WO2003098040A1

WO2003098040A1 - High efficiency power generating system

Info

Publication number: WO2003098040A1
Application number: PCT/KR2002/001241
Authority: WO
Inventors: Yun-Siek Choi
Original assignee: Yun-Siek Choi
Priority date: 2002-04-03
Filing date: 2002-06-28
Publication date: 2003-11-27
Also published as: KR20020038630A; AU2002345405A1

Abstract

This invention relates to a high efficiency power generating system. The system comprises a cylindrical member; a rod member passing through the cylindrical member, a one end thereof being bended and extended to an outer direction of the cylindrical member; an elastic member connecting the rod member with the cylindrical member; a plurality of magnetic member provided to both side of the rod member and transferring a predetermined magnetic force; and an electro switch applying repeatedly and selectively a current to the magnetic member. The rod member is continuously rotated by the magnetic force generated to the magnetic member from the selective current application of the electro switch, whereby the cylindrical member is rotated by a tension force generated from the elastic member.

Description

HIGH EFFICIENCY POWER GENERATING SYTEM

Technical Field

This invention relates to a high efficiency power

generating system, and more particularly to a high efficiency

power generating system for obtaining a high efficiency by

applying to an industrial field requiring a power.

Background Art

The human beings have made a development of the

civilization together with the changes of a power system.

They have developed new power systems and changed them

rapidly to use more than ever power efficiently.

For example, in the 17th century, a new power for pumping

out underground water of a mine has been requested as the coal

mining with a rapid development of industry. At that time, a

steam engine was appeared at the stage. The steam engine has

been rapidly improved from the late 17th century after Watt to

the early 18th.

In the 19th century, the steam engine was simply designed,

operated without a great trouble, treated easily, and improved

to a device made a great force. Thus, the steam engine was used for the power source in the various fields such as a mining

industry, spinning industry, and transportation.

At the present time, various power systems has been

appeared according to the power sources such as a steam power

generation using the coal, water-power generation using the

potential energy of water, and an atomic power generation using

nuclear fission. Further, the various systems has developed

continuously based on those the power sources.

Lately, a steam supply and power generation realizing

energy high efficiency have come into the spotlight.

This steam supply and power generation has a manner of

raising the efficiency using the total energy by progressing

simultaneously both a power generation and a steam supply.

For example, a power generator is driven by a steam turbine

in the steam power plant and a district heating is achieved using

the used steam of the turbine.

The steam supply and power generation is used widely in

the several cities of Europe, and the power plant provides home

with a electric power together with a steam for heating.

Such a case may be seen in the Seoul steam power plant having

an address at Dangin-dong, Mapo-gu, Seoul, in the Republic of

Korea. Except for that, individual or group in the 20 industrial organizations manages the steam supply and power generation, and

produces and uses steam requested in the factory together with

electricity. Further, some factories using a great amount of

steam manages the private steam power plant .

Meanwhile, a gas turbine except for the steam turbine is

often used. The heat discharging boiler is heated by the exhaust

gas from the gas turbine, and then generates steam to use cooling

and warming and power.

In case of general power plant (for example, a steam power

plant) , a power generation efficiency is 35 to 40%, a heat

efficiency is 0%, and total efficiency is 35 to 40%. However,

in case of the steam supply and power plant, power generation

efficiency is 30 to 45%, a heat efficiency is 45-50%, and total

efficiency is 75 to 85%.

Thus, the steam supply and power generation has advantages

in that it is economical since it may produce steam and heat at

considerably low cost, and it has a high efficiency with a

considerably small quantity of power.

Except for the above example, solar power generation comes

into the spotlight as a future substitution power system.

However, in case of present generation method, an

efficiency which may be obtained after inducing power source and generating heat and steam is considerable low.

As an example, a common point of the above generation method

is that a turbine must be driven to produce steam and electricity.

Here, the smooth driving of the turbine is directly connected

to a high efficiency.

However, it is actually almost impossible to generate

efficiency of 100 % with change of steam and heat up to drive

a turbine .

Further, there has been a problem in that the increase of

the prior power plant using steampower, water power, atomic power

or steam supply and power generation results in the contamination

of surrounding environment. That is, those prior power plants

are chief cause of environmental destruction generating a

pollution of the ecosystem and environment of the globe, a noise

pollution, etc.

For example, there have been problems in that, in case of

the water power plant, a natural environment should be submerged

under water to construct a dam, and, in case of steam power plant ,

the destruction and pollution of the environment are increased

due to excessive use of fossil fuel. Further, there has been

a radical problem in that, in case of an atomic power plant, an

ecosystem is destructed by an environmental pollution due to a great quantity of radioactivity.

Accordingly, the change from the present power generation

method and the simple power generation method to the power

generation method for creating high efficiency and intimating

with an environment has been continuously requested. This

invention has been made to meet such requests.

Disclosure of Invention

The invention relates to a high efficiency power generating

system for maximizing energy efficiency by applying to a turbine

of a steam power plant, a water power plant, or an atomic power

plant or the other driving system, decreasing the generation of

the polluted material by decreasing the energy consumption, and

preventing a damage to nature.

More specifically, the system according to the invention

comprises a cylindrical member; a rod member passing through the

cylindrical member, a one end thereof being bended and extended

to an outer direction of the cylindrical member; an elastic member

connecting the rod member with the cylindrical member; a

plurality of magnetic member provided to both side of the rod

member and transferring a predetermined magnetic force; and an

electro switch applying repeatedly and selectively a current to the magnetic member.

Preferably, the rod member is continuously rotated by the

magnetic force generated to the magnetic member from the

selective current application of the electro switch, whereby the

cylindrical member is rotated by a tension force generated from

the elastic member.

In the other view of the invention, the system according

to the invention comprises a first electric motor rotated by

receiving a predetermined an electric power; a first gear

provided to one side shaft of the first electric motor; a first

disc member provided to an end of a shaft positioned in the other

side of the first electric motor, the first disc member being

rotated in the same direction as that of the shaft of the first

electric motor; a second electric motor provided to a

corresponding shaft of the first electric motor; . a second gear

provided to one side shaft of the second electric motor; a second

disc member provided to an end of a shaft positioned in the other

side of the second electric motor, the second disc member being

rotated in the same direction as that of the shaft of the second

electric motor; and a timing belt connecting the first gear with

the second gear, the belt transferring a power transferred from

the first gear to the second gear. Preferably, the second gear has a fixing disc for eccentric

rotation having an outer surface thereof fixed integrally to the

shaft of the second electric motor, a rotating disc for holding

a spring, a rod member, and a gearing frame, in one side thereof.

Brief Description of Drawings

The above and other objects, features and advantages of

the invention will be apparent from the following detailed

description of the preferred embodiments of the invention in

conjunction with the accompanying drawings, in which:

Fig. 1 is a perspective view showing a first embodiment

of the high efficiency power generating system according to the

invention;

Fig. 2 is a side view of Fig. 1 ;

Fig. 3 is a side view showing schematically a second

embodiment of the high efficiency power generating system

according to the invention;

Fig. 4 is a side view showing schematically a third

embodiment of the high efficiency power generating system

according to the invention;

Fig. 5 is an elevation showing schematically a forth

embodiment of the high efficiency power generating system according to the invention;

Fig. 6 is an elevation showing schematically a fifth

embodiment of the high efficiency power generating system

according to the invention;

Fig. 7 is an elevation showing schematically a sixth

embodiment of the high efficiency power generating system

according to the invention;

Fig. 8 is an elevation showing schematically a seventh

embodiment of the high efficiency power generating system

according to the invention;

Fig. 9 is an elevation showing schematically an eighth

embodiment of the high efficiency power generating system

according to the invention;

Fig. 10 is a side view of Fig. 9;

Fig. 11 is an elevation showing schematically a ninth

embodiment of the high efficiency power generating system

according to the invention;

Fig. 12 is an elevation showing schematically a tenth

embodiment of the high efficiency power generating system

according to the invention;

Fig. 13 is a perspective view showing schematically an

eleventh embodiment of the high efficiency power generating system according to the invention;

Fig. 14 is an elevation showing schematically a twelfth

embodiment of the high efficiency power generating system

according to the invention;

Fig. 15 is an elevation showing schematically a thirteenth

embodiment of the high efficiency power generating system

according to the invention; and

Fig. 16 is an elevation showing schematically a fourteenth

embodiment of the high efficiency power generating system

according to the invention.

Best Mode for Carrying Out the Invention

Referring to Figs. 1 and 2, a high efficiency power

generating system 10 comprises a cylindrical member 1 having a

plurality of fixing weights 7 having a predetermined load in the

inner part or the outer part thereof, a rod member 2 passing

through the center of the cylindrical member 1 and bended and

extended to an outer direction of the cylindrical member 1, a

weight 3 provided to an end of the rod member 2 , an elastic member

4 provided elastically to one side of the rod member 2, and a

plurality of magnetic members 5 transferring a constant magnetic

force to the rod member 2. Specifically, the cylindrical member 1 may have a hollow

structure, but, in the invention, the cylindrical member 1 having

a solid structure is provided. The fixing weight 7 is provided

to an edge of the cylindrical member 1 as shown in Figs. 1 and

2.

The fixing weights 7 shown in Figs. 1 and 2 totals 4.

However, this is not limited to the above number, at least one

or more fixing weights may be provided. For example, the number

of the fixing weights 7 may be more than 4.

When the cylindrical member 1 is rotated, the fixing

weights 7 may have the cylindrical member 1 being rotated more

rapidly by increasing the centrifugal force of the cylindrical

member 1. Further, the fixing weights 7 serves to decrease the

load of a power generator itself due to the centrifugal force.

The rod member 2, as described on the above, has a first

bending part 2a, a second bending part 2b and a third bending

part 2c with passing through the center of the cylindrical member

1 and extending to the outer side direction of the cylindrical

member 1.

Referring to Fig. 1, the first bending part 2a is bended

in the direction of paralleling with a surface of the cylindrical

member 1. The second bending part 2b is bended in the direction perpendicular to the surface of the cylindrical member 1 in the

position extended to the outer side direction of the cylindrical

member 1 from the first bending part 2a. The third bending part

2c is extended from the second bending part 2b. The second

bending part 2b and the third bending part 2c are bended in the

position spaced with a predetermined distance, preferably

distance h corresponding to a third of a diameter of the circular

surface of the cylindrical member 1, from the edge of the

cylindrical member 2.

Preferably, the weight 3 provided to the end of the rod

member 2 may have a spherical shape. Alternatively, the weight

3 may have a plate shape or a polyhedral shape.

The rod member 2 passing through the cylindrical member

1 and drawn from it is pressed and fixed to the both side surface

of the cylindrical member 1 via a fixing bracket 6 not to departing

from the original position due to movement back and forth with

the cylindrical member 1 being rotated.

Further, a first fixing part la and a second part lb are

projected with spaced each other near the edge in a surface of

the cylindrical member 1. The elastic member 4 is joined to a

side surface of the first fixing part la, and the other side of

the elastic member 4 is fixed to the second bending part 2b with hung on the second bending part 2b.

The number of elastic member 4 may be 2. To do this, for

example, one side of each elastic member 4 may be fixed to the

first fixing part la and the second fixing part lb.

Alternatively, as shown Figs. 1 and 2, one of the first fixing

part la and the second fixing part lb may be joined to a par of

elastic members 4a, 4b.

According to the invention, the number of elastic member

is 2, but it is natural that the number of the elastic member

may be supplemented in order to provide more than great tension

force .

The elastic member 4 is installed with having a curved

structure on the cylindrical member 1. Preferably, the elastic

member 4 may be made of coil type steel.

A pair of magnetic members 5 is provided to both side of

the rod member 2 extended to the outer side form the edge of the

cylindrical member 1. The magnetic members 5 rotate the rod

member 2 and the weight 3 provided to the end of the rod member

5.

The both magnetic members 5 may be made of an electromagnet

or a permanent magnet . Alternatively, while one magnetic member

is made of an electromagnet, the other magnetic member is made of a permanent magnet .

Referring to Figs. 1 and 2, the magnetic members made of

electromagnets 5a, 5b are provided to both side of the rod member

2. Preferably, the rod member 2 and the weight 4 may be made

of a magnetic substance or a conductor, and they have the same

polarities as them of the electromagnets 5a, 5b, respectively,

so that the rod member 2 and the weight 4 may be rotated by the

both electromagnets 5a, 5b.

Further, a predetermined sensing means (not shown) such

as a position sensing sensor or a contact sensor may be installed

in one side of the rod member 2 to sense position or contact status

of the rod member 2 corresponding to the electromagnets 5a, 5b

when the rod member 2 is rotated. Each electromagnet 5a or 5b

may be connected with an electronic switch (not shown) for

alternatively providing a current with the electromagnet.

The operation of the invention will be given herein below.

To begin, a predetermined current is applied to the

electromagnet 5a by the electronic switch (not shown) . Thereby,

the rod member 2 and the weight 3 are rotated toward the

electromagnet 5b.

Then, the electronic switch cuts off the current applying to the electromagnet 5a, and it provides the current with the

other electromagnet 5b so that the rod member 2 and the weight

3 are rotated again toward the electromagnet 5b.

During that process, the elastic member 4 is actuated by

the movement of the rod member 2 and the weight 3 and the

cylindrical member 1 is rotated at a predetermined angle.

Meanwhile, the sensing means senses whether or not the rod

member 2 and the weight 3 is accessed or contact to each

electromagnet 5a or 5b, and transmits a predetermined signals

to the electronic switch to be possible to selectively provide

a current .

Therefore, since the electronic switch provides a current

selectively and continuously, each electromagnet 5a or 5b is

provided with the predetermined polarity alternatively.

Thereby, the rotating movement of the rod member 2 and the weight

3 may be repeated continuously.

Here, the fixing weights 7 provided to the side of the

cylindrical member 1 serves to increase the centrifugal force

the cylindrical member 1 itself. Further, the weight 3 provided

to the end of the rod member 2 also serves to increase the

centrifugal force the cylindrical member 1, and specifically,

it provides the cylindrical member 1 with the more rotating force by indirectly magnifying the centrifugal force the cylindrical

member 1.

Meanwhile, the more the load of the fixing weights 7 and

the weight 3 is increased, the faster the speed of the cylindrical

member 1 may become .

Accordingly, the high efficiency power generating system

10 of the invention is manufactured to get up speed to be requested

by being changed to a size, a load and a specification suitable

to the turbine of the power generator. Thus, the rotating

operation of the turbine may be maximized by applying the rotating

force generated from the cylindrical member 1 to the power

generator.

Fig. 3 is a side view showing schematically a second

embodiment of the high efficiency power generating system

according to the invention.

Referring to Fig. 3, the rod member 2 passing through the

center of the cylindrical member 1 and drawn to one side direction

of the cylindrical member 1 has the first bending part 2a and

the second bending part 2b. Further, as shown Fig. 1, the elastic

member 4 is fixed to the second bending part 2b with hung on the

second bending part 2b. Further, the rod member 2 drawn to the other side direction

of the cylindrical member 1 is bended and extended to the outer

side of the edge of the cylindrical member 1. The rod member

has the weight 3 as shown in Fig. 1 at the end thereof.

The magnetic member 5 made of an electromagnet is provide

in both side direction of the rod member 2 extended to the lower

direction of the outer side of the cylindrical member 1.

According to the operation of the second embodiment, if

the rod member 2 and the weight 3 positioned in the other side

of the cylindrical member 1 is operated by a counteraction force

of the magnetic member 5, the rod member 2 positioned in one side

of the cylindrical member 1 is linked to the elastic member 4,

and then the cylindrical member 1 begins to be rotated.

Fig. 4 is a side view showing schematically a third

embodiment of the high efficiency power generating system

according to the invention. According to the third embodiment

of the invention, the cylindrical member 1 is extended to one

side direction thereof to have more thickness.

According to the third embodiment, the more the thickness

of the cylindrical member 1 becomes, the more the load becomes.

Thus, the more the load of the cylindrical member 1 is increased, the more the rotating centrifugal force of the cylindrical member

1 is increased when the cylindrical member 1 is rotated.

Therefore, the more rotating force can be obtained due to

the increase of the centrifugal force of the cylindrical member

1. That is, the increase of the centrifugal force as a function

of the fixing weight 7 can be reinforced more than ever.

Fig. 5 is an elevation showing schematically a forth

embodiment of the high efficiency power generating system

according to the invention.

According to the forth embodiment of the invention, the

elastic member 4 is joined near the edge of the cylindrical member

1 to become eccentric. The elastic member 4 has a rod member 2

having "J." shape at one end thereof. The rod member 2 has a weight

9 having a semicircular shape at the center part of the lower

side thereof.

Specifically, it is preferable that the elastic member 4

is made of a coil spring.

The lower end of the rod member 2 extended from the elastic

member 4 is formed horizontally. The rod member 2 is provided

with weights 3, 3' at both end of the horizontal part thereof.

Further, the rod member 2 is provided with the weight 9 having a semicircular shape at the lower end of the horizontal part

thereof .

The electromagnets 5a, 5b are provided at both side of the

rod member 2, respectively. Alternatively, the electromagnets

5a, 5b may be provided at lower ends of the weights 3, 3',

respectively.

Here, the weight 9 having a semicircular shape is

positioned on the upper end of ground (not shown) or a horizontal

frame (not shown) .

The operation of the forth embodiment of the invention will

be given herein below.

To begin, a current is applied to the electromagnet 5a.

Then, the electromagnet 5a has a predetermined polarity, and the

rod member 2 is then pushed by a predetermined force. Thereby,

while the elastic member 4 is extended, the rod member is rotated

in one direction.

Here, a part receiving a counterpart force in the rod member

2 is a part integrally joined to the elastic member 4. The

horizontal part of the lower end of the rod member 2 is inclined

to one side by the weight 9 having a semicircular shape and the

weight 3 ' .

The rod member 2 pushed to one side is again rotated in reverse direction by a polarity of the electromagnet 5b. As

described in the first embodiment, the cylindrical member 1 is

rotated when the rod member 2 is rotated repeatedly by an

operation of the electronic switch.

Therefore, according to the fourth embodiment, the

cylindrical member 1 can be rotated in one direction even with

a little force by a repeating movement of the rod member 2 between

predetermined ranges, and an extension force or a contraction

force of the elastic member 4.

Fig. 6 is an elevation showing schematically a fifth

embodiment of the high efficiency power generating system

according to the invention.

According to the fifth embodiment of the invention, the

rod member 2 passes through the cylindrical member 1 and is drawn

in both directions from the cylindrical member 1. The rod member

2 drawn to the both directions is bended and extended to upper

and lower direction of the cylindrical member 1 with a length

shorter than the radius of the cylindrical member 1. The rod

member 2 has the weights 3, 3', and the weights 3, 3' are provided

to at the both ends of the rod member 2, respectively.

The elastic members 4a, 4b having a predetermined length are joined to the centers of the weights 3, 3', respectively.

The other respective end of the elastic members 4a, 4b is fixed

to the edge of the cylindrical member 1.

According to the fifth embodiment, if the rod member 2 is

rotated in one direction by a magnetic force of magnetic members

(not shown) positioned at both sides of the cylindrical member

1, the cylindrical member 1 can be rotated continuously. The fifth

embodiment has an advantage in that it has a comparably simple

constitution.

Fig. 7 is an elevation showing schematically a sixth

embodiment of the high efficiency power generating system

according to the invention.

The system according to the sixth embodiment of the

invention includes an inner cylindrical member 1 rotated to one

side direction, and an outer cylindrical memberl' rotated to the

other side direction with having the inner cylindrical member

1 built-in.

The inner cylindrical member 1 and the outer cylindrical

member 1' are connected each other by a plurality of elastic

member 4.

Further, the outer cylindrical member 1' is provided with a fixing weight 7. The fixing weight 7 serves to increase the

rotating speed of the outer cylindrical member 1'.

Alternatively, the constitution for increasing a weight of the

cylindrical member 1 it self is considerable in substitute for

the fixing weight 7.

If the outer cylindrical member 1' first starts rotation,

or the inner cylindrical member 1 first starts rotation, the

system has a advantage in that it generates an efficient rotating

force even with a little quantity of power.

In Fig. 7, an unexplained reference number "6" designates

a rod member.

Fig. 8 is an elevation showing schematically a seventh

embodiment of the high efficiency power generating system

according to the invention.

According to the seventh embodiment of the invention,

cylindrical members 1, 1' have gear teeth 8, 8' in the

circumference thereof, respectively, and they rotates with

engaged each other. That is, if one of the cylindrical members

1, 1' is rotated by receiving a power, the other cylindrical

member is rotated via the gear teeth.

Here, when one cylindrical member 1 is rotated, a plurality of elastic member 4 provided to the cylindrical members 1, 1'

servers to increase a momentary rotating force of the other

cylindrical member 1' . Fixing weights 7, 7' mounted to the both

cylindrical members 1, 1', respectively, serve to increase the

centrifugal force of the cylindrical members 1, 1' and make an

efficient rotating movement when the cylindrical members 1, 1'

are rotated.

In Fig. 8, unexplained reference number "4" designates a

elastic member. One end of the elastic member 4 is joined to

the center of the cylindrical member 1', and the other end of

the elastic member 4 is joined to the edge part of the other

cylindrical member 1.

Referring to Figs. 9 and 10, the high efficiency power

generating system 10' according to the other embodiment of the

invention comprises a first electric motor 21 rotated by

receiving a predetermined an electric power; a first gear 23

provided to one side shaft of the first electric motor 21; a first

disc member 25 provided to an end of a shaft 27 positioned in

the other side of the first electric motor 21, the first disc

member 25 being rotated in the same direction as that of the shaft

of the first electric motor 21; a second electric motor 22 generating high power as compared with the first electric motor

21, the second electric motor 22 not receiving the electric power; .

a second gear 24 provided to one side shaft of the second electric

motor 22; a second disc member 26 provided to an end of a shaft

positioned in the other side of the second electric motor 22,

the second disc member 26 being rotated in the same direction

as that of the shaft 28 of the second electric motor 22; and a

timing belt 29 connecting the first gear 21 with the second gear

23, the belt 29 transferring a power transferred from the first

gear 21 to the second gear 23.

Here, the first and second disc members 25, 26 are provided

with a plurality of fixing weight 37 at circumference surface

thereof to increase the centrifugal force.

The second gear 24 has a fixing disc 30 for eccentric

rotation in one side thereof, and an outer surface of the fixing

disc 30 is integrally to fix to the shaft 28 of the second electric

motor 22.

Further, the fixing disc 30 has a rotating disc 31 for holding an elastic member in one side thereof, and a center part of the rotating disc 31 is fixed integrally to the shaft 28 of the second electric motor 22.

The rotating disc 31 has a rod member 32 in one side thereof . The rod member 32 is fixed to the shaft 28 of the second electric motor 22 and has a plurality of bending parts. The rod member 32 is formed to be extended to one direction.

Preferably, the rod member 32 includes a first bending part 42 bended in a perpendicular lower direction to the shaft 28 of the second electric motor 22, and a second bending part 43 extended from the first bending part 42 and bended to form a step. The elastic member 38 is joined near the second bending part 43, and the other end of the elastic member 38 is joined to a projection 41 formed on the edge of the rotating disc 31. A gearing frame 35 having a ladder shape is formed in an

outer side of the fixing disc 30 to be linked to the fixing disc

30 and be rotated. One end of the gearing frame 35 is inserted

into a inserting member 36 provided to the lower end of the rod

member 32, and then fixed to the inserting member 36.

Further, upper ends of the gearing frame 35 are rotatably

hinged on a supporting frame 40 provided in a horizontal

direction.

Meanwhile, according to the high efficiency power

generating system shown in Figs. 9 and 10, if an electric power

is supplied to the second electric motor 22, the first electric

motor 21 can be driven. The electric motors 21, 22 may be

randomly corresponded to the first disc member 25 and the second

disc member 26. With reference to Figs. 9 and 10, the operation of the high

efficiency power generating system 10' according to the

invention will be given herein below.

To begin, a power is input to the first electric motor 21,

and then the shaft 27 of the first electric motor 21 is rotated.

If the shaft 27 of the electric motor 21 is rotated, the first

gear 23 is rotated.

While the first gear 23 is rotated, the timing belt 29 is

rotated in one direction. The timing belt 29 transfers a

rotation power to the second gear 24 of the second electric motor

22.

While the second gear 24 is rotated, the shaft 28 of the

second electric motor is rotated, and then the second electric

motor 28 begins to generate power. Here, the electric power is

not input to the second electric motor 22. That is, the second

electric motor 21 is rotated only the power of the first electric

motor 21.

Meanwhile, the fixing disc 30 integrally installed to the

shaft 27 of the second electric motor is provided as means for

obtaining the more efficiency by operating smoothly the rotating

movement of the second electric motor 22 more than ever. The fixing disc 30 is eccentrically rotated together with

the rotating movement of the second electric motor 27. The gearing

frame 35 provided to the outer side of the fixing disc 30 receives

a power by the eccentric rotation of the fixing disc 30.

Since the gearing frame 35 has a ladder shape, the fixing

disc 30 may be fitted into a space formed by the gearing frame

35. The gearing frame 30 fitted to the fixing disc 30 makes an

altering motion from side to side by the eccentric rotation of

the fixing disc 30.

Further, the rod member integrally fixed to the shaft 28

of the second electric motor aids the altering motion of the

gearing frame 35.

The rod member 32 makes an altering motion by operation

of the rotating disc 31 and the elastic member 38. Since the rod

member 32 has the same motion as the altering motion of the gearing

frame 35, the rod member 32 serves to maximize the operation

efficiency of the gearing frame 35.

Here, if the fixing disc 31 fixed to the shaft 28 of the

second electric motor is rotated smoothly by the altering motion

of the rod member 32 and the gearing frame 35, an efficiency for

generation of electric power can be maximized since each motive

power of the first electric motor 21 and the rotating disc can be simultaneously transferred to the second electric motor 22.

According to the system 10' of the invention, the first

and second disc members 25, 26 are provided on the shafts 27,

28 positioned in the other side of the first and second electric

motors 21, 22, respectively. A plurality of fixing weight 37 is

installed in the outer side of the rotating disc 31.

The rotating disc 31 is adopted in order to increase

centrifugal forces of the shafts 27, 28 and obtain high efficiency

by providing the backward extending shafts 27, 28, which are

generally not used, of the electric motors 21, 22 with the

rotating disc 31.

Further, gear trains (not shown) within the first and

second electric motors 21, 22 are adopted to maximize an

efficiency using a proper deceleration ratio of the gear train.

Further, the matter that the power is input to the first

electric motor 21 and the power is not input the second electric

motor 22 is adopted to maximize an efficiency considering that

the rotating force of the prior electric motor is lower in the

status of loading.

Fig. 11 is an elevation showing schematically a ninth

embodiment of the high efficiency power generating system according to the invention. According to the ninth embodiment

of the invention, the timing belt 20 of the eighth embodiment

Figs. 9 and 10 is substituted with a gear train 44.

If the timing belt 18 is changed into the gear train 44

as described on the above, the adjustment of the deceleration

ratio can be made easily, and the gear train 43 can transfer a

motive power safely as compared with the timing belt 29.

Fig. 12 is an elevation showing schematically a tenth

embodiment of the high efficiency power generating system

according to the invention.

According to the tenth embodiment of the invention, a

connecting rod 45 is linked with hinges 46, 47 between the first

disc member 25 of the first electric motor 21 and the inserting

member 36 positioned at the lower end of the gearing frame 35

based on the ninth embodiment in order to transfer a rotation

power .

That is, since the connecting rod 45 is rotated according

to the rotating direction of the first electric motor 21, the

connecting rod 45 serves to increase a rotating speed of the

gearing frame 35 hinged to the other end of the connecting rod

45. Therefore, the tenth embodiment provides the system 10'

for directly transferring the rotating power of the first

electric motor 21 to the gearing member 35 in order to transfer

a power more efficiently by the connecting structure shown in

Fig. 11.

Fig. 13 is an enlarged perspective view showing

schematically a part of an eleventh embodiment of the high

efficiency power generating system according to the invention.

The eleventh embodiment further has a disc member 25 that

is installed in the shaft drawn to one side of the first electric

motor 21 and has a plurality of through hole 46 at regular

intervals, including the constitution shown in Figs . 9 and 10.

Thus, since the disc member 25 is provide with the through

hole 46 within the scope to have little effect on the function

of the disc member 25, the cost of the disc member 25 may be

reduced.

Meanwhile, according to the eleventh embodiment, a power

may be obtained by rotating the first electric motor 21 with the

disc member 25 and the shaft 27 of the first electric motor fixing

integrally. Fig. 14 is an elevation showing schematically a twelfth

embodiment of the high efficiency power generating system

according to the invention;

According to the twelfth embodiment, a power of the fist

electric motor 21 is transferred to a third electric motor 22a

as well as the second electric motor 22.

Here, since the third electric motor 22 receives directly

the added power from the first and second electric motor 21, 22,

the amount of output may be generated more than ever.

If a forth motor, a fifth motor, etc. as well as the third

electric motor 22a are connected in succession like a method

disclosed in Fig. 14, the energy saving effect may be expected

more than ever even with a little energy supply.

This inventor tried to a various testing through a similar

model with a high efficiency power generating system 10 ' of Figs .

9 to 14, a data concerns of this was marked in the following

tables .

Firstly, tables 1 to 3 are for data to find effects of the

first and second disc members.

In the condition of the test, the first electric motor of

DC 700RPM/5.6A was used by the substitution of the first electric motor and the second electric motor was used of DC 1800RPM/14.4A

by the substitution of the second electric motor.

DC 12V battery for automobile in Input voltage source was

used total 6ea and 12V battery was additionally installed in any

increasing of an input voltage one by one.

In order to find a generating voltage, a power generator

was equipped of 1000RPM/105A 120V, the maximum torque ratio from

130RPM/13.5A 20V, general torque ratio.

And, the first electric motor is limited in the role of

only a simple driving, the comparativeness test was made between

the case of being equipped 7kg disc members in quantity of 6ea

(42kg) on the second electric motor shaft and of being equipped

disc members in quantity of 4ea (28kg) on the second electric

motor shaft .

The voltage and current values marked in the following

tables were measured by a measuring device usually used.

When a gear ratio of gear train within the first electric

motor is 1:2, table 1 shows that input currents A2 , A3 involved

by a real input voltage VI and generating voltages V2 , V3 were

compared .

[Table l]

When a gear ratio of gear train within the first electric

motor is 1:4, table 2 shows that input currents A2 , A3 involved

by a real input voltage VI and generating voltages V2 , V3 were

compared .

[Table 2]

When a gear ratio of gear train within the first electric

motor is 1:8, table 3 shows that input currents A2 , A3 involved

by a real input voltage VI and generating voltages V2 , V3 were

compared . [Table 3 ]

As you can understand from the above data of the tables

1, 2 and 3, when, on the whole, the gear ratio is same and the

actual input voltage VI is same, the generating voltage V3 in

case of 6 disc members is comparatively similar to the generating

voltage V2 in case of 4 disc members or generated more than that,

whereas the input current A3 in case of 4 disc members is consumed

comparatively smaller than the input current A2 in case of 6 disc

members .

For example, in case that the actual input voltage is 36V

(see table 3) when a gear ratio is 1:8, the generating voltage

(14.3 V) in case of 6 disc members is generated more than the

generating voltage (14.1V) in case of 4 disc members, and the

both is comparatively similar as described on the above, whereas

the input current (0.75A) in case of 6 disc members is consumed comparatively smaller than the input current (0.91A) in case of

4 disc members.

In view of the above data, upon addition of disc member,

the more the load of the disc members is heavy, the more small

an input current is consumed, thereby, the more generating

voltage is generated.

We can understand from the above table 1, 2, 3 that, if

an actual input voltage VI is same, the more deceleration ratio

of gear ratio is higher, that is, from 1:2 to 1:8, the more small

an input electric power A is consumed, thereby an efficiency of

a generating voltage V2 becomes higher.

Accordingly, higher efficiency can be obtained as compared

with the prior power system in case of applying the high

efficiency power generating system 10' according to the

invention in a whole industry.

And also, as you can understand in the above data, the

more good efficiency can be expected in case that the gear ratio

is adjusted in the rate of 1: 8 or more. Further, in this

invention, almost all gear deceleration ratio which can be

presently produced can be applied and used.

Meanwhile, the result is shown in the following table 4

when a reverse rotation is carried out from the above table 3 test conditions, that is, a gear ratio is in the rate of 8:1.

The test conditions of table 4 which become different as

compared with tables 1, 2 and 3 are data for finding a voltage

V4 generated by rotating the first electric motor shaft with the

rotating force of the second electric motor shaft after selecting

an electric motor having 4 disc members (28kg) on the second

electric motor shaft, and rotating the second electric motor

shaft by applying an input voltage VI to the second electric

motor .

[Table 4]

Table 4 shows that the efficiency of the input current A4

and the generating voltage V4 of the first electric motor

according to the actual input voltage VI input to the first

electric motor is much more higher than the above data in the

table 3.

If we see only the data of the table 4, we can understand

that the efficiency of gear ratio 8:1 is much more superior to gear ratio 1:8 and the efficiency is higher even when the system

of the invention is driven adversely.

There are thirteenth and fourteenth embodiments as

additional embodiment.

Fig. 15 is an elevation showing schematically a thirteenth

embodiment of the high efficiency power generating system

according to the invention.

The system 10' according to the thirteenth embodiment of

the invention comprises a first electric motor 21 rotated by

receiving a predetermined an electric power; a first gear 23

provided to one side shaft of the first electric motor 21 ; a second

electric motor 22 generating high power as compared with the first

electric motor 21, the second electric motor 22 not receiving

the electric power; a second gear 24 provided to one side shaft

of the second electric motor 22; and a gear train 44 transferring

a power transferred from the first gear 23 of the first electric

motor 21 to the second gear 24 of the second electric motor 22.

Additionally, shafts 27, 28 of the first and second

electric motors 21, 22 are provided with the first and second

disc members 25, 26, respectively.

However, in the thirteenth embodiment, the power generation is possible even if the first and second disc members

25, 26 are removed.

According to the thirteenth embodiment, a first

deceleration is carried out in a gear train (not shown) within

the fist electric motor 21, a second deceleration is carried out

in the gear train 44 before the rotating force is transferred

to the second electric motor 22.

The thirteenth embodiment is proposed based on the result

that, as known in the above Tables 1 to 3 , if the gear ratio is

adjusted in the rate of 1:8 or more, the more high efficiency

may be expected. A user may obtain a requisite power since the

first electric motor 21 is controlled so that the deceleration

ratio may be adjusted, and also the gear train 44 is adjusted

to adjust the deceleration ratio according to the number of teeth

of gear and the number of gear.

Further, in the thirteenth embodiment, the rotation may

be carried out in a regular direction or a reverse direction.

That is, an electric power may be input to the second electric

motor 22 , and a predetermined power may be obtained from the first

electric motor 21.

Fig. 16 is an elevation showing schematically a fourteenth

embodiment of the high efficiency power generating system according to the invention.

The fourteenth embodiment is used in order to obtain an

efficient power with only the second electric motor 22.

According to the embodiment, one side and the other side of a

connecting rod 35 are provided with weights 33 , 34, respectively.

Further, the center of the connecting rod 35 is connected with

the edge of a rotating disc 42 via an elastic member 38.

Preferably, a first weight 33 positioned at one side of

the connecting rod 35 has a little size and load as compared with

a second weight 34 positioned at the other side of the connection

rod 45.

The operation of the system according to the fourteenth

embodiment will be given herein below.

To begin, a predetermined electric power is input to the

second electric motor 22, and then the shaft 28 of the second

electric motor is rotated. At the same time, the connecting rod

35 makes an altering motion by a magnetic member (not shown)

installed in the side of the connecting rod 45.

Here, the connecting rod 35 makes an altering motion safely

more than ever by the weights 33, 34 having a different size and

load.

The rotating disc 31 integrally joined to the shaft 28 of the second electric motor 22 is continuously rotated by the

altering motion of the connecting rod 35. The second electric

motor 22 is able to make a high output more than ever by aid of

the rotating disc 31.

Meanwhile, though the connecting rod 35 is formed in one

direction as shown in Fig. 16, the connecting rod 35 may have

a cross shape to aid the second electric motor 22 through the

altering and rotating motions.

Industrial Applicability

The system of the invention is installed directly in the

turbine and a power generator used in the power plant, and

maximizes the efficiency of them.

For example, if the system of the invention is supplemented

to the turbine rotated by steam in the steam power plan, the water

power plant, and the atomic power plant, a high efficiency can

be obtained since a continuous rotating force can be obtained

even with an input of a very small quantity of power to the

turbine .

Further, if the system of the invention is applied to a

power generator of a large size or a power generator for home

use, thereby to rotate the electric motor, the more high efficiency can be obtained as compared with an energy consumed

to rotate the power generator.

Further, if the system of the invention is applied to a

driving device of an automobile or a ship of a larger size, there

are effects in that prior energy consumption in the automobile

and the ship is significantly decreased, and thus cutting down

expenses for energy.

Additionally, if the system of the invention is used in

the whole field of industry, the destruction of a natural

ecosystem and the environmental pollution may be protected

previously.

Further, due to an effect of the invention that maximizes

an efficiency of the turbine and the power generator, the prior

problem of the waterpower generation that a natural environment

should be submerged under water to construct a dam can be easily

solved.

Further, the prior problem of the steam power generation

that the destruction and pollution of the environment are

increased due to excessive use of a fossil fuel cab be solved.

Further, the prior problem of the atomic power generation

that the ecosystem is destructed by an environmental pollution

due to a great quantity of radioactivity can be solved.

Claims

1. A high efficiency power generating system

comprising :

a cylindrical member;

a rod member passing through the cylindrical member, an

one end thereof being bended and extended to an outer direction

of the cylindrical member;

an elastic member connecting the rod member with the

cylindrical member;

a plurality of magnetic member provided to both side of

the rod member and transferring a predetermined magnetic force;

and

an electro switch applying repeatedly and selectively a

current to the magnetic member;

the rod member being continuously rotated by the magnetic

force generated to the magnetic member from the selective current

application of the electro switch, whereby the cylindrical

member being rotated by a tension force generated from the elastic

member .

2. The system according to claim 1, wherein the

cylindrical member has a plurality of fixing weights having a predetermined load in the inner part or the outer part thereof.

3. The system according to claim 1, wherein the rod

member having a spherical weight in the end thereof.

4. The system according to claim 1, wherein the

cylindrical member has a plurality of fixing parts projected from

the outer edge thereof, the fixing parts being joined to one side

of the elastic member.

5. The system according to claim 1 , wherein the magnetic

member is made of an electromagnet.

6. The system according to claim 1, wherein the

cylindrical member has a fixing bracket banding together the rod

member on one side surface or both side surface thereof.

7. The system according to claim 1, wherein the rod

member is made of a magnetic substance or a conductor, the rod

member having the same polarity as that of the magnetic member.

8. The system according to claim 1, wherein the weight

is made of a magnetic substance or a conductor, the weight having

the same polarity as that of the magnetic member.

9. A high efficiency power generating system

comprising:

a first electric motor rotated by receiving a predetermined

an electric power; a first gear provided to one side shaft of the first electric

motor;

a first disc member provided to an end of a shaft positioned

in the other side of the first electric motor, the first disc

member being rotated in the same direction as that of the shaft

of the first electric motor;

a second electric motor provided to a corresponding shaft

of the first electric motor; .

a second gear provided to one side shaft of the second

electric motor;

a second disc member provided to an end of a shaft positioned

in the other side of the second electric motor, the second disc

member being rotated in the same direction as that of the shaft

of the second electric motor; and

a timing belt connecting the first gear with the second

gear, the belt transferring a power transferred from the first

gear to the second gear.

10. The system according to claim 9, wherein the second

gear has a fixing disc for eccentric rotation in one side thereof,

an outer surface of the fixing disc being integrally to the shaft

of the second electric motor.

11. The system according to claim 10, wherein the fixing disc has a rotating disc for holding an elastic member in one

side thereof, a center part of the rotating disc being fixed

integrally to the shaft of the second electric motor.

12. The system according to claim 11, wherein the

rotating disc has a rod member in one side thereof, the rod member

being fixed to the shaft of the second electric motor and having

a plurality of bending parts, the rod member being formed to be

extended to one direction.

13. The system according to claim 11, wherein the rod

member includes a first bending part bended perpendicularly to

the shaft of the second electric motor, and a second bending part

bended in the length direction extended from the first bending

part .

14. The system according to claim 10 or 12, wherein

further including a gearing frame having a ladder shape, the

gearing frame being formed in an outer side of the fixing disc

and rotated in the same radius as the movement radius of the fixing

disc when the fixing disc being rotated eccentrically, a lower

end of the center of the gearing member being inserted movably

into the rod member.

15. The system according to claim 14 , wherein the gearing

frame has a cylindrical inserting member, the inserting member being passed through the center thereof to insert the rod member.