural/undesirable movements and expand or accentuate natural and desirable movements in each segment of the body of the lure.

The invention provides a game effect construction method and device. The method comprises the steps of obtaining and carrying depth information of a user attempting to construct a 3D model in a game,wherein the depth information is generated by performing structured light image processing on a user; according to the depth information, constructing a user's 3D model; obtaining construction information for constructing the game effect; constructing a target action needing to performed for carrying the 3D model in the information; controlling the 3D model to perform the target action to form thegame effect of the game; implanting the game effect into the game. According to the method, by controlling the user's 3D model to act, the game effect is formed and implanted into the game; due to the fact that the 3D model of the user is closer to the actual image of the user compared with a game figure in the game, the actions performed by the 3D model of the user is more real, the game effectis implanted into the game, and the game substitution sense is improved.

The invention discloses a gear linkage structure for turtle-leg movement simulation. The gear linkage structure for turtle-leg movement simulation comprises an installation plate, a drive shaft, an inner gear ring, a planet gear, a slide pair and a guide device, wherein the side surface of the inner gear ring is fixed to the installation plate; the planet gear is arranged in the inner gear ring and engaged with the inner gear ring; the planet gear is fixed to a planet gear shaft via a bearing; the drive shaft is fixedly connected with the planet gear shaft; the drive shaft is installed on theinstallation plate via a bearing, and coaxial with a cylindrical inner gear ring; a knuckle bearing is arranged on the planet gear, and the slide pair is connected with the planet gear through the knuckle bearing; the installation plate is fixedly connected with the guide device, and the guide device is used for providing a movement fulcrum for the slide pair; and the slide pair forms contact connection with the guide device. By this, the gear linkage structure for turtle-leg movement simulation realizes simulation for turtle-leg movement through gear linkage, and is novel in structure and lowin noise during running. The invention further discloses a bionic turtle movement system.

The invention discloses a simulation transporting and loading toy truck. The simulation transporting and loading toy truck comprises a truck body, a bucket and an automatic bucket dumping device; the automatic bucket dumping device comprises a control device and a bucket tripping mechanism; the control device comprises a pressing rod and a cover plate; the bucket tripping mechanism comprises an ejector rod, a push rod and a base; a sliding groove for the push rod to slide back and forth in the axial direction is formed in the base; the push rod is arranged in the sliding groove; a compression spring is arranged at one end of the push rod and props against one sidewall of the sliding groove, and a connecting piece is arranged at the other end of the push rod; one end of the ejector rod is hinged to the connecting piece of the push rod, while the other end of the ejector rod is hinged to the bottom of the bucket. The simulation transporting and loading toy truck is reasonable in structure; the automatic bucket dumping device is arranged on the truck body to jack up the bucket and reverse the bucket around the hinged shaft to unload materials in the bucket; the simulation transporting and loading toy truck is real in action and funny; the playability and the interestingness of the toy are effectively enhanced.

The invention discloses a virtual node projection server which comprises a plurality of nodes, an aggregation node, a PC and a display terminal, the output ends of the nodes are all connected with theinput end of the aggregation node, the output end of the aggregation node is connected with the input end of the PC, and the output end of the PC is connected with the input end of the display terminal. According to the invention, data can be effectively processed and analyzed in time, so that the person can make a more real action.

The invention provides a simulation robot control method and system. The simulation robot control method comprises the steps that a PLC receives a written control program, carries out processing of the control program, employs an RS232 communication protocol, and transmits a control instruction obtained after processing to a steering engine control panel; and the steering engine control panel controls multiple steering engines to complete specified actions according to the control instruction. According to the simulation robot control method, the motion and the motion amplitude of the simulation robot can be precisely controlled, so that the motion of the simulation robot is more vivid.