KR20050047375A - High-pressure air storage apparatus using natural energy - Google Patents

Abstract

The present invention relates to a device for storing high-pressure air for electric power generation using natural energy without damaging nature, which is a reciprocating or rotational kinetic energy generated by a load of a vehicle traveling on a highway or a vehicle-only road, or By generating and storing high pressure (compressed) air for electricity generation by natural energy such as tidal power or wind power, it is possible to store high pressure air for electricity generation without using fossil fuels such as coal, crude oil and uranium. In addition, high-pressure air obtained from irregularly generated natural energy can be stored in a large storage tank and used for electric power generation as needed even in a situation where natural energy is not generated.

Description

High-pressure air storage apparatus using natural energy using natural energy without damaging nature

The present invention relates to an apparatus for storing high pressure air for electric power generation using natural energy without damaging nature. That is, the present invention stores the high-pressure air generated by the kinetic energy, wind power, tidal power, and other natural energy obtained from the load of the traveling vehicle in a large storage tank without using fossil fuel such as crude oil, coal, uranium, etc. The present invention relates to a device for storing high-pressure air for electric power generation using natural energy without damaging nature to be utilized as energy for the purpose.

Typically, the method of producing electricity includes a method of using fossil fuels such as thermal power or nuclear power, and a method of using water, such as hydropower. In the former method, various harmful substances are generated in the process of producing electricity using coal, crude oil, uranium, etc., and resources such as coal, crude oil, or uranium are limited and reserves are limited. In research and development. In the latter case, there is no concern about depletion of water resources, but it takes a lot of costs to construct dams to retain water resources, as well as a number of defects resulting in damaging nature. In addition, in the latter case, construction and maintenance are expensive, and the amount of electricity generated by water is much smaller than that of thermal power or nuclear power, and thus there is a limit to producing all the electricity consumed in homes, offices, and factories.

The present invention to overcome the limitations shown in the prior art as described above is a high pressure generated by kinetic energy, wind power, tidal power, and other natural energy obtained from the load of the vehicle without using fossil fuels such as crude oil, coal, uranium It is an object of the present invention to provide a device for storing high-pressure air for electric power generation using natural energy without damaging natural air, which is stored in a large storage tank and used as energy for generating electricity.

Apparatus for storing high pressure air for electric power generation using natural energy without damaging the nature according to the present invention for achieving the object as described above, the rotational force obtained from the naturally generated wind or the water level is repeatedly generated naturally High pressure including a rotational force acquiring means for converting the reciprocating or rotational kinetic energy obtained from the potential energy by means of acquiring the rotational force, and a compressor for generating high pressure air as the rotational force obtained by the rotational force acquiring means is transmitted to the pulley of the compressor shaft. Air generating means and

It is provided with a high pressure air storage means consisting of one or more storage tanks for storing the high pressure air generated by the compressor, characterized in that to generate and store the high pressure air by the kinetic energy obtained from natural energy such as wind or waves It is done.

In addition, in the apparatus for storing high-pressure air for electric power generation using natural energy without damaging the natural according to the present invention, it is preferable that the rotational force acquisition means acquires the rotational force by wind or tidal power generation.

In addition, the device for storing the high-pressure air for electric power generation using natural energy without damaging the natural by the invention, the operation pedal is rotated by a certain angle by the load of the traveling vehicle on a rotating shaft disposed on the road perpendicular to the direction of travel of the vehicle One side of the operation pedal is coupled so that one side of the operating lever bent at right angles to the other side of the operating pedal and the energy conversion means coupled to each other, and the other side of the operating lever is guide It is coupled to reciprocate up and down, the other side of the rotation lever coupled to the hinge lever and rotatable at a certain angle about the support shaft is the operation lever of the one-way gear on the rotary shaft having a flywheel and pulley And hinge coupled to the power transmission means, the pulley and the belt coupled to the rotating shaft to generate high pressure air High pressure air generating means comprising a compressor and

It characterized in that it comprises a high pressure air storage means consisting of one or more storage tanks for storing the high pressure air generated by the compressor.

In addition, in the apparatus for storing high-pressure air for electric power generation using natural energy without damaging the natural according to the present invention, it is preferable that the energy conversion means, the power transmission means and the high-pressure air generating means is composed of a plurality.

In addition, the device for storing high-pressure air for electric power generation using natural energy without damaging the natural according to the present invention, the master cylinder is filled with a working fluid on the road passing the wheel of the vehicle is buried in the spring in the master cylinder Hydraulic generating means installed above the road surface so that the operation pedal can reciprocate up and down inside the master cylinder by the load of the vehicle driving the road, and the piston supported by the spring As the hydraulic fluid of the master cylinder flows into one side of the cylinder, the energy transfer means coupled to the piston and the operating rod coupled thereto, and the piston connected to the operating rod reciprocate inside the cylinder, pressurize the high pressure air. High pressure air generating means comprising a compressor configured to generate a; and It characterized in that it comprises a high pressure air storage means consisting of a high-pressure air generated by the accumulation of one or more storage tanks for storing.

In addition, in the apparatus for storing high pressure air for electric power generation using natural energy without damaging the natural according to the present invention, a release valve is provided on a connection pipe connecting the cylinder of the energy transfer means and the master cylinder, It is preferred that the pressure reducing cylinder is connected to the release valve.

In addition, in the apparatus for storing the high pressure air for electric power generation using natural energy without damaging the natural according to the present invention, it is preferable that the hydraulic generating means, the energy transmission means and the high pressure air generating means is composed of a plurality.

In addition, in the device for storing high pressure air for electric power generation using natural energy without damaging the natural according to the present invention, the storage tank of the high-pressure air storage means forcibly pressurized high-pressure air flowing over a certain pressure by the operation of the compressor Preferably, a drain valve for discharging the furnace is provided.

Examples of the apparatus according to the present invention include a lever method, a hydraulic pumping method, and a method using wind or waves as natural energy. First, the apparatus according to the lever method will be described.

1A, 1B, and 3, a plurality of operation pedals 13 rotated at a predetermined angle about a rotation axis 12 may be provided on a road 11 such as a highway or a vehicle-only road on which various vehicles travel. It is installed. The power transmission means or the air compression means described below will be provided with a plurality of like the operation pedal 13 installed on the road, but will not be described repeatedly for better understanding.

That is, the rotary shaft 12 is installed in the portion of the road 11 in contact with the wheel of the vehicle orthogonal to the traveling direction of the vehicle so that the position energy due to the load of the vehicle traveling on the road can be converted into linear or rotational kinetic energy. The rotation shaft 12 is coupled to one side of the operation pedal 13 which rotates a predetermined angle about the rotation shaft 12 as the vehicle load is applied, and an operation pedal for reciprocating a predetermined height up and down ( The other side of the 13) is coupled so that one side (10a) of the operating lever 14 bent at a right angle can be rotated.

Here, the operation pedal 13 may be rotated about the rotating shaft 12 by directly contacting the wheel of the vehicle, but a panel having a predetermined thickness on the several hundreds of operation pedals installed at regular intervals along the driving direction of the vehicle. And as the vehicle passes through the panel, the operating pedal under the panel can be activated. Of course, the panel covering dozens of passengers of the operation pedal should be fixed so as to be able to lift a certain height up and down by a separate fixture.

This is an operation lever 14 as one means for converting the kinetic energy of the operating pedal 13 which rotates at an angle about the rotation axis 12 by the load of the vehicle into the straight line (reciprocating) kinetic energy of the operating lever 14. Of course, the various components, including) can be transformed into various forms depending on the installation space or road conditions.

The other side 10b of the operation lever 14 for reciprocating linear movement according to the rotational movement of the operation pedal 13 is coupled to be able to linearly move up and down on the guide 17 fixed to the support 16. It is. At this time, the spring 15 fixed to the support 16 is supported at the end of the operating lever 14 one side (10b), which is to allow the operating lever 14 raised up to return to its original position within a short time. As well as the spring (15) serves to return the operating lever 14 to the original position, the actuation pedal 13 also plays a role of allowing the operating pedal (13) to descend and rise up around the rotation shaft (12). Of course, there is a limit in moving the actuating lever 14 and the actuating pedal 13 to their original position within a short time by the force of the spring 14, so that various configurations can be added to give the restoring force to the rotating shaft 12 or other necessary parts. can do.

One side 10b of the operating lever 14 is hingedly coupled to one side of the rotation lever 19, which rotates at an angle about the support shaft 18, and on the other side of the rotation lever 19, the rotation shaft 25 It is hinged to one side of the operation lever 20 capable of operating the one-way gear 21 on the). In other words, while the pivoting lever 19 is the seesaw movement around the support shaft 18 of the one-way gear 21 is operated by the actuating lever 20 by repeatedly rotating the actuating lever 20 up and down or left and right. The rotation shaft 25 rotates in only one direction by driving.

The rotating shaft 25 which is rotated by the one-way gear 21 is provided to rotate on the supports 22a and 22b via the bearings 26a and 26b, and the one-way gear 21 is rotated on the rotating shaft 25. And a pulley 24 for connecting the flywheel 23 and the power transmission belt 27 to help the continuous and stable rotation of the rotating shaft 21 by the inertia.

The pulley 24 of the rotary shaft 25 is connected to the pulley 28 of the compressor 29 by the belt 27, so that the compressor 29 is driven by the power transmitted through the belt 27, the high pressure Produces air.

Since the compressor 29 and the storage tank 31 are connected to each other by a connecting pipe, the high pressure air generated by the compressor 29 may be stored in one or more storage tanks 31. At this time, a check valve 30 is installed on the connection pipe connecting the compressor 29 and the storage tank 31 to block the high pressure air stored in the storage tank 31 from being returned to the compressor 29. In addition, the storage tank 31 is equipped with a drain valve 32 for forcibly discharging the high-pressure air flowing into the predetermined pressure or more by the operation of the compressor (29).

As an example of the storage tank 31 may be used an extra-large tank consisting of one tank, it is made of a plurality of tanks and the high pressure air of a certain pressure is stored in one tank, of course, the high pressure air is stored in another tank On the contrary, even when discharging, a tank in which high pressure air is discharged from a tank in which high pressure air is stored above a certain pressure may be used.

Next, another example of the present invention by the oil pumping method will be described with reference to FIGS. 4A and 4B.

First, the master cylinder 21a into which the operation pedal 20a is inserted is provided at a predetermined interval on roads such as highways or exclusive roads for driving various vehicles, that is, parts where the wheels of the vehicles touch. As described above, the hydraulic generating means, the energy transmitting means, and the compressed air generating means, which will be described in detail below, will also be provided with plural dogs as well as the master cylinder 21a installed on the road.

That is, the upper part of the operating pedal 20a is installed to be exposed to the wheels of the vehicle on the road so that the position energy due to the load of the vehicle traveling on the road can be converted into linear or rotational kinetic energy. As the load of the vehicle is applied to the 20a, the spring 19a is supported on the lower part of the operation pedal 20a so that the operation of the lowering and descending of the master cylinder 21a can be repeated. A hydraulic fluid 16a for hydraulic pressure is filled in the inner portion 21a, that is, between the bottom surface of the master cylinder 21a and the operation pedal 20a.

Here, the operation pedal 20a may be in direct contact with the wheels of the vehicle to raise and lower the inside of the master cylinder 21a, but the panel having a predetermined thickness over several hundreds of operation pedals installed at regular intervals along the driving direction of the vehicle. And as the vehicle passes through the panel, the operating pedal under the panel can be activated. Of course, the panel covering dozens of passengers of the operation pedal should be fixed so as to be able to lift a certain height up and down by a separate fixture.

This is an example of the master cylinder 21a for generating hydraulic pressure while the operation pedal 20a reciprocates the inside of the master cylinder 21a by a predetermined distance due to the load of the vehicle traveling on the road and the elasticity of the spring 19a. Various configurations including the operation pedal 20a capable of applying pressure to the working fluid 16a in the inside can be modified in various forms depending on the installation space or road conditions.

A connecting pipe connected to the inside of the master cylinder 21a is connected to the inside of the cylinder 22c so that the hydraulic fluid, that is, the applied working fluid 16a, can be discharged according to the up and down reciprocating motion of the operating pedal 20a. The working fluid 16a flows into the cylinder 22c. At this time, the release valve 18a is provided on the connecting pipe connecting the master cylinder 21a and the cylinder 22c so as to prevent the high pressure formed by the load of the vehicle from being suddenly applied to the cylinder 22c. The pressure reduction cylinder 17a for pressure reduction is connected to this release valve 18a.

In the cylinder 22c through which the working liquid 16a discharged through the connecting pipe from the master cylinder 21a flows in and out, the piston 23a is indented by a spring 24a, and the piston ( An end of the operating rod 25a coupled to one side of the 23a is connected to the compressor 29a, that is, one side of the piston 27a in the cylinder 26a, and the movement of the piston 23a reciprocating by hydraulic pressure. Energy is transmitted to the piston 27a through the operating rod 25a, so that the piston 27a also reciprocates, so that the high pressure air can be discharged through the outlet of the cylinder 26a.

Preferably, when the piston 27a is advanced to the compressor 29a, ie, the cylinder 26a, which discharges the high pressure air according to the reciprocating motion of the piston 27a, the air inside the cylinder 26a is compressed and connected through the connecting pipe. When the piston 27a moves backward, the piston 27a moves to the cylinder (26a) without affecting the compressed air stored in the storage tank without incurring a large force. 26a) A separate valve connected to the cylinder 26a may be mounted to reciprocate the inside.

Since the compressor 29a for discharging the high pressure air of the high pressure and the storage tank are connected to each other by a connection pipe, the high pressure air generated by the compressor 29a may be stored in one or more storage tanks 31. In this case, a check valve 30 is installed on the connection pipe connecting the compressor 29a and the storage tank to block the high pressure air stored in the storage tank 31 from being returned to the compressor 29a. In addition, the storage tank 31 is equipped with a drain valve 32 for forcibly discharging the compressed air introduced by a predetermined pressure or more by the operation of the compressor (29a).

Examples of the storage tank 31 are the same as in FIGS. 1A, 1B and 3.

In addition to the lever and the hydraulic pumping method described above, although not specifically illustrated in the drawings, a method using natural energy such as wind or waves may be used.

In this case, the former acquires the rotational force obtained from the wind generated naturally by the wind power generation method and transfers it to the rotary shaft pulley of the compressor described above in detail. It refers to a method of converting the reciprocating or rotational kinetic energy obtained from the potential energy by to obtain the rotational force and transfer it to the rotating shaft pulley of the compressor described above.

Therefore, by generating the high-pressure air by the kinetic energy obtained from the natural energy, such as wind or waves by the rotational force acquisition means can be used at any time even if the wind does not blow or waves are frequent.

As described above, various examples of electric power generating means for generating electricity by using high pressure air compressed and stored by natural energy such as kinetic energy or wind power and tidal force by a vehicle load will be described with reference to FIGS.

Among the various electric power generating means described above, the cylindrical electric power generating means is as shown in FIGS. 1A, 1B and 4A, 4B and 5.

First, the storage tank 31 and the pneumatic engine 33 are connected by a connection pipe for supply of high pressure air, so that the pneumatic engine 33 is driven by the high pressure air supplied from the storage tank 31. In this case, a check valve is provided on the connecting pipe connecting the storage tank 31 and the auxiliary cylinder 36 of the pneumatic engine 33, so that the high pressure air supplied to the auxiliary cylinder 36 of the pneumatic engine 33 is It can be blocked again flowing into the storage tank (31).

As the high pressure air is supplied into the cylinder 34, the pneumatic engine 33 has a piston 35 reciprocating inside the cylinder 34, and temporarily stores the high pressure air in the outer part of the cylinder 34. The auxiliary cylinder 36 is formed in a double, the cylinder 34 and the auxiliary cylinder 36 are connected to each other by an intermittent valve 37, the connecting rod connected to one side of the piston (35) 42 is connected to the crankshaft 41.

The pneumatic engine 33 is provided with two intermittent valves 37 for controlling high pressure air supplied into the cylinder 34 or high pressure air discharged from the cylinder 34. One of the valves 37 is an intermittent valve 37 for intermittently supplying the high pressure air in the auxiliary cylinder 36 into the cylinder 34 to be brought into contact with the cam 43 of the crankshaft 41. It is opened and closed by the lever 38 provided. That is, the intermittent valve 37 serves to push down the piston 35 which is opened when the piston 35 of the pneumatic engine 33 rises to a top dead center and descends by a predetermined distance.

The other valve is not shown in the figure, but it is for controlling high pressure air inside the cylinder 34 discharged to the outside, which is also opened and closed by a lever installed to abut the cam of the crankshaft 41. However, unlike the intermittent valve 37, when the piston 35 of the pneumatic engine 33 descends to the bottom dead center and starts to rise, the pressure applied to the piston 35 rising by the inertia of the flywheel 39a is applied. It serves to eliminate it. Of course, after the piston 35 has risen to the top dead center, that is, the intermittent valve 37 is opened, it must be kept closed while the high pressure air flows from the auxiliary cylinder 36.

The crankshaft 41 is continuously and stable on the crankshaft 41 which is fixed by the support shafts 40a and 40b so that the piston 35 can rotate as the piston 35 rotates by coupling with the connecting rod 42. One or more flywheels 39a and 39b are provided for rotation. Preferably, the conventional engine is configured to remove the dead point in the process of converting the reciprocating motion of the piston 35 into the rotational motion of the crankshaft 41 and to rotate the crankshaft 41 only in a predetermined direction. You can add components.

In addition, the crankshaft 41 is provided with a generator 44 for generating electricity by the rotational force of the crankshaft 41. Of course, the generator 41 may be directly coupled to the crankshaft 41, but after installing the generator 44 away from the crankshaft 41 by a predetermined distance, the power of the crankshaft 41 may be generated using a belt or the like. You can also forward it to (44).

In addition, in order to rotate (drive) the initial pneumatic engine 33, that is, the crankshaft 41, the crankshaft 41 must be turned by manual or separate power. To this end, the present invention is provided with a drive motor 45 connected to the crankshaft 41 directly or by a separate connection means.

Hereinafter, a process of generating high-pressure air and generating electricity by the electric power generating means as shown in FIG. 5 will be described with reference to FIGS. 1A and 1B to 3.

First, as the load of the vehicle traveling on the road is applied to the operation pedal 13, the operation pedal 13 repeatedly rotates a predetermined angle about the rotation axis 12, so that one side 10b of the operation lever 14 is provided. The guide 17 reciprocates up and down.

As the operation lever 14 reciprocating up and down repeatedly pushes up and down the end of the rotation lever 19, the rotation lever 19 repeatedly rotates a predetermined angle about the support shaft 18, while the operation lever 20 ) Up and down to repeat. Therefore, the flywheel 24 and the pulley 24 on the rotary shaft 25 and the rotary shaft 25 are rotated by the rotation of the operating lever 20.

As the rotational force of the pulley 24 is transmitted to the pulley 28 of the compressor 29 by the belt 27, high pressure air is generated by the driving of the compressor 29, which is connected to the storage tank 31 through a connecting pipe. Stored. The crank at the moment when the piston 35 of the pneumatic engine 33 is lowered by a predetermined distance from the top dead center due to the rotation of the crankshaft 41 due to the manual or driving of the driving motor 45. The intermittent valve 37 is opened by the cam 43 on the shaft 41 and is supplied into the cylinder 34 via the auxiliary cylinder 36.

When the piston 35, which has been lowered to the bottom dead center by the high pressure air supplied into the cylinder 34, starts to rise by the inertia force of the crankshaft 41 and the flywheels 39a and 39b coupled thereto, the crankshaft ( The high pressure air in the cylinder is discharged to the outside as the intermittent valve is opened by the cam on 41), and when the piston 35 is raised, the high pressure air in the cylinder 34 is not received.

As the rotational force of the crankshaft 41 rotating by the reciprocating motion of the pneumatic engine 33 is transmitted to the generator 44, the generator 44 generates electricity of a predetermined level.

In the above, the high-pressure air stored by the load of the vehicle traveling on the road has been described as an example. By operating the gears or driving the compressor to store high pressure air and use it to generate electricity, the same effect can be obtained without damaging nature.

Next, the electric power generating means of the screw system among the various electric power generating means is as shown in FIG.

First, a rotating shaft 57 having a screw 62 rotates in a cylinder 51 having an air outlet 60 which is open in one direction, that is, an air outlet 60 which is almost open for discharging high pressure air at once. It is built in to be possible.

The rotary shaft 57 is provided at both ends in the longitudinal direction of the cylinder 51 so as to be rotatable by the seal 54 and the bearing 55. Of course, the end of one direction is completely blocked, and the separate cover that supports the seal 54 and the bearing 55, the rotating shaft 57 is coupled. In addition, the other end is coupled to the cover which occupies the minimum space to the extent that only the seal 54, the bearing 55 and the rotating shaft 57 can be supported almost open at the end.

On one surface of the screw 62 in the cylinder 51, a plurality of protrusions 63 for maximizing friction with the high pressure air introduced from the outside are formed at regular intervals at right angles to the rotation shaft 57. In addition, the storage tank mentioned in FIGS. 1A, 1B to 3 and 4A and 4B is connected to one end of the cylinder 51, that is, the cylinder 51 closest to the end of the screw 62 to which the protrusion 63 faces. Nozzle 56 is provided for connection, the high pressure and high-pressure air supplied from the storage tank is injected to one side of the screw 62, that is, the screw 62 is formed with the projection (63) and the screw 62 and The rotating shaft 57 to which this screw 62 was fixed can be rotated.

On one side of the rotating shaft 57 extending to the outside of the cylinder 51, a generator 52 for generating electricity is provided. The other side of the rotary shaft 57 is coupled to the drive motor 59 for the initial drive of the rotary shaft 57. Here, the rotation shaft 57 and the drive motor 59 are connected by the drive gear 58 and the fly gear 61, which gives the inertia to the rotation shaft 61 and at the same time drive motor It serves to rotate the rotation shaft 57 even with a small force of (59).

Therefore, the high pressure air supplied from the storage tank is injected at a high pressure to one side of the screw 62 in which the protrusion 63 is formed through the nozzle 56 and then quickly discharged through the air outlet 60. The generator 52 is driven by the rotation of the rotary shaft 57 to generate electricity.

Finally, the electric power generating means of the vane pump type of the various electric power generating means is as shown in Figs.

First, the rotating shaft 71 is rotated in the cylindrical case 72 by the sealing plate 53 and the bearing 66 fixed while sealing both ends in the longitudinal direction of the cylindrical case 72. 64) and is rotatable.

At the center of the rotating shaft 71, that is, the center of the rotating shaft 71 supported by the two bearings 66 and the outer circumferential surface of the rotor 64 located in the case 72, as shown in FIG. The vane groove 50 is formed along the longitudinal direction of the plurality of rotation shafts 71 at a predetermined depth. And the vanes (73) are inserted into the vane groove (50), respectively, the vane (73) is a high pressure air introduced from the outside while repeating the inside and out of the vane groove (50) in accordance with the rotation of the rotor (64). Facing with

In this case 72, a cylinder 67 in which a plurality of air outlets 68 are formed in one direction while enclosing the rotor 64 and the vanes 73 is eccentrically embedded. At this time, the space between the cylinder 67 and the case 72 and the space between the cylinder 67 and the rotor 64 are arranged to be symmetrical to each other. In addition, an air hole 65 passing through the cylinder 67 and the sealing plate 53 is provided with a cylinder 67 so that the high pressure air supplied from the storage tank may flow into the space between the cylinder 67 and the case 72. It is formed in the sealing plate 53.

A driving motor 69 for initial driving of the rotating shaft 71 and a generator 46 for generating electricity are coupled to one of the rotating shafts 71 extending to the outside of the case 72. Here, the rotation shaft 71 and the drive motor 69 are connected by the drive gear 70 and the fly gear 47, which is inertial on the rotation shaft 71 and the rotor 64. At the same time it serves to rotate the rotating shaft 71 and the rotor 64 with a small force of the drive motor (69).

Therefore, the high pressure air supplied from the storage tank is injected into the space between the rotor 64 having the vanes 50 and the cylinder 67, the cylinder 67, and the case 72 through the air hole 65. Since it is quickly discharged through the air outlet that is not, the generator 46 is driven by the rotation of the rotor 64, that is, the rotary shaft 71 to generate electricity.

The high-pressure air compressed and stored in the storage tank located in the designated place in the above-described manner can be supplied not only for power generation but also to a house, a factory, or various facilities such as an apartment through a separate pipeline such as a city gas pipe.

Therefore, according to the device for storing high-pressure air for electric power generation using natural energy without damaging the nature of the present invention,

1. The present invention can store high pressure air for electric power generation without the use of fossil fuels such as coal, crude oil, uranium, etc. to reduce environmental pollution, and also to store the high pressure air obtained from irregularly generated natural energy in a large storage tank. It can be stored and used for electricity generation even when natural energy is not generated.

Although the present invention has been described in detail only with respect to the specific embodiments described, it will be apparent to those skilled in the art that various changes and modifications are possible within the technical scope of the present invention, and such modifications and modifications belong to the appended claims. .

1A and 1B are schematic diagrams showing one example of an apparatus for storing high pressure air for electric power generation using natural energy without damaging nature according to the present invention.

FIG. 2 is a diagram for explaining one example of energy conversion means in the apparatus of FIGS. 1A and 1B.

FIG. 3 is a view for explaining one example of power transmission means for power transmission in the apparatus of FIGS. 1A and 1B.

4A and 4B are schematic diagrams showing another example of an apparatus for storing high pressure air for electric power generation using natural energy without damaging nature according to the present invention.

5 to 8 are views for explaining various examples of electric power generation means in the apparatus of FIGS. 1A, 1B and 4A, 4B.

-Explanation of symbols for the main parts of the drawings-

11: road 12, 25, 57, 71: rotation axis

13, 20a: Operating pedal 14, 20: Operating lever

15, 19a, 24a: spring 16, 22a, 22b: support

16a: Fluid 17: Guide

17a: decompression cylinder 18, 40a, 40b: support shaft

18a: release valve 19: pivoting lever

21: one-way gear 21a: master cylinder

22c, 27a, 34, 51, 67: cylinder 23a, 26a: piston

23, 39a, 39b: flywheel 24, 28: pulley

25a: working rod 26a, 26b, 48, 55, 66: bearing

27: belt 28a: connecting pipe

29, 29a: compressor 30: check valve

31: storage tank 32: drain valve

33: pneumatic engine 35: piston

36: auxiliary cylinder 37: intermittent valve

38: lever 41: crankshaft

42: connecting rod 43: cam

44, 46, 52: generator 45, 59, 69: drive motor

47, 61: fryers 49, 53: sealing plate

50: vane home 54: seal

56: nozzle 58, 70: drive gear

60, 68: air outlet 62: screw

63: projection 64: rotor

65: air inlet 72: case

73: vane

Claims (8)

Rotational force acquiring means for acquiring rotational force by converting reciprocating or rotational kinetic energy obtained from potential energy due to rotational force obtained from naturally occurring wind or repeatedly generated water height difference; High-pressure air generating means including a compressor for generating high-pressure air as the rotational force obtained by the rotational force obtaining means is transmitted to the pulley of the compressor rotating shaft; And High pressure air storage means comprising one or more storage tanks for storing the high pressure air generated by the compressor; Is provided, a device for storing high-pressure air for electric power generation using natural energy without damaging the natural energy to generate and store high-pressure air by kinetic energy obtained from natural energy such as wind and waves. The method of claim 1, The rotational force acquisition means is a device for storing high pressure air for electric power generation using natural energy without damaging the nature, characterized in that for obtaining a rotational force by wind or tidal power generation. One side of the operating lever bent at right angles to the other side of the operation pedal is coupled to the operating pedal to rotate the operation pedal by a certain angle by the load of the traveling vehicle on the rotation axis disposed on the road perpendicular to the traveling direction of the vehicle Energy conversion means coupled to each other to rotate; The other side of the rotation lever coupled to the other side of the operating lever is coupled to reciprocate up and down by a guide, and coupled to the operating lever and rotatable at a predetermined angle about the support shaft is a fly A power transmission means hinged to an operating lever of the one-way gear on the rotating shaft having the wheel and the pulley; High pressure air generating means including a compressor coupled to the pulley and the belt coupled to the rotary shaft for generating high pressure air; And High pressure air storage means comprising one or more storage tanks for storing the high pressure air generated by the compressor; Apparatus for storing high pressure air for electric power generation using natural energy without damaging the nature, characterized in that it comprises a. The method of claim 3, And an energy conversion means, a power transmission means, and a high pressure air generating means. The apparatus for storing high pressure air for electric power generation using natural energy without damaging the nature. The master cylinder filled with the working fluid is embedded in the road where the wheels of the vehicle pass, and the operation pedal is moved inside the master cylinder by the load of the vehicle traveling on the road by the upper part of the operating pedal embedded in the state supported by the spring in the master cylinder. Hydraulic generating means installed higher than the road surface to reciprocate up and down; Energy transfer means coupled to the piston and the operating rod coupled thereto as the working fluid of the master cylinder flows into one side of the cylinder in which the piston supported by the spring is introduced; High pressure air generating means including a compressor configured to generate high pressure air while the piston connected to the working rod reciprocates inside the cylinder; And High pressure air storage means comprising one or more storage tanks for storing the high pressure air generated by the compressor; Apparatus for storing high pressure air for electric power generation using natural energy without damaging the nature, characterized in that it comprises a. The method of claim 5, A release valve is provided on a connection pipe connecting the master cylinder and the cylinder of the energy transmission means, and a pressure reducing cylinder is connected to the release valve. Device for storing the. The method of claim 5, Apparatus for storing high pressure air for electric power generation using natural energy without damaging the natural, characterized in that the hydraulic generating means, the energy transmission means and the high-pressure air generating means is a plurality. The method according to any one of claims 1 and 2 or 3, The storage tank of the high-pressure air storage means is provided with a drain valve for forcibly discharging the high-pressure air flowing into the predetermined pressure or more by the operation of the compressor high pressure for electric power generation using natural energy without damaging the nature Device for storing air.