Vertical wind tunnel skydiving simulator

• US 10,238,980 B2
• Filed: 04/12/2018
• Issued: 03/26/2019
• Est. Priority Date: 04/22/2015
• Status: Active Grant

• Current Assignee: Aleksandr Ivoninskii, Alexander Parmanin, Ruslan Romanenko, Svjatoslav Lisin
• Original Assignee: Aleksandr Ivoninskii, Alexander Parmanin, Ruslan Romanenko, Svjatoslav Lisin
• Inventors: Romanenko, Ruslan, Parmanin, Alexandr, Ivoninskii, Aleksandr, Lisin, Svjatoslav, Savchenko, Ivan, Sharov, Eugeny
• Primary Examiner(s): Nguyen, Kien
• Application Number:
  US15/951,568
• Publication Number:
  US 20180229130A1
• Time in Patent Office: 348 Days
• Field of Search: 472 49- 50, 472130, 472136, 472137, 434 30, 434 35
• CPC Class Codes: A63G 2031/005 Skydiving
• CPC Class Codes: A63G 31/00 Amusement arrangements hoop exercising apparatus driven by the user A63B19/00
• CPC Class Codes: B64D 23/00 Training of parachutists
• CPC Class Codes: G01M 9/02 Wind tunnels
• CPC Class Codes: G01M 9/04 Details

Abstract

A vertical wind tunnel skydiving simulator including a flight chamber entrance that has a curved air deflector that extends into a waiting chamber, in which a convex surface of the curved air deflector faces across or towards the flight chamber entrance or into the flight chamber, and extends into the waiting chamber a sufficient distance to substantially reduce the flow of turbulent air into the waiting chamber. The curved surface is at the top of the entrance and can also be at the sides. The shape the curved surface takes is sufficient to minimize the flow of turbulent air into the waiting chamber; the effect is to make it more comfortable and less noisy for people in the waiting area. This also helps to preserves the laminar, non-turbulent flow of air in the flying chamber, even across the flight chamber entrance. This makes flying more comfortable and predictable.

Claims

1. A wind tunnel skydiving simulator system to enable flyers to enjoy simulated skydiving, the system including a wind tunnel flight chamber and a virtual reality headset to be worn by a flyer, the system including one or more depth sensors, wherein the system is configured to detect objects in the flight chamber using the one or more depth sensors and to model the detected objects in the flight chamber to enable 3D reconstruction of the shape and movement of each object, wherein the virtual reality headset is configured to operate in the flight chamber to provide immersive images to the flyer wearing the headset, wherein the immersive images simulate the views that would be seen when skydiving in a real or virtual world.

2. The wind tunnel skydiving simulator system of claim 1, wherein the virtual reality headset provides an immersive 3D reality display output.

3. The wind tunnel skydiving simulator system of claim 2, wherein the immersive 3D reality display output includes real-time video images of an instructor.

4. The wind tunnel skydiving simulator system of claim 2, wherein the immersive 3D reality display output includes video images of scenes, including one or more of the following:

jumping from a plane, passing close to other flyers, manouevers with other flyers in a skydiving team, a parachute deploying.

5. The wind tunnel skydiving simulator system of claim 1, wherein the virtual reality headset includes an integrated high resolution display.

6. The wind tunnel skydiving simulator system of claim 1, wherein the virtual reality headset is an Oculus Rift™

type headset.

7. The wind tunnel skydiving simulator system of claim 1, wherein the virtual reality headset is an integral part of a helmet worn by the flyer.

8. The wind tunnel skydiving simulator system of claim 1, including flight chamber walls, wherein the flight chamber walls do not include any projection screen.

9. The wind tunnel skydiving simulator system of claim 1, the system including cameras, wherein the immersive images include real-time video images of the flyer, generated using the cameras and the depth sensors.

10. The wind tunnel skydiving simulator system of claim 1, wherein a helmet worn by the flyer includes a camera to provide to the flyer real-time video of the scene in the flight chamber.

11. The wind tunnel skydiving simulator system of claim 1, wherein the system includes a RFID tag that is worn by the flyer to uniquely identify that flyer to the system, and wherein the system is configured to send real-time information to the virtual reality headset of the flyer, identified using the RFID tag.

12. The wind tunnel skydiving simulator system of claim 11, wherein the information includes time remaining to fly.

13. The wind tunnel skydiving simulator system of claim 11, wherein the information includes instructions to the flyer.

14. The wind tunnel skydiving simulator system of claim 11, wherein the information includes real-time video of the flyer so he can see mistakes or adjustments.

15. The wind tunnel skydiving simulator system of claim 1, wherein the system is configured to detect and to model objects in the flight chamber to enable 3D reconstruction of the shape and movement of each flyer.

16. The wind tunnel skydiving simulator system of claim 1, including multiple video cameras in the flight chamber, arranged to film the flight chamber, to enable 3D reconstruction of the shape and movement of each flyer.

17. The wind tunnel skydiving simulator system of claim 1, including a plurality of glass panels which surround the flight chamber, wherein the seams or joins between the glass panels surrounding the flight chamber include embedded lighting, such as LED strips.

18. The wind tunnel skydiving simulator system of claim 1, the system including ordinary lights to illuminate the flight chamber and including UV lights that are used to illuminate the flight chamber and UV reflective clothing or equipment used by the flyers to reflect UV light when all of the ordinary lights are turned low/off for special lighting effects.

19. The wind tunnel skydiving simulator system of claim 1, including turning vanes positioned in air ducts leading to and from the flight chamber and that are extra-large, with a chord length greater than 350 mm for greater efficiency in altering the airflow direction.

20. The wind tunnel skydiving simulator system of claim 19, in which there is an approximately 15 cm separation between adjacent vanes so that only small turbulence/eddies can pass between them.

21. The wind tunnel skydiving simulator system of claim 1, including a single vertically mounted axial fan in a vertical air duct leading to or from the flight chamber.

22. The wind tunnel skydiving simulator system of claim 1, including a duct that is formed from fibre-reinforced plastic (FRP), and is shaped to enable a smooth transition from one shape, such as a circular x-section to a rectangular x-section, or a rectangular x-section to a circular x-section.

23. The wind tunnel skydiving simulator system of claim 1, including a waiting area that is separated from a main part of a building housing the system by a decompression chamber and including an airtight door between the decompression chamber and the waiting area and including another airtight door between the decompression chamber and the main part of the building;

and including adjacent to each door, or built into each door, or in the same wall as each door, a pneumatic valve and when both sealed doors of the decompression chamber are closed, the valve corresponding to the door which is going to be opened next is configured to open smoothly to equalize the pressure, to avoid damage to hearing.

24. The wind tunnel skydiving simulator system of claim 1, including CO2 sensors in the flight chamber that automatically cause air exchangers to be opened if CO2 levels rise too high.

25. The wind tunnel skydiving simulator system of claim 1, including a glass floor that is built around a double-height flight chamber, at about half-way up the double-height flight chamber.

26. The wind tunnel skydiving simulator system of claim 1, including noise sensors inside and outside of a building that includes the wind tunnel flight chamber, wherein the noise sensors continuously monitor noise levels for compliance with regulations, and the noise sensors provide data to a system that can act to reduce noise when needed.

27. The wind tunnel skydiving simulator system of claim 1, including a safety mesh or net at the base of the flight chamber, the safety mesh or net including cables or ropes that are attached to a perimeter wall or surface and that pass through vertical slots or apertures in the walls of the flight chamber so that the safety mesh or net can deflect when receiving an impact close to the walls of the flight chamber.

28. A method of operating a wind tunnel skydiving simulator system including a flight chamber and one or more depth sensors, which enables flyers to enjoy simulated skydiving, including the steps of:

(i) providing a virtual reality headset to a flyer using the flight chamber in the wind tunnel skydiving simulator, and

(ii) detecting objects in the flight chamber using the one or more depth sensors and modelling the detected objects in the flight chamber to enable 3D reconstruction of the shape and movement of each object; and

(iii) displaying immersive 3D virtual reality images on the virtual reality headset that simulate for the flyer the views that would be seen when skydiving in a real or virtual world.