UA90134U - Training simulator of virtual reality - Google Patents

Abstract

A training simulator of virtual reality comprises a base and movable seat with guide for sportsman. The base is made as podium whereon a guide as pivotal base which by one side is connected through pivot mechanism to lifting and pivot arm, and second side is connected through pivot mechanism to movable seat for sportsman which is arranged as driver seat equipped with safety belts and master controller. The pivotal base and lifting and pivot arm are connected to control mechanisms and central control unit.

Description

The useful model belongs to training, entertainment and sports equipment for training the main muscle groups of the arms, legs and trunk of a person, as well as for training movements in aircraft and motor vehicles, including emergency situations, critical modes of movement of cars and aircraft, overloading in conditions three-dimensional coordinate system. The simulator can be used in medicine to check the vestibular apparatus, continuous operational medical control and prediction of the psychophysical state of the pilot in flight is also possible. On the simulator, it is possible to perform almost all aerobatic figures, which are accompanied by energetic rotation on a roll, entry and exit from turns, flips, barrels, and so on. The simulator also simulates atmospheric turbulence. The simulator simulates the turns of a motor vehicle on the road in case of acceleration, braking, skidding on uphill and downhill slopes, sliding, as well as any emergency situations. Also, the simulator simulates extreme driving of the vehicle in case of overcoming obstacles, such as driving on a damaged road, flying through a bridge or springboard, simulating bad road surface and hitting any obstacles.

See the well-known driver's simulator. stalemate. SHA Mo48325, IPC C 09 V 9/00, publ. 15.08.2002, bull. Mev8)| which includes a simulator of the driver's cabin of the vehicle, full-time controls, a driver's video monitor and full-time remotes, and the position sensors of the controls and remotes are connected to the instructor's remote, which includes a system unit, through a connection device.

But the well-known driver's simulator does not allow training of the main muscle groups of the driver's arms, legs and torso.

The famous Track-marathon, which contains a base, a movable place for the athlete with a guide, while the base is made in the form of a frame, and the guide is in the form of u-shaped rails, the movable place for the athlete is made in the form of a skate court, which is equipped with two guides and located under the hand ladder, equipped with a body strap, a brake mechanism and four bearings located on the axles, with at least two skate rinks and they are parallel to each other, the hand ladder on the side of the beginning of the movement of the skate rinks is attached to on the lateral sides of the base of the track - marathon with hinges, and on the opposite side - provided with two mechanical drives, while each guide is connected to the base with an additional hinge on the side of the beginning of the movement of the skate-grounds, and on the opposite side - rigidly connected to the hand stairs. With

The mechanical drives are made with the possibility of changing the angle of inclination of the marathon track relative to the surface

Earth at 10, 20, 30 degrees, when the length of the marathon track is no more than 30 meters | see stalemate. OA

Mo102761, IPC A 63 B 69/00, publ. 12.08.2013, Bul. Me151I.

However, the famous track is used only for training the muscles of the arms, since the movement is carried out only by moving the arms along the ladder for the arms and is not designed to train the main muscle groups of the arms, legs and trunk.

A known solution is selected as a prototype.

The prototype and the claimed utility model have the following common features: - base; - a movable place for an athlete with a guide;

The useful model is based on the task of creating a multifunctional and reliable virtual reality simulator that can be used to train drivers of vehicles, air transport, in entertainment shows or as an attraction.

The task is achieved by a virtual reality simulator, which contains a base and a movable place for an athlete with a guide, the fact that the base is made in the form of a podium on which the guide is fixed in the form of a supporting-rotating base, and through a supporting-rotating device is connected to one side of the lifting- rotary arm, the second side of which is connected through a support-swivel device to a movable place for the athlete, which is made in the form of a driver's seat, equipped with safety belts and a control controller, while the support-swivel base and lifting-swivel arm are connected to the control mechanisms, and the central control unit. Support-turning devices and controlling mechanisms are made with the possibility of changing the angle of inclination of the movable place for the athlete in four planes relative to the Earth's surface from -3607 to 3607, the simulator can additionally be equipped with virtual reality glasses Ositsyvhiy. All nodes rotate clockwise and counterclockwise.

What is new in the proposed useful model is that the base is made in the form of a podium, on which a guide is fixed in the form of a support-rotation base, which is connected to the lifting-rotation arm on one side through the support-rotation device, and its other side through the support - the rotary device is connected to a movable place for the athlete, which is made in the form of a driver's seat, equipped with safety belts and a control controller, while the supporting-rotating base and the lifting-rotating arm are connected to the control mechanisms and the central control unit . Support-rotating devices and controlling mechanisms are made with the possibility of changing the angle of inclination of the movable place for the athlete in four planes relative to the Earth's surface from -3607 to 3602. Support-rotating devices are made in the form of bearings, the simulator works on electric motors, hydraulic or pneumatic systems, at the same time, each node is independent and receives commands from the central control unit.

In fig. 1 shows the appearance of the virtual reality simulator (side view);

In fig. 2-6 show options for the position of the moving virtual reality simulator relative to the Earth's surface;

The simulator-virtual reality simulator includes a base made in the form of a podium 1, a guide in the form of a support-rotation base 2, a support-rotation device 3, a lifting-rotating arm 4, support-rotating devices 5, 6 for attaching a lifting-rotating arm 4, a movable place for an athlete 7, equipped with safety belts 8 and a control controller 9. The control mechanisms (not shown in Fig. 1) provide a change in the direction of movement of a movable place for an athlete 7 in the entire plane of movement (see Fig. 2- 6).

The virtual reality simulator works as follows:

The athlete sits on the moving place 7, fixes his body with the help of a safety belt for fixing the body 8 and starts the movement by moving the control controller 9. The movement of the moving place 7 takes place in all directions: rising above the surface of the Earth, lateral rotation around its axis, changing the angle of inclination lifting-rotating arm 4 relative to the surface

Earth with simultaneous rotation around its axis. The simulator-simulator of virtual reality allows you to lift the athlete at any angle relative to the surface of the Earth while simultaneously rotating it around its axis, the lifting-rotating arm 4 and the supporting-rotating base 2 are equipped with control mechanisms and connected to a single control unit (Fig. . are not given). At the same time, the controlling mechanisms can be of any design, for example, electromechanical, hydraulic, pneumatic.

Thus, two ways of setting the necessary load are possible: a) by changing the direction of movement of the moving place for the athlete, or any person, relative to the surface

From Earth c) by changing the angle of inclination of the movable place for the athlete relative to the lifting-rotating arm.

During training, the athlete's body together with the moving place 7 moves around its axis while simultaneously changing the angle of inclination relative to the Earth's surface of the lifting-rotating arm 4.

The proposed virtual reality simulator allows you to carry out the entire complex of loads on the muscles of the arms, neck, spine and muscles of the back, abdomen of the athlete with the possibility of adjusting this load.

The technical result of the useful model consists in creating a wide range of loads on the muscles of the arms, neck, back, spine of the athlete, with ease of manufacture and reliability in operation of the claimed device.

Claims (3)

USEFUL MODEL FORMULA 1. A virtual reality simulator that contains a base and a movable place for an athlete with a guide, which is distinguished by the fact that the base is made in the form of a podium, on which a guide is fixed in the form of a supporting-rotating base, which is connected on one side through a supporting-rotating device with a lifting-rotating arm, and its other side through a supporting-rotating device is connected to a movable place for the athlete, which is made in the form of a driver's seat, equipped with safety belts and a control controller, while the supporting-rotating base and a lifting-rotating arm are connected to the control mechanisms and the central control unit. 2. The simulator-virtual reality simulator according to claim 1, which is characterized by the fact that the supporting and rotating devices and the controlling mechanisms are made with the possibility of changing the angle of inclination of the moving place for the athlete in four planes relative to the Earth's surface from -3607 to 3609. 3. The virtual reality simulator according to claim 1, which is characterized by the fact that the supporting and rotating devices are made in the form of bearings, the simulator works on electric motors, hydraulic or pneumatic systems, while each node is independent and receives commands from the central control unit.