JP2015218640A - Various energies conservation cycle combined machine - Google Patents

Abstract

PROBLEM TO BE SOLVED: To prevent a global warming, caused by large-scale tornado, for example, from occurring through application that a steam turbine power generation device utilizes stator blades, and a kinetic energy=mass×square of speed, i.e. a basic concept of physics.SOLUTION: This invention prevents global warming against increasing of a discharged amount 0 of CO2 and increasing 0 of sea water temperature under a world-wide scale by a technical concept in which all rotor blades are made under the best theory capable of utilizing a principle that is proportional to a formula of (mass×square of speed), opposite double-stage compressors connected liquid oxygen manufacturing machine + vertical all rotor blade steam water gravity turbines 11Z power generation is used, head drop manufacturing gravity power generation building and columnar pipes are also used as a large specific gravity substance lifter device 2F, reverse osmosis water 52D is injected by a lifting reservation large specific gravity substance accelerator machine 6W to the upper-most segment, reverse osmosis water 52D is injected and accelerated by supercritical pressure steam 5H to generate power at gravity acceleration speed in vacuum for getting magnification requiring experiment by a group of turbine blades 8F with power generation amount of 1800 multiplied by ten thousand of a final group of existing steam turbine blades with the same flow passage area, and remarkable global top-ranking permanent application profit rate by all confidential applications of all products and gloval top salary are attained.

Description

The technology field of ultra-high-speed kinetic energy utilization with no challenges is a treasure mountain, and all of the cast parts and machine tools become super large, making it impossible to challenge with existing equipment. Because it is a field, national cooperation such as Japan and the United States is necessary, and the economic growth strategy of developed countries has nothing but cooperation for the maximum profit margin of the enterprise, and by politicians and entrepreneurs of economic growth strategy with zero advantage such as imitation improvement The present invention that Japan sinking is considered to be a continuation of the invention is to contribute to the pumped-storage power generation similar to kinetic energy = mass × square of speed, and the invention to increase the income of victims is the most important for the reconstruction of the Great East Japan Earthquake. In order to improve labor efficiency by improving Japan's labor efficiency by neglecting inventions, clarifying the financial failure of Japan, such as the lowest in developed countries and a budget deficit of 1,000 trillion yen, and being dismissed by Korea and China. Profit margin with the following in mind There is no way other than manufacturing work with high cooperation value to the invention of the group, and this invention aiming for the greatest contribution in human history calls the Big Three to the White House three times a year during President Clinton's era and orders three years The unexplainable part of U.S. patents was found in the invention method of inventions that could not be manufactured and inventions with large profit margins, and reached this invention with the maximum comparative explanation ratio of superiority. Please do a basic experiment to avoid a Japanese deficit by avoiding trade deficits and hyperinflation by setting the budget deficit of 1,000 trillion yen to zero. The existing state-of-the-art science and technology does not use the kinetic energy of the physical foundation = proportional to the square of mass x speed, making it possible to put it into practical use, such as steam turbines. This is a great opportunity, and Japanese companies need the best strategy in the world to increase their salaries. Therefore, the national strategy and corporate strategy to reduce the electricity rate to only Japanese companies is the most important as an all-Japan strategy. The most important factor in the growth strategy is to execute a comparative explanation of the maximal explanation of the advantages. For existing thermal power generation and nuclear power generation, the seawater temperature is increased by adding all the heat generated, and the tornadoes, etc. are enlarged, and the Chinese economy There is a great risk of being unable to live in Japan beyond the US tornado due to the growth rate, population density, and topography, and power generation that minimizes seawater temperature rise as soon as possible is the most important. Pumping water that is proportional to the square of the speed is not used. When the water speed of electricity is Mach 1/7 to 1/5, if Mach 1 is set, the power generation energy = same water mass × 5 times the square of the speed = the same water mass 25 times the power generation amount. When using hydrogravity power generation with zero fuel cost, such as type full blade steam water gravity turbine 11Z, power generation of 25 times x 900 = same water mass 2500 times power generation of existing pumped power generation To increase the infinite amount of fuel and to generate zero fuel for all electric drives, and to prevent global warming when the seawater temperature rises to 0, the thermal power generation and nuclear power generation in the existing world are set to 0, the seawater temperature rises due to power generation, and the CO2 emissions are 0.

The best of renewable energy generation is gravity acceleration power generation in vacuum, which is a particularly important material, and when the space shuttle injection pressure 24MPa injection speed Mach 30 is water injection steam acceleration gravity acceleration, Mach 30 or higher is very easy but full motion Since the peripheral speed of each of the blade counter-rotating blades is close to Mach 30, and the rotation speed of each is 100,000 revolutions / minute, etc. In the manufacturing process, the existing steam turbine has about 20 stages of stationary blades that block the use of mass x speed, and the superheated steam speed is dammed about 20 times. The 90 ° reversal steam speed is 1/30, etc., making the steam turbine easy to manufacture, etc. Speed use of the Mach 30 etc. is expected to be very difficult due to vibrations, etc. By making the blade group 8G into one cast part, the resonance and vibration are minimized, such as 1/100 parts or less, and the counter rotation engine 10B, turbine blade grinding machine 10F, etc. Temporarily assembled separately for machining, and added zero vibration for ultra-high-speed balance adjustment processing with vertical lathe 10B for counter rotating engine. Aiming at rotational recording, the turbine blade group 8F angle is adjusted to aim at, for example, 1/5 turbine peripheral speed of the driving water speed, to investigate whether it is possible to use a water speed 10 times the peripheral speed by double reversal, etc. Various bearings 12C are provided at both ends of each of the shaft device 60A and the outer shaft device 60B, the inner shaft device 60A and the outer shaft device 60B are each temporarily assembled separately, and both ends of the vertical shaft lathe 10B for a counter rotating engine, etc. Holding with ultra high speed rotation balance adjustment processing The two-stage compression that requires experimentation is to be disassembled later to make this assembly, and an unprecedented inner shaft device 60A / cylindrical inner blade group 60C and outer shaft device 60B / cylindrical outer blade group 60D are double-inverted. Comparison of advantages required for experiments as various hydrogravity power generation, such as liquid oxygen production machine 89A + vertical type moving blade steam water gravity turbine 11Z, etc. Various energy conservation cycle coalescence engines and various energy conservation coalescence It relates to method technology.

In order to challenge the speed utilization of Mach 30, etc., which is difficult to manufacture, with the existing state-of-the-art science technology or simple money-making invention implementation, the adiabatic compression air temperature 20 ° C. is 13 times 260 ° C. with a compression ratio of 8. Is used as a liquid oxygen production machine 89A + vertical all-blade steam water gravity turbine 11Z power generation such as a two-stage opposed compressor 12Y connection, and is heated to 10 times the temperature by the solar heater 21. The air 28a is produced in the air compression process by the opposed two-stage compressor 12Y and the heat exchange supercritical pressure steam 5H is produced by the compressed air heat exchanger 2Y, and the supercritical pressure is produced by the compression air heat exchanger 2Y compression ratio 80 to 800. In the experiment of steam 5H production, the supercritical pressure steam 5H production volume is the same fuel amount 130-1300 times that of the existing boiler, and the infinite drop production drive such as vertical power blade steam water gravity turbine 11Z power generation is studied. Starting with the aim of Mach 30 speed for the production of reverse osmosis water 52D for the prevention of agent contamination, reverse osmosis water 52D injection + supercritical pressure water vapor 5H injection acceleration Mach 30 production + gravity acceleration in vacuum, the same volume Because it is around 20000 times as much as the mass of the steam driving the last stage blades of the existing steam turbine power generation, the superiority can be compared, and the same passage area is the same as the mass of 1/20000 capacity water of the last stage blade group of the existing steam turbines. The square of the speed = the turbine blade group 8F having the same mass 900 times the power generation amount, and the turbine blade group 8F in the 3000 rows with the head of 800 m is 900 times power generation × 3000 rows = 2700000 times power generation. Stage compressor 12Y connected liquid oxygen production machine 89A + vertical moving blade steam water gravity turbine 11Z power generation, etc. For practical possible like a proportional in use 0 approaching, experiments superiority comparison described magnification greatest need, to techniques for various energy conservation cycle combined engine and various energy conservation coalescence method.

  In 1917, he decided to make the biggest contribution in human history with the invention of a job engine at Mizushima Factory of Aircraft Works. Since there is a background and the economic growth strategy can be implemented and experimented with the detailed description of the contents, the maximum necessary part of the experiment is the space shuttle combustion chamber pressure of 22 to 25 MPa, the injection speed around Mach 30 is reached, and it reaches the space orbit However, the steam turbine for power generation can be put to practical use by repeating the 90-degree direction change by damming around 20 times with a stationary blade at a 24-MPa steam speed, and decelerating to a sonic speed. Will be steam at twice the injection speed of the same-pressure liquid hydrogen combustion gas, experiment is necessary, whether 80MPa steam production is possible and liquid hydrogen rocket combustion is also possible, etc. It requires the contents of economic growth strategy such as various experiments of all existing technologies, such as experiments and whether the supercritical pressure steam 5H injection can reduce the space arrival cost to 1 / 500,000. The curved piston engine was manufactured under contract by the Okayama Regional Invention Center, and the actual thing was seen, precious experience and study and the engine revolution was difficult, and the next invention was entered. The definition of an invention that can make a single contribution, and requests for cooperation from domestic companies, etc., and a comparative explanation of specific advantages by the 100% cooperation of three US patents three times a year in President Clinton Since the output of the hydroelectric generator is proportional to the cube of the rotational speed, the variable-speed motor is put into practical use and the output is super-high-speed rotation. Start with Since the kinetic energy of education television physics = proportional to the square of mass x velocity is used to the limit and the hydrogen container pressure of the fuel cell vehicle is 70 MPa, supercritical pressure steam 5H such as 80 MPa is injected. , Reverse osmosis water 52D acceleration earth escape speed Mach 32-80, etc. Infinite acceleration in vacuum, power generation by acceleration of gravity acceleration in vacuum However, since it is possible to put it to practical use by not using the proportionality of the mass × the square of the speed, a comparative experiment is necessary, and the opposed two-stage compressor 12Y-linked liquid oxygen producing machine 89A + saddle-type all blade steam water gravity With the experiment of power generation such as turbine 11Z, aiming at the world's best power generation with the highest profit rate, even if the experimental result is the same flow path area twice the amount of power generation, the global warming prevention revolution, the economic growth strategy revolution, There is a background technology that can aim to reduce Japan's budget deficit of 1000 trillion yen to 0 in a relatively short period of time, with the world's most eternal aim, etc. There are various techniques to bring the Mach 30 rotation speed close to 100,000 rotations / minute.

  In the manufacturing process, steam that greatly exceeds sonic speed drive, such as the existing thermal power generation steam turbine reversely sprays 90 degrees back and forth with stationary blades 90 degrees, enabling the practical use with a sonic speed of 1/30 or less. Turbine etc. are very difficult to manufacture and there are no long-term challenges. Because of the low pressure compression that repeatedly changes the direction of damming with a stationary blade, we conducted an experiment to determine whether it would be possible to achieve 10 times the compression pressure of an existing gas turbine by changing all blades to ultra-high speed counter-rotating compression. If it is a heavy reversing steam turbine, 30 times steam speed 900 times power generation amount 30 times peripheral speed 90000 revolutions / minute, etc. If continuous operation is not possible, increase power generation amount, reduce initial speed, and manufacture turbine blade group 8F angle For optimum peripheral speed The existing thermal cutting-edge thermal power generation boilers that are too negligible with no significant experimentation, such as experiments that reduce continuous operation, produce superheated steam by fuel injection combustion at atmospheric pressure, and generate electricity with a steam turbine Since the temperature rise in adiabatic compression is 260 ° C., which is 13 times the air temperature 20 ° C., the air 28a heated 10 times or more by the solar heater 21 is connected to the opposed two-stage compressor 12Y connected liquid oxygen. In the compression process with a compression ratio of 800 or the like by the manufacturing machine 89A, heat exchange cooling compression is performed by cooling by the outer compression blade group 53C that cools the reverse osmosis water 52D and by the inner compression blade group 53D, and heat exchange is performed by the compressed air heat exchanger 2Y. Therefore, when supercritical pressure steam 5H is produced, heat exchange is performed in the process where the combustion temperature becomes 1300 times x 10 times = 13000 times, and the supercritical pressure of the same fuel amount that requires experimentation is 13,000 times the calorific value of the existing boiler There is a background of the production volume of 5H steam, and the supercritical pressure steam 5H usage is for the first speed production of reverse osmosis water 52D. Japan's fiscal deficit of 1,000 trillion yen is relatively high due to the global warming prevention revolution that requires experimentation, the economic growth strategy revolution, and the world's most eternal aim of operating profit margins that are managed all over the world. There is background technology that can be aimed at zero in a short time.

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PCT International Application Publication No. There are applications of WO 2010/101017 PCT / JP2010 / 052171, and the filing date of Japanese Patent Application 2007-179204: July 9, 2007 to the filing date of Japanese Patent Application 2007-265115: October 11, 2007 No. 2008-006612 filing date: January 16, 2008 to No. 2008-327045 filing date: There are 45 applications from December 24, 2008, filing date of Japanese Patent Application No. 2009-011656: From January 22, 2009, the filing date of the Japanese Patent Application 2009-298004: There were 322 applications until December 28, 2009, and the filing date of the Japanese Patent Application 2010-000841: the Japanese Patent Application 2010 from January 6, 2010 -0332424 Submission date: There were 32 applications until February 18, 2010, and Japanese Patent Application No. 2011-055078 submission date: 2011 There are 22 applications from March 14th to the date of submission of the Japanese Patent Application 2011-267508 to December 7, 2011. The date of the submission of the Japanese Patent Application 2012-032245: : There are 29 applications until December 12, 2012, and the filing date of Japanese Patent Application No. 2013-7975: From January 21, 2013, the filing date of Japanese Patent Application No. 2013-250683: 30 pieces until December 4, 2013 There are four applications on January 15, 2014, from Japanese Patent Application No. 2014-4690 to Japanese Patent Application No. 2014-4719.

  Developed countries' economic growth strategy requires a maximal explanation of the comparative advantage of the contents, and the Abenomics economic growth strategy is expected to continue for 20 years without any content. There is nothing other than the poorest countries or economic failures in favor of developing countries such as the fifth, and a growth strategy that is not solid is a strategy that cannot be implemented or compared, and it is necessary to discuss the contents of economic growth. There is a fatal drawback, such as declining domestic power, accelerating hollowing out of Japan, and sinking in Japan, and the economic growth strategy has a comparative advantage of comparative explanation. Because the relationship is caused by the sinking of Japan such as the budget deficit, it is necessary and important to implement an invention that includes an outstanding economic growth strategy. Mass × square of velocity Proportional use, approaching zero, challenging manufacturing difficulties, mass rotor speed double-reversed available with zero speed reduction, liquid oxygen production machine 89A +, such as opposed two-stage compressor 12Y connection It is necessary to start from the manufacture of machine tools because there is no need to make various kinds of fuel costs 0 power generation, such as vertical all-blade steam water gravity turbine 11Z, etc. Comparison of superiority explanation In the opposed two-stage compressor 12Y-linked liquid oxygen producing machine 89A + saddle-type all blade steam water gravity turbine 11Z power generation utilizing the gravity acceleration of the vacuum with the maximum magnification, the power generation amount is the square of mass × speed. Therefore, it becomes a comparison with the last stage blade group of the highest-speed and high-vacuum existing thermal power generation steam turbine, and since the same flow area drive mass is about 1/20000 of water and the volume is about 20000 times that of water, 100% Mach 3 When the turbine blade group 8F stage of 30 times water speed is set to 20000 times mass x 30 times water speed square = 18000000 times power generation amount turbine blade group 8F, the design such as 1/100 volume water drive, etc. And the manufacturing method, and the existing thermal power generation and nuclear power generation will be completely abolished to prevent the enormous earthquake and tsunami and the tornado torrential rain. There is a challenge to prevent global warming, making it the best in the world for new employment.

Heating with solar heater 21 by opposed two-stage compressor 12Y is 10 times as various fuel cost generation of liquid oxygen production machine 89A + vertical type moving blade steam water gravity turbine 11Z etc., such as opposed two-stage compressor 12Y connection The air 28a that has reached the temperature or higher is subjected to double reverse compression at a very high speed, and the heat is exchanged in the compressed air heat exchanger 2Y as a reverse osmosis water 52D cooling blade heat exchange compression aiming at a compression ratio of 800. 1300 times calorific value x 10 times calorific value = 13000 times calorific value, supercritical pressure water vapor 5H production amount, rise and store with reverse osmosis water 52D at the top of gravity power generation building 12, reverse osmosis water 52D injection + supercritical pressure Water 52D Mach 32 production with steam 5H80MPa injection + gravity acceleration acceleration in vacuum, for example, 1/200 volume 100 times water of the same flow path area existing thermal power generation steam turbine final blade group Quantity × Mach 1 to Mach 32 speed square = 100 times to 102,400 times the turbine blade group 8F with a power generation amount, 3000m turbine blade group 8F with a drop of 800m, in the design and manufacturing process that requires experiments, By double reversal, it corresponds to twice the water speed, and by adding the design of the turbine blade group 8F angle, it corresponds to 10 times the water speed, and the turbine blade group 8F number is 1/3, and the number of parts is reduced to 1 part. 100 etc., 30 times water speed and resonance, aiming at minimum such as resonance, etc. By using various magnets such as opposed two-stage compressor 12Y and repulsive magnet, bearing load close to 0, and by adding 0 approach such as resonance and vibration, 30 times water speed or more The turbine blade group 8F of each stage is made as one cast part, and the fitting assembly portion 9M is processed by the vertical reversing engine 10B, and the turbine blade grinding machine 10F is used. Turbine In the group 8F processing, each end of each of the turbine blade group 8F and the outer shaft device is provided with various bearings 12C, and each of the inner shaft device 60A and the outer shaft device 60B is temporarily assembled separately, and both ends of each of the two ends are connected. Super-high speed rotation balance adjustment processing held by the vertical lathe 10B for heavy reversing engine, the balance processing is disassembled for use at a good rotation speed, and the seawater temperature of the global operation is secretly secret for all invention products. With zero rise in global warming prevention power generation, the world's most eternal operating profit rate, the world's best salary, and the world's newest employment, natural thermal power generation such as existing thermal power generation and nuclear power generation, which have poor power generation costs, The most effective prevention of global warming by preventing the earthquake tsunami and the tornado heavy rain.

The present invention is in the process of challenging the greatest contribution in human history in terms of profit rate, etc. If the Japanese government is trying to achieve a 100% eternal monopoly on a global scale, the effect of reducing the fiscal deficit of 1,000 trillion yen to less than 0 in a relatively short time Yes, if the US government leads the world-wide 100% eternal monopoly, it has the greatest effect of making all US government bonds equal to zero as the world's most profitable, and sinks in national and corporate strategies that do not cooperate with inventions with high profitability Abenomics salary increase and a 10% increase in consumption tax aiming for a virtuous cycle of the economy over the last 20 years, etc., are the worst policy against the inevitable phenomenon that prevented Japan from collapsing due to a gradual decrease in salary. There is a danger that the sinking of Japan will accelerate due to the reduction of corporate profits from the lowest level in the developed countries, and cooperation with the present invention of the Japanese government etc. is necessary as soon as possible. The If there is no content such as maximum advantage comparison explanation magnification in the national strategic special zone, the profit rate experiment is impossible, and if the profit rate is not a monopoly with a large profit rate, low labor cost implementation in developing countries is common sense Japan will continue to sink in Japan, so the national strategy of cooperating with the world's best invention in exchange for special zones, etc. has the great effect of leaving limited resources to the descendants, bearings such as opposed two-stage compressor 12Y coupling Various fuel costs such as liquid oxygen production machine 89A + vertical type moving blade steam water gravity turbine 11Z, which makes load 0 easy to approach, and power generation of the same flow path area is 900 times that of the existing steam turbine last stage blade group. Turbine blade group 8F, etc., aiming at generation cost 1/100, etc., has the effect of making the world's most eternal operating profit rate, the world's highest salary, and the world's newest employment, with poor performance or expensive existing thermal power generation And atoms Effect power generation and the like to natural selection is large, the effect of preventing most efficiently global warming.

Illustration of gravity power building 12 (Example 1) Explanatory drawing (Example 2) of the bearing 12C of a vertical all blade steam water gravity turbine 11Z Explanatory drawing of the turbine blade group 8F of the inner shaft device 60A and the outer shaft device 60B (Example 3) Explanatory drawing of bearing 12C of vertical type moving blade steam ratio critical material gravity turbine 11Y (Example 4) Explanatory drawing of horizontal type full-rotor blade steam water gravity turbine 11X series same rotation gear 4D (Example 5) Explanatory drawing of the horizontal type moving blade steam water gravity turbine 11X integrated turbine blade group 8G (Example 6) Explanatory drawing of the horizontal full-rotor blade steam ratio critical substance gravity turbine 11W series same rotation gear 4D (Example 7) Explanatory drawing of the horizontal type moving blade steam ratio significant substance gravity turbine 11W integrated turbine blade group 8G (Example 8) Explanatory drawing of liquid oxygen production machine 89A (Example 9) Explanatory drawing of the solar heater 21 (Example 10) Explanatory drawing of opposed two-stage compressor 12Y (Example 11)

If the vanes of existing steam turbines are completely abolished and changed to full blades, the steam speed will increase by 30 times, etc., so the existing state-of-the-art science and technology has left it difficult to challenge. The turbine blade group 8F that challenges the use of velocity energy has a cylindrical inner rotor blade group 60C turbine blade group 8F1 stage + a cylindrical outer rotor blade group 60D turbine blade group 8F2 stages, and has the smallest number of parts and vibration resonance 0 Corresponding to maximum speed energy utilization as approaching and bearing load approaching 0, each end is held by a vertical lathe 10B for counter rotating engine, and ultra high speed rotation balance adjustment processing is performed, and each has a rotation speed and peripheral speed with good balance rotation In the confirmation, for example, the turbine blade group 8F is checked by a balance experiment, such as whether the maximum speed water drive such as the Mach 30 is possible, and the vertical type moving blade steam water gravity turbine 11Z or the vertical type using the maximum speed energy is confirmed. It is used for the design and manufacture of the moving blade steam ratio critical material gravity turbine 11Y, and the experiment result of utilizing the optimum speed energy by increasing the number of stages to the optimum number of stages, and the vertical all-rotor steam water gravity turbine 11Z and vertical all The integrated turbine blade group 8G, which is used for the design and manufacture of the moving blade steam ratio critical material gravity turbine 11Y and similarly challenges the maximum peripheral speed drive recording, is the minimum length, the size of the two rotating parts, the strength, and the vibration resonance approaching zero The bearing load is close to 0, both ends are held by a counter rotating engine lathe 10C, and ultra-high speed rotation balance adjustment processing is performed. We challenged the drive record, confirmed the experimental results of various speeds that increased the length several times and decelerated to the optimum use peripheral speed several times, and confirmed that the horizontal all blade steam ratio critical material gravity turbine 11W and the horizontal all blade steam Water gravity turbi 11X was designed and manufactured, and in this assembly experiment, a liquid oxygen production machine 89A having a compression ratio of 800 or the like with an opposed two-stage compressor 12Y was produced, and 80 MPa supercritical pressure steam 5H was produced by fuel injection combustion with the compressed air heat exchanger 2Y. Then, the reverse osmosis water 52D is injected by Mach 2 or the like at the initial speed production unit 6a such as the vertical all blade steam water gravity turbine 11Z, and is accelerated to Mach 30 by injecting supercritical pressure steam 5H such as 80 MPa. The experiment was carried out by accelerating by gravity acceleration in a vacuum and driving at a water speed around Mach 32 to reach a circumferential speed around Mach 3. Similarly, in the horizontal type full-blade steam water gravity turbine 11X, water around Mach 32 Experiments on whether or not it can be driven at a speed around the peripheral speed Mach 32, etc., whether the amount of power generation is proportional to the square of the water speed or specific material speed, or whether the amount of power generation is proportional to the cube of the rotational speed, etc. In the experiment An embodiment of the invention based on the experimental results is made.

FIG. 9 liquid oxygen producing machine 89A + saddle-type full-blade steam water gravity turbine 11Z power generation, etc., such as the two-stage compressor 12Y connection shown in FIG. Basically, the kinetic energy is proportional to the square of mass × speed, and the input / output of the hydroelectric generator is proportional to the cube of the number of revolutions. Explain, for example, the advantage comparison explanation magnification is the same flow path area and the same water mass power generation amount, and the existing thermal power generation steam turbine final blade group steam volume is 1/20000 volume of the same water mass x 30 times the speed squared = 900 The turbine blade group 8F has a double power generation amount, a 3000-stage turbine blade group 8F = 900 times × 3000 stages = 2700000 times the power generation amount with a drop of 800 m, and a liquid oxygen generation amount of 2.7 million times that of the steam turbine final blade group. 9A + vertical type moving blade steam water gravity turbine 11Z power generation such as 11Z power generation, and as a gravity power generation building 12 that needs to be confirmed by various experimental results, the column is a column pipe 12B and a significant substance rising device 2F, and reverse osmosis water In the process of ascending and storing 52D at the top, the diameter of the column pipe 12B is enlarged to make it a sturdy column, and the pumping power is reduced at a low speed rising speed during practical use, and the square flange 12D is fitted to the steel frame 12A in the joint. The gravitational power generation building 12 is composed of the steel pipe 12A and the upper and lower ends of the steel frame 12A are bolted and assembled to the square flange 12D. Used as ascending device 2F, reverse osmosis water 52D of water 3E and various specific critical substances 2E are stored at the top, sprayed with reverse osmosis water 52D when specific critical substance accelerator 6W is opened, and specific critical substance accelerator 6W Accelerate to Mach 30 etc. by releasing 80MPa supercritical pressure steam 5H, and generate electricity with gravitational acceleration while raising the degree of vacuum. Various energy storage cycle coalescence engine power generation and coalescence method power generation.

Since the design and manufacture of the vertical all-blade steam water gravity turbine 11Z power generation in FIG. 2 is proportional to the kinetic energy of the power generation amount = the mass × the square of the speed, the power generation amount approaches 0 when dammed with a stationary blade. There is no configuration other than all rotor blades, etc. There are no machine tools, no difficulty in manufacturing, no challenges, no turbine challenge, turbine blade group 8F angle by double reversal of all rotor blades compatible with heavy-weight linear ultra-high speed injection With the addition of the design, the water speed is 2 × 10 times, the turbine blade group 8F number is 1/3 or less, and the casting area is 3 times or more, etc., and the number of parts is 1/100 or less. By using a variety of magnets such as water speed and resonance, or by using various magnets to make the bearing load close to zero, and by adding zero approach such as resonance and vibration, driving at 30 times the water speed or aiming for zero vibration Each turbine blade group 8F is one cast part, and one cast part per paragraph. The inner shaft device 60A turbine blade group 8F has one stage and the outer shaft device 60B turbine blade group 8F has two stages for maximum speed drive. Correspondingly, the inner shaft device 60A turbine blade group 8F has two or more stages and the outer shaft device 60B turbine blade group 8F has three or more stages to support optimum speed driving, and is fitted and assembled by a vertical lathe 10B for counter rotating engine. As part 9M processing, etc., turbine blade group 8F is processed by turbine blade grinding machine 10F, and various bearings 12C are provided at both ends of turbine blade group 8F / outer shaft device 60B, etc., and inner shaft device 60A and outer shaft device 60B. Each is temporarily assembled separately, and both ends are held by a counter-rotating engine vertical lathe 10B. As an ultra-high speed rotation balance adjustment process, it is disassembled as an experiment of design and manufacture at a peripheral speed and rotation speed with good balance processing. Assembled, same flow path area 1/220000 volume of existing steam turbine last stage blade group Same water mass x 30 times speed squared = 900 times Advantage of power generation comparison Comparison explanation The turbine blade group 8F with a magnification of 3000 m The staged turbine blade group 8F power generation is 900 times the amount of power generation of the last stage blade group of the existing steam turbine x 3000 stages = 2700000 times the amount of power generation. Aiming for the best in the world, there are no precedents in machine tools and processing methods, and it is expected that challenges will be very difficult, but treasure is concentrated in difficult production areas and expected improvement invention infinity challenge, experiment is necessary The world's best global warming prevention with the highest operating profit rate, making all the products a top-secret manufacturing, top-secret operation, top secret improvement invention To, and to a variety of energy storage cycle combined combustion generators and coalescence method of power generation.

The turbine blade group 8F of each of the cylinder inner blade group 60C and turbine blade group 8F and inner shaft device 60A in FIG. 3 and the cylindrical outer blade group 60D and the turbine blade group 8F and outer shaft device 60B is injected with reverse osmosis water 52D. + 80MPa supercritical pressure water vapor 5H injection Mach 34, etc. Water velocity production + Electric power generation at gravity acceleration in vacuum, pumping input of power generation input has been in practical use for several decades, so research used supercritical pressure water vapor 5H production such as 80MPa Concentrating on power generation, etc., the supercritical pressure steam 5H Mach 34, etc. water speed production use will be 30 times the water speed use of the existing steam turbine power generation, about 20000 times the mass drive of the sonic drive partial drive mass of the existing steam turbine power generation Therefore, in addition to the fact that the amount of power generation due to the increase in mass approaches 20000 times, the power generation amount becomes 900 times with 30 times speed drive, and there is no design and manufacture with no existing technology. The amount of power generation due to the increase or decrease in the degree of vacuum is enormous, so the experimental research on whether high vacuum is possible at low temperatures, such as 20 ° C or less, is the most important, such as experimental research on the supercritical pressure steam 5H injection temperature. Compared to the advantage comparison explanation of the ratio, the part that can calculate the magnification is superheated steam 5H production heat amount and use heat amount, air heated to 200 ° C. by the solar heater 21 of FIG. 10 is compressed heat production by liquid oxygen production machine 89A In the case of the electric drive fuel cost 0, the advantage comparison explanation magnification of the production heat amount = compression ratio 800 = the same fuel amount 13,000 times the supercritical pressure steam 5H production heat amount of the existing boiler, and the advantage comparison explanation magnification of the use heat amount = super Because the amount of heat used by the critical pressure steam 5H is for water speed production, the fuel cost is 0 power generation, the power generation input becomes extremely small, and the power generation output approaches 2.7 million times. Since the profit margin preeminent world is expected by the Advanced Science and Technology, and the most important top-secret manufacturing top-secret operation secret improvement invention.

In the manufacturing process, it is necessary to conduct experiments that allow almost no machine tool to be possible. However, the outer rotor blade 60d outer inlet blade 60e turbine blade group 8F and inner rotor blade 60c inner inlet blade 60f turbine blade group 8F and outer rotor blade Blade 60d outer intermediate blade 60g turbine blade group 8F, inner blade 60c inner blade 60h turbine blade group 8F, outer blade 60d outer intermediate blade 60g turbine blade group 8F, inner blade 60c inner outlet blade 60j turbine blade group 8F And the outer rotor blade 60d, the outer outlet blade 60k, the turbine blade group 8F, etc., are each processed by the vertical lathe 10B for counter rotating engine, and each turbine blade group 8F is processed by the turbine blade grinding machine 10F. The inner shaft device 60A and the outer shaft device 60B are respectively provided with bearings 12C at both ends, and are temporarily assembled into a fitting assembly portion 9M, and each end is held by a counter rotating lathe 10B for super reversing engine. As an experiment of design and manufacture at a peripheral speed and rotation speed with good balance processing, shift to disassembly and assembling as an experiment, and an attractive electromagnet permanent magnet 9C and a counter-electromagnetic permanent magnet 9B are provided to reduce the load on the bearing 12C to zero. Then, the bearing load is close to 0 and the number of parts is minimized, so that the maximum rotation speed is maximized. The number of stages of the turbine blade group 8F is increased or decreased to cope with vibrations and resonances. The generator 1 is provided on the horizontal axis 1h as a set of resonance and vibration aimed at the maximum number of rotations and double-reversed by the counter-rotating magnetic device 85 or the counter-rotating gear device 85Y. The generator 1 power generation is a large number of vertical all-steamed steam water gravity turbine 11Z power generation, the uppermost one set is one set for initial speed production, and the others are all damaged by the same earthquake etc. Make a large number of groups, drop 500-800 Aiming to make the largest contribution in the history of mankind with the largest salary in the world that requires experimentation and a large increase in employment, and to increase power generation at zero fuel cost with the most advanced science and technology without any significant experiment as a great opportunity, the best in the world Various energy conservation cycle coalescence engine power generation and coalescence method power generation, which are converted to gravity-based power generation in vacuum for global warming prevention power generation.

4 is a kinetic energy power generation using a supercritical pressure steam 5H production injection by a liquid oxygen production machine 89A such as a concatenated two-stage compressor 12Y connected as zero fuel cost power generation. Weight = proportional to mass × speed squared is the most important + all blades aiming at ultra-high speed rotation, bearing load 0 approaching anti-generator permanent magnet 9B and attracting electromagnet permanent magnet 9C equipped with vibration approaching 0 approach, gravity A head that accelerates gravity acceleration in vacuum by the power generation building 12 is manufactured, and the optimum height of the floor in accordance with the height of the column tube 12B and the height of the horizontal axis 1h provided with the generator 1 is significant compared with the column tube 12B. The material riser 2F stores and saves the critical material at the top with a variable speed motor, and the pumping input is proportional to the third power of the rotational speed. Jetting material , The initial speed production unit 6a ratio critical substance accelerator 6W is opened, supercritical pressure water vapor 5H such as 80 MPa is injected, accelerated to Mach 30 and the like, and driven by the counter-rotating turbine blade group 8F with gravitational acceleration while the degree of vacuum is rising. In the calculation of linear acceleration at Mach 30, the same water mass as the existing pumped power generation Mach 30 ÷ 1/5 = 150 times the water speed, 150 times × 150 times = 22500 times the power generation amount, after subtracting the input and unexpected Experiment, aiming at 1000 times the amount of power generated, the cylinder inner rotor blade group 60C and the cylinder outer rotor blade group 60D are driven in a double reversal to make a full rotor blade double reversal compatible with heavy-weight linear ultra-high speed injection, respectively. The cylinder inner rotor blade group 60C / inner shaft device 60A and the cylindrical outer rotor blade group 60D / outer shaft device 60B, which are double-reversed, are manufactured in the same manner as in FIG. Can be machined, resonance and vibration Corresponding to 0 approaching ultra-high speed rotation, the inner shaft device 60A turbine blade group 8F has one stage and the outer shaft device 60B turbine blade group 8F has two stages, corresponding to the maximum speed drive, and the inner shaft device 60A turbine blade group. 8F has two or more stages and the outer shaft device 60B turbine blade group 8F has three or more stages to support optimum speed driving, and each end has optimum bearings 12C, respectively, and is separately designed for a counter rotating engine. Manufactured with a lathe 10B and a turbine blade grinding machine 10F, and after each temporary assembly, the ultra-high-speed balance adjustment processing is made good with the vertical turning lathe 10B for counter rotating engine, and the balance processing is designed with good peripheral speed and rotation speed. As a manufacturing experiment, disassembled and assembled into a completely new ultra-large machine tool manufacturing, one vertical type full-blade steam ratio critical material gravity turbine with multiple to many pairs that are double-reversed on the horizontal axis 1h 11Y, The same amount of pumped water with the same head Double the existing pumped-storage power generation requires a revolutionary experiment that requires a 1000-fold power generation target. The state-of-the-art science and technology, which has no important experiments, is a great opportunity to increase the power generation amount at zero fuel cost. The most important is the top-secret manufacturing, top-secret operation improvement technology, making it the world's most profitable and world warming-preventing power generation using various types of gravity in vacuum.

The horizontal full-blade steam water gravity turbine 11X in FIG. 5 is produced at the initial speed by the supercritical pressure steam 5H production injection initial speed production unit 6a by the electrically driven liquid oxygen production machine 89A such as the opposed two-stage compressor 12Y connection, and the fuel cost. As zero power generation, the hydroelectric generator input / output is proportional to the cube of the rotation speed, but the most important + total moving blade ultra high speed rotation peripheral speed recording aim, counter bearing permanent magnet 9B and attracting electromagnet permanent magnet 9C aiming at bearing load approaching 0 The gravity power generation building 12 produces a head that accelerates gravitational acceleration in the vacuum, and the optimum height of the floor according to the height of the column 12B and the horizontal axis 16A equipped with the generator 1 As a matter of course, the reverse osmosis water 52D is stored at the top by a variable speed motor by the column pipe 12B and the ratio critical substance riser 2F, and the pumping input is proportional to the third power of the rotational speed. At 6W The permeated water 52D is injected under pressure, accelerated to the Mach 30 or the like at the supercritical pressure water vapor 5H injection speed of the initial speed production unit 6a, and driven by the integrated turbine blade group 8G peripheral speed Mach 30 or the like with the gravitational acceleration during the increase in the degree of vacuum. In the calculation of linear acceleration at Mach 30, the same water mass as the existing pumped power generation Mach 30 ÷ 1/5 = 150 times the water speed, 150 times × 150 times = the same water mass The current pumped power generation is 22,500 times the power generation amount, Aiming at 1000 times the necessary power generation after subtracting unexpected values such as input and speed, etc., it is set as an integrated turbine blade group 8G compatible with large mass linear ultra high speed injection, and each of them rotates at super high speed and aims at peripheral speed Mach 30 Each end is provided with an optimum bearing 12C, and each is separately manufactured with a counter rotating engine lathe 10C and a turbine blade grinding machine 10F, and each counter rotating engine lathe is separately assembled after the main assembly. 10 As a result of design and manufacturing experiments with good peripheral speed and rotation speed, the balance ultra-high-speed balance adjustment processing is improved. Manufacture one horizontal full-swing steam water gravity turbine 11X with multiple to many coupled drives, aiming for 1000 times the amount of power generation that requires experimentation with a double revolution of existing pumped power generation with the same pumping amount and the same head Taking advantage of cutting-edge science and technology with no experiments, increasing the amount of power generation with zero fuel cost, making it the world's most profitable and global warming-preventing power generation using gravity in vacuum. As the most important, various energy storage cycle coalescence engine power generation and coalescence method power generation are adopted.

In the manufacturing process of the integrated turbine blade group 8G in FIG. 5 as a turbine blade group 8G, as an experiment aiming at the resonance minimum corresponding to the maximum high-speed specific material speed maximum speed with the maximum outer diameter minimum length of 1.5 m or less, The most important thing is that the hydro generator output is proportional to the cube of the number of revolutions, with 6m or more being the experiment corresponding to the super high speed water speed No. 3 and the outer diameter intermediate length being the experiment corresponding to the super high speed water speed No. 2. It requires experiments to determine whether the amount of power generation is proportional to the cube of the rotational speed or the square of the rotational speed, and requires various treasure hunt research and challenges such as research on the maximum rotational speed in a vacuum in the best environment. It has a horizontal shaft 16A with bearings 12C on both ends of the group 8G1 parts, and it can handle the maximum driving water speed by making the rotating part one part, or can support super high speed peripheral speeds such as Mach 30 as two parts or three parts, etc. In this experiment, vibration and resonance are zero with the minimum number of parts. Nearly aiming, anti-generator permanent magnet 9B is provided at the bottom, and attraction electromagnet permanent magnet 9C is provided at the top, bearing load and vibration are brought close to 0, and the amount of power generation is the cube of the rotational speed as ultra-high speed rotation such as 100,000 rotations. In the manufacturing process, only the external machining is performed for the integrated turbine blade group 8G1 part, and the inside, outside, both ends, etc. are machined for the counter rotating engine 10C in the case of two parts or three parts, The turbine blades etc. on the outer periphery of the integrated turbine blade group 8G are processed by a turbine blade grinding machine 10F, the bearings 12C at both ends are held by a counter rotating machine lathe 10C, and an ultra-high speed rotation balance adjustment process is performed to achieve a good balance process. A series of multiple turbines that challenge the ultra-high-speed peripheral speed Mach 30 and the like, with the bearings 12C and the generator 1 provided on the horizontal shafts 16A and the like at both ends, respectively, as experiments in design and manufacture at a peripheral speed and rotational speed. Wing group G equipped, the top one set is the first speed production one set, horizontal all-stained-blade steam water gravity turbine 11X that requires experimentation is set to zero power generation, aiming for a drop of 500-800m, the best salary in the world and employment It will be the largest contribution in the ever-increasing human history, and the combination of various energy conservation cycle combined engine power generation and combined method power generation, which will be the world's best global warming prevention with the highest profit rate.

The horizontal full rotor blade steam ratio critical material gravity turbine 11W in FIG. 7 is produced by supercritical pressure steam 5H by an electrically driven liquid oxygen production machine 89A such as an opposing two-stage compressor 12Y connection, and produced at an initial speed by an initial speed production section 6a injection. However, as power generation with zero fuel cost, the input / output of the hydroelectric generator is proportional to the cube of the number of revolutions. 9C is made close to vibration, etc., 0, and a gravitational power generation building 12 produces a head that accelerates gravitational acceleration in a vacuum, and has a floor height that matches the height of the column tube 12B and the horizontal axis 16A equipped with the generator 1. As the optimum height, the reverse osmosis water 52D, the specific critical substance, etc. are stored at the top by the variable speed motor etc. by the column pipe 12B and specific critical substance rising device 2F, and the pumping input is proportional to the cube of the rotational speed. Correspondingly, Gravity acceleration while increasing the degree of vacuum by injecting various critical substances with reverse osmosis water 52D, etc. with the critical substance accelerator 6W and accelerating to the supercritical pressure water vapor 5H injection speed of 80MPa, etc. at the initial speed production unit 6a to Mach 30 In the calculation of linear acceleration at Mach 30, the same water mass Mach 30 ÷ 1/5 = 150 times faster than the existing pumped power generation, 150 times × 150 times = same water mass Existing pumped water Aiming at a power generation amount of 2500 times that of power generation, and a power generation amount after subtracting unexpected inputs and speeds, etc., to a power generation amount of 1000 times that requires experimentation, an integrated turbine blade group 8G compatible with high-mass linear ultra-high speed injection, Rotating at high speed and aiming at the peripheral speed Mach 30, each end is provided with an optimum bearing 12C, and separately manufactured with a counter rotating engine lathe 10C and a turbine blade grinding machine 10F. Separately after this assembly, it is held by the counter rotating engine lathe 10C, and the super high speed balance adjustment processing is made good, and as an experiment of design and manufacture at the peripheral speed and rotation speed with good balance processing, a completely new super large size used in the gravity power generation building 12 Machine tool manufacturing process, a single horizontal full-rotor blade steam ratio critical material gravity turbine 11W is manufactured with a series of multiple rotating gears 4D connected in series, and the same pumping amount is the same head with twice the existing pumping power generation Aiming at 1000 times the amount of power generation that requires experimentation, taking the state-of-the-art science and technology without any important experiments as a great opportunity, increasing the amount of power generation at zero fuel cost, the world's most profitable and various types of global warming prevention power generation The top secret manufacturing and top secret improvement invention that makes gravity power generation in vacuum is the most important, and various energy storage cycle coalescence engine power generation and coalescence method power generation.

In the manufacturing process of the integrated turbine blade group 8G in FIG. 7 as shown in FIG. 6, as in the case of FIG. The hydrodynamic generator I / O is the number of revolutions, with the minimum diameter maximum length of 6m or more as the experiment corresponding to the super high speed specific material speed No. 3 and the intermediate diameter of the outer diameter as the experiment corresponding to the ultra high speed specific material speed No. 2 The most important and input is the end of practical use, and it is necessary to experiment whether the amount of power generation is proportional to the third power of the rotation speed or the second power, and the maximum rotation speed in the vacuum of the best environment It requires various treasure hunt research and challenges such as peripheral speed research, and has a horizontal shaft 16A provided with bearings 12C on both ends of the integral turbine blade group 8G1 parts, and the rotating part is made into one part. Correspondence, Mach 30 etc. as 2 parts or 3 parts Experimenting whether high-speed peripheral speed can be supported, etc., aiming at zero approach of vibration and resonance with the minimum number of parts, equipped with anti-generator permanent magnet 9B in the lower part and attracted electromagnet permanent magnet 9C in the upper part, bearing load and vibration Experimenting whether the power generation amount is proportional to the cube of the rotational speed and the peripheral speed as an ultra-high speed rotation such as 100,000 rotations, etc., in the manufacturing process, only the external machining or two parts in the integrated turbine blade group 8G1 part in the manufacturing process In the case of three parts, the lathe 10C is machined inside, outside, both ends, etc., and the turbine blades on the outer periphery of the integrated turbine blade group 8G are machined into the grinding blade 10F for the turbine blades. It is held by a counter rotating engine lathe 10C, and is adjusted for ultra-high speed rotation balance, and is designed to be used as a design / production experiment with good peripheral speed and rotation speed. 12C Each generator 1 is equipped with a plurality of multiple turbine blade groups 8G that challenge the ultra-high-speed peripheral speed Mach 30 and the like, and the uppermost set is one set for initial speed production, and experiments are required. Horizontal all-blade steam ratio critical material gravity turbine 11W Fuel cost 0 power generation, aiming for a drop of 500-800m, making the largest contribution in the history of mankind with the world's highest salary and employment, and the world's most profitable prevention of global warming Various energy storage cycle coalescence engine power generation and coalescence method power generation.

The liquid oxygen production machine 89A in FIG. 9 produces and injects supercritical pressure steam 5H for power generation at a fuel cost of 0 as an electric drive, and produces by-product liquid oxygen, liquid nitrogen, etc. by various power generation at a fuel cost of 0 Then, the simple compressor 3s shown in the figure is replaced with the opposing two-stage compressor 12Y shown in FIG. + The air turbine 3t is driven, and the air 28a heated to 10 times the temperature 200 ° C or the like by the solar heater 21 in FIG. 10 is compressed by the reverse osmosis water 52D cooling compressor blades of the opposed two-stage compressor 12Y, The reverse osmosis water 52D is heated by the compression blade group 53D outer compression blade group 53C in the process of making the compression ratio 800, etc., and the supercritical pressure water vapor 5H is prepared in the production process of the ultrahigh pressure compressed air 28a. Compressed air heat Heat exchanger 2Y supercritical pressure steam pipe 5H is long, heat is produced by supercritical pressure steam 5H such as 80MPa with a single-stage compressor, and the two-stage compressor is cooled by low-temperature air heat exchanger 2W reverse osmosis water 52D Preparation of supercritical pressure steam 5H production, and in the low-temperature air heat exchanger 2W, the low-temperature alcohol 52C of the air turbine 3t exhaust cooling is cooled to the low-temperature compressed air 28a, and the liquid oxygen 5K and liquid nitrogen 5L separated by the turbine centrifugal force, etc. Is used for cooling, the alcohol pipe 52C is cooled by cooling, and the low temperature alcohol 52C is cooled, the exhaust temperature of the air turbine 3t is driven to around −270 ° C., and liquid oxygen 5K and liquid nitrogen 5L are adjusted in accordance with the liquefaction temperature in the process of adiabatic expansion driving. Is sprayed to the outer periphery, divided into parts from the lower periphery of each paragraph, and recovered with liquid oxygen 5K, liquid nitrogen 5L, etc. L is appropriately set as the air turbine 3t heat exchange exhaust, the heat exchange alcohol 52C is set to around −100 ° C. with the alcohol pipe 52C, the alcohol pipe 52C is extended to the low temperature air heat exchanger 2W, and the compressed air 28a is cooled with the low temperature compressed air 28a As a heat supply equipment 3D such as liquid oxygen 5K + liquid nitrogen 5L mass production, liquid oxygen 5K + liquid nitrogen 5L + supercritical pressure steam 5H, the inner compression blade group 53D, the inner output blade group 53B and the inner shaft device 60A, The outer compression blade group 53C and the outer output blade group 53A / outer shaft device 60B are provided with bearings 12C at the optimum positions at both ends, respectively, and the counter rotating engine lathe 10C, the compression blade grinding machine 10D, and the output blade are separately provided. Manufactured by the grinding machine 10E, and temporarily assembled into the fitting assembly 9M screw assembly screw fixing and press-fitting screw fixing, respectively, and both on the counter rotating engine lathe 10C. Ultra-high-speed rotation of the inner shaft device 60A and the outer shaft device 60B, which are end-supported ultra-high-speed rotation balance adjustment processing and disassembled and assembled as a good balance, is produced, and supercritical pressure steam 5H is produced by the opposed two-stage compressor 12Y. Therefore, the top secret manufacturing and top secret operation invention is the most important, and the liquid oxygen producing machine 89A is used.

In the process of design and manufacturing, it is possible to process by making one cast part per stage, and the inner compression blade and output blade are one-stage blade and the outer compression blade and output blade corresponding to ultra high speed rotation with resonance and zero vibration approach. Is equipped with two stages and supports maximum speed drive. Inner compressor blades and output blades are equipped with two or more stage blades, and outer compressor blades and output blades are equipped with three or more stages and support optimum speed drive. With an easy bearing load of 0 and low-temperature compressed air 28a, liquid oxygen production machine 89A + vertical type moving blade steam water gravity turbine 11Z and other fuel costs 0 power generation, etc. As a heat supply facility 3D, supercritical pressure water vapor 5H to high temperature water 52b is injected into methane hydrate under the seabed or permafrost, similar to US shale gas recovery device + Japan methane recovery device, supercritical pressure water vapor 5H to high temperature water 52b methane high An extra large transparent conical enclosure is provided that recovers with methane gas injected into the rate, cools with 5 liters of liquid nitrogen and recovers with liquid methane, and vaporizes and recovers the methane hydrate injected into the methane hydrate under the permafrost land. Vaporized methane is recovered from the top, cooled with 5 L of liquid nitrogen, recovered and stored in liquid methane, stored in an ultra-large greenhouse with many water droplets heated by sunlight or high-temperature water 52b, and the outside air and blocked methane fungus methane Research on production volume, research on grazing in greenhouse pastures with lots of sunlight, and experiments on whether zero imported fuel is possible, such as mass production of liquid methane that increases greenhouse pastures, and on experiments such as mass production of beef In the hydrogen production for driving a fuel cell vehicle, a vertical all blade steam water gravity turbine 11 that produces hydrogen by electrolysis of ultra-low cost water and supplies it to the fuel cell vehicle as the cheapest hydrogen production To equal various fuel costs 0 Power + liquid oxygen production unit 89A.

Since the heat production of the solar heater 21 of FIG. 10 compresses the air temperature of 20 ° C. and becomes 13 times 260 ° C. with a compression ratio of 8, for example, in the opposed two-stage compressor 12Y of the liquid oxygen production machine 89A, The air 28a heated to 10 times the temperature by the light heater 21 is aimed at a compression ratio of 800, heat exchange compression is performed by the opposed two-stage compressor 12Y water-cooled compression blade 53C, and heat exchange is performed by the compressed air heat exchanger 2Y. Supercritical pressure water vapor 5H is manufactured, and the experiment of supercritical pressure water vapor 5H production of 13000 times the amount of heat at atmospheric temperature with zero fuel cost electricity generation electric drive, reverse osmosis water 52D suction injection acceleration with 80MPa supercritical pressure water vapor 5H injection is accelerated Then, the vertical all-blade steam water gravity turbine 11Z is driven, and the same water mass × 30 times the speed squared = 900 times power generation with the same flow path area as 1/20000 volume of the existing steam turbine final blade group. Fuel consumption In the case of driving turbine blade group 8F and driving liquid oxygen producing machine 89A in FIG. 9, supercritical pressure water vapor 5H warm temperature + liquid air 28a cold production supply supply of electricity + liquid air cold heat + hot water 52b isothermal heat supply equipment 3D The solar heater 21 is provided with buoyancy on the surface of the water or a circular railroad on the flat ground, and the solar light is rotated at right angles from the east to the west. The solar heater 21 is provided with a rotation support portion 4f and provided with a gear device 4d and a roller 4e. It is a device that controls rotation at right angles in the east and west directions by using buoyancy and circular railway, and it is a device that maximizes the air temperature in the heat absorption pipe 4H that aims at the maximum amount of heat storage heat by controlling sunlight in two directions at right angles. The sunlight with the maximum heat amount is collected linearly by the rectangular long lens 2d, the temperature of the internal air passage 28A air 28a is maximized near the focal length, and the temperature of the external air passage 28A air 28a is also increased. The entire lens material can be used as a rectangular long lens 2d extending linearly in cross section of the lens, and the heat insulating material 2c such as foamed plastic is surrounded by a cylindrical rotating portion 77G as a long cylinder such as a cylinder. The lens 2d is sealed with a joint 80A + fastener 80B, and the upper part is an external air path 28A and the heat absorption pipe 4H is an internal air path 28A.

The opposed two-stage compressor 12Y connected to the liquid oxygen 89A shown in FIG. 11 facilitates the approach to the thrust bearing 0 by balancing the compression thrust by optimizing the compression. The repulsion magnet 9b and the attraction magnet 9c can handle ultra-high-speed rotation when the bearing load is close to 0, and can be machined by making one cast part per stage. Is equipped with two stages of outer compressor blades 53C for maximum speed drive, inner compressor blade group 53D has more than two stages, and outer compressor blade group 53C has more than three stages for optimum speed drive. The bearings 12C are provided at both ends of the inner shaft device 60A / inner compression blade group 53D + outer shaft device 60B / outer compression blade group 53C. Screw assembly fixed and fitted separately Temporarily assembled to mating and fixing, etc., held at both ends by a counter rotating machine lathe 10C, disassembled as a good balance adjustment, such as an ultra-high speed rotation balance adjustment process, and double as the opposed two-stage compressor 12Y to be assembled By the reversal magnetic device 85 to the reversing gear device 85Y, the inner shaft device 60A + the outer shaft device 60B are double-reversed and driven by the inner compression blade group 53D + the outer compression blade group 53C as a large number of reverse osmosis water 52D cooling compression blades. Then, the air 28a sucked from the inlet outer box nozzle 6G is made into the opposite compression of the linear cooling compression, the bearing load to be added to the magnetic utilization is brought close to 0, and the opposite two-stage compressor 12Y is made into the opposite linear cooling compression of the ultra high speed counter rotation. , Aiming at a compression ratio of 800, supply to the compressed air heat exchanger 2Y, heat exchange with the supercritical pressure steam pipe 5H, and produce supercritical pressure steam 5H with 1300 times the heat of the atmospheric temperature at zero fuel cost It aimed to the comparative experiment between the drive input power Zendotsubasa counterrotating compression, to opposite two-stage compressor 12Y.

All of the invention implementations that can make money easily with existing state-of-the-art science and technology, all the engines that are used by damming with a stationary blade and decelerating, and there are no engine inventions that require ultra-high-speed rotation balance adjustment processing. Use kinetic energy = proportional to the square of mass × speed. Because all of the stationary blades close to 0 are used, the advantage comparison explanation of various power generations such as the vertical type moving blade steam water gravity turbine 11Z is the same as the existing thermal power generation steam. There is a possibility that the power generation amount of the turbine last blade group will be a little closer to 18 million times, there is a possibility that the existing thermal power generation and nuclear power generation will naturally occur, and solar power generation and wind power generation may also become zero sequentially.

0: Advantage comparison explanation magnification (required magnification of experiment) 0: Various energy storage cycle coalescence engine (various heat energy is used as heat temperature by compression heat recovery heat production with heat pump, gravitational energy rise storage gravity in vacuum 1) Generator, 1c: Liquid fuel, 1e: Factory power generation, 1f: Horizontal shaft bearing 0 approach (horizontal shaft bearing + thrust bearing + electromagnet, etc.) 1h: Horizontal axis (axis that alternates rotation direction of outer shaft device and inner shaft device) 1A: Storage battery, 1D: Fuel injection pump, 1H: In-house power generation, 1K: Liquid fuel control valve, 1L: High-pressure fuel heating pipe, 2A: heat-resistant material, 2C: 1 to multi-stage compression heat recovery device (heat energy is air temperature, heat pump is used to recover heat multiple times with a compression heat exchanger, and the rest is hot 50 + liquid cold heat 2 2W: Low-temperature air heat exchanger 2Y: Compressed air heat exchanger (high-pressure air 28a cold heat + superheated steam 50 heat production) 2b: Low water resistance (high speed of air, combustion gas, superheated steam, etc. on the bottom of the ship) 2c: Insulating material, 2d: Long lens (Convex lens cross-section is extended into a rectangular shape, the longest focal length is achieved by multiple use) 2E: Specific material (including alloy, platinum) Sphere, gold sphere, tungsten alloy powder sintered sphere, silver sphere, copper sphere, tin sphere, lead sphere, zinc sphere, aluminum sphere, indium, cadmium, gallium, thallium, bismuth, etc. In the method, the impact energy decreases as the diameter decreases. For example, molten steel is injected into the atmosphere, and high-speed collision pulverization and air cooling water cooling is used to produce ultra-small diameter steel balls. 2E: Specific critical substances (silicon resin coating and Coated platinum alloy balls, coated gold alloy balls, coated tungsten alloy powder sintered balls, coated silver alloy balls, coated bismuth alloy balls, coated copper alloy balls, coated tin alloy balls, coated lead alloy balls, coated zinc alloy balls 3d: Combined turbine, 3e: Two-stage compressor, 3s: Simple compressor, 3u: Turbine, 3D: Electric heat supply equipment, 3E: Specific critical substances (specific gravity of liquid such as mercury and water at room temperature) 3E: Specific critical material (low-melting-point low-temperature liquid and stable high-temperature liquid alloy) 3Q: Theoretical expansion engine (best aim by Boyle's law) 3R: Theoretical gas turbine, 3S: Theoretical steam turbine, 3T: Theoretical gas compressor, 3U: Theoretical turbine, 4C: Opposing synchronous gear, 4D: In-line co-rotating gear, 4H: Heat absorption tube (long-lens 2d collects sunlight into heat absorption tube in a straight line 4J: Storage battery drive wheel, 4L: Theoretical expansion engine vehicle, 4M: Theoretical turbine vehicle, 4Q: Theoretical combustion chamber (theoretical air-fuel ratio combustion in the production of superheated steam) 4T: axial flow counter-rotating compressor, 4V: axial flow counter-rotating turbine, 4d: gear unit, 4e: roller, 4f: rotation support Part, 5: air injection nozzle, 5b: compressed air passage, 5G: steam heating pipe, 5G: water pipe, 5H: supercritical pressure steam, 5H: supercritical pressure steam pipe, 5J: compressed air superheated pipe, 5K: liquid oxygen 5L: liquid nitrogen chamber, 5L: liquid nitrogen, 5M: high pressure high temperature combustion chamber, 5Q: high pressure high temperature water control valve, 5S: compressed air heating pipe, 5V: compressed air control valve, 5Z: water pump, 6: top 6a: Superheated steam rocket injection port (injection port that can be back-injected depending on the application) 6B: Compressed air injection nozzle, 6F: Water injection nozzle, 6G: Outer box injection port, 6H: Drain pipe, 6W : Specific critical material accelerator, 6X: Fuel injection nozzle, 6Y: Combustion gas injection nozzle, 6Z: Steam injection nozzle, 6a: Initial speed production section, 7A: Propeller, 7B: Rotary blade, 7C: Screw, 8a: Turbine blade, 8d: Upper expansion blade group, 8e: Lower expansion blade group, 8f: Assembly turbine blade group, 8g: Upper compression blade group, 8h: Lower compression blade group, 8j: Assembly compression blade group, 8k: Inner compression blade ( 8m: Outer compression blade (equipped with both-side center support outer shaft device), 8n: Inner output blade (equipped with both-side center support inner shaft device), 8p: Outer output blade (middle of both sides) 8q: Inner compression blade (compression blade with angle and curve according to rotational speed and circumferential speed, and rotation radius double reversal) 8r: Outer compression blade (angle according to rotation speed and peripheral speed) 8s: Inner output blade (angle, curve and rotation radius according to rotation speed and peripheral speed), 8t: Outer output blade (rotation speed) 8F: Turbine blade group (kinetic energy = mass × speed squared in proportion to square) 8G: Integrated turbine blade group (variable speed generator motor changes variable speed with constant frequency AC, and input / output changes in proportion to the cube of the number of revolutions) 9B: Counter-generator permanent magnet, 9C: Attracting electromagnet permanent magnet, 9D: Pneumatic part, 9E: Pneumatic part, 9M: Mating assembly part, 9Q: Vertical Parallel plate, 9b: Upper suction lower repulsion magnet, 9c: Attraction magnet, 9d: Repulsion magnet, 10B: Vertical lathe for counter rotating engine, 10C: Lathe for counter rotating engine, 10D: Grinding machine for compression blade, 10E : Grinding machine for output blades, 10F: Grinding machine for turbine blades, 10G: Grinding machine for turbine blades, 11: All blade steam turbine, 11a: Linear injection vehicle, 11b: Injection vehicle, 11B: Automatic double reversal 11C: Counter-inversion ship, 11D: Condenser, 11E: Counter-inversion airplane, 11F: Counter-inversion injection ship, 11G: Counter-inversion injection airplane, 11I: Rotary wing airplane, 11J: Rotary wing injection airplane, 11M: Osprey extra large, 11N: Osprey large, 11W: Horizontal full blade steam ratio critical material gravity turbine, 11X: Horizontal full blade steam water gravity turbine, 11Y: Vertical full blade steam ratio critical material gravity turbine, 11Z: Vertical all blade steam water gravity turbine, 12: Gravity power generation building, 12A: Steel frame, 12B: Column tube, 12C: Bearing, 12D: Square flange, 12E: Counter-rotating injection engine, 12F: Counter-rotating air injection Engine, 12G: Counter-rotating engine, 12N: Two-stage compressor, 12Y: Opposed two-stage compressor, 12Z: Opposed two-stage compressor, 16: Horizontal shaft 16A: Horizontal axis, 21: Solar heater (mainly used with the intake air passage also provided in the heat absorption pipe 4H) 24A: Compressed air control valve, 25: Superheated steam control valve 25b: High pressure fuel control valve, 25c: Fuel pipe, 28A: Intake air passage, 28a: Air, 28b: Intake air passage, 29a: Ultra high pressure air, 38H: Theoretical screw vessel, 38J: Theoretical injection vessel, 38T: Theoretical vessel Jet plane, 38U: Theoretical propeller plane, 49: Combustion gas, 50: Superheated steam, 50: Superheated steam chamber, 50A: High-pressure high-temperature water, 50a: Superheated steam injection pipe, 52A: Water, 52B: Water pipe, 52C: Alcohol, 52C: alcohol pipe, 52D: reverse osmosis water (water that reduces the amount of wear of the solid matter removing turbine blade group 8F), 52D: reverse osmosis water pipe, 52E: Distilled water, 52E: Distilled water pipe, 52a: Water, 52b: High-temperature water, 53A: Outer output blade group (output blade aiming at peripheral speed around 1/10 of the driving fluid speed) 53B: Inner output blade group (close to the driving fluid speed) 53C: Outer compression blade group (reverse osmosis water 52D cooling blade for 5H production) 53D: Inner compression blade group, 60A: Inner shaft device, 60B: Outer shaft device, 60C: Cylindrical inner blade group 60D: cylindrical outer blade group, 60G: outer annular blade group, 60H: inner annular blade group, 60c: inner blade group, 60d: outer blade group, 60e: outer inlet blade group, 60f: inner inlet blade group 60g: Outer intermediate blade group, 60h: Inner intermediate blade group, 60j: Inner outlet blade group, 60k: Outer outlet blade group, 77A: Gas turbine outer box, 77B: Rocket outer box, 77C: Double reversing machine outer box , 77G: Yen Cylindrical rotating part, 77a: Turbine outer box, 77b: Compressor outer box, 80: Bearing (Bearing load as close to 0 as possible by using magnetic force + air pressure) 80A: Joint, 80B: Fastening tool, 80a: Thrust bearing (Use magnetic force + air pressure to bring the bearing load as close to 0 as possible.) 85: Counter rotating magnetic device (magnet using gear height is slight to non-contact and reciprocally rotates with a horizontal shaft 1h gear) 85Y: Counter rotating Gear device (reciprocally rotated by a 1h gear on the horizontal axis) 88B: Steam combined air injection unit, 88C: Theoretical air injection unit, 88L: Steam combined water injection unit, 88M: Theoretical water injection unit, 89A: Liquid oxygen production machine

Claims (693)

  Various energy storage cycle coalescence engines and coalescence methods in which a cylindrical inner rotor blade group (60C) is one stage and a cylindrical outer rotor blade group (60D) is two stages, and a vertical all-blade steam water gravity turbine (11Z).   Various energy storage cycle coalescence engines and coalescence methods in which a cylindrical inner rotor blade group (60C) has two stages and a cylindrical outer rotor blade group (60D) has three stages, and a vertical all blade steam water gravity turbine (11Z).   Various energy storage cycle coalescence engines and coalescence methods in which a cylindrical inner rotor blade group (60C) has three stages and a cylindrical outer rotor blade group (60D) has four stages, and a vertical all blade steam water gravity turbine (11Z).   Various energy storage cycle coalescence engines and coalescence methods, with a cylindrical inner blade group (60C) as four stages and a cylindrical outer blade group (60D) as five stages, and a vertical all blade steam water gravity turbine (11Z).   Various energy storage cycle coalescence engines and coalescence methods in which a cylindrical inner rotor blade group (60C) is five stages and a cylindrical outer rotor blade group (60D) is six stages, and a vertical all blade steam water gravity turbine (11Z) is used.   Various energy storage cycle coalescence engines and coalescence methods in which a cylindrical inner rotor blade group (60C) has six stages and a cylindrical outer rotor blade group (60D) has seven stages, and a vertical all blade steam water gravity turbine (11Z).   Various energy storage cycle coalescence engines and coalescence methods, with a cylindrical inner blade group (60C) as seven stages and a cylindrical outer blade group (60D) as eight stages, and a vertical all blade steam water gravity turbine (11Z).   Various energy storage cycle coalescence engines and coalescence methods using a cylindrical inner rotor blade group (60C) as eight stages and a cylindrical outer rotor blade group (60D) as nine stages as a vertical all blade steam water gravity turbine (11Z).   Various energy storage cycle coalescence engines and coalescence methods using a cylindrical inner blade group (60C) as nine stages and a cylindrical outer blade group (60D) as ten stages, and a vertical all blade steam water gravity turbine (11Z).   Various energy storage cycle coalescence engines and coalescence methods using a cylindrical inner rotor blade group (60C) as 10 stages and a cylindrical outer rotor blade group (60D) as 11 stages and a vertical all blade steam water gravity turbine (11Z).   Various energy storage cycle coalescence engines and coalescence methods using a cylindrical inner rotor blade group (60C) as 11 stages and a cylindrical outer rotor blade group (60D) as 12 stages, and a vertical all-blade steam water gravity turbine (11Z).   Various energy storage cycles using a cylindrical inner blade group (60C) as one stage, a cylindrical outer blade group (60D) as two stages, and each stage as a cast part, a vertical all blade steam water gravity turbine (11Z). Merger engine and merger method.   Various energy conservation cycles with a cylindrical inner blade group (60C) as two stages, a cylindrical outer blade group (60D) as three stages, and each stage as one cast part as a vertical all blade steam water gravity turbine (11Z) Merger engine and merger method.   Various energy storage cycles with a cylindrical inner rotor blade group (60C) as three stages, a cylindrical outer rotor blade group (60D) as four stages, and each stage as a cast part, a vertical all blade steam water gravity turbine (11Z). Merger engine and merger method.   Various energy conservation cycles with a cylindrical inner blade group (60C) as four stages, a cylindrical outer blade group (60D) as five stages, and each stage as a cast part, a vertical all blade steam water gravity turbine (11Z). Merger engine and merger method.   Various energy conservation cycles with a cylindrical inner blade group (60C) as five stages, a cylindrical outer blade group (60D) as six stages, and each stage as a cast part, a vertical all blade steam water gravity turbine (11Z). Merger engine and merger method.   Various energy storage cycles with a cylindrical inner blade group (60C) as six stages, a cylindrical outer blade group (60D) as seven stages, and each stage as a cast part, a vertical all blade steam water gravity turbine (11Z) Merger engine and merger method.   Various energy storage cycles with a cylindrical inner blade group (60C) as seven stages, a cylindrical outer blade group (60D) as eight stages, and each stage as a cast part, a vertical all blade steam water gravity turbine (11Z) Merger engine and merger method.   Various energy storage cycles using a cylindrical all-blade group (60C) as eight stages, a cylindrical outer blade group (60D) as nine stages, and each stage as one cast part, a vertical all-blade steam-water gravity turbine (11Z) Merger engine and merger method.   Various energy storage cycles using a cylindrical inner blade group (60C) as nine stages, a cylindrical outer blade group (60D) as ten stages, and each stage as one cast part as a vertical all blade steam water gravity turbine (11Z). Merger engine and merger method.   Various energy storage cycles using a cylindrical inner rotor blade group (60C) as 10 stages, a cylindrical outer rotor blade group (60D) as 11 stages, and each stage as one casting part as a vertical all blade steam water gravity turbine (11Z). Merger engine and merger method.   Various energy storage cycles using a cylindrical inner blade group (60C) as 11 stages, a cylindrical outer blade group (60D) as 12 stages, and each stage as a cast part, a vertical all blade steam water gravity turbine (11Z). Merger engine and merger method.   The cylindrical inner rotor blade group (60C) is one stage, the cylindrical outer rotor blade group (60D) is two stages, and each stage is processed as one cast part by a vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has two stages, the cylindrical outer rotor blade group (60D) has three stages, and each stage is processed as a cast part with a vertical turning lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has three stages, the cylindrical outer rotor blade group (60D) has four stages, and each stage is processed as a cast part with a vertical turning lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has four stages, the cylindrical outer rotor blade group (60D) has five stages, and each stage is processed as one cast part by a vertical lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has five stages, the cylindrical outer rotor blade group (60D) has six stages, and each stage is processed as a cast part by a vertical turning lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) has six stages, the cylindrical outer blade group (60D) has seven stages, and each stage is processed as a cast part on a counter-rotating engine vertical lathe (10B). Various energy storage cycle coalescence engine and coalescence method as a moving blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) has seven stages, the cylindrical outer blade group (60D) has eight stages, and each stage is processed as a cast part with a vertical turning lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) has eight stages, the cylindrical outer blade group (60D) has nine stages, and each stage is processed as a cast part on a vertical turning lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) is nine stages, the cylindrical outer rotor blade group (60D) is ten stages, and each stage is processed as one cast part by a vertical lathe (10B) for a counter rotating engine, and the vertical type Various energy storage cycle coalescence engine and coalescence method as a moving blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has 10 stages, the cylindrical outer rotor blade group (60D) has 11 stages, and each stage is processed as a cast part on a counter-rotating engine vertical lathe (10B). Various energy storage cycle coalescence engine and coalescence method as a moving blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has 11 stages, the cylindrical outer rotor blade group (60D) has 12 stages, and each stage is processed as a cast part by a vertical turning lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) is one stage, the cylindrical outer rotor blade group (60D) is two stages, and each stage is one cast part. 10F), various energy storage cycle coalescence engines and coalescence methods that are processed into a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has two stages, the cylindrical outer rotor blade group (60D) has three stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), various energy storage cycle coalescence engines and coalescence methods that are processed into a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has three stages, the cylindrical outer rotor blade group (60D) has four stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), various energy storage cycle coalescence engines and coalescence methods that are processed into a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has four stages, the cylindrical outer rotor blade group (60D) has five stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), various energy storage cycle coalescence engines and coalescence methods that are processed into a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) has five stages, the cylindrical outer blade group (60D) has six stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), various energy storage cycle coalescence engines and coalescence methods that are processed into a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) has six stages, the cylindrical outer blade group (60D) has seven stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), various energy storage cycle coalescence engines and coalescence methods that are processed into a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has seven stages, the cylindrical outer rotor blade group (60D) has eight stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), various energy storage cycle coalescence engines and coalescence methods that are processed into a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) has eight stages, the cylindrical outer blade group (60D) has nine stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), various energy storage cycle coalescence engines and coalescence methods that are processed into a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) is composed of nine stages, the cylindrical outer blade group (60D) is composed of ten stages, and each stage is formed as one cast component, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), various energy storage cycle coalescence engines and coalescence methods that are processed into a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has 10 stages, the cylindrical outer rotor blade group (60D) has 11 stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), various energy storage cycle coalescence engines and coalescence methods that are processed into a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) has 11 stages, the cylindrical outer blade group (60D) has 12 stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), various energy storage cycle coalescence engines and coalescence methods that are processed into a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) is one stage, the cylindrical outer rotor blade group (60D) is two stages, and each stage is one casting part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine, and the super-high-speed balance adjustment processing is performed to make the vertical rotor blade steam water gravity turbine (11Z) ) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) has two stages, the cylindrical outer rotor blade group (60D) has three stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine, and the super-high-speed balance adjustment processing is performed to make the vertical rotor blade steam water gravity turbine (11Z) ) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) has three stages, the cylindrical outer rotor blade group (60D) has four stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine, and the super-high-speed balance adjustment processing is performed to make the vertical rotor blade steam water gravity turbine (11Z) ) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) has four stages, the cylindrical outer rotor blade group (60D) has five stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine, and the super-high-speed balance adjustment processing is performed to make the vertical rotor blade steam water gravity turbine (11Z) ) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner blade group (60C) has five stages, the cylindrical outer blade group (60D) has six stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine, and the super-high-speed balance adjustment processing is performed to make the vertical rotor blade steam water gravity turbine (11Z) ) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner blade group (60C) has six stages, the cylindrical outer blade group (60D) has seven stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine, and the super-high-speed balance adjustment processing is performed to make the vertical rotor blade steam water gravity turbine (11Z) ) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) has seven stages, the cylindrical outer rotor blade group (60D) has eight stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine, and the super-high-speed balance adjustment processing is performed to make the vertical rotor blade steam water gravity turbine (11Z) ) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner blade group (60C) has eight stages, the cylindrical outer blade group (60D) has nine stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine, and the super-high-speed balance adjustment processing is performed to make the vertical rotor blade steam water gravity turbine (11Z) ) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner blade group (60C) is composed of nine stages, the cylindrical outer blade group (60D) is composed of ten stages, and each stage is formed as one cast component, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine, and the super-high-speed balance adjustment processing is performed to make the vertical rotor blade steam water gravity turbine (11Z) ) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) has 10 stages, the cylindrical outer rotor blade group (60D) has 11 stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine, and the super-high-speed balance adjustment processing is performed to make the vertical rotor blade steam water gravity turbine (11Z) ) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner blade group (60C) has 11 stages, the cylindrical outer blade group (60D) has 12 stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine, and the super-high-speed balance adjustment processing is performed to make the vertical rotor blade steam water gravity turbine (11Z) ) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) is one stage, the cylindrical outer rotor blade group (60D) is two stages, and each stage is one cast part. 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) A single set of various energy storage cycle coalescence engines and coalescence methods that form a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has two stages, the cylindrical outer rotor blade group (60D) has three stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) A single set of various energy storage cycle coalescence engines and coalescence methods that form a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has three stages, the cylindrical outer rotor blade group (60D) has four stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) A single set of various energy storage cycle coalescence engines and coalescence methods that form a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) is four stages, the cylindrical outer blade group (60D) is five stages, and each stage is one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) A single set of various energy storage cycle coalescence engines and coalescence methods that form a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) has five stages, the cylindrical outer blade group (60D) has six stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) A single set of various energy storage cycle coalescence engines and coalescence methods that form a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) has six stages, the cylindrical outer blade group (60D) has seven stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) A single set of various energy storage cycle coalescence engines and coalescence methods that form a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has seven stages, the cylindrical outer rotor blade group (60D) has eight stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) A single set of various energy storage cycle coalescence engines and coalescence methods that form a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) has eight stages, the cylindrical outer blade group (60D) has nine stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) A single set of various energy storage cycle coalescence engines and coalescence methods that form a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) is composed of nine stages, the cylindrical outer blade group (60D) is composed of ten stages, and each stage is formed as one cast component, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) A single set of various energy storage cycle coalescence engines and coalescence methods that form a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) has 10 stages, the cylindrical outer rotor blade group (60D) has 11 stages, and each stage has one cast part. 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) A single set of various energy storage cycle coalescence engines and coalescence methods that form a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner blade group (60C) has 11 stages, the cylindrical outer blade group (60D) has 12 stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) A single set of various energy storage cycle coalescence engines and coalescence methods that form a vertical all blade steam water gravity turbine (11Z).   The cylindrical inner rotor blade group (60C) is one stage, the cylindrical outer rotor blade group (60D) is two stages, and each stage is one casting part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) Various energy storage cycle coalescing engine and coalescence method using a plurality of sets of vertical rotor blade steam water gravity turbines (11Z).   The cylindrical inner rotor blade group (60C) has two stages, the cylindrical outer rotor blade group (60D) has three stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) Various energy storage cycle coalescing engine and coalescence method using a plurality of sets of vertical rotor blade steam water gravity turbines (11Z).   The cylindrical inner rotor blade group (60C) has three stages, the cylindrical outer rotor blade group (60D) has four stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) Various energy storage cycle coalescing engine and coalescence method using a plurality of sets of vertical rotor blade steam water gravity turbines (11Z).   The cylindrical inner rotor blade group (60C) has four stages, the cylindrical outer rotor blade group (60D) has five stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) Various energy storage cycle coalescing engine and coalescence method using a plurality of sets of vertical rotor blade steam water gravity turbines (11Z).   The cylindrical inner blade group (60C) has five stages, the cylindrical outer blade group (60D) has six stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) Various energy storage cycle coalescing engine and coalescence method using a plurality of sets of vertical rotor blade steam water gravity turbines (11Z).   The cylindrical inner blade group (60C) has six stages, the cylindrical outer blade group (60D) has seven stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) Various energy storage cycle coalescing engine and coalescence method using a plurality of sets of vertical rotor blade steam water gravity turbines (11Z).   The cylindrical inner rotor blade group (60C) has seven stages, the cylindrical outer rotor blade group (60D) has eight stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) Various energy storage cycle coalescing engine and coalescence method using a plurality of sets of vertical rotor blade steam water gravity turbines (11Z).   The cylindrical inner blade group (60C) has eight stages, the cylindrical outer blade group (60D) has nine stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) Various energy storage cycle coalescing engine and coalescence method using a plurality of sets of vertical rotor blade steam water gravity turbines (11Z).   The cylindrical inner blade group (60C) is nine stages, the cylindrical outer blade group (60D) is ten stages, and each stage is one cast part. 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) Various energy storage cycle coalescing engine and coalescence method using a plurality of sets of vertical rotor blade steam water gravity turbines (11Z).   The cylindrical inner rotor blade group (60C) has 10 stages, the cylindrical outer rotor blade group (60D) has 11 stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) Various energy storage cycle coalescing engine and coalescence method using a plurality of sets of vertical rotor blade steam water gravity turbines (11Z).   The cylindrical inner blade group (60C) has 11 stages, the cylindrical outer blade group (60D) has 12 stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Apparatus (60B) Inner shaft apparatus (60A) Various energy storage cycle coalescing engine and coalescence method using a plurality of sets of vertical rotor blade steam water gravity turbines (11Z).   Various energy storage cycle coalescence engine and coalescence method using a cylindrical inner rotor blade group (60C) as a first stage and a cylindrical outer rotor blade group (60D) as a second stage and a vertical all-blade steam ratio critical material gravity turbine (11Y).   Various energy storage cycle coalescence engines and coalescence methods using a cylindrical inner rotor blade group (60C) in two stages and a cylindrical outer rotor blade group (60D) in three stages as a vertical all-blade steam ratio critical material gravity turbine (11Y).   Various energy storage cycle coalescence engines and coalescence methods using a cylindrical inner rotor blade group (60C) as three stages and a cylindrical outer rotor blade group (60D) as four stages and a vertical all-blade steam ratio critical material gravity turbine (11Y).   Various energy storage cycle coalescence engine and coalescence method using a cylindrical inner rotor blade group (60C) as four stages and a cylindrical outer rotor blade group (60D) as five stages and a vertical all-blade steam ratio critical material gravity turbine (11Y).   Various energy storage cycle coalescence engine and coalescence method using a cylindrical inner rotor blade group (60C) as five stages and a cylindrical outer rotor blade group (60D) as six stages and a vertical all-blade steam ratio critical material gravity turbine (11Y).   Various energy storage cycle coalescence engine and coalescence method using a cylindrical inner rotor blade group (60C) as six stages and a cylindrical outer rotor blade group (60D) as seven stages, and a vertical all-blade steam ratio critical material gravity turbine (11Y).   Various energy storage cycle coalescence engine and coalescence method using a cylindrical inner rotor blade group (60C) as seven stages and a cylindrical outer rotor blade group (60D) as eight stages and a vertical all-blade steam ratio critical material gravity turbine (11Y).   Various energy storage cycle coalescence engine and coalescence method using a cylindrical inner rotor blade group (60C) as eight stages and a cylindrical outer rotor blade group (60D) as nine stages and a vertical all-blade steam ratio critical material gravity turbine (11Y).   Various energy storage cycle coalescence engine and coalescence method using a cylindrical inner rotor blade group (60C) as nine stages and a cylindrical outer rotor blade group (60D) as ten stages and a vertical all-blade steam ratio critical material gravity turbine (11Y).   Various energy storage cycle coalescence engine and coalescence method using a cylindrical inner rotor blade group (60C) as 10 stages and a cylindrical outer rotor blade group (60D) as 11 stages, and a vertical all-blade steam ratio critical material gravity turbine (11Y).   Various energy storage cycle coalescence engine and coalescence method using a cylindrical inner rotor blade group (60C) as 11 stages and a cylindrical outer rotor blade group (60D) as 12 stages and a vertical all-blade steam ratio critical material gravity turbine (11Y).   Various energies for the vertical inner blade group (60C) and the outer cylindrical blade group (60D) as two stages, and each stage as one casting component, and a vertical all-blade steam ratio critical material gravity turbine (11Y) Storage cycle coalescence engine and coalescence method.   Various energy for a cylindrical full-scale blade steam ratio critical material gravity turbine (11Y) with the cylindrical inner blade group (60C) in two stages, the cylindrical outer blade group (60D) in three stages, and each stage as one cast part Storage cycle coalescence engine and coalescence method.   Various energies for the vertical inner blade group (60C) and the outer cylindrical blade group (60D) as four stages, and each stage as one cast part for the vertical type moving blade steam ratio critical material gravity turbine (11Y) Storage cycle coalescence engine and coalescence method.   Various energy for the vertical inner blade group (60Y) and the outer cylindrical blade group (60D) as five stages, and each stage as one cast part, and a vertical all-blade steam ratio critical material gravity turbine (11Y) Storage cycle coalescence engine and coalescence method.   Various energy for a cylindrical full-scale blade steam ratio critical material gravity turbine (11Y) with a cylindrical inner blade group (60C) as five stages, a cylindrical outer blade group (60D) as six stages, and each stage as one cast part. Storage cycle coalescence engine and coalescence method.   Various energy for the vertical inner blade group (60Y) and the outer cylindrical blade group (60D) as seven stages and each stage as one casting part as a vertical all-blade steam ratio critical material gravity turbine (11Y) Storage cycle coalescence engine and coalescence method.   Various energies for the vertical inner blade group (60C) and the outer cylindrical blade group (60D) as eight stages, and each stage as one cast component for a vertical all-blade steam ratio critical material gravity turbine (11Y) Storage cycle coalescence engine and coalescence method.   Various energy for the vertical inner rotor blade group (60Y) and the outer cylindrical rotor blade group (60D) as nine stages, and each stage as one cast part for a vertical all-blade steam ratio critical material gravity turbine (11Y) Storage cycle coalescence engine and coalescence method.   Various energies for the vertical inner blade group (60Y) and the outer cylindrical blade group (60D) as 10 stages, and each stage as one cast part, and a vertical all-blade steam ratio critical material gravity turbine (11Y) Storage cycle coalescence engine and coalescence method.   Various energies of a vertical all-blade steam ratio critical material gravity turbine (11Y) with 10 cylinder inner rotor blade groups (60C), 11 outer cylinder blade groups (60D) and 11 stages each casting part Storage cycle coalescence engine and coalescence method.   Various energies for the cylindrical inner blade group (60C) and the outer cylindrical blade group (60D) as 12 stages and each stage as one cast part for the vertical type moving blade steam ratio critical material gravity turbine (11Y) Storage cycle coalescence engine and coalescence method.   The cylindrical inner rotor blade group (60C) is one stage, the cylindrical outer rotor blade group (60D) is two stages, and each stage is processed as one cast part by a vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) has two stages, the cylindrical outer rotor blade group (60D) has three stages, and each stage is processed as a cast part with a vertical turning lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) has three stages, the cylindrical outer rotor blade group (60D) has four stages, and each stage is processed as a cast part with a vertical turning lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) has four stages, the cylindrical outer rotor blade group (60D) has five stages, and each stage is processed as one cast part by a vertical lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) is five stages, the cylindrical outer rotor blade group (60D) is six stages, and each stage is processed as one cast part by a vertical lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner blade group (60C) has six stages, the cylindrical outer blade group (60D) has seven stages, and each stage is processed as a cast part on a counter-rotating engine vertical lathe (10B). Various energy storage cycle coalescence engine and coalescence method as a moving blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner blade group (60C) has seven stages, the cylindrical outer blade group (60D) has eight stages, and each stage is processed as a cast part with a vertical turning lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner blade group (60C) has eight stages, the cylindrical outer blade group (60D) has nine stages, and each stage is processed as a cast part on a vertical turning lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) is nine stages, the cylindrical outer rotor blade group (60D) is ten stages, and each stage is processed as one cast part by a vertical lathe (10B) for a counter rotating engine, and the vertical type Various energy storage cycle coalescence engine and coalescence method as a moving blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) has 10 stages, the cylindrical outer rotor blade group (60D) has 11 stages, and each stage is processed as a cast part on a counter-rotating engine vertical lathe (10B). Various energy storage cycle coalescence engine and coalescence method as a moving blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) has 11 stages, the cylindrical outer rotor blade group (60D) has 12 stages, and each stage is processed as a cast part by a vertical turning lathe (10B) for a counter rotating engine. Various energy storage cycle coalescence engine and coalescence method as a moving blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) is one stage, the cylindrical outer rotor blade group (60D) is two stages, and each stage is one casting part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), various energy storage cycle coalescing engines and coalescence methods that are processed into a vertical all-blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) has two stages, the cylindrical outer rotor blade group (60D) has three stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), various energy storage cycle coalescing engines and coalescence methods that are processed into a vertical all-blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) has three stages, the cylindrical outer rotor blade group (60D) has four stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), various energy storage cycle coalescing engines and coalescence methods that are processed into a vertical all-blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) has four stages, the cylindrical outer rotor blade group (60D) has five stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), various energy storage cycle coalescing engines and coalescence methods that are processed into a vertical all-blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner blade group (60C) has five stages, the cylindrical outer blade group (60D) has six stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), various energy storage cycle coalescing engines and coalescence methods that are processed into a vertical all-blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner blade group (60C) has six stages, the cylindrical outer blade group (60D) has seven stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), various energy storage cycle coalescing engines and coalescence methods that are processed into a vertical all-blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) has seven stages, the cylindrical outer rotor blade group (60D) has eight stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), various energy storage cycle coalescing engines and coalescence methods that are processed into a vertical all-blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner blade group (60C) has eight stages, the cylindrical outer blade group (60D) has nine stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), various energy storage cycle coalescing engines and coalescence methods that are processed into a vertical all-blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner blade group (60C) is composed of nine stages, the cylindrical outer blade group (60D) is composed of ten stages, and each stage is formed as one cast component, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), various energy storage cycle coalescing engines and coalescence methods that are processed into a vertical all-blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) has 10 stages, the cylindrical outer rotor blade group (60D) has 11 stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), various energy storage cycle coalescing engines and coalescence methods that are processed into a vertical all-blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner blade group (60C) has 11 stages, the cylindrical outer blade group (60D) has 12 stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), various energy storage cycle coalescing engines and coalescence methods that are processed into a vertical all-blade steam ratio critical material gravity turbine (11Y).   The cylindrical inner rotor blade group (60C) is one stage, the cylindrical outer rotor blade group (60D) is two stages, and each stage is one casting part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B) and the like are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. (11Y) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) has two stages, the cylindrical outer rotor blade group (60D) has three stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B) and the like are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. (11Y) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) has three stages, the cylindrical outer rotor blade group (60D) has four stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B) and the like are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. (11Y) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) has four stages, the cylindrical outer rotor blade group (60D) has five stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B) and the like are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. (11Y) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner blade group (60C) has five stages, the cylindrical outer blade group (60D) has six stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B) and the like are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. (11Y) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner blade group (60C) has six stages, the cylindrical outer blade group (60D) has seven stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B) and the like are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. (11Y) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) has seven stages, the cylindrical outer rotor blade group (60D) has eight stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B) and the like are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. (11Y) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner blade group (60C) has eight stages, the cylindrical outer blade group (60D) has nine stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B) and the like are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. (11Y) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner blade group (60C) is composed of nine stages, the cylindrical outer blade group (60D) is composed of ten stages, and each stage is formed as one cast component, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B) and the like are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. (11Y) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) has 10 stages, the cylindrical outer rotor blade group (60D) has 11 stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B) and the like are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. (11Y) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner blade group (60C) has 11 stages, the cylindrical outer blade group (60D) has 12 stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B) and the like are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. (11Y) Various energy storage cycle coalescence engines and coalescence methods.   The cylindrical inner rotor blade group (60C) is one stage, the cylindrical outer rotor blade group (60D) is two stages, and each stage is one casting part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engines and coalescence methods, wherein the inner shaft device (60A) of the device (60B) is a vertical type moving blade steam ratio critical material gravity turbine (11Y) driven vertically by a counter rotating magnetic device (85).   The cylindrical inner rotor blade group (60C) has two stages, the cylindrical outer rotor blade group (60D) has three stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engines and coalescence methods, wherein the inner shaft device (60A) of the device (60B) is a vertical type moving blade steam ratio critical material gravity turbine (11Y) driven vertically by a counter rotating magnetic device (85).   The cylindrical inner rotor blade group (60C) has three stages, the cylindrical outer rotor blade group (60D) has four stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engines and coalescence methods, wherein the inner shaft device (60A) of the device (60B) is a vertical type moving blade steam ratio critical material gravity turbine (11Y) driven vertically by a counter rotating magnetic device (85).   The cylindrical inner rotor blade group (60C) has four stages, the cylindrical outer rotor blade group (60D) has five stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engines and coalescence methods, wherein the inner shaft device (60A) of the device (60B) is a vertical type moving blade steam ratio critical material gravity turbine (11Y) driven vertically by a counter rotating magnetic device (85).   The cylindrical inner blade group (60C) has five stages, the cylindrical outer blade group (60D) has six stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engines and coalescence methods, wherein the inner shaft device (60A) of the device (60B) is a vertical type moving blade steam ratio critical material gravity turbine (11Y) driven vertically by a counter rotating magnetic device (85).   The cylindrical inner blade group (60C) has six stages, the cylindrical outer blade group (60D) has seven stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engines and coalescence methods, wherein the inner shaft device (60A) of the device (60B) is a vertical type moving blade steam ratio critical material gravity turbine (11Y) driven vertically by a counter rotating magnetic device (85).   The cylindrical inner rotor blade group (60C) has seven stages, the cylindrical outer rotor blade group (60D) has eight stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engines and coalescence methods, wherein the inner shaft device (60A) of the device (60B) is a vertical type moving blade steam ratio critical material gravity turbine (11Y) driven vertically by a counter rotating magnetic device (85).   The cylindrical inner blade group (60C) has eight stages, the cylindrical outer blade group (60D) has nine stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engines and coalescence methods, wherein the inner shaft device (60A) of the device (60B) is a vertical type moving blade steam ratio critical material gravity turbine (11Y) driven vertically by a counter rotating magnetic device (85).   The cylindrical inner blade group (60C) is composed of nine stages, the cylindrical outer blade group (60D) is composed of ten stages, and each stage is formed as one cast component, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engines and coalescence methods, wherein the inner shaft device (60A) of the device (60B) is a vertical type moving blade steam ratio critical material gravity turbine (11Y) driven vertically by a counter rotating magnetic device (85).   The cylindrical inner rotor blade group (60C) has 10 stages, the cylindrical outer rotor blade group (60D) has 11 stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engines and coalescence methods, wherein the inner shaft device (60A) of the device (60B) is a vertical type moving blade steam ratio critical material gravity turbine (11Y) driven vertically by a counter rotating magnetic device (85).   The cylindrical inner blade group (60C) has 11 stages, the cylindrical outer blade group (60D) has 12 stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engines and coalescence methods, wherein the inner shaft device (60A) of the device (60B) is a vertical type moving blade steam ratio critical material gravity turbine (11Y) driven vertically by a counter rotating magnetic device (85).   The cylindrical inner rotor blade group (60C) is one stage, the cylindrical outer rotor blade group (60D) is two stages, and each stage is one casting part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method using a vertical type moving blade steam ratio critical material gravity turbine (11Y) in which the device (60B) inner shaft device (60A) is vertically connected and driven by a counter rotating gear device (85Y).   The cylindrical inner rotor blade group (60C) has two stages, the cylindrical outer rotor blade group (60D) has three stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method using a vertical type moving blade steam ratio critical material gravity turbine (11Y) in which the device (60B) inner shaft device (60A) is vertically connected and driven by a counter rotating gear device (85Y).   The cylindrical inner rotor blade group (60C) has three stages, the cylindrical outer rotor blade group (60D) has four stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method using a vertical type moving blade steam ratio critical material gravity turbine (11Y) in which the device (60B) inner shaft device (60A) is vertically connected and driven by a counter rotating gear device (85Y).   The cylindrical inner rotor blade group (60C) has four stages, the cylindrical outer rotor blade group (60D) has five stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method using a vertical type moving blade steam ratio critical material gravity turbine (11Y) in which the device (60B) inner shaft device (60A) is vertically connected and driven by a counter rotating gear device (85Y).   The cylindrical inner blade group (60C) has five stages, the cylindrical outer blade group (60D) has six stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method using a vertical type moving blade steam ratio critical material gravity turbine (11Y) in which the device (60B) inner shaft device (60A) is vertically connected and driven by a counter rotating gear device (85Y).   The cylindrical inner blade group (60C) has six stages, the cylindrical outer blade group (60D) has seven stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method using a vertical type moving blade steam ratio critical material gravity turbine (11Y) in which the device (60B) inner shaft device (60A) is vertically connected and driven by a counter rotating gear device (85Y).   The cylindrical inner rotor blade group (60C) has seven stages, the cylindrical outer rotor blade group (60D) has eight stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method using a vertical type moving blade steam ratio critical material gravity turbine (11Y) in which the device (60B) inner shaft device (60A) is vertically connected and driven by a counter rotating gear device (85Y).   The cylindrical inner blade group (60C) has eight stages, the cylindrical outer blade group (60D) has nine stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method using a vertical type moving blade steam ratio critical material gravity turbine (11Y) in which the device (60B) inner shaft device (60A) is vertically connected and driven by a counter rotating gear device (85Y).   The cylindrical inner blade group (60C) is composed of nine stages, the cylindrical outer blade group (60D) is composed of ten stages, and each stage is formed as one cast component, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method using a vertical type moving blade steam ratio critical material gravity turbine (11Y) in which the device (60B) inner shaft device (60A) is vertically connected and driven by a counter rotating gear device (85Y).   The cylindrical inner rotor blade group (60C) has 10 stages, the cylindrical outer rotor blade group (60D) has 11 stages, and each stage has one cast part, and the counter rotating engine vertical lathe (10B) and turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method using a vertical type moving blade steam ratio critical material gravity turbine (11Y) in which the device (60B) inner shaft device (60A) is vertically connected and driven by a counter rotating gear device (85Y).   The cylindrical inner blade group (60C) has 11 stages, the cylindrical outer blade group (60D) has 12 stages, and each stage has one cast part, and a counter rotating engine vertical lathe (10B) and a turbine blade grinding machine ( 10F), the outer shaft device (60B), etc. are temporarily assembled and held by the vertical turning lathe (10B) for counter rotating engine. Various energy storage cycle coalescence engine and coalescence method using a vertical type moving blade steam ratio critical material gravity turbine (11Y) in which the device (60B) inner shaft device (60A) is vertically connected and driven by a counter rotating gear device (85Y).   Various energy storage cycle coalescence engines and coalescence methods with a horizontal all-blade steam-water gravity turbine (11X) with an integral turbine blade group (8G) horizontal shaft (16A) as one cast part and a total length of 1.5 m or less.   Various energy storage cycle coalescing engines and coalescing methods in which the integrated turbine blade group (8G) horizontal shaft (16A) is a cast part and the total length is 2 m or less, and a horizontal all-blade steam-water gravity turbine (11X).   Various energy storage cycle coalescence engines and coalescence methods, in which the integrated turbine blade group (8G) horizontal shaft (16A) is a cast part and the total length is 2.5 m or less, and is a horizontal all blade steam water gravity turbine (11X).   Various energy storage cycle coalescing engines and coalescence methods, in which the integrated turbine blade group (8G) and the horizontal shaft (16A) are one cast part and the total length is 3 m or less, and a horizontal all-blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engines and coalescence methods with a horizontal all-blade steam-water gravity turbine (11X) with an integral turbine blade group (8G) horizontal shaft (16A) as one cast part and a total length of 3,5 m or less.   Various energy storage cycle coalescing engines and coalescing methods in which the integrated turbine blade group (8G) horizontal shaft (16A) is a cast part and the total length is 4 m or less, and a horizontal all-blade steam-water gravity turbine (11X).   Various energy storage cycle coalescence engines and coalescence methods, in which the integrated turbine blade group (8G) horizontal shaft (16A) is a cast part and the overall length is 4,5 m or less, and is a horizontal all blade steam water gravity turbine (11X).   Various energy storage cycle coalescing engines and coalescence methods, in which the integrated turbine blade group (8G) and the horizontal axis (16A) are one cast part and the total length is 5 m or less, and a horizontal all blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engines and coalescence methods, in which the integrated turbine blade group (8G) horizontal shaft (16A) is a cast part and the overall length is 5,5 m or less and is a horizontal all blade steam water gravity turbine (11X).   Various energy storage cycle coalescing engines and coalescing methods in which the integrated turbine blade group (8G) horizontal shaft (16A) is a cast part and the total length is 6 m or less, and a horizontal all-blade steam water gravity turbine (11X).   Various energy storage cycle coalescing engines and coalescence methods, in which the integrated turbine blade group (8G) has a horizontal shaft (16A) as one cast part and has a total length of 6 m or more, and is a horizontal full blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engines and coalescence methods, in which the horizontal turbine (11G) has a total length of 1.5 m or less with two integrated cast turbine blade groups (8G) and a horizontal axis (16A).   Various energy storage cycle coalescence engines and coalescence methods, in which the integrated turbine blade group (8G) has a horizontal shaft (16A) as two cast parts and has a total length of 2 m or less, and is a horizontal full blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engines and coalescence methods, in which the integrated turbine blade group (8G) has a horizontal shaft (16A) as two cast parts and has a total length of 2.5 m or less, and is a horizontal full blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engines and coalescence methods, including a horizontal all-blade steam water gravity turbine (11X) with an integral turbine blade group (8G) horizontal shaft (16A) as two cast parts and a total length of 3 m or less.   Various energy storage cycle coalescence engines and coalescence methods, in which the integrated turbine blade group (8G) has a horizontal shaft (16A) as two cast parts and has a total length of 3,5 m or less, and is a horizontal full-blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engine and coalescence method using a horizontal turbine blade (11X) with an integral turbine blade group (8G) horizontal shaft (16A) as two cast parts and a total length of 4 m or less.   Various energy storage cycle coalescence engines and coalescence methods, in which the integrated turbine blade group (8G) has a horizontal shaft (16A) as two cast parts and has a total length of 4,5 m or less, and is a horizontal full-blade steam water gravity turbine (11X)   Various energy storage cycle coalescence engine and coalescence method using a horizontal turbine blade (11X) with an integral turbine blade group (8G) horizontal shaft (16A) as two cast parts and a total length of 5 m or less.   Various energy storage cycle coalescence engines and coalescence methods, in which the integrated turbine blade group (8G) has a horizontal shaft (16A) as two cast parts and has a total length of 5,5 m or less, and is a horizontal all blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engines and coalescence methods with a horizontal all-blade steam-water gravity turbine (11X) with an integral turbine blade group (8G) horizontal shaft (16A) as two cast parts and a total length of 6 m or less.   Various energy storage cycle coalescing engines and coalescence methods, in which the integrated turbine blade group (8G) has a horizontal axis (16A) as two cast parts and has a total length of 6 m or more, and is a horizontal all blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engines and coalescence methods, in which the integrated turbine blade group (8G) and the horizontal shaft (16A) are three cast parts and the total length is 1.5 m or less, and is a horizontal all blade steam water gravity turbine (11X).   Various energy storage cycle coalescing engines and coalescence methods, in which the integrated turbine blade group (8G) has a horizontal shaft (16A) as three cast parts and has a total length of 2 m or less, and is a horizontal all blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engine and coalescence method using a horizontal all-blade steam water gravity turbine (11X) with a total length of 2.5 m or less using three integral parts of an integrated turbine blade group (8G) horizontal axis (16A).   Various energy storage cycle coalescing engines and coalescence methods, in which the integrated turbine blade group (8G) has a horizontal shaft (16A) as three cast parts and has a total length of 3 m or less, and is a horizontal all-blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engines and coalescence methods, in which the integrated turbine blade group (8G) has a horizontal shaft (16A) as three cast parts and has a total length of 3,5 m or less, and is a horizontal full blade steam water gravity turbine (11X).   Various energy storage cycle coalescing engines and coalescence methods, in which an integrated turbine blade group (8G) and a horizontal shaft (16A) are three cast parts and the total length is 4 m or less, and a horizontal all-blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engine and coalescence method using a horizontal turbine blade (11X) with an integral turbine blade group (8G) horizontal shaft (16A) as three cast parts and a total length of 4,5 m or less.   Various energy storage cycle coalescence engine and coalescence method using a horizontal all-blade steam water gravity turbine (11X) with a total length of 5 m or less using three integral parts of the integrated turbine blade group (8G) horizontal axis (16A).   Various energy storage cycle coalescence engine and coalescence method using a horizontal all-blade steam-water gravity turbine (11X) with an integral turbine blade group (8G) horizontal shaft (16A) as three cast parts and a total length of 5,5 m or less.   Various energy storage cycle coalescence engines and coalescence methods, in which an integrated turbine blade group (8G) and a horizontal shaft (16A) are three cast parts and the total length is 6 m or less, and a horizontal all blade steam water gravity turbine (11X).   Various energy storage cycle coalescence engines and coalescence methods, including an integral turbine blade group (8G) and a horizontal shaft (16A) as three cast parts and a total length of 6 m or more, and a horizontal full-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part and the total length is 1.5 m or less and machined with a counter-rotating engine lathe (10C) to obtain a horizontal all-blade steam water gravity turbine (11X). Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 2m or less, machined with a counter rotating engine lathe (10C) to produce a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 2,5 m or less, machined with a counter-rotating engine lathe (10C) to obtain a horizontal all-blade steam water gravity turbine (11X) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 3 m or less, machined with a counter rotating engine lathe (10C) to produce a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part and the total length is 3.5 m or less and machined with a counter-rotating engine lathe (10C) to make a horizontal all-blade steam water gravity turbine (11X) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 4m or less, machined with a counter rotating engine lathe (10C) to produce a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 4,5m or less and machined with counter-rotating engine lathe (10C) to make a horizontal all blade steam water gravity turbine (11X) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 5 m or less, machined with a counter rotating engine lathe (10C) to produce a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   An integrated turbine blade group (8G) horizontal shaft (16A) as a single cast part and processed with a counter rotating machine lathe (10C) with a total length of 5,5 m or less to form a horizontal full blade steam water gravity turbine (11X). Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 6m or less, machined with a counter rotating engine lathe (10C) to produce a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 6m or more, machined with a counter rotating engine lathe (10C) to produce a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 1.5 m or less, machined with a counter-rotating engine lathe (10C) to make a horizontal all blade steam water gravity turbine (11X) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 2m or less, machined with counter-rotating engine lathe (10C) and various energies to make a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 2,5 m or less, machined with a counter-rotating engine lathe (10C) to make a horizontal all blade steam water gravity turbine (11X) Various energy storage cycle coalescence engines and coalescence methods.   Various turbine energies (8G) Horizontal shaft (16A) with two cast parts and a total length of 3m or less, machined with a counter-rotating engine lathe (10C) to produce a horizontal all-blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   An integrated turbine blade group (8G) with a horizontal axis (16A) as two cast parts and a total length of 3,5 m or less, machined with a counter rotating engine lathe (10C), to obtain a horizontal all blade steam water gravity turbine (11X). Various energy storage cycle coalescence engines and coalescence methods.   Various turbine energies (8G) Horizontal shaft (16A) with two cast parts and a total length of 4m or less, machined with a counter rotating engine lathe (10C) to produce a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   An integrated turbine blade group (8G) horizontal shaft (16A) with two cast parts and a total length of 4,5 m or less, machined with a counter-rotating engine lathe (10C), to obtain a horizontal all-blade steam water gravity turbine (11X). Various energy storage cycle coalescence engines and coalescence methods.   Various turbine energies (8G) Horizontal shaft (16A) with two cast parts and a total length of 5m or less, machined with a counter-rotating engine lathe (10C) to produce a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 5,5 m or less, machined with a counter-rotating engine lathe (10C) to make a horizontal all-blade steam water gravity turbine (11X) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 6m or less, machined with a counter-rotating engine lathe (10C) to produce a horizontal all-blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 6m or more and machined with a counter rotating engine lathe (10C) to produce a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   An integrated turbine blade group (8G) with a horizontal axis (16A) as three cast parts and a total length of 1.5 m or less and machined with a counter-rotating engine lathe (10C) to produce a horizontal all-blade steam water gravity turbine (11X). Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and total length of 2m or less, machined with counter rotating engine lathe (10C) to make horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   An integrated turbine blade group (8G) with a horizontal axis (16A) as three cast parts and a total length of 2.5 m or less and machined with a counter-rotating engine lathe (10C) to obtain a horizontal all-blade steam water gravity turbine (11X). Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3m or less, machined with counter-rotating engine lathe (10C), and various energies to make horizontal all-blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   An integrated turbine blade group (8G) with a horizontal axis (16A) as three cast parts and a total length of 3,5 m or less and processed with a counter rotating lathe (10C) to form a horizontal all blade steam water gravity turbine (11X). Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4m or less, machined with counter-rotating engine lathe (10C) to make horizontal all-blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   An integrated turbine blade group (8G) with a horizontal axis (16A) as three cast parts and a total length of 4,5 m or less and machined with a counter rotating engine lathe (10C) to obtain a horizontal all blade steam water gravity turbine (11X). Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5m or less, machined with counter-rotating engine lathe (10C), and various energies made into a horizontal all-blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   An integrated turbine blade group (8G) horizontal shaft (16A) with three cast parts and a total length of 5,5 m or less was machined with a counter rotating engine lathe (10C) to obtain a horizontal all blade steam water gravity turbine (11X). Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or less, machined with counter-rotating engine lathe (10C) and various energies to make a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and a total length of 6m or more, machined with a counter rotating engine lathe (10C) to produce a horizontal all blade steam water gravity turbine (11X) Storage cycle coalescence engine and coalescence method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 1.5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 2 m or less, processed by a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G), and a horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2.5 m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 3 m or less, machined with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G), and a horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 3,5 m or less, machined with a counter-rotating engine lathe (10C) and a turbine blade grinding machine (10G), and a horizontal full blade Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 4 m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 4,5 m or less, machined with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G), and a horizontal all blade Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal axis (16A) as one cast part, total length of 5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 5,5m or less, machined with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G) to create a horizontal all blade Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 6m or more, processed by a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G), and a horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 1.5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2.5m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 3 m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 3.5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 4m or less, machined with counter rotating engine lathe (10C) and turbine blade grinder (10G), horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of less than 4,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5,5m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 6m or more, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 1.5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2.5m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and a total length of 3,5 m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and total length of 4,5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5,5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and a total length of 6m or more, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade steam water Various energy storage cycle coalescence engine and coalescence method as a gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 1.5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), and assembly into a counter rotating engine Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2.5 m or less, machining with double reversing engine lathe (10C) and turbine blade grinding machine (10G) Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 3m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 3, 5 m or less, processed with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G) and assembled into a double Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one casting part, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 4,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5,5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of less than 1,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 3,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 4,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and assembled Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into counter rotating engine Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 1,5m and machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 2,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 3,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into double Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4,5m or less, machining with double turning engine lathe (10C) and turbine blade grinding machine (10G) Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy conservation cycle coalescing engines and coalescence methods, which are obtained by using a horizontal all-blade steam-water gravity turbine (11X) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method for a horizontal full blade steam water gravity turbine (11X) that is held and adjusted with a lathe (10C) for ultra-high speed balance.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 1.5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), and assembly into a counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2.5 m or less, machining with double reversing engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 3m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 3, 5 m or less, processed with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G) and assembled into a double Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one casting part, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 4,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5,5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of less than 1,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 3,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 4,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and assembled Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 1,5m and machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 2,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 3,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into double Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4,5m or less, machining with double turning engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding Ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, and making a horizontal full blade steam water gravity turbine (11X) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various types of energy conservation cycle coalescence engine and coalescence using various magnetics to make a bearing (12C) with a bearing load close to 0 to form a horizontal all blade steam water gravity turbine (11X) Method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 1.5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), and assembly into a counter rotating engine Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2.5 m or less, machining with double reversing engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 3m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 3, 5 m or less, processed with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G) and assembled into a double Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one casting part, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 4,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5,5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of less than 1,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 3,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 4,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and assembled Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into counter rotating engine Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 1,5m and machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 2,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 3,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into double Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4,5m or less, machining with double turning engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing blade steam water gravity that is held by a rotating engine lathe (10C) and is made of ultra-high-speed balance and processed by various magnetisms to make a bearing (12C) close to zero bearing load and vertically connected by a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal full-swing steam-water gravity turbine (4D) driven in series by the same rotating gear (4D), using a magnetic lathe (10C) and adjusting the ultra-high-speed balance and using various magnets to make a bearing (12C) close to zero bearing load. 11X) various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 1.5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), and assembly into a counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2.5 m or less, machining with double reversing engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 3m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 3, 5 m or less, processed with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G) and assembled into a double Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one casting part, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 4,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5,5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of less than 1,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 3,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 4,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and assembled Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 1,5m and machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 2,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 3,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into double Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4,5m or less, machining with double turning engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to the horizontal all-blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescing engine and coalescence method, which is a horizontal all blade steam water gravity turbine (11X).   Various energy storage cycle merging engines and merging methods in which the inner output blade group (53B) is one stage and the outer output blade group (53A) is two stages and a liquid oxygen producing machine (89A).   Various energy storage cycle coalescence engines and coalescence methods in which the inner output blade group (53B) is in two stages and the outer output blade group (53A) is in three stages to form a liquid oxygen production machine (89A).   Various energy storage cycle coalescence engines and coalescence methods in which the inner output blade group (53B) has three stages and the outer output blade group (53A) has four stages, and a liquid oxygen producing machine (89A).   Various energy storage cycle merging engines and merging methods in which the inner output blade group (53B) has four stages and the outer output blade group (53A) has five stages and a liquid oxygen producing machine (89A).   Various energy storage cycle merging engines and merging methods in which five stages of inner output blade groups (53B) and six stages of outer output blade groups (53A) are used as a liquid oxygen producing machine (89A).   Various energy storage cycle merging engines and merging methods using six stages of inner output blade groups (53B) and seven stages of outer output blade groups (53A) as a liquid oxygen producing machine (89A).   Various energy storage cycle merging engines and merging methods in which the inner output blade group (53B) has seven stages and the outer output blade group (53A) has eight stages, and a liquid oxygen producing machine (89A).   Various energy storage cycle merging engines and merging methods in which the inner output blade group (53B) has eight stages and the outer output blade group (53A) has nine stages, and a liquid oxygen producing machine (89A).   Various energy storage cycle coalescence engines and coalescence methods in which nine stages of inner output blade groups (53B) and ten stages of outer output blade groups (53A) are used as a liquid oxygen producing machine (89A).   Various energy storage cycle coalescence engines and coalescence methods in which the inner output blade group (53B) has 10 stages and the outer output blade group (53A) has 11 stages, and is a liquid oxygen producing machine (89A).   Various energy storage cycle merging engines and merging methods using 11 stages of inner output blade groups (53B) and 12 stages of outer output blade groups (53A) as a liquid oxygen producing machine (89A).   Various energy storage cycle coalescence engines and coalescence methods using a liquid oxygen production machine (89A) with the inner output blade group (53B) as one stage, the outer output blade group (53A) as two stages, and each stage as one casting part.   Various energy storage cycle merging engines and merging methods in which the inner output blade group (53B) has two stages, the outer output blade group (53A) has three stages, and each stage has one casting part as a liquid oxygen production machine (89A).   Various energy storage cycle coalescence engines and coalescence methods in which the inner output blade group (53B) has three stages, the outer output blade group (53A) has four stages, and each stage has one casting part as a liquid oxygen production machine (89A).   Various energy storage cycle merging engines and merging methods in which the inner output blade group (53B) has four stages, the outer output blade group (53A) has five stages, and each stage has one casting part as a liquid oxygen production machine (89A).   Various energy storage cycle merging engines and merging methods in which the inner output blade group (53B) has five stages, the outer output blade group (53A) has six stages, and each stage has one casting part as a liquid oxygen production machine (89A).   Various energy storage cycle merging engines and merging methods in which the inner output blade group (53B) has six stages, the outer output blade group (53A) has seven stages, and each stage has one casting part as a liquid oxygen production machine (89A).   Various energy storage cycle coalescing engines and coalescence methods using seven stages of inner output blade group (53B), eight stages of outer output blade group (53A), and each stage as one casting part as a liquid oxygen production machine (89A).   Various energy storage cycle merging engines and merging methods in which the inner output blade group (53B) has eight stages, the outer output blade group (53A) has nine stages, and each stage has one casting part as a liquid oxygen production machine (89A).   Various energy storage cycle coalescence engines and coalescence methods, wherein the inner output blade group (53B) is nine stages, the outer output blade group (53A) is ten stages, and each stage is one cast part, and a liquid oxygen production machine (89A).   Various energy storage cycle coalescence engines and coalescence methods using a liquid oxygen production machine (89A) with 10 stages of the inner output blade group (53B), 11 stages of the outer output blade group (53A), and each stage as one casting part.   Various energy storage cycle coalescence engines and coalescence methods in which the inner output blade group (53B) is 11 stages, the outer output blade group (53A) is 12 stages, and each stage is one cast part, and a liquid oxygen production machine (89A).   The inner output blade group (53B) is one stage, the outer output blade group (53A) is two stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) to produce a liquid oxygen production machine (89A) Various energy storage cycle coalescence engines and coalescence methods.   A liquid oxygen production machine (89A) by processing the inner output blade group (53B) in two stages, the outer output blade group (53A) in three stages, and processing each stage as a cast part with a counter rotating engine lathe (10C). Various energy storage cycle coalescence engines and coalescence methods.   A liquid oxygen producing machine (89A) is processed by a counter rotating engine lathe (10C) with three stages of the inner output blade group (53B) and four stages of the outer output blade group (53A) and one stage as a cast part. Various energy storage cycle coalescence engines and coalescence methods.   The inner output blade group (53B) has four stages, the outer output blade group (53A) has five stages, and each stage is processed as a cast part on a counter rotating engine lathe (10C) to produce a liquid oxygen production machine (89A). Various energy storage cycle coalescence engines and coalescence methods.   The inner output blade group (53B) has five stages, the outer output blade group (53A) has six stages, and each stage is processed as a cast part on a counter rotating engine lathe (10C) to produce a liquid oxygen producing machine (89A). Various energy storage cycle coalescence engines and coalescence methods.   The inner output blade group (53B) is six stages, the outer output blade group (53A) is seven stages, and each stage is processed as one casting part on a counter rotating engine lathe (10C) to produce a liquid oxygen production machine (89A) Various energy storage cycle coalescence engines and coalescence methods.   The inner output blade group (53B) is seven stages, the outer output blade group (53A) is eight stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) to produce a liquid oxygen production machine (89A) Various energy storage cycle coalescence engines and coalescence methods.   The inner output blade group (53B) is eight stages, the outer output blade group (53A) is nine stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) to produce a liquid oxygen production machine (89A) Various energy storage cycle coalescence engines and coalescence methods.   The inner output blade group (53B) is nine stages, the outer output blade group (53A) is ten stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) to produce a liquid oxygen production machine (89A) Various energy storage cycle coalescence engines and coalescence methods.   The inner output blade group (53B) is 10 stages, the outer output blade group (53A) is 11 stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) to produce a liquid oxygen production machine (89A) Various energy storage cycle coalescence engines and coalescence methods.   The inner output blade group (53B) is 11 stages, the outer output blade group (53A) is 12 stages, and each stage is processed as a cast part on a counter rotating engine lathe (10C) to produce a liquid oxygen production machine (89A) Various energy storage cycle coalescence engines and coalescence methods.   The inner output blade group (53B) is one stage, the outer output blade group (53A) is two stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Various energy storage cycle coalescing engines and coalescence methods for a liquid oxygen producing machine (89A).   The inner output blade group (53B) is two stages, the outer output blade group (53A) is three stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Various energy storage cycle coalescing engines and coalescence methods for a liquid oxygen producing machine (89A).   The inner output blade group (53B) is three stages, the outer output blade group (53A) is four stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Various energy storage cycle coalescing engines and coalescence methods for a liquid oxygen producing machine (89A).   The inner output blade group (53B) has four stages, the outer output blade group (53A) has five stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Various energy storage cycle coalescing engines and coalescence methods for a liquid oxygen producing machine (89A).   The inner output blade group (53B) is five stages, the outer output blade group (53A) is six stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Various energy storage cycle coalescing engines and coalescence methods for a liquid oxygen producing machine (89A).   The inner output blade group (53B) has six stages, the outer output blade group (53A) has seven stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Various energy storage cycle coalescing engines and coalescence methods for a liquid oxygen producing machine (89A).   The inner output blade group (53B) is seven stages, the outer output blade group (53A) is eight stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Various energy storage cycle coalescing engines and coalescence methods for a liquid oxygen producing machine (89A).   The inner output blade group (53B) is 8 stages, the outer output blade group (53A) is 9 stages, and each stage is processed as one cast part with a counter rotating engine lathe (10C) and output blade grinding machine (10E). Various energy storage cycle coalescing engines and coalescence methods for a liquid oxygen producing machine (89A).   The inner output blade group (53B) is 9 stages, the outer output blade group (53A) is 10 stages, and each stage is processed as one cast part on the counter rotating engine lathe (10C) and output blade grinding machine (10E). Various energy storage cycle coalescing engines and coalescence methods for a liquid oxygen producing machine (89A).   The inner output blade group (53B) is 10 stages, the outer output blade group (53A) is 11 stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Various energy storage cycle coalescing engines and coalescence methods for a liquid oxygen producing machine (89A).   The inner output blade group (53B) is 11 stages, the outer output blade group (53A) is 12 stages, and each stage is processed as one cast part on the counter rotating engine lathe (10C) and output blade grinding machine (10E). Various energy storage cycle coalescing engines and coalescence methods for a liquid oxygen producing machine (89A).   The inner output blade group (53B) is one stage, the outer output blade group (53A) is two stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, each of the outer shaft device (60B) and the inner shaft device (60A) is temporarily assembled and held by a counter rotating engine lathe (10C) to adjust the ultra-high speed balance, thereby preparing a liquid oxygen production machine (89A). Cycle coalescence engine and coalescence method.   The inner output blade group (53B) is two stages, the outer output blade group (53A) is three stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, each of the outer shaft device (60B) and the inner shaft device (60A) is temporarily assembled and held by a counter rotating engine lathe (10C) to adjust the ultra-high speed balance, thereby preparing a liquid oxygen production machine (89A). Cycle coalescence engine and coalescence method.   The inner output blade group (53B) is three stages, the outer output blade group (53A) is four stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, each of the outer shaft device (60B) and the inner shaft device (60A) is temporarily assembled and held by a counter rotating engine lathe (10C) to adjust the ultra-high speed balance, thereby preparing a liquid oxygen production machine (89A). Cycle coalescence engine and coalescence method.   The inner output blade group (53B) has four stages, the outer output blade group (53A) has five stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, each of the outer shaft device (60B) and the inner shaft device (60A) is temporarily assembled and held by a counter rotating engine lathe (10C) to adjust the ultra-high speed balance, thereby preparing a liquid oxygen production machine (89A). Cycle coalescence engine and coalescence method.   The inner output blade group (53B) is five stages, the outer output blade group (53A) is six stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, each of the outer shaft device (60B) and the inner shaft device (60A) is temporarily assembled and held by a counter rotating engine lathe (10C) to adjust the ultra-high speed balance, thereby preparing a liquid oxygen production machine (89A). Cycle coalescence engine and coalescence method.   The inner output blade group (53B) has six stages, the outer output blade group (53A) has seven stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, each of the outer shaft device (60B) and the inner shaft device (60A) is temporarily assembled and held by a counter rotating engine lathe (10C) to adjust the ultra-high speed balance, thereby preparing a liquid oxygen production machine (89A). Cycle coalescence engine and coalescence method.   The inner output blade group (53B) is seven stages, the outer output blade group (53A) is eight stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, each of the outer shaft device (60B) and the inner shaft device (60A) is temporarily assembled and held by a counter rotating engine lathe (10C) to adjust the ultra-high speed balance, thereby preparing a liquid oxygen production machine (89A). Cycle coalescence engine and coalescence method.   The inner output blade group (53B) is 8 stages, the outer output blade group (53A) is 9 stages, and each stage is processed as one cast part with a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, each of the outer shaft device (60B) and the inner shaft device (60A) is temporarily assembled and held by a counter rotating engine lathe (10C) to adjust the ultra-high speed balance, thereby preparing a liquid oxygen production machine (89A). Cycle coalescence engine and coalescence method.   The inner output blade group (53B) is 9 stages, the outer output blade group (53A) is 10 stages, and each stage is processed as one cast part with a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, each of the outer shaft device (60B) and the inner shaft device (60A) is temporarily assembled and held by a counter rotating engine lathe (10C) to adjust the ultra-high speed balance, thereby preparing a liquid oxygen production machine (89A). Cycle coalescence engine and coalescence method.   The inner output blade group (53B) is 10 stages, the outer output blade group (53A) is 11 stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, each of the outer shaft device (60B) and the inner shaft device (60A) is temporarily assembled and held by a counter rotating engine lathe (10C) to adjust the ultra-high speed balance, thereby preparing a liquid oxygen production machine (89A). Cycle coalescence engine and coalescence method.   The inner output blade group (53B) is 11 stages, the outer output blade group (53A) is 12 stages, and each stage is processed as one cast part on the counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, each of the outer shaft device (60B) and the inner shaft device (60A) is temporarily assembled and held by a counter rotating engine lathe (10C) to adjust the ultra-high speed balance, thereby preparing a liquid oxygen production machine (89A). Cycle coalescence engine and coalescence method.   The inner output blade group (53B) is one stage, the outer output blade group (53A) is two stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating gear device (85Y).   The inner output blade group (53B) is two stages, the outer output blade group (53A) is three stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating gear device (85Y).   The inner output blade group (53B) is three stages, the outer output blade group (53A) is four stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating gear device (85Y).   The inner output blade group (53B) has four stages, the outer output blade group (53A) has five stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating gear device (85Y).   The inner output blade group (53B) is five stages, the outer output blade group (53A) is six stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating gear device (85Y).   The inner output blade group (53B) has six stages, the outer output blade group (53A) has seven stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating gear device (85Y).   The inner output blade group (53B) is seven stages, the outer output blade group (53A) is eight stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating gear device (85Y).   The inner output blade group (53B) is 8 stages, the outer output blade group (53A) is 9 stages, and each stage is processed as one cast part with a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating gear device (85Y).   The inner output blade group (53B) is 9 stages, the outer output blade group (53A) is 10 stages, and each stage is processed as one cast part on the counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating gear device (85Y).   The inner output blade group (53B) is 10 stages, the outer output blade group (53A) is 11 stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating gear device (85Y).   The inner output blade group (53B) is 11 stages, the outer output blade group (53A) is 12 stages, and each stage is processed as one cast part on the counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating gear device (85Y).   The inner output blade group (53B) is one stage, the outer output blade group (53A) is two stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating magnetic device (85).   The inner output blade group (53B) is two stages, the outer output blade group (53A) is three stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating magnetic device (85).   The inner output blade group (53B) is three stages, the outer output blade group (53A) is four stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating magnetic device (85).   The inner output blade group (53B) has four stages, the outer output blade group (53A) has five stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating magnetic device (85).   The inner output blade group (53B) is five stages, the outer output blade group (53A) is six stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating magnetic device (85).   The inner output blade group (53B) has six stages, the outer output blade group (53A) has seven stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating magnetic device (85).   The inner output blade group (53B) is seven stages, the outer output blade group (53A) is eight stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating magnetic device (85).   The inner output blade group (53B) is 8 stages, the outer output blade group (53A) is 9 stages, and each stage is processed as one cast part with a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating magnetic device (85).   The inner output blade group (53B) is 9 stages, the outer output blade group (53A) is 10 stages, and each stage is processed as one cast part on the counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating magnetic device (85).   The inner output blade group (53B) is 10 stages, the outer output blade group (53A) is 11 stages, and each stage is processed as one cast part on a counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating magnetic device (85).   The inner output blade group (53B) is 11 stages, the outer output blade group (53A) is 12 stages, and each stage is processed as one cast part on the counter rotating engine lathe (10C) and output blade grinding machine (10E). Then, the outer shaft device (60B) and the inner shaft device (60A) are temporarily assembled, held by a counter rotating engine lathe (10C), and subjected to ultra-high-speed balance adjustment processing. (60B) Various energy storage cycle merging engines and merging methods in which the inner shaft device (60A) is a liquid oxygen producing machine (89A) that is horizontally coupled and driven by a counter-rotating magnetic device (85).   Various energy storage cycle coalescence engine and coalescence method using horizontal turbine blade specific gravity gravity turbine (11W) with integral turbine blade group (8G) horizontal shaft (16A) as one cast part and total length of 1.5m or less.   Various energy storage cycle coalescence engine and coalescence method using horizontal turbine blade specific gravity gravity turbine (11W) with integral turbine blade group (8G) horizontal shaft (16A) as one cast part and total length of 2 m or less.   Various energy storage cycle coalescence engine and coalescence method using horizontal turbine blade specific gravity gravity turbine (11 W) with integral turbine blade group (8G) horizontal shaft (16A) as one cast part and total length of 2.5 m or less.   Various energy storage cycle coalescence engine and coalescence method using horizontal turbine blade specific gravity gravity turbine (11W) with integral turbine blade group (8G) horizontal shaft (16A) as one cast part and total length of 3 m or less.   Various energy storage cycle coalescence engine and coalescence method using horizontal turbine blade specific gravity gravity turbine (11W) with integral turbine blade group (8G) horizontal shaft (16A) as one cast part and total length of 3,5 m or less.   Various energy storage cycle coalescence engines and coalescence methods, wherein the integrated turbine blade group (8G) horizontal shaft (16A) is a cast part and the total length is 4 m or less, and the horizontal full-blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engine and coalescence method using a horizontal turbine blade specific gravity gravity turbine (11 W) with an integral turbine blade group (8G) horizontal shaft (16A) as one cast part and a total length of 4,5 m or less.   Various energy storage cycle coalescence engines and coalescence methods, in which an integral turbine blade group (8G) horizontal shaft (16A) is a cast part and a total length is 5 m or less and a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engine and coalescence method using horizontal turbine blade specific gravity gravity turbine (11W) with integral turbine blade group (8G) horizontal shaft (16A) as one cast part and total length of 5,5m or less.   Various energy storage cycle coalescence engines and coalescence methods, including an integral turbine blade group (8G) and a horizontal axis (16A) as a single cast part and a total length of 6 m or less, and a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engine and coalescence method using horizontal turbine blade specific gravity gravity turbine (11 W) with integral turbine blade group (8G) horizontal shaft (16A) as one cast part and total length of 6m or more.   Various energy storage cycle coalescence engine and coalescence method using a horizontal full-blade steam ratio critical material gravity turbine (11 W) with an integral turbine blade group (8G) horizontal shaft (16A) as two cast parts and a total length of 1.5 m or less.   Various energy storage cycle coalescence engines and coalescence methods, wherein the integrated turbine blade group (8G) has a horizontal axis (16A) as two cast parts and has a total length of 2 m or less and is a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11 W) with two integrated cast turbine blade groups (8G) horizontal shaft (16A) and a total length of 2.5 m or less.   Various energy storage cycle coalescence engines and coalescence methods, wherein the integrated turbine blade group (8G) has a horizontal shaft (16A) as two cast parts and has a total length of 3 m or less, and is a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engine and coalescence method using a horizontal full-blade steam ratio critical material gravity turbine (11 W) with an integral turbine blade group (8G) horizontal shaft (16A) as two cast parts and a total length of 3.5 m or less.   Various energy storage cycle coalescence engines and coalescence methods, wherein the integrated turbine blade group (8G) has a horizontal axis (16A) as two cast parts and has a total length of 4 m or less, and is a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engine and coalescence method using a horizontal full-blade steam ratio critical material gravity turbine (11W) with an integral turbine blade group (8G) horizontal shaft (16A) as two cast parts and a total length of 4,5 m or less.   Various energy storage cycle coalescence engines and coalescence methods, wherein the integrated turbine blade group (8G) has a horizontal axis (16A) as two cast parts and has a total length of 5 m or less, and is a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engines and coalescence methods, in which an integral turbine blade group (8G) horizontal shaft (16A) is used as two cast parts and the overall length is 5,5 m or less, and a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescing engines and coalescence methods, in which the integrated turbine blade group (8G) has a horizontal axis (16A) as two cast parts and has a total length of 6 m or less, and is a horizontal full-blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engines and coalescence methods with a turbine blade group (8G) horizontal shaft (16A) as two cast parts and a total length of 6 m or more, and a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engine and coalescence method using horizontal turbine blade specific gravity gravity turbine (11W) with integral turbine blade group (8G) horizontal shaft (16A) as three cast parts and total length of 1.5m or less.   Various energy storage cycle coalescence engine and coalescence method using horizontal turbine blade specific gravity gravity turbine (11W) with integral turbine blade group (8G) horizontal shaft (16A) as three cast parts and total length of 2 m or less.   Various energy storage cycle coalescence engine and coalescence method using a horizontal full-blade steam ratio critical material gravity turbine (11W) with an integral turbine blade group (8G) horizontal shaft (16A) as three cast parts and a total length of 2.5 m or less.   Various energy storage cycle coalescence engines and coalescence methods, wherein the integrated turbine blade group (8G) has a horizontal shaft (16A) as three cast parts and has a total length of 3 m or less and is a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engine and coalescence method using a horizontal full-blade steam ratio critical material gravity turbine (11W) with an integral turbine blade group (8G) horizontal shaft (16A) as three cast parts and a total length of 3,5 m or less.   Various energy storage cycle coalescence engines and coalescence methods, wherein the integrated turbine blade group (8G) has a horizontal shaft (16A) as three cast parts and has a total length of 4 m or less, and is a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engine and coalescence method using horizontal turbine blade specific gravity gravity turbine (11W) with integral turbine blade group (8G) horizontal shaft (16A) as three cast parts and total length of 4,5m or less.   Various energy storage cycle coalescence engines and coalescence methods, wherein the integrated turbine blade group (8G) has a horizontal shaft (16A) as three cast parts and has a total length of 5 m or less and is a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engine and coalescence method using a horizontal turbine blade specific ratio gravity material gravity turbine (11 W) with an integral turbine blade group (8G) horizontal shaft (16A) as three cast parts and a total length of 5,5 m or less.   Various energy storage cycle coalescence engines and coalescence methods, wherein the integrated turbine blade group (8G) has a horizontal shaft (16A) as three cast parts and has a total length of 6 m or less, and is a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Various energy storage cycle coalescence engines and coalescence methods, wherein the integrated turbine blade group (8G) has a horizontal shaft (16A) as three cast parts and has a total length of 6 m or more, and is a horizontal full-blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 1.5m or less and machined with a counter-rotating engine lathe (10C), horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 2 m or less and machined with a counter-rotating engine lathe (10C) to produce a horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 2.5m or less and machined on a counter rotating engine lathe (10C), horizontal full blade constant ratio gravity material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 3 m or less and machined with a counter-rotating engine lathe (10C) to make a horizontal full blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 3,5 m or less and machined with a counter-rotating engine lathe (10C), horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 4 m or less and machined with a counter-rotating engine lathe (10C) to obtain a horizontal full-rotor blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 4,5m or less and machined with a counter-rotating engine lathe (10C). Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 5 m or less and machined with a counter-rotating engine lathe (10C) to produce a horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 5,5 m or less and machined on a counter rotating engine lathe (10C), and a horizontal full rotor blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 6 m or less and machined with a counter-rotating engine lathe (10C) to make a horizontal full blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 6m or more and machined with a counter-rotating engine lathe (10C) to make a horizontal full blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 1.5m or less, machined with counter-rotating engine lathe (10C), horizontal type full blade constant ratio gravity material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 2 m or less and machined with a counter-rotating engine lathe (10C) to obtain a horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2.5m or less, machined with counter-rotating engine lathe (10C), horizontal type full blade constant ratio gravity material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 3 m or less and machined with a counter-rotating engine lathe (10C) to make a horizontal full blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Combined turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 3.5m or less, machined with a counter-rotating engine lathe (10C), horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 4 m or less, machined with a counter-rotating engine lathe (10C) to make a horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Combined turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 4,5m or less, machined with counter-rotating engine lathe (10C), horizontal type full blade constant ratio gravity material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 5 m or less, machined with a counter-rotating engine lathe (10C) to make a horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and total length of 5,5m or less, machined with counter-rotating engine lathe (10C), horizontal type full blade constant ratio gravity material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 6 m or less, machined with a counter-rotating engine lathe (10C), and made into a horizontal full rotor blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 6m or more and machined with a counter-rotating engine lathe (10C) to obtain a horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 1.5m or less, machined with counter-rotating engine lathe (10C), horizontal type full blade constant ratio gravity material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and a total length of 2 m or less, machined with a counter-rotating engine lathe (10C) to make a horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2.5m or less, machined with counter rotating engine lathe (10C), horizontal full rotor blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and a total length of 3 m or less, machined with a counter-rotating engine lathe (10C), and made into a horizontal full rotor blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3,5m or less and machined with counter-rotating engine lathe (10C), horizontal type full blade constant ratio gravity material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and a total length of 4 m or less, machined with a counter-rotating engine lathe (10C), and made into a horizontal full-rotor blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and total length of 4,5m or less, machined with counter-rotating engine lathe (10C), horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and a total length of 5m or less, machined with a counter-rotating engine lathe (10C), and made into a horizontal full rotor blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5,5m or less and machined with counter rotating machine lathe (10C), horizontal full rotor blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and a total length of 6 m or less and machined with a counter-rotating engine lathe (10C) to make a horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and a total length of 6m or more and machined with a counter-rotating engine lathe (10C) to make a horizontal full-blade steam ratio critical material gravity turbine (11W) Various energy storage cycle coalescence engines and coalescence methods.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 1.5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Combined turbine blade group (8G) with horizontal axis (16A) as one cast part and with a total length of 2 m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full rotor blade steam specific gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2.5 m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Combined turbine blade group (8G) with horizontal axis (16A) as one cast part and with a total length of 3m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full rotor blade steam specific gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 3,5 m or less, machined with a counter-rotating engine lathe (10C) and a turbine blade grinding machine (10G), and a horizontal full blade Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 4m or less, machined with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G) to create a horizontal full blade steam specific gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, with a total length of 4,5 m or less, machined with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G), and a horizontal all blade Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Combined turbine blade group (8G) with horizontal axis (16A) as one cast part and with a total length of 5m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full rotor blade steam specific gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 5,5m or less, machined with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G) to create a horizontal all blade Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) and horizontal full blade steam specific gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part and with a total length of 6m or more, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full rotor blade steam specific gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 1.5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 2m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2.5m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 3m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G), and horizontal full blade constant gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of 3.5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 4m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G), and horizontal full-blade steam specific gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts and a total length of less than 4,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) and horizontal full blade steam specific gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5,5m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G), and horizontal full blade static gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 6m or more, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 1.5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2.5m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and a total length of 3,5 m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal axis (16A) with 3 cast parts, total length of 4m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts and total length of 4,5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) and horizontal full blade steam specific gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5,5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method with steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or less, machined with counter-rotating engine lathe (10C) and turbine blade grinding machine (10G), horizontal full blade constant steam specific gravity Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or more, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method as a large material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 1.5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), and assembly into a counter rotating engine Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2.5 m or less, machining with double reversing engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 3m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 3, 5 m or less, processed with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G) and assembled into a double Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one casting part, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 4,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5,5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of less than 1,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 3,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 4,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and assembled Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into counter rotating engine Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 1,5m and machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 2,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 3,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into double Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4,5m or less, machining with double turning engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescing engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a turning engine lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W) by holding ultrahigh-speed balance adjustment processing on a lathe (10C).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 1.5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), and assembly into a counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2.5 m or less, machining with double reversing engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 3m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 3, 5 m or less, processed with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G) and assembled into a double Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one casting part, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 4,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5,5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of less than 1,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 3,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 4,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and assembled Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 1,5m and machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 2,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 3,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into double Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4,5m or less, machining with double turning engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Reversing engine lathe (10C) holding ultra high-speed balance adjustment processing, using various magnetism to make bearing (12C) close to zero bearing load, various energy storage cycle as horizontal full blade steam ratio critical material gravity turbine (11W) Merger engine and merger method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with a lathe (10C) Ultra high-speed balance adjustment processing Various magnetic storage, combined with a bearing (12C) approaching zero bearing load, a horizontal full blade steam ratio critical material gravity turbine (11W) And coalescing method.   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 1.5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), and assembly into a counter rotating engine Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2.5 m or less, machining with double reversing engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 3m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 3, 5 m or less, processed with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G) and assembled into a double Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one casting part, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 4,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5,5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of less than 1,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 3,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 4,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and assembled Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into counter rotating engine Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 1,5m and machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 2,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 3,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into double Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4,5m or less, machining with double turning engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type rotor blade steam ratio is seriously controlled by using ultra-high-speed balance adjustment processing with a rotating engine lathe (10C) and using various magnetism to make a bearing (12C) close to a bearing load of 0 (vertical connection) with a series rotating gear (4D). Various energy storage cycle coalescence engine and coalescence method as a material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Horizontal type full-blade blade steam ratio critical material gravity that is driven by vertical connection with series rotating gear (4D) using bearings (12C) close to bearing load 0 by using various magnets and holding ultra-high-speed balance processing with lathe (10C) Various energy storage cycle coalescence engine and coalescence method as a turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 1.5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), and assembly into a counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 2.5 m or less, machining with double reversing engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 3m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as a single cast part, total length of 3, 5 m or less, processed with a counter rotating engine lathe (10C) and a turbine blade grinding machine (10G) and assembled into a double Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one casting part, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 4,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 5,5m or less, double-reversed engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or less, machining with a counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) as one cast part, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of less than 1,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 2,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 3,5m or less, machined by counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 2 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 4,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and assembled Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5m or less, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) are assembled and double-assembled Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G), assembled into a counter rotating engine Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with two cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 1,5m and machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 2m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 2,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 3m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) is 3 cast parts, total length is less than 3,5m, machined with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) and assembled into double Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 4,5m or less, machining with double turning engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 5,5m or less, double counter-rotating engine lathe (10C) and turbine blade grinding machine (10G) Super-high-speed balance adjustment processed by turning engine lathe (10C), using various magnetism to make bearing (12C) close to zero bearing load, driven oppositely by counter-synchronous gear (4C), and vertically driven by series co-rotating gear (4D) Various energy storage cycle coalescing engines and coalescence methods that are coupled to drive a horizontal all-blade steam ratio critical material gravity turbine (11 W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or less, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).   Integrated turbine blade group (8G) Horizontal shaft (16A) with 3 cast parts, total length of 6m or more, machining with counter rotating engine lathe (10C) and turbine blade grinding machine (10G) Holding with high speed lathe (10C), adjusting to ultra high speed balance, using various magnetism to make bearing (12C) close to zero bearing load, opposed driving with counter synchronous gear (4C), vertical driving with series rotating gear (4D) Various energy storage cycle coalescence engine and coalescence method using a horizontal full rotor blade steam ratio critical material gravity turbine (11W).