JP2016017520A - Engine with no-reactive driving force - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a structure in which fluid (liquid*gas) is re-circulated in an airtight container and a rotating disc (its one surface is a smooth surface and the other surface has many blades) is installed at the midway part in order to reduce loud noise and vibration or the like occurred at jet planes and helicopters generally flying at present or to improve a running capability of automobiles.SOLUTION: To provide a structure in which fluid (liquid*gas) is re-circulated in an airtight container and a rotating disc (its one surface is a smooth surface and the other surface has many blades) is installed at the midway part. Although a driving force of this invention is generated even if the airtight container is not applied, results such as its performance and noise or the like are changed.SELECTED DRAWING: Figure 10

Description

This invention is an engine that circulates fluid in a sealed container and simultaneously rotates a disk (with a blade on one side) as shown in the figure (FIG. 1) at high speed to generate a reactionless propulsion force on the disk. is there.

All that is currently called propulsion is reaction.
It is propelled by the reaction force when fluid (liquid, water, air or gas) is jetted or moved backward.

The reaction force has the following drawbacks.
(B) Generates loud noise and vibration, as can be seen with jets and helicopters.
(B) As can be seen from jet aircraft and helicopters, most of the energy is consumed by the power that moves the fluid for propulsion and lift of the aircraft.
(C) As you can see with jets and helicopters, keep people away from the engine and rotor blades.
(D) As you can see from jet planes and helicopters, keep away from the vicinity of houses and houses due to the reasons described in (a) and (c) above.
The present invention has been made to eliminate the above drawbacks.

(A) This engine recirculates fluid (liquid / gas) in a sealed container, while FIG. This is a structure that rotates the disk at high speed.
(B) A rotating disk has a smooth surface on one side (as shown in Fig. 3 there is a hole through which fluid flows in the center), and the other is a large number of blades (as shown in Fig. 2. constant from the center to the outer circumference) Straight ones attached at intervals).
(C) If the disk with blades does not rotate, the internal fluid just circulates.
(D) If the bladed disk and the disk with a smooth surface rotate at the same time while the fluid in the sealed container is recirculating, a difference in flow velocity occurs on each surface, causing pressure (static Pressure) difference occurs.
(E) The difference in flow velocity is shown in Fig. 4. FIG. When the same distance (from the center to the outer circumference) (L) moves from the center to the outer circumference at the same time, the curve has a longer path than the straight line, and the curve has to move faster. .
(F) This is in accordance with Bernoulli's theorem.
A state in which the fluid flows from a wide area to a narrow area as shown in FIG.
The relationship between flow velocity and pressure as shown in FIG.
(G) A large force can be generated with a small size by changing the fluid in the sealed container to a liquid having a large specific gravity or increasing the pressure in the case of a gas body.

(A) Propulsive force can be generated without generating large noise and vibration.
(B) Propulsion and lift can be generated with high energy efficiency.
(C) Because the rotating part is in an airtight container, a person approaches it.
(D) A large force can be created in a small size by increasing the density of the fluid in the sealed container or increasing the pressure.
(E) This propulsive force can be used for all vehicles and transportation means such as airplanes, automobiles and ships.
(F) This propulsive force can be used for other than vehicles.

  Cross section of rotating disk   Top view of a disk with wings   Top view of a smooth disk   Plan view of fluid flow on the disk side with blades   Plan view of fluid flow on the disk side of a smooth surface   Flow path conditions for which Bernoulli's theorem holds   Bernoulli's theorem   How fluid flows when lift occurs on an airplane wing   The cylinder rotates in the flowing fluid and lift is generated in the cylinder   Cross-sectional view of the structure of an engine generating no reaction propulsion force The reactionless propulsion engine is composed of a sealed container, a fluid recirculation device, and a rotating disk part.   This is the reverse of the direction of fluid flow in the case of [Fig. 10].   Unlike [FIG. 10] and [FIG. 11], the container is not a sealed container.

Hereinafter, modes for carrying out the present invention will be described.
(A) In explaining the principle of the present invention, when considering a wing of a flying plane currently flying in the sky as a transportation means, the flow velocity of air flowing on the upper surface and the lower surface of the wing as shown in FIG. There is a difference (on face to face).
(B) Since the upper surface of the wing flows faster and slower on the lower surface, the pressure (static pressure) is lower on the upper side and the pressure (static pressure) is higher on the lower side according to Bernoulli's theorem.
(C) A mode for carrying out the present invention is a cross-sectional structure as shown in FIG. 10 and a propeller (8) for moving fluid in a sealed container and a rotating disk in the middle of a narrow channel (blade on one side) (2) (3) (4) and power (motor or engine) (6) (7) for rotating each of them.
(D) The fluid in the sealed container is determined by selecting appropriate conditions such as liquid / gas body and pressure level.
(E) Select highly efficient conditions such as the flow rate for recirculating fluid, the rotating speed of the rotating disk, and the structure of the disk with rotating blades.
(F) In FIG. 9, lift occurs when the cylinder (12) in the fluid rotates, but no lift occurs when it does not rotate.
(G) A form for carrying out the present invention is a propeller (8) for recirculating a fluid with a structure as shown in FIG. 10 and a rotating disk in the middle of a narrow channel (blade on one side) (2) Propulsive force is generated when (3) and (4) rotate simultaneously.
(H) Propeller that recirculates fluid (8) or a disk in the middle of a narrow flow path (with blades on one side) (2) (3) (4) if propulsion is not generated simultaneously do not do.
(I) Propulsive force is generated when the fluid flows from the center to the outside as shown in FIGS. 4, 5, and 10 and conversely from the outer periphery to the center (FIG. 11).
(Nu) The form for carrying out the present invention is not limited to a closed container having a cross-sectional structure as shown in FIGS. 10 and 11, and even if the container is partially opened as shown in FIG. Propulsion is generated if there is a disk that rotates in a flowing state (with a blade on one side and a smooth surface on the other) and the power to rotate each.
(Le) However, in the case of (N), efficiency and capacity are reduced compared to the case of an airtight container.

1 Rotating shaft for rotating a disk with blades 2 Disk with blades 3 Disk without blades 4 Blades 5 Hole for recirculating fluid 6 Power to rotate the disk 7 Power to recirculate the fluid 8 Propeller that recirculates fluid 9 Outer plate 10 of sealed container Flowing state and direction 11 Rotating shaft 12 of propeller that recirculates fluid

Claims (1)

A propeller (8) for recirculating fluid with a structure as shown in FIGS. 10, 11, and 12 and a rotating disk in the middle of a narrow flow path (with a blade on one side) (2) (3) (4) and an engine constituted by power (motor or engine) (6) and (7) for rotating each.

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