JP2013076349A - Various energy conservation cycle combined engine - Google Patents

Various energy conservation cycle combined engine Download PDF

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JP2013076349A
JP2013076349A JP2011216027A JP2011216027A JP2013076349A JP 2013076349 A JP2013076349 A JP 2013076349A JP 2011216027 A JP2011216027 A JP 2011216027A JP 2011216027 A JP2011216027 A JP 2011216027A JP 2013076349 A JP2013076349 A JP 2013076349A
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electricity
blade
horizontal
superheated steam
coalescence
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Hiroyasu Tanigawa
浩保 谷川
Kazunaga Tanigawa
和永 谷川
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    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
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    • Y02E60/36Hydrogen production from non-carbon containing sources, e.g. by water electrolysis

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Abstract

PROBLEM TO BE SOLVED: To solve a problem of power generation by an existing steam turbine including stator blades by half which have no power, block steam velocity and reduce the steam velocity to one tenth, and providing a volume of water of 43,000 times that at the maximum velocity portion, wherein the output of power generation is nearly zero.SOLUTION: To improve the existing steam turbine including the stator blades by half which have no power, block lightweight steam velocity and reduce power generation amount to 1/10 or below in power generation by lightweight matter, all rotor blades are double-reversed by a lateral shaft 1h and gears to generate power by water gravity acceleration in a vacuum of 30 mm Hg. Water injection turbines of 100 sets are combined to generate a power of 100 times that of existing steam turbine power at an approximately mach 3 for each injection turbine. An electric, liquid air, and superheated steam thermal supply facility 3D is assembled with an electrically driven solar light heater which is reduced in cost since fuel cost is zero and power generation cost is reduced to 1/100. For automobiles, ships, and airplanes, liquid oxygen compression drive is used to reduce a volume compression power to 21/60,000 of air compression so as to reduce a fuel cost to 1/10 and increase a speed ten times. For airplanes, space arrival cost is targeted to be reduced to 1/500,000 so that a day trip to anywhere on the earth can be achieved, and that a profit rate for operation of all the products is highest in the world all the time.

Description

本発明対向同期歯車4cや直列同回転歯車4dで、対向同期回転や直列同回転する横型全動翼水重力タービン8R発電は、既存揚水発電に地球最大未利用再生可能エネルギの、真空度上昇中の重力加速度追加+音速等噴射追加+タービン数無制限落差無制限追加して、例えばウォータージェット加工機水噴射速度マッハ3に近付けた水噴射速度や、落差500〜800mにタービン100台等既存揚水発電の800倍発電量狙いにし、ボイラや原子炉全廃の燃料費0資源価格0実験が必要な発電として、水重力タービン8R発電電気駆動1〜複数段熱ポンプ1Gや太陽光加熱器21とし、太陽光加熱の空気を圧縮高温として、1〜複数段圧縮熱回収器2Cで熱回収分割保存する熱製造にし、50〜200MPa過熱蒸気50温熱+液体空気28a冷熱に分割保存して、電気+液体空気冷熱+過熱蒸気温熱供給設備3D無限用途対応とし、例えば船舶や車両や飛行機等は液体酸素て受給して、圧縮容積仕事率を空気圧縮の1/600×21/100=21/60000容積仕事率にし、液体酸素や水の圧縮圧力20倍等を容易として、理論膨張機関3Pの回転力駆動や、酸素合体空気噴射部88Aや酸素合体水噴射部88Kの合体噴射推進にし、船舶の合体噴射推進では自然現象高速化2a海水に窒素や酸素やCO2を供給微生物や海草類増大して、食物連鎖等で魚類等人類の食料を大増大し、飛行機や自動車駆動ではCO2排気1/10や燃料費1/10や1/50万経費宇宙到達狙い等、飛行機や船舶は10倍速度狙い等、各種エネルギ保存サイクル合体機関や各種エネルギ保存合体方法の技術に関する。 The horizontal all-wheel blade water gravity turbine 8R power generation that is oppositely synchronized and rotated in series with the counter-synchronous gear 4c and the series-rotating gear 4d of the present invention is increasing the degree of vacuum of the largest unused renewable energy on earth in the existing pumped-storage power generation. Gravity acceleration addition + sonic speed injection addition + turbine number unlimited head drop unlimited addition, for example, water jet speed close to water jet machine water injection speed Mach 3, or existing turbines such as 100 turbines at head drop 500-800m Aiming to generate power 800 times, fuel cost of boilers and nuclear reactors abolished 0 resource price 0 power generation requiring water gravity turbine 8R power generation electric drive 1 to multistage heat pump 1G and solar heater 21 Heating air is compressed to high temperature, heat production is divided and stored in 1 to 2 stages of compressed heat recovery devices 2C, 50 to 200 MPa superheated steam 50 heat + liquid air 2 a) Divided and stored in cold heat, electric + liquid air cold heat + superheated steam heat supply equipment 3D for endless use, for example, ships, vehicles, airplanes, etc. receive liquid oxygen and the compression volume work rate is 1/0 of air compression 600 × 21/100 = 21/60000 Volumetric power, easy compression of liquid oxygen or water by 20 times, rotational driving of theoretical expansion engine 3P, oxygen combined air injection unit 88A or oxygen combined water injection unit 88K united jet propulsion, ship united propulsion propulsion natural phenomenon 2a Nitrogen, oxygen and CO2 are supplied to seawater Microorganisms and seaweeds increase, food such as fish greatly increases human food such as airplanes In the case of automobile driving, CO2 exhaust 1/10, fuel cost 1/10, 1 / 500,000 costs, aiming to reach space, airplanes and ships aiming at 10x speed, etc. It relates to the technique of body methods.

既存世界最多の自動車駆動往復機関は空気圧縮で膨大な燃料消費しており、横型全動翼水重力タービン8R真空中水重力加速度発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dより、液体酸素室5Kに液体酸素5Kを受給し、液体酸素5Kの圧縮にして、圧縮容積仕事率を空気圧縮の21/60000容積仕事率にして200MPa超高圧圧縮噴射にし、液体酸素5K+液体燃料1b+水52aを超高圧に圧縮理論燃焼室4Y内周等で加熱して、超高温や最適温度に加熱して理論燃焼室4Yに夫々を噴射する過程で燃料噴射燃焼し、例えばアセチレン酸素バーナー複数中心付近燃焼で外周付近高圧高温過熱蒸気50を加熱して、酸素アセチレン炎3000℃以上水の熱分解狙い酸素水素増大燃焼の各種研究にし、理論燃焼室4Yで超高圧の燃焼ガス49+過熱蒸気50として、高圧高温燃焼ガス制御弁5a開放や燃焼ガス噴射ノズル6Yより噴射し、理論膨張機関3Pを駆動して、自動車や耕耘機等各種車両類やプロペラ7Aや回転翼7Bやスクリュウ7Cを駆動し、各種車両類やプロペラ飛行機やスクリュウ船舶を駆動して、燃料費0発電電気製造の液体酸素5K使用により燃料費1/10や10倍速度狙いとし、利益率抜群世界一狙う、各種エネルギ保存サイクル合体機関及び合体方法の技術に関する。   The most existing car-driven reciprocating engine in the world consumes enormous amount of fuel due to air compression. Horizontal + all-blade water gravity turbine 8R Vacuum-in-water gravity acceleration power generation electric manufacturing, electricity + liquid air cold heat + superheated steam heat supply equipment 3D Accordingly, the liquid oxygen chamber 5K receives the liquid oxygen 5K, compresses the liquid oxygen 5K, sets the compression volume work rate to 21/60000 volume work rate of air compression, and performs the 200 MPa ultra-high pressure compression injection to obtain the liquid oxygen 5K + liquid fuel. 1b + water 52a is heated to an ultra-high pressure at the inner periphery of the compression theoretical combustion chamber 4Y, and is heated to an ultra-high temperature or optimum temperature and injected into the theoretical combustion chamber 4Y, and fuel injection combustion is performed, for example, a plurality of acetylene oxygen burners The high temperature high temperature superheated steam 50 near the outer periphery is heated by combustion near the center, and the oxygen acetylene flame 3000 ° C. or more is used for various researches of oxygen hydrogen augmentation combustion aiming at thermal decomposition of water. Y is injected as ultra-high pressure combustion gas 49 + superheated steam 50 from the high-pressure / high-temperature combustion gas control valve 5a and the combustion gas injection nozzle 6Y, and drives the theoretical expansion engine 3P to drive various vehicles such as automobiles and cultivators and propellers. 7A, rotor blade 7B and screw 7C are driven, various vehicles, propeller airplanes and screw ships are driven, and the fuel cost is set to 1/10 or 10 times speed by using liquid oxygen 5K for electric power generation, TECHNICAL FIELD The present invention relates to technologies for various energy conservation cycle coalescence engines and coalescence methods aiming at the best in the world.

既存ジェット機ガスタービンも空気圧縮で膨大な燃料消費して、回転出力や噴射推進出力を僅少とし、空気抵抗01日に地球を16周等宇宙飛行が不可能なため、宇宙ロケットとジェットを合体した液体圧縮の酸素合体空気噴射部88A噴射推進狙いとして、横型全動翼水重力タービン8R発電電気駆動多数の1〜複数段二重反転圧縮機3T等熱ポンプ1G+太陽光加熱器21熱製造により、50〜200MPaの過熱蒸気温熱50+液体空気冷熱28aに分割保存し、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dとして、飛行機の噴射推進は液体酸素5K+液体燃料1b+水52aで受給し、液体酸素圧縮により圧縮容積仕事率を空気圧縮の21/60000容積仕事率超高圧圧縮して、液体酸素制御弁5T+水制御弁5Q+液体燃料制御弁1Kを開放、夫々を酸素合体空気噴射部88A内周や理論燃焼室4Y内周等で加熱して最適温度にし、燃料制御弁25b+酸素制御弁24D+過熱蒸気制御弁25を開放して、夫々を1以上の理論燃焼室4Yに噴射燃焼して過熱蒸気熱分解燃焼等に挑戦し、例えばアセチレン酸素バーナー複数中央燃焼3300℃以上で熱分解電気分解狙いとして、過熱蒸気燃焼狙い+過熱蒸気による理論燃焼室4Yの保護燃焼+燃焼量増大噴射出力増大とし、同様に燃焼流複数段理論燃焼室4Y燃焼や吸引空気流複数理論燃焼室4Y燃焼噴射推進にして、燃焼ガス49や過熱蒸気50を50〜200MPa噴射前方の空気を吸引噴射し、宇宙到達費用を既存の1/50万狙いにして、燃料費0に近い宇宙飛行で1日に地球を16周する等地球上何処でも日帰り旅行を可能にし、各種宇宙往還飛行機類で利益率抜群世界一狙う、各種エネルギ保存サイクル合体機関及び合体方法の技術に関する。   The existing jet gas turbine also consumes a large amount of fuel due to air compression, and the rotation output and injection propulsion output are reduced, and space flight such as 16 laps on the earth is impossible on the day of air resistance. As a liquid compression oxygen coalesced air injection unit 88A injection propulsion aiming, horizontal full-blade water gravity turbine 8R power generation electric drive many 1 to multi-stage counter rotating compressor 3T etc. heat pump 1G + solar heater 21 heat production, 50 to 200 MPa superheated steam temperature 50 + liquid air cold heat 28a is divided and stored. As electricity + liquid air cold heat + superheated steam heat supply equipment 3D, the jet propulsion of the airplane is received by liquid oxygen 5K + liquid fuel 1b + water 52a, and liquid oxygen The compression volume work rate is compressed by air compression to 21/60000 volume work ultra-high pressure, and the liquid oxygen control valve 5T + water control valve 5Q + liquid fuel The control valve 1K is opened, each is heated at the inner periphery of the oxygen coalesced air injection section 88A, the inner periphery of the theoretical combustion chamber 4Y, etc., to the optimum temperature, the fuel control valve 25b + oxygen control valve 24D + superheated steam control valve 25 is opened, Each one is injected and burned into one or more theoretical combustion chambers 4Y to challenge superheated steam pyrolysis combustion, for example, acetylene oxygen burner multi-center combustion at 3300 ° C or higher, aiming at pyrolysis electrolysis, by superheated steam combustion aim + superheated steam The combustion of the combustion gas 49 and the superheated steam 50 is changed to the combustion combustion multistage theoretical combustion chamber 4Y combustion or the intake air flow multitheoretical combustion chamber 4Y combustion injection propulsion in the same way. 50-200MPa injection The air ahead is sucked and injected, aiming for space arrival cost of 1 / 500,000, and flying around the earth 16 times a day in space flight close to zero fuel cost anywhere on the earth To allow a day trip, aimed at profit margins preeminent world in a variety of space shuttle airplane class, relates to a technology of various energy conservation cycle combined institutions and coalescence method.

既存船舶も空気圧縮で膨大な燃料消費して回転出力や噴射推進出力を僅少とし、低速移動に膨大な燃料を消費しているため改良し、液体酸素圧縮で圧縮容積仕事率を空気圧縮の21/60000容積仕事率にして、液体空気製造の空気圧縮機も理論最良の二重反転圧縮機3T使用追加とし、横型全動翼水重力タービン8R発電電気駆動1〜複数段二重反転圧縮機3T等熱ポンプ1G圧縮として、太陽光加熱器21太陽光加熱の空気を圧縮高温とし、1〜複数段圧縮熱回収器2Cで熱回収分割保存する熱製造にして、50〜200MPa過熱蒸気50温熱+液体空気28a冷熱に分割保存し、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dとして、液体酸素5K+液体燃料1c+水52aを受給ポンプ圧縮50〜200MPaとし、液体酸素制御弁5T+液体燃料制御弁1K+水制御弁5Qを開放して、酸素合体水噴射部88K内周や理論燃焼室4Y内周で夫々最適温度に加熱し、酸素合体水噴射部88Kや理論膨張機関3Pに噴射夫々を水噴射駆動や回転駆動して、酸素合体水噴射部88Kの噴射推進や理論膨張機関3Pのスクリュウ7C回転推進にし、既存船舶速度の10倍速度や1/10燃料費狙いとして、スクリュウ推進排気の過程では簡単ウォータージェット推進選択可能とし、噴射推進の過程で自然現象高速化して海中に酸素や窒素やCO2等を供給して、微生物や植物プランクトンや海草類やサンゴや魚類等を増殖人類の食物を増大し、利益率抜群世界一狙う、各種エネルギ保存サイクル合体機関及び合体方法の技術に関する。   The existing ship consumes a large amount of fuel by air compression, reduces the rotational output and injection propulsion output, and consumes a large amount of fuel for low-speed movement. / 60000 volumetric power, liquid air production air compressor is also added to use the best counter-rotating compressor 3T, horizontal full blade water gravity turbine 8R power generation electric drive 1-multiple stage counter-rotating compressor 3T As the isothermal pump 1G compression, the solar heater 21 solar heating air is compressed to a high temperature, heat production is divided and stored in the 1-multistage compression heat recovery unit 2C, and 50-200 MPa superheated steam 50 heat + Liquid air 28a is divided and stored in cold heat, and as electricity + liquid air cold heat + superheated steam heat supply equipment 3D, liquid oxygen 5K + liquid fuel 1c + water 52a is received pump compression 50 to 200 MPa, liquid oxygen The control valve 5T + liquid fuel control valve 1K + water control valve 5Q is opened and heated to the optimum temperature in the inner periphery of the oxygen combined water injection unit 88K and the inner periphery of the theoretical combustion chamber 4Y, respectively, and the oxygen combined water injection unit 88K and the theoretical expansion engine Injecting and rotating each of the 3P injections to make the oxygen combined water injection unit 88K injection propulsion and the theoretical expansion engine 3P screw 7C rotation propulsion, aiming at 10 times the existing ship speed and 1/10 fuel cost In the process of screw propulsion and exhaust, it is possible to select simple water jet propulsion, and in the process of jet propulsion, natural phenomena are accelerated to supply oxygen, nitrogen, CO2, etc. into the sea, and microorganisms, phytoplankton, seaweeds, corals, fish, etc. The present invention relates to technologies for various energy conservation cycle coalescence engines and coalescence methods that increase the food of breeding human beings and aim for the world's best profit rate.

洗脳皆無の小学校理科で考えると、既存最良蒸気タービン発電の大気圧同速度同容積仕事率kg重m/秒が、横型全動翼水重力タービン8R仕事率の1/1700と僅少に加えて、蒸気速度を堰止めて仕事皆無の静翼を動翼と交互に半分堰止め具備して、蒸気速度を1/100に近付けており加えて気体の体積が圧力に反比例するため、240気圧から大気圧まで240倍容積対応更に30、4mmHgまで25倍容積対応の、6000倍容積対応タービン翼が必要なため、理論的には高圧部蒸気速度が無茶苦茶低速で大革命が必要な背景があり、タービン翼面積対応に加えて、発電熱量全部で海水温度を7度上昇して海面全部を温度上昇自然現象不可能にし、上限の無い異常気象を増大し、50〜100年前後海水の豪雨等で人類が絶滅に近付く危険を増大中です。緑の地球は奇跡の産物で他の星に近付く危険が大きく、発電所側説明では海水温度上昇が7度以下なら環境に影響皆無としておりますが、例えば海水温度が30度の海域で7度上昇を継続すると、台風風速が300m/秒等になり海水の集中豪雨塩の被覆等で人類が絶滅する危険や、海面全部温度上昇して冬場に海面冷却海底に窒素や酸素やCO2等の栄養分を供給していた自然現象を不可能にし、海中微生物や植物プランクトンや海草類を激減魚類等人類の海中食物も限り無く激減しており、中国が10%成長を続けると、海水温度上昇量は10年で現在の2倍20年で4倍と加速度的に増大して、最悪予想では台風や季節風や海上竜巻の風速が100m/秒等となり、海水を上空に吸引海水の集中豪雨として日本の農業や林業や居住地域が0に近付く等、50年前後で日本居住が困難になるため、手遅れ前に既存技術最悪部分に対応した技術開発が必要な背景がある。   Considering the elementary school science without brainwashing, the existing best steam turbine power generation at the same pressure and volumetric capacity kg kg m / sec is slightly less than 1/1700 of the horizontal rotor blade water gravity turbine 8R power, Since the steam velocity is blocked and the stationary vanes with no work are alternately half-damped with the moving blades, the vapor velocity is close to 1/100 and the gas volume is inversely proportional to the pressure. Because it requires a turbine blade capable of 240 times volume up to atmospheric pressure and 30 times 4mmHg and 25 times volume up to 6000 times volume, the high pressure steam speed is unreasonably low and there is a background that requires a major revolution. In addition to responding to the turbine blade area, the seawater temperature is raised by 7 degrees with all the generated heat, making the whole sea surface temperature-increasing natural phenomenon, increasing abnormal weather without upper limit, and by heavy rain of seawater around 50 to 100 years Humanity is extinct It is in increasing the risk of stick. The green earth is a miracle product and there is a great risk of approaching other stars. According to the explanation of the power station, if the rise in seawater temperature is 7 degrees or less, there is no influence on the environment, but for example, 7 degrees in the sea area where the seawater temperature is 30 degrees If the rise continues, the typhoon wind speed will be 300m / sec, etc., and there will be danger of human beings extinction due to the covering of concentrated rainwater salt in seawater, etc., and the temperature of the whole sea surface will rise and nutrients such as nitrogen, oxygen, CO2 etc. The natural phenomenon that has supplied water is made impossible, the number of marine microorganisms, phytoplankton and seagrass is drastically reduced. The number of marine foods such as fish is drastically reduced. If China continues to grow 10%, the rise in seawater temperature will be 10%. The current rate is twice as high as the current rate in 20 years, and the speed of typhoons, seasonal winds and ocean tornadoes is 100m / sec. And forestry and residential areas Such as close to 0, for Japan residents it is difficult before and after 50 years, there is a background necessary technical development that corresponds to the existing technologies worst part before it's too late.

大気圧同速度同容積仕事率kg重m/秒を、既存蒸気タービン発電の1700倍水仕事率にして、真空中水重力加速度発電にすると、同速度1/100容積仕事率が既存蒸気タービン発電の17倍仕事率発電ですが、高さ500m以上に100台で1700倍発電量等膨大な発電量が予想され、水資源は膨大で深層海洋水を使用すると副産物も多く、燃料費0発電の無限大発電にし、横型全動翼水重力タービン8R発電円筒タービン翼群8A水平軸板16精密組立容易にして、円筒組立固定の円筒タービン翼群8Aを含めて全自動加工容易や組立容易にし、全自動加工100台組立で1700倍発電量狙いにして、地球最大の真空中重力加速度加速の水重力エネルギで駆動し、安価大量の水資源による燃料費0発電で安価電気の用途拡大に移行して、太陽光加熱器21により空気を太陽光加熱し、水重力タービン8R燃料費0発電電気駆動の、1〜複数段二重反転圧縮機3T等熱ポンプ1Gで複数回圧縮複数回熱回収して、50〜200MPa過熱蒸気温熱50+液体空気冷熱28aに分割保存し、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dより供給して、液体酸素室5Kや蓄電池等に受給し、液体空気駆動の自動車や飛行機や船舶を1/10燃料費駆動や10倍速度駆動にして、極端に安価な発電の蓄電池駆動や電気駆動や、CO2排気僅少の地球温暖化防止が得られる背景がある。 When the atmospheric pressure, the same speed, and the same volumetric power, kg weight m / sec, are set to 1700 times the water power of the existing steam turbine power generation, and the water gravity acceleration power generation in the vacuum, the same speed 1/100 volumetric power will be the existing steam turbine power generation. It is expected to generate a huge amount of power generation such as 1700 times power generation with 100 units at a height of 500m or more, water resources are enormous, and there are many by-products when using deep ocean water, and fuel cost is 0 power generation Infinite power generation, horizontal full blade hydrogravity turbine 8R power generation cylindrical turbine blade group 8A horizontal shaft plate 16 precision assembly easy, including fully cylindrical assembly fixed cylindrical turbine blade group 8A, easy to fully automatic processing and assembly, Aiming for 1700 times power generation with 100 fully automated assembly, driven by water gravity energy with acceleration of gravitational acceleration in the earth's largest vacuum, and shifted to expanding the use of low-cost electricity by generating zero fuel costs with a large amount of inexpensive water resources Then, the solar heater 21 heats the air into sunlight and the water gravity turbine 8R compresses the heat multiple times with a heat pump 1G such as a 1-stage multi-phase reversing compressor 3T with zero fuel cost and power generation and electric drive. Then, 50-200 MPa superheated steam temperature 50 + liquid air cooling heat 28a is divided and stored, supplied from electricity + liquid air cooling heat + superheated steam temperature supply facility 3D, received in the liquid oxygen chamber 5K, storage battery, etc., and driven by liquid air 1/10 fuel cost drive and 10-fold speed drive of the vehicle, airplanes and ships of this type, there is a background that can be obtained extremely low-cost power storage battery drive and electric drive, and prevention of global warming with little CO2 exhaust.

高校や大学では既存エンジンを理論最良エンジンと説明しており、洗脳皆無の小学校理科に戻って理論最良エンジンを考えると、仕事率の単位がkg重m/秒等重量×速度のため、重い物質を高速度にして回転出力発生が理論最良エンジンですが考えた痕跡が皆無という背景がある。そこで例えば横型全動翼水重力タービン8R発電にすると燃料費0安価発電になる背景があり、日本近海や永久凍土地下に眠る膨大なメタンハイドレートを加熱する場合を、小学校理科で考えると燃料費0加熱が最良です。そこで燃料費0発電電気駆動太陽光加熱器21にして、太陽光で加熱の空気28aを燃料費0発電電気駆動の、1〜複数段二重反転圧縮機3T等熱ポンプ1Gや1〜複数段圧縮熱回収器2Cで、複数回圧縮複数回熱回収し、冷熱の液体酸素5Kや液体窒素5L+温熱の過熱蒸気50に分割保存して、温熱利用無限大の過程で例えば、永久凍土地下のメタンハイドレートに過熱蒸気50を注入メタンと水に分割し、メタンを液体窒素冷却液体メタンで回収して過熱蒸気注入を永遠に継続して、メタン回収囲い内を適温で水滴の多い牧草地放牧とし、人類の食糧増大温熱利用無限大にして、液体空気駆動の自動車や船舶や宇宙往還機全盛として宇宙到達費用1/50万狙いにし、船舶駆動の過程では自然現象高速化2aして、微生物や海草類やサンゴ等を増殖食物連鎖等で魚類等人類の食物を増大し、海水の豪雨を阻止して人類絶滅を先送り出来る背景があり。燃料費僅少で10倍速度狙いの船舶革命や飛行機革命となって、運用利益率が既存運用利益率の10倍等膨大となり、世界規模100%独占した製造運用とし、雇用を増大する雇用増大革命に出来る背景がある。 In high school and university, the existing engine is described as the best engine, and when we return to elementary school science without brainwashing and think about the best engine, the unit of work is kg weight m / sec. The engine is the best engine in terms of generating rotational output at a high speed, but there is no trace of thought. Therefore, for example, horizontal full-blade hydrogravity turbine 8R power generation has a background of low fuel cost power generation, and when it is considered in elementary school science to heat enormous methane hydrate sleeping in the sea near Japan or permafrost. Zero heating is the best. Therefore, the heat pump 1G such as a 1-multiple counter-rotating compressor 3T or 1-multiple stage of the fuel cost 0 power generation electric drive is made by using the solar heating air 28a as the fuel cost 0 power generation electric drive solar heater 21. Compressed heat recovery unit 2C compresses the heat multiple times, collects and stores in cold liquid oxygen 5K, liquid nitrogen 5L + hot superheated steam 50, and in the process of infinite use of heat, for example, methane under permafrost The superheated steam 50 is injected into the hydrate and divided into methane and water, and the methane is recovered with liquid nitrogen cooled liquid methane, and the superheated steam injection is continued forever to make the methane recovery enclosure grazing at a suitable temperature and with many water droplets. , Increase the use of heat by humans, make liquid air driven cars, ships and spacecrafts prime, aiming to reach 1 / 500,000 in space, speeding natural phenomena 2a in the process of driving ships, Seaweeds Gore, etc. to increase the food of fish such as the human race in the growth the food chain, etc., to prevent the heavy rain of sea water there is a background that can put off the human race extinct. Revolution of employment growth that will increase the employment by making the manufacturing operation monopolized 100% worldwide, with the operating profit rate becoming 10 times larger than the existing operational profit ratio, as the ship revolution and airplane revolution aiming at 10 times speed with low fuel cost There is a background that can be.

日本国特許1607151号、特許1609617号、特許1645350号、特許1924889号、特許1912522号、特許1959305号、特許1986119号、特許2604636号、1992年米国特許5133305号、1993年米国特許5230307号、1995年米国特許5429078号、1997年米国特許5701864号、PCT国際出願番号PCT/JP97/01814号・米国特許第6119650号、中国特許第8818号、EU英国特許902175号、PCT国際出願番号PCT/JP97/02250号・米国特許第6263664号がある。Japanese Patent No. 1607151, Patent No. 1609617, Patent No. 1645350, Patent No. 1924889, Patent No. 1912522, Patent No. 1959305, Patent No. 1986119, Patent No. 2646636, 1992 U.S. Pat. No. 5,133,305, 1993 U.S. Pat. US Pat. No. 5,429,078, 1997 US Pat. No. 5,701,864, PCT International Application No. PCT / JP97 / 01814, US Pat. No. 6,119,650, Chinese Patent No. 8818, EU British Patent No. 902175, PCT International Application No. PCT / JP97 / 02250 No. 6,263,664.

PCT国際出願公開NO.WO 2010/101017 PCT/JP2010/052171等は、特願2009−048869号出願日平成21年3月3日から特願2010−007805号出願日平成22年1月18日まで326個の出願があり、以後PCTを含めて特願2011−107954号出願日平成23年5月13日まで10個の出願があります。PCT International Application Publication No. WO 2010/101017 PCT / JP2010 / 052171 etc. have 326 applications from the date of filing of Japanese Patent Application No. 2009-048869 on March 3, 2009 to the date of filing of Japanese Patent Application No. 2010-007805 on January 18, 2010 Since then, there are 10 applications including PCT until May 13, 2011, the filing date of Japanese Patent Application No. 2011-107954.

既存世界の火力原子力発電所では、発電熱量全部で海水温度摂氏7度上昇海水温度上昇量を100年で1000倍等とし、下降気流や上昇気流を限り無く増大して、異常乾燥山火事や砂漠化や集中豪雨や熱波や寒波等を限り無く増大し、日本近海は20年前後で台風や季節風や竜巻を100m/秒等として、海水を上空に吸引海水の集中豪雨等により陸地に塩の被覆を設けて人類陸上食物減少の危険を増大し、冬場に海面冷却海底に栄養分を供給していた自然現象を不可能として、微生物や植物プランクトンや海草類やサンゴ等を激減、食物連鎖等により魚類を1/100等に激減人類の海中食物も限り無く減少し、旱魃や集中豪雨や台風や季節風を100年で10倍等に増大して、例えば台風や季節風を300m/秒等上限の無い異常気象の巨大化とし、海底岩盤膨張地震や津波を巨大化東日本の地震津波も巨大化して、人類絶滅の危険を増大のため海水の豪雨等を阻止し、海水温度上昇0等地球温暖化防止して、人類絶滅を先送りする課題がある。又最近の課題は財政赤字国の急増です。最大原因は安価労働コスト国を世界の工場として簡単に利益を得る流行蔓延で、簡単に利益が得られる半面途上国全部が過去の日本のように物真似改良で世界一を競うため、安価優良製品続出して先進国製造設備壊滅財政赤字増大雇用壊滅の危険があり、今の先進国経済危機は初期段階のため先進国利益率上昇発明が急務で、物真似改良が可能な発明実施は時代遅れと認識し、世界規模100%独占を永遠に続ける発明品の極秘製造極秘運用として、利益率抜群の世界一永遠にする課題がある。   In the existing thermal power plants in the world, the total heat generation is 7 degrees Celsius, and the seawater temperature rise is 1000 times in 100 years, and the downdrafts and updrafts are increased as much as possible. As the number of storms, torrential rains, heat waves, cold waves, etc. increases without limit, typhoons, seasonal winds, tornadoes, etc., around 100 years in the sea near Japan, salt water on the land due to concentrated heavy rains, etc. Covering increases the danger of human land food loss, making it impossible for the natural phenomenon of supplying nutrients to the sea-cooled seabed in winter, dramatically reducing microorganisms, phytoplankton, seaweeds, corals, etc., fish through food chains, etc. The number of human underwater foods has been reduced as much as 1/100, and droughts, torrential rains, typhoons and seasonal winds have increased 10 times in 100 years. For example, typhoons and seasonal winds have an upper limit such as 300m / sec. weather Giant seafloor bedrock expansion earthquakes and tsunamis, and eastern Japan earthquakes and tsunamis have also become huge, preventing heavy rain in seawater to increase the danger of human extinction, preventing global warming such as rising seawater temperature, There is a challenge to postpone human extinction. A recent issue is the rapid increase in countries with deficits. The biggest cause is the epidemic that easily makes profits with low labor cost countries as the world's factories, and all the developing countries that can easily make profits compete for the best in imitation improvement like Japan in the past, so cheap and excellent products There is a risk of the destruction of manufacturing facilities in the developed countries and the deficit of jobs in the developed countries, and the destruction of employment.There is an urgent need to increase profit margins in developed countries because the current economic crisis is in the early stages. However, as a top-secret manufacturing operation of an invention that continues to be a 100% monopoly on a global scale forever, there is a problem that makes the world eternal with an outstanding profit rate.

横型全動翼水重力タービン8R燃料費0発電安価電気駆動全部にして、太陽光加熱器21+1〜複数段二重反転圧縮機3T等熱ポンプ1G+1〜複数段圧縮熱回収器2Cにより熱製造し、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dとして、受給した液体酸素5Kを圧縮して空気圧縮の21/60000容積圧縮仕事率とし、超高圧燃焼や超高温燃焼が容易な理論燃焼室4Yとして、例えば酸素アセチレンバーナー複数中心付近燃焼で外周付近高圧高温過熱蒸気50を加熱し、酸素アセチレン炎3000℃以上燃焼で過熱蒸気の熱分解狙い酸素水素増大燃焼狙いにして、4Y駆動の理論膨張機関3Pや酸素合体水噴射部88Kや酸素合体空気噴射部88Aとし、自動車等車両類や船舶類や飛行機類を回転力駆動や噴射推進駆動して、船舶類噴射推進駆動では自然現象高速化2aし、海中に酸素や窒素やCO2等を供給して、微生物や植物プランクトンや海草類やサンゴや魚類等を増殖人類の食物を増大し、飛行機はCO2排気0に近い宇宙飛行全盛1日に地球を16周する等として、地球上何処でも日帰り旅行や大気中はCO2排気僅少飛行狙いとし、世界規模100%独占して極秘製造極秘運用する発電や船舶や飛行機として、利益率抜群の世界一や新規雇用抜群の世界一にし、旱魃や集中豪雨や台風や季節風や海水の豪雨や地震津波の巨大化を阻止して、地球温暖化防止し人類絶滅を先送りする。 Horizontal full-blade water gravity turbine 8R Fuel cost 0 Power generation Low cost Electric drive All, heat production by solar heater 21 + 1-multiple stage counter-rotating compressor 3T etc. heat pump 1G + 1-multiple stage compression heat recovery unit 2C, As the electric + liquid air cold heat + superheated steam temperature heat supply equipment 3D, the received liquid oxygen 5K is compressed to a 21/60000 volumetric compression work rate of air compression, and a theoretical combustion chamber 4Y that can easily perform ultrahigh pressure combustion and ultrahigh temperature combustion. For example, a 4Y-driven theoretical expansion engine 3P is used to heat the high-temperature high-temperature superheated steam 50 near the outer periphery in the combustion near the center of the oxygen acetylene burner, aim at thermal decomposition of the superheated steam in the combustion at 3000 ° C. or higher, and increase the oxygen-hydrogen combustion. And oxygen coalescence water injection unit 88K and oxygen coalescence air injection unit 88A, and vehicles such as automobiles, ships and airplanes are driven by rotational force and propulsion and propulsion. The jet propulsion drive speeds up the natural phenomenon 2a, supplies oxygen, nitrogen, CO2, etc. into the sea, increases microorganisms, phytoplankton, seaweeds, corals, fish, etc. As a 16-day trip around the earth in the heyday of space flight, we are aiming for a day trip anywhere on the earth and aiming for a small amount of CO2 exhaust in the atmosphere. It will be the best in the world for profit margins and the best in the world for new jobs. It will prevent droughts, torrential rains, typhoons, seasonal winds, heavy rains on seawater and earthquakes and tsunamis, prevent global warming and delay human extinction.

横型全動翼水重力タービン8R燃料費0安価発電の、対向同期歯車4Cにより対向同期回転にして、直列同回転歯車4Dで100台等同速度回転にする効果が非常に大きく、円筒タービン翼群8A1種類を100台分全自動製造で100台製造の効果も非常に大きく、ボイラや原子炉が不要で構造が簡単になる効果も非常に大きく、既存蒸気タービン最終動翼群の羅列に近い竪型全動翼水重力タービン8M発電を、最大速度の最終動翼群と同真空駆動で比較説明すると、大気圧100℃760mmHgで水の1700倍容積の水蒸気は、排気温度29℃真空度30mmHgでボイルの法則により、760mmHg×1700=30mmHg×V2倍容積の水蒸気となり、V2=760/30×1700=水の43000倍容積水蒸気となります。即ち既存蒸気タービン最高速度仕事率動翼群を羅列する、竪型全動翼水重力タービン8M発電が出力発生段階で遥かに優位に加えて、過熱蒸気の1/100容積水速度で430倍発電量になるのに加えて、真空度上昇も遥かに優位で、真空中の重力加速度利用は更に100台重ねた1台で43000倍発電量を算出に加えて、ウォータージェット加工機水噴射速度マッハ3で水噴射すると更に3倍発電量が算出される等、実験が必要ですが発電原価を1/10等に大改革する大革命に非常に大きな効果がある。 Horizontal type full-blade hydrogravity turbine 8R Fuel cost 0 Low cost power generation The counter synchronous rotation by the counter synchronous gear 4C and the effect of rotating the same speed by 100 series rotation gear 4D, etc. is very large, and the cylindrical turbine blade group 8A1 100 types of fully automatic manufacturing of 100 types, the effect of manufacturing 100 units is very large, the effect of simplifying the structure without the need of a boiler or nuclear reactor is also very large, and the vertical type is close to the enumeration of the last moving blade group of existing steam turbines Comparing and explaining the total blade hydrogravity turbine 8M power generation with the same maximum speed as the last blade group, the steam of 1,700 times the volume of water at an atmospheric pressure of 100 ° C. and 760 mmHg is boiled at an exhaust temperature of 29 ° C. and a vacuum degree of 30 mmHg. According to the law of 760mmHg × 1700 = 30mmHg × V2 volume water vapor, V2 = 760/30 × 1700 = water 43,000 times volume water vaporIn other words, the vertical-type full-blade water gravity turbine 8M power generation lined up with the existing steam turbine maximum speed power blade group is far superior in the output generation stage, and 430 times power generation at 1/100 volume water speed of superheated steam In addition to increasing the amount of vacuum, the increase in the degree of vacuum is far superior, and the use of gravitational acceleration in a vacuum is further increased by 43,000 times the power generation rate in one unit with 100 additional units, and the water jet speed Mach Experiments are necessary, such as calculating the amount of power generation three times when water is injected at 3, but it has a great effect on the major revolution that greatly reforms the power generation cost to 1/10.

緑の地球は奇跡の産物で他の星に近付く危険が大きく、例えば中国が10%成長を100年続けると、火力発電や原子力発電により中国近海の海水温度上昇量が1000倍を超えるため、現在日本のゲリラ豪雨増大が海水の豪雨1000倍等となり、現在の魚類激減が0に近付く等人類絶滅が100年以内に急接近する可能性が強く、海水温度上昇0やCO2排気0や燃料費0発電電気駆動が必要です。そこで燃料費0発電電気製造の電気+液体空気冷熱+過熱蒸気温熱供給設備3Dより液体酸素室5Kに受給して、燃焼用酸素の圧縮仕事率を空気圧縮の21/60000容積圧縮仕事率にし、理論燃焼室4Y中心付近高温燃焼で過熱蒸気50の熱分解や理論燃焼室4Yの保護として、理論燃焼室4Yにより理論膨張機関3Pや酸素合体水噴射部88Kや酸素合体空気噴射部88Aを、最も効率良く駆動出来る効果があり、自動車や船舶や飛行機を燃料費1/10や10倍速度等が狙える効果に加えて、宇宙到達経費を既存宇宙ロケットの1/50万経費狙いに出来る効果があり、車輪やスクリュー7Cやプロペラ7Aや回転翼7Bを理論膨張機関3P駆動し、船舶や飛行機や自動車等を回転力駆動して、船舶噴射推進駆動では自然現象高速化2aし、水中微生物のCO2等の消化能力を森林の数万倍狙い等に増大する効果が大きく、植物プランクトンや海草類やサンゴ等を増殖して、食物連鎖等で魚類等人類の海中食物を大増大し、砂漠化や旱魃や集中豪雨や台風や季節風や地震津波等の巨大化を阻止して、人類で最も重要な人類絶滅を先送りし、利益率抜群世界一を狙える効果がある。 The green earth is a miracle product and has a high risk of approaching other stars. For example, if China continues to grow 10% for 100 years, the temperature rise in the sea near China will exceed 1000 times due to thermal power generation and nuclear power generation. There is a strong possibility that the extinction of mankind will rapidly approach within 100 years, such as the increase in guerrilla heavy rain in Japan is 1000 times the heavy rain in seawater, the current drastic decrease in fish is close to 0, and seawater temperature rises 0, CO2 emissions 0 and fuel costs 0 Electric power drive is required. Therefore, the fuel cost is 0. Electricity generated by power generation electricity + liquid air cold heat + superheated steam temperature heat supply equipment 3D is received into the liquid oxygen chamber 5K, and the compression work rate of combustion oxygen is set to 21/60000 volumetric compression work rate of air compression, As the thermal decomposition of the superheated steam 50 and the protection of the theoretical combustion chamber 4Y in the high temperature combustion near the center of the theoretical combustion chamber 4Y, the theoretical expansion chamber 3Y, the oxygen combined water injection unit 88K and the oxygen combined air injection unit 88A are most It has the effect of being able to drive efficiently, and in addition to the effect that automobiles, ships and airplanes can be aimed at fuel costs of 1/10 or 10 times the speed, the effect of being able to target the space arrival cost to 1 / 500,000 of existing space rockets The wheels, screws 7C, propellers 7A and rotor blades 7B are driven by the theoretical expansion engine 3P to drive the rotational force of ships, airplanes, automobiles, etc. a. The effect of increasing the digestive capacity of underwater microorganisms such as CO2 to tens of thousands of times of the forest is great, and phytoplankton, seaweeds, corals, etc. are proliferated, and fish and other marine foods such as fish are greatly increased in the food chain. It will increase, preventing desertification, droughts, torrential rains, typhoons, seasonal winds, earthquake tsunamis, and so on, postponing the most important human extinction of humanity and aiming for the world's best profit rate.

飛行機駆動は、燃料費0横型全動翼水重力タービン8R発電電気駆動の、電気+液体空気冷熱+過熱蒸気温熱供給設備より液体酸素を受給し、液体酸素5K+液体燃料1c+水52aを超高圧圧縮して、液体燃料制御弁1K+液体酸素制御弁5T+水制御弁5Qを開放最適温度に加熱し、酸素ガス+燃料ガス複数個所中心付近混合噴射着火燃焼外周高圧高温過熱蒸気を過熱して、最高温度燃焼理論燃焼室4Y保護燃焼過熱蒸気熱分解燃焼狙い酸素水素増大燃焼狙いにし、酸素合体空気噴射部88Aを駆動して、宇宙到達費用を既存宇宙ロケットの1/50万経費狙いにし、同一燃料費10倍噴射推進出力で宇宙利用全盛を狙う効果があり、例えば噴射推進出力を既存ジェット機の100倍圧力10倍熱量噴射短時間1000倍噴射推進出力狙いとして、大気中は燃料費僅少のプロペラ飛行や回転翼飛行や噴射推進狙いにし、水蒸気噴射速度や燃焼ガス噴射速度が真空中で最大のため、既存宇宙ロケット地上大量噴射は最悪と考え、既存航空機最高飛行高度付近より、50〜200MPaの高圧高温燃焼ガス5M+高圧高温水蒸気5Nの噴射量増大にして、1日に地球を16周する等とし、地球上何処でも日帰り旅行が可能な宇宙利用全盛を狙える効果がある。 Airplane drive receives liquid oxygen from electricity + liquid air cold heat + superheated steam temperature heat supply facility of fuel cost 0 horizontal full blade water gravity turbine 8R power generation electric drive, liquid oxygen 5K + liquid fuel 1c + water 52a is compressed to ultra high pressure Then, the liquid fuel control valve 1K + the liquid oxygen control valve 5T + the water control valve 5Q is heated to the optimum temperature for opening, and the oxygen gas + fuel gas near the center of the mixed injection ignition combustion outer peripheral high-pressure high-temperature superheated steam is superheated to reach the maximum temperature. Combustion theory combustion chamber 4Y protection combustion superheated steam pyrolysis combustion aimed at oxygen hydrogen increase combustion aim, driving oxygen coalesced air injection part 88A, aiming at space arrival cost 1 / 500,000 of existing space rocket, same fuel cost 10x injection propulsion output has the effect of aiming for the best use of space. As for the propeller flight, rotor blade flight and injection propulsion aiming at low fuel costs in the atmosphere, the steam injection speed and combustion gas injection speed are the highest in vacuum, so the existing space rocket ground mass injection is considered the worst, From the vicinity of the highest flight altitude, increase the injection amount of high-pressure high-temperature combustion gas 5M + high-pressure high-temperature steam 5N of 50-200MPa, make 16 rounds of the earth a day, etc. There is a target effect.

横型全動翼水重力タービン8Rの4C4Dの説明図(実施例1)Explanatory drawing of 4C4D of the horizontal type full blade air gravity turbine 8R (Example 1) 横型全動翼水重力タービン8Rの8A16の説明図(実施例2)Explanatory drawing of 8A16 of horizontal type | mold whole blade water gravity turbine 8R (Example 2) 電気+液体冷熱+温熱供給設備3Dの太陽光加熱器21の説明図(実施例3)Explanatory drawing of the solar heater 21 of electricity + liquid cold / heat supply equipment 3D (Example 3) 理論気体圧縮機3Tの説明図(実施例4)Explanatory drawing of the theoretical gas compressor 3T (Example 4) 理論膨張機関3Pの説明図(実施例5)Explanatory drawing of the theoretical expansion engine 3P (Example 5) 酸素合体水噴射部88Kの説明図(実施例6)Explanatory drawing of oxygen combined water injection part 88K (Example 6) 酸素合体空気噴射部88Aの説明図(実施例7)Explanatory drawing of oxygen combined air injection part 88A (Example 7) 理論膨張機関自動車4Kの説明図(実施例8)Explanatory drawing of theoretical expansion engine automobile 4K (Example 8) 酸素合体スクリュー船舶39Hの説明図(実施例9)Explanatory drawing of oxygen coalescence screw ship 39H (Example 9) 酸素合体スクリュー噴射船舶39Kの説明図(実施例10)Explanatory drawing of the oxygen coalescence screw injection ship 39K (Example 10) 酸素合体噴射船舶39Jの説明図(実施例11)Explanatory drawing of the oxygen coalescence injection ship 39J (Example 11) 酸素合体噴射飛行機39Lの説明図(実施例12)Explanatory drawing of oxygen coalescence injection plane 39L (Example 12) 酸素合体プロペラ飛行機39Mの説明図(実施例13)Explanatory drawing of oxygen combination propeller plane 39M (Example 13)

既存蒸気タービン発電等洗脳で長期間真空中の重力加速度利用が阻止され、100台重ねた1台で既存蒸気タービン発電1台の43000倍発電量狙い等を阻止して、例えば既存最良蒸気タービン発電の大気圧同速度同容積仕事率kg重m/秒を、水仕事率の1/1700と僅少にし、静翼を動翼と交互に設けて堰き止めて回転出力を0に近付け、蒸気タービン発電の駆動熱量全部で海水温度7度上昇魚類激減、海底岩盤を膨張地震や津波を巨大化し、20年前後で日本近海の台風や季節風や海上竜巻の上昇気流を巨大化100m/秒等にして、海水を上空に吸引海水の豪雨が予想される等、50〜100年前後で陸地に塩の被覆を設けて食糧激減人類絶滅が急接近する危険があります。即ち既存技術の致命的欠点多数で発明が膨大になり過ぎるため、発明を符号の説明に記載すると共に、先の出願で再三説明した部分は省略し、横型全動翼水重力タービン8R以外を3種類実施例で代用説明して、常識を省略した発明の具体化に挑戦します。   The use of gravity acceleration in a vacuum for a long period of time is prevented by brainwashing such as existing steam turbine power generation, and one unit of 100 units prevents the aim of generating power 43,000 times that of one existing steam turbine power generation, for example, the existing best steam turbine power generation Steam pressure is reduced by reducing the atmospheric pressure, the same speed, and the same volumetric power, kg weight m / second, to 1/1700 of the water power, and by installing the stationary blades alternately with the moving blades and blocking the rotation output to zero. The seawater temperature rises by 7 degrees with all of the driving heat of the sea, the fishes drastically decrease, the bottom bedrock expands into earthquakes and tsunamis, and the typhoons, seasonal winds and sea tornadoes around Japan are increased to around 100 m / sec. There is a danger that food extinctions and humankind extinction will be approaching rapidly by providing salt coating on the land in around 50 to 100 years, such as heavy rain of suction seawater is expected over the sea. That is, the invention becomes too large due to many fatal drawbacks of the existing technology. Therefore, the invention is described in the explanation of the reference numerals, and the parts that have been repeatedly explained in the previous application are omitted, and the parts other than the horizontal type full-blade water gravity turbine 8R are omitted. We will try to materialize the invention that omits common sense by explaining with substitute examples.

図1既存揚水発電や水力発電に真空中重力加速度追加した、横型全動翼水重力タービン8R発電は、円筒タービン翼群8A両側に水平軸16Aを水平軸板16で固定1種類とし、1種類を2個製造1組として100組の対向直列全動翼弾み車タービン製造として、又は1種類を1組として200組の直列全動翼弾み車タービンや食込直列全動翼弾み車タービンとし、全自動鋳造や全自動加工等で夫々垂直に100〜200組具備の1台製造にして、既存最高建築物高さ垂直828mに100組等具備して1台具備とし、比重大物質上昇装置2Fにより水3Eを垂直等に828m等上昇して、比重大物質加速機6Wで水3Eをマッハ1〜3等で噴射し、重力加速度加速真空加速駆動して円筒タービン翼群8Aを対向同期歯車4Cにより対向同期回転にして、直列同回転歯車4Dで100組等同速度同方向回転にし、安価大量生産容易とボイラや原子炉不要にして、水を真空加速する重力加速部1gをタービン8R上部等に夫々具備し、発電機1は対向同期歯車4C主軸や直列同回転歯車4D主軸に選択具備して、タービン外箱77a外で100台以上駆動発電原価を1/10狙いとし、構造極端に簡単極端に安価な電気製造物無限多や電気駆動無限多にして、利益率抜群世界一の各種エネルギ保存サイクル合体機関発電及び合体方法発電にする。 Fig. 1 Horizontal type full-blade hydrogravity turbine 8R power generation, in which gravity acceleration in vacuum is added to existing pumped-storage power generation or hydroelectric power generation, has a horizontal shaft 16A fixed on both sides of a cylindrical turbine blade group 8A by a horizontal shaft plate 16 and one type. 100 sets of opposed series full blade impeller turbines as one set, or 200 sets of full series impeller turbines and bite series full blade impeller turbines as one set, fully automatic casting Or 100 to 200 sets vertically, fully automatic processing, etc., and 100 sets in the existing highest building height of 828m, 1 set, and 3E water by the specific material riser 2F. Ascending vertically to 828 m, etc., water 3E is injected by Mach 1 to 3 etc. with specific material accelerator 6W, gravity acceleration accelerated vacuum acceleration driving, and cylindrical turbine blade group 8A is counter-synchronized by counter-synchronous gear 4C. Rotating and rotating at the same speed in the same direction, such as 100 sets with the same series rotation gear 4D, and providing a gravity acceleration unit 1g for accelerating water in a vacuum, making it easy to mass-produce inexpensively, eliminating the need for a boiler and a nuclear reactor, and so on. The generator 1 is selectively provided as the counter synchronous gear 4C main shaft or the series co-rotating gear 4D main shaft, and is aimed at driving power generation cost of 1/10 or more outside the turbine outer casing 77a, and the structure is extremely simple and extremely inexpensive. Make electric product infinite and electric drive infinite, and make the world's best energy conservation cycle combined engine power generation and combined method power generation with outstanding profitability.

横型全動翼水重力タービン8R発電は、タービン外箱77a内に既存最高建築物828mに100組等垂直具備で1台とし、比重大物質加速器6Wによるウォータージェット加工機水噴射速度のマッハ3〜1噴射速度水3E噴射として、マッハ3等噴射で真空中重力加速度加速効果最高として円筒タービン翼群8Aに噴射し、横型全動翼水重力タービン8R駆動発電してマッハ3〜1速度を維持加速して、次のタービンを駆動して落差を有効利用する横型全動翼水重力タービン8R発電にし、摩擦熱冷却して空気抽出器51で30mmHg等既存発電最高真空度以上容易として、落差828mに100組使用とし、既存蒸気タービン発電の最終段真空度30mmHg水の43000倍容積マッハ1速度水蒸気として、100組重ねた1台のタービン8R発電量と比較説明すると、1/1000容積の水をマッハ1速度噴射で43×100=4300倍水発電量となり、実験が必要な天文学的倍率の発電量になる、各種エネルギ保存サイクル合体機関燃料費0極端に安価発電にする。 The horizontal type full-blade water gravity turbine 8R power generation is composed of 100 units in the existing highest building 828m vertically in the turbine outer box 77a and one unit. As a 1-injection-speed water 3E injection, Mach 3 and the like are injected into the cylindrical turbine blade group 8A with the highest gravitational acceleration acceleration effect in vacuum, and a horizontal all-blade water-gravity turbine 8R is driven to generate power to maintain Mach 3 to 1 speed. Then, the horizontal turbine blade gravity gravity turbine 8R power generation that effectively uses the head by driving the next turbine is generated, and the head is reduced to the head 828m by the frictional heat cooling so that the air extractor 51 can easily exceed the existing power generation maximum vacuum such as 30 mmHg. 100 sets are used, and the final stage vacuum degree of existing steam turbine power generation is 30mmHg. Compared with the power generation amount of the bin 8R, 1/1000 volume of water is 43 × 100 = 4300 times the amount of water power generation by Mach 1 speed injection, and the power generation amount of the astronomical magnification that requires experiments is combined. Engine fuel cost 0 Extremely inexpensive power generation.

図2の横型全動翼水重力タービン8R発電の、円筒タービン翼群8Aで最も重要な構成は超撥水性として摩擦損失を最低が最重要なため、耐摩耗の撥水鍍金(3a)容易や運転停止時の撥水コーティング(3b)容易な構成とし、内筒面全面切削で軽量化して大径にする、円筒タービン翼群8A両側に水平軸16Aを水平軸板16で固定1種類として、横型全動翼水重力タービン8R簡単製造や全自動加工や精密組立容易とし、可能な限り実験最大径として垂直828mに100組製造等で1台製造として、水平軸16Aに対向同期歯車4Cを具備することで横型全動翼対向水重力タービン8Rとし、対向同速度同期回転にして直列同回転歯車4Dで連結することで同方向同速度回転にして、横型全動翼対向直列水重力タービン8Rや、横型全動翼直列水重力タービン8Rや、横型全動翼食込直列水重力タービン8Rとし、熱帯砂漠地帯等蒸留水最大量生産する場合は、比重大物質加速機6W具備を1組毎に近付けた水3E噴射として、蒸留水製造量や摩擦熱気化水の冷却量に合せた比重大物質加速機6W具備量とし、水平軸16Aに発電機1を具備してタービン外箱77aの外で100組以上駆動発電にして、構造極端に簡単やボイラや原子炉不要等で製造原価を極端に安価とし、運用利益率も燃料消費0等比較物皆無の抜群世界一にする、横型全動翼水重力タービン8R極端に安価発電にする。   The most important configuration of the horizontal turbine blade 8R power generation in FIG. 2 in the cylindrical turbine blade group 8A is super water repellency and the lowest friction loss is the most important, so the wear-resistant water repellent plating (3a) is easy. Water repellent coating (3b) at the time of shutdown is made easy, and the inner cylinder surface is entirely cut to make it lighter and have a larger diameter. The horizontal shaft 16A is fixed to the both sides of the cylindrical turbine blade group 8A with the horizontal shaft plate 16 as one type. The horizontal full-blade water gravity turbine 8R is easy to manufacture, fully automatic, and easy to assemble. As much as possible, 100 units can be manufactured in the vertical 828m as the maximum experimental diameter. As a result, the horizontal all-blade-opposed water-gravity turbine 8R is set in the same direction and synchronized with the series-rotating gear 4D. Horizontal type When producing the maximum amount of distilled water, such as tropical desert areas, using a moving blade series water gravity turbine 8R or a horizontal full blade driven water gravity turbine 8R, water with a specific material accelerator 6W close to each pair As 3E injection, the amount of specific material accelerator 6W is adjusted according to the amount of distilled water produced and the amount of cooling of frictional heat vaporized water, and the horizontal shaft 16A is equipped with the generator 1 and more than 100 sets outside the turbine outer casing 77a. Horizontal power blade hydrogravity turbine with driving power generation, extremely simple structure, no need for boilers and nuclear reactors, making manufacturing costs extremely low, and operating profit margin being the best in the world with no fuel consumption and other comparisons 8R Extremely inexpensive power generation.

図3の太陽光加熱器21を、横型全動翼水重力タービン8R燃料費0発電極端に安価電気駆動する、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dを説明すると、太陽光加熱器21を水面に浮力を設け又は平地に円形鉄道を設けて具備し、太陽光を東から西に直角維持回転制御する水上装置や陸上装置として、太陽光加熱器21には回転支持部4fを設けて歯車装置4dやローラー4eを具備し、円筒回転部77Gとして太陽光を上下方向直角維持回転制御して、浮力利用により東西方向直角維持回転制御する装置とし、太陽光を2方向直角維持回転制御して、熱吸収管4H内空気温度を最高にする装置とし、地球最大熱量の太陽光を矩形長レンズ2dにより直線状に集めて、焦点距離付近に熱吸収管4H具備内部空気路28A空気28a温度を最高にして、外部空気路28A空気28a温度も上昇し、既存のレンズ断面を直線状に延長矩形の長レンズ2dとして、レンズ材質全部を使用可能とし、発泡プラスチック等の断熱材2cを円筒回転部77G等で囲って円筒等の長大な筒として、長大な長レンズ2dを継手80A+締付具80Bで密封上部を4H外部空気路28Aとし、2空気路28A選択吸入の1〜複数段熱ポンプ1Gとして吸入圧縮して、二重反転圧縮機3T等を熱ポンプ1Gとして800〜1200℃複数回とし、1〜複数段圧縮熱回収器2Cで圧縮毎熱回収を繰返して、液体空気28a冷熱を液体酸素室5K+液体窒素室5Lに保存し、400℃前後50〜200MPa過熱蒸気50温熱を高圧高温水蒸気室5Nに分割保存して、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dにし各種用途に使用して、燃料費0資源価格0発電の電気駆動全盛や蓄電池駆動全盛にし、電気製造物の各種温熱利用全盛や各種冷熱利用全盛にする。 The solar heater 21 shown in FIG. 3 is electrically driven by a horizontal full rotor blade water gravity turbine 8R fuel cost 0 power generation extremely inexpensively. The solar heater 21 will be described below. The solar heater 21 is provided with a rotation support portion 4f as a floating device or a land device that provides buoyancy on the water surface or a circular railroad on a flat surface, and maintains and controls sunlight at right angles from east to west. It is equipped with a gear unit 4d and a roller 4e, and as a cylindrical rotating unit 77G, controls the vertical rotation of the sunlight in the vertical direction, and controls the rotation of the east-west direction by using the buoyancy. Thus, the solar air with the maximum heat quantity on the earth is collected in a straight line by the rectangular long lens 2d and the heat absorption pipe 4H is provided in the vicinity of the focal length. The temperature of the external air passage 28A and the temperature of the air 28a also rises to the maximum, and the entire lens material can be used as a rectangular long lens 2d that linearly extends an existing lens cross section, and a heat insulating material 2c such as foamed plastic is cylindrical. As a long cylinder such as a cylinder surrounded by a rotating portion 77G or the like, the long long lens 2d is a joint 80A + clamp 80B and the sealed upper part is a 4H external air passage 28A. Pump 1G performs suction compression, counter-rotating compressor 3T or the like as heat pump 1G is set to 800 to 1200 ° C. multiple times, 1 to multiple-stage compression heat recovery unit 2C repeats heat recovery for each compression, and liquid air 28a Is stored in a liquid oxygen chamber 5K + liquid nitrogen chamber 5L, 50 to 200 MPa superheated steam 50 warm heat is divided and stored in a high-pressure high-temperature steam chamber 5N, and electricity + liquid air cold heat + superheated steam is stored. Use for various applications in the heat supply facility 3D, the electric drive flourish and battery driven prime fuel costs 0 resource prices 0 power, to various thermal utilization prime and various cold use PRIME electrical product.

図4の横型全動翼水重力タービン8R燃料費0発電、極端に安価電気駆動の理論気体圧縮機3Tは、既存ガスタービンや蒸気タービン発電の改良発明で、理論ガスタービン発電+理論蒸気タービン発電と合体発電する先発明ですが、液体酸素圧縮にすると圧縮仕事率が空気圧縮の21/60000になるためこの後出願とし、ボイルの法則気体の体積は圧力に反比例する理論で理論最良圧縮機を狙うもので、円周から吸入することで吸入空気量最大狙いにし、全動翼二重反転圧縮翼の上側圧縮翼8gや下側圧縮翼8hで吸入空気速度最大狙いにして、組立圧縮翼4jにより組立容易や吸入口面積最大容易や圧縮効率最良狙いにし、横軸1hの竪型全動翼水重力タービン8M燃料費0発電安価電気駆動にして、横軸1h歯車により上側圧縮翼8g駆動用二重反転歯車装置85Yや、下側圧縮翼8h駆動用二重反転歯車装置85Yを駆動夫々反対方向回転する二重反転にし、相対外周速度を既存軸流圧縮機の2倍速度可能にして圧縮空気圧力と容積を増大して、理論最良圧縮機として最も効率良く圧縮して最終圧縮翼6より、圧縮熱回収器2Cに圧入各種熱交換熱製造とし、例えば太陽光加熱器2の加熱空気を、二重反転圧縮機3Tを含めて選択した熱ポンプ1Gで複数回圧縮高温として、圧縮高温毎に1〜複数段圧縮熱回収器2Cで各種熱回収使用し、余剰分を液体空気冷熱+過熱蒸気温熱として分割保存して、電気+液体空気冷熱+過熱蒸気温熱の供給設備3Dとし、各種用途に使用します。 The horizontal full-blade hydrogravity turbine 8R in FIG. 4 has a fuel cost of 0 power generation and an extremely inexpensive electric drive theoretical gas compressor 3T, which is an improvement of the existing gas turbine and steam turbine power generation. However, when liquid oxygen compression is used, the compression work rate becomes 21/60000 of air compression, so this will be filed later, and Boyle's law gas volume is inversely proportional to pressure. Aiming at the maximum amount of intake air by sucking in from the circumference, and aiming at the maximum intake air speed with the upper compression blades 8g and lower compression blades 8h of all moving blades counter-rotating compression blades, the assembled compression blades 4j As a result, it is easy to assemble, to maximize the inlet area and to optimize the compression efficiency. The counter-rotating gear device 85Y for driving and the counter-rotating gear device 85Y for driving the lower side compression blade 8h are driven to counter-rotate in the opposite directions so that the relative outer peripheral speed can be double that of the existing axial compressor. The compressed air pressure and volume are increased, the most efficient compression as the theoretical best compressor is performed, and the final compression blade 6 is pressed into the compression heat recovery unit 2C to produce various heat exchange heat, for example, heating of the solar heater 2 Air is compressed at a high temperature multiple times with a heat pump 1G selected including the counter-rotating compressor 3T, and various heat recoveries are used in the 1-multistage compression heat recovery unit 2C for each compression high temperature, and the surplus is cooled with liquid air + Divided and stored as superheated steam temperature and heat, supply equipment 3D for electricity + liquid air cooling + superheated steam temperature, and used for various applications.

図5の理論膨張機関3P理論燃焼室4Y駆動を説明すると、横型全動翼水重力タービン8R燃料費0発電極端に安価電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dから、液体酸素室5Kに液体酸素5Kを受給保存電気+過熱蒸気を選択受給して、液体酸素5K駆動の理論燃焼室4Y燃焼高圧高温燃焼ガス制御弁5a開放理論膨張機関3P駆動は、液体酸素5Kを圧縮することで、圧縮容積仕事率を空気圧縮の21/60000容積圧縮仕事率にし、液体酸素5K+液体燃料1c+水52aを50〜200MPa等超高圧に圧縮して、液体酸素制御弁5T+液体燃料制御弁1K+水制御弁5Qを開放理論燃焼室4Y内壁で最適温度に加熱し、受給過熱蒸気含む過熱蒸気制御弁25+酸素制御弁24D+燃料制御弁25bを開放、例えば酸素アセチレンバーナー複数中心付近3000℃以上燃焼で外周高圧高温過熱蒸気50を加熱して、過熱蒸気50の一部を中心付近に吸引熱分解電気分解酸素水素増大燃焼狙いにし、過熱蒸気50により理論膨張機関3P内壁の液体酸素5K+液体燃料1c+水52aを加熱して、最適温度の過熱蒸気50や燃料や酸素や内壁の保護燃焼や超高圧高温燃焼にし、高圧高温燃焼ガス制御弁5a開放空気吸引噴射で5a流路を冷却して、燃料燃焼量を増大する理論膨張機関3P駆動にし、横軸1h二重反転駆動して、ボイルの法則気体の体積は圧力に反比例する理論で最良の理論膨張機関3Pとし、燃焼ガス49を高圧高温燃焼ガス49として中心から円周方向380度膨張過程で、燃料管25aを延長上側膨張翼群8d複数個所より燃料噴射燃焼して、タービン外箱77a間で空気圧縮夫々上側膨張翼群8d下側膨張翼群8e最適箇所噴射し、夫々で燃焼量増大した超高速噴射駆動として、組立タービン翼群8fより噴射する組立容易な理論膨張機関3Pとする。 The theoretical expansion engine 3P theoretical combustion chamber 4Y drive in FIG. 5 will be described. From the horizontal + all-blade water gravity turbine 8R fuel cost 0 power generation extremely cheap electricity production from the electric + liquid air cold heat + superheated steam temperature supply equipment 3D, the liquid Liquid oxygen 5K is received and stored in oxygen chamber 5K Preservative electricity + superheated steam is selected and received, theoretical combustion chamber 4Y driven by liquid oxygen 5K combustion high pressure high temperature combustion gas control valve 5a open theoretical expansion engine 3P drive compresses liquid oxygen 5K Thus, the compression volume work rate is set to 21/60000 volume compression work rate of air compression, liquid oxygen 5K + liquid fuel 1c + water 52a is compressed to an ultrahigh pressure such as 50 to 200 MPa, and liquid oxygen control valve 5T + liquid fuel control valve 1K + water control valve 5Q is heated to the optimum temperature at the inner wall of the open theoretical combustion chamber 4Y, the superheated steam control valve 25 including the received superheated steam 25 + the oxygen control valve 24D + the fuel control valve 25b is opened, For example, the outer peripheral high-pressure high-temperature superheated steam 50 is heated by combustion at 3000 ° C. or more in the vicinity of a plurality of centers of oxygen acetylene burner, and a part of the superheated steam 50 is aimed at the combustion of suction pyrolysis electrolysis oxygen oxygen hydrogen increase near the center. Liquid oxygen 5K + liquid fuel 1c + water 52a on the inner wall of the expansion engine 3P is heated to produce superheated steam 50, fuel, oxygen, inner wall protection combustion or super high pressure high temperature combustion at the optimum temperature, and high pressure high temperature combustion gas control valve 5a open air suction The theoretical expansion engine 3P is driven by cooling the flow passage 5a by injection to increase the amount of fuel combustion, and the horizontal axis is 1h counter-rotating. The volume of the Boyle's law gas is inversely proportional to the pressure. In the engine 3P, the combustion gas 49 is used as the high-pressure and high-temperature combustion gas 49, and the fuel pipe 25a is fueled from a plurality of locations in the extended upper expansion blade group 8d in the expansion process of 380 degrees in the circumferential direction from the center. Combustion combustion is performed, and air compression is performed between the turbine outer casings 77a, respectively, and the upper expansion blade group 8d and the lower expansion blade group 8e are injected at optimum locations, and are injected from the assembly turbine blade group 8f as an ultra-high speed injection drive with an increased combustion amount. The theoretical expansion engine 3P is easy to assemble.

図6の酸素合体水噴射部88K流線型理論燃焼室4Y複数駆動を説明すると、横型全動翼水重力タービン8R燃料費0発電極端に安価電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dから、液体酸素5Kを受給保存電気+過熱蒸気を選択受給して、液体酸素5K駆動の酸素合体水噴射部88K駆動は、液体酸素5Kを液体の圧縮することで、圧縮容積仕事率を空気圧縮の21/60000容積圧縮仕事率にし、液体酸素5K+液体燃料1c+水52aを50〜200MPa等超高圧に圧縮して、液体酸素制御弁5T+液体燃料制御弁1K+水制御弁5Qを開放、理論燃焼室4Y内壁や燃焼流内壁5d等で最適温度に加熱し、図5過熱蒸気制御弁25+酸素制御弁24D+燃料制御弁25bを開放、例えば酸素アセチレンバーナー複数中心付近3000℃以上燃焼で外周高圧高温過熱蒸気50を加熱して、過熱蒸気50の一部を中心付近に吸引熱分解電気分解酸素水素増大燃焼狙いにし、過熱蒸気50により理論燃焼室4Y内壁の液体酸素5K+液体燃料1c+水52aを加熱して、最適温度の過熱蒸気50や燃料や酸素や内壁の保護燃焼や超高圧高温燃焼にし、中心複数理論燃焼室4Y外周に、過熱蒸気制御弁25開放過熱蒸気噴射ノズル6Aより超高圧過熱蒸気50を噴射して、中心複数理論燃焼室4y外周加熱で噴射推進出力を増大し、先頭理論燃焼室4Y燃焼ガス噴射ノズル6Y周囲には吸入空気路5bを具備して、酸素合体水噴射部88K先頭部に貫通空気吸引複数の燃料制御弁25b開放し、複数ジェット燃焼追加し燃焼量増大にして、同様な外周空気吸引流流線型理論燃焼室4Y選択燃焼を含めて、ロケット燃焼にジェット燃焼追加した燃焼量増大にし、酸素合体水噴射部88Kにする、各種エネルギ保存サイクル合体機関及び合体方法にする。 Explaining the oxygen combined water injection unit 88K streamline type theoretical combustion chamber 4Y multiple drive of FIG. 6 Horizontal full-blade water gravity turbine 8R fuel cost 0 power generation extremely cheap electricity production of electricity + liquid air cold heat + superheated steam temperature heat supply equipment From 3D, liquid oxygen 5K is received and stored electricity + superheated steam is selectively received, liquid oxygen 5K driving oxygen combined water injection unit 88K driving, compressing liquid oxygen 5K liquid, the compression volume work rate is air Compressed 21/60000 volumetric compression power, liquid oxygen 5K + liquid fuel 1c + water 52a is compressed to ultra high pressure such as 50-200 MPa, liquid oxygen control valve 5T + liquid fuel control valve 1K + water control valve 5Q is opened, theoretical combustion The chamber 4Y is heated to the optimum temperature by the inner wall of the chamber 4Y, the inner wall 5d of the combustion flow, etc., and the superheated steam control valve 25 + oxygen control valve 24D + fuel control valve 25b is opened, for example, an oxygen acetylene burner The outer peripheral high-pressure high-temperature superheated steam 50 is heated by combustion at 3000 ° C. or more in the vicinity of several centers, and a part of the superheated steam 50 is aimed at combustion with increased suction pyrolysis electrolysis oxygen-hydrogen in the vicinity of the center. The liquid oxygen 5K + liquid fuel 1c + water 52a is heated to produce superheated steam 50, fuel, oxygen, inner wall protective combustion or ultrahigh pressure / high temperature combustion at the optimum temperature, and the superheated steam control valve 25 is provided on the outer periphery of the central plural theoretical combustion chamber 4Y. The super high pressure superheated steam 50 is injected from the open superheated steam injection nozzle 6A, the injection propulsion output is increased by the outer peripheral heating of the central plural theoretical combustion chamber 4y, and the intake air passage 5b around the leading theoretical combustion chamber 4Y combustion gas injection nozzle 6Y. The oxygen combined water injection unit 88K has a front through air suction, a plurality of through-air suctions, a plurality of fuel control valves 25b are opened, a plurality of jet combustions are added to increase the combustion amount, and a similar peripheral air suction Including streamlined theoretical combustion chamber 4Y selected combustion, the combustion quantity increased added jet combustion rocket combustion, oxygen coalesce water injection unit 88K, to various energy storage cycles combined engine and coalescence method.

図7の酸素合体空気噴射部88A流線型理論燃焼室4Y複数駆動を説明すると、横型全動翼水重力タービン8R燃料費0発電極端に安価電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dから、液体酸素5Kを受給電気+過熱蒸気を選択受給して、液体酸素5K駆動の酸素合体空気噴射部88A駆動は、液体酸素5Kを液体の圧縮することで、圧縮容積仕事率を空気圧縮の21/60000容積圧縮仕事率にし、液体酸素5K+液体燃料1c+水52aを50〜200MPa等超高圧に圧縮して、液体酸素制御弁5T+液体燃料制御弁1K+水制御弁5Qを開放、理論燃焼室4Y内壁や燃焼流内壁5d等で最適温度に加熱し、図5過熱蒸気制御弁25+酸素制御弁24D+燃料制御弁25bを開放、例えば酸素アセチレンバーナー複数中心付近3000℃以上燃焼で外周高圧高温過熱蒸気50を加熱して、過熱蒸気50の一部を中心付近に吸引熱分解電気分解酸素水素増大燃焼狙いにし、過熱蒸気50により理論燃焼室4Y内壁の液体酸素5K+液体燃料1c+水52aを加熱して、最適温度の過熱蒸気50や燃料や酸素や内壁の保護燃焼や超高圧高温燃焼にし、中心複数理論燃焼室4Y外周に、過熱蒸気制御弁25開放過熱蒸気噴射ノズル6Aより超高圧過熱蒸気50を噴射して、中心複数理論燃焼室4y外周加熱で噴射推進出力を増大し、先頭理論燃焼室4Y燃焼ガス噴射ノズル6Y周囲には吸入空気路5bを具備して、酸素合体空気噴射部88A先頭部に貫通空気吸引複数の燃料制御弁25b開放し、複数ジェット燃焼追加し燃焼量増大にして、同様な外周空気吸引流流線型理論燃焼室4Y選択燃焼を含めて、ロケット燃焼にジェット燃焼追加した燃焼量増大にし、酸素合体空気噴射部88A超高圧大量燃焼100倍出力狙いとし、既存ジェット機の10倍速度狙い噴射推進にして、同一速度CO2排気1/10燃料費1/10運用利益率既存ジェット機の10倍狙う、酸素合体空気噴射部88Aにする、各種エネルギ保存サイクル合体機関及び合体方法にする。 The oxygen combined air injection unit 88A streamlined theoretical combustion chamber 4Y multiple drive in FIG. 7 will be described. Horizontal type full-blade water gravity turbine 8R Fuel cost 0 Power generation Extremely inexpensive electric production of electricity + liquid air cold heat + superheated steam temperature heat supply equipment From 3D, liquid oxygen 5K is received and electricity + superheated steam is selectively received, and the oxygen combined air injection unit 88A drive of the liquid oxygen 5K drive compresses the liquid oxygen 5K into the liquid, thereby compressing the compression volume work rate by air 21/60000 volumetric compression power, liquid oxygen 5K + liquid fuel 1c + water 52a is compressed to an ultrahigh pressure such as 50 to 200 MPa, liquid oxygen control valve 5T + liquid fuel control valve 1K + water control valve 5Q is opened, theoretical combustion chamber 4Y inner wall, combustion flow inner wall 5d, etc. are heated to an optimum temperature, and FIG. 5 superheated steam control valve 25 + oxygen control valve 24D + fuel control valve 25b is opened, for example, an oxygen acetylene burner The outer peripheral high-pressure high-temperature superheated steam 50 is heated by combustion at 3000 ° C. or more in the vicinity of several centers, and a part of the superheated steam 50 is aimed at combustion with increased suction pyrolysis electrolysis oxygen-hydrogen in the vicinity of the center. The liquid oxygen 5K + liquid fuel 1c + water 52a is heated to produce superheated steam 50, fuel, oxygen, inner wall protective combustion or ultrahigh pressure / high temperature combustion at the optimum temperature, and the superheated steam control valve 25 is provided on the outer periphery of the central plural theoretical combustion chamber 4Y. The super high pressure superheated steam 50 is injected from the open superheated steam injection nozzle 6A, the injection propulsion output is increased by the outer peripheral heating of the central plural theoretical combustion chamber 4y, and the intake air passage 5b around the leading theoretical combustion chamber 4Y combustion gas injection nozzle 6Y. A plurality of through-air suction fuel control valves 25b are opened at the head of the oxygen combined air injection unit 88A, and a plurality of jet combustions are added to increase the combustion amount. Including streamlined theoretical combustion chamber 4Y selective combustion, increase the combustion amount by adding jet combustion to rocket combustion, aim for oxygen combined air injection part 88A ultra high pressure mass combustion 100 times output, and target 10 times speed injection propulsion of existing jet aircraft Thus, an oxygen coalescence air injection unit 88A that aims at 10 times the same speed CO2 exhaust 1/10 fuel cost 1/10 operating profit rate as the existing jet aircraft is made into various energy storage cycle coalescence engines and coalescence methods.

図8の理論膨張機関3P自動車理論燃焼室4Y駆動を説明すると、横型全動翼水重力タービン8R燃料費0発電極端に安価電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dから、液体酸素5Kを受給電気+過熱蒸気を選択受給して、液体酸素5K駆動の理論燃焼室4Y燃焼高圧高温燃焼ガス制御弁5a開放理論膨張機関3P駆動は、液体酸素5Kを液体圧縮することで、圧縮容積仕事率を空気圧縮の21/60000容積圧縮仕事率にし、液体酸素5K+液体燃料1c+水52aを、液体燃料ポンプ4a+液体酸素ポンプ4b+水ポンプ4cで圧縮50〜200MPa等超高圧に圧縮して、液体酸素制御弁5T+液体燃料制御弁1K+水制御弁5Qを開放、理論燃焼室4Y内壁等で最適温度に加熱し、図5過熱蒸気制御弁25+酸素制御弁24D+燃料制御弁25bを開放、例えば酸素アセチレンバーナー複数中心付近3000℃以上燃焼で外周高圧高温過熱蒸気50を加熱して、過熱蒸気50の一部を中心付近に吸引熱分解電気分解酸素水素増大燃焼狙いにし、過熱蒸気50により理論燃焼室4Y内壁の液体酸素5K+液体燃料1c+水52aを加熱して、最適温度の過熱蒸気50や燃料や酸素や内壁の保護燃焼や超高圧高温燃焼にし、高圧高温燃焼ガス制御弁5aを開放理論膨張機関3Pを駆動して、発電機1を駆動して蓄電池1Aに蓄電して蓄電池駆動車輪4J駆動し、CO2排気1/10燃料費1/10運用利益率既存自動車の10倍狙う、理論膨張機関3P自動車にする、各種エネルギ保存サイクル合体機関及び合体方法にする。 The theoretical expansion engine 3P automobile theoretical combustion chamber 4Y drive of FIG. 8 will be described. From the horizontal type full-blade water gravity turbine 8R fuel cost 0 power generation extremely cheap electricity production, electricity + liquid air cold heat + superheated steam temperature heat supply equipment 3D, Liquid oxygen 5K is received and electricity + superheated steam is selectively received, and the theoretical combustion chamber 4Y combustion high pressure high temperature combustion gas control valve 5a open theoretical expansion engine 3P drive of liquid oxygen 5K is driven by liquid compression of liquid oxygen 5K, The compression volume work rate is set to 21/60000 volume compression work rate of air compression, and liquid oxygen 5K + liquid fuel 1c + water 52a is compressed to ultrahigh pressure such as 50 to 200 MPa by liquid fuel pump 4a + liquid oxygen pump 4b + water pump 4c. Then, the liquid oxygen control valve 5T + liquid fuel control valve 1K + water control valve 5Q is opened, heated to the optimum temperature on the inner wall of the theoretical combustion chamber 4Y, etc. FIG. Open the element control valve 24D + fuel control valve 25b, for example, heat the outer peripheral high-pressure high-temperature superheated steam 50 by combustion at 3000 ° C. or more in the vicinity of a plurality of centers of oxygen acetylene burner, and draw part of the superheated steam 50 in the vicinity of the center by pyrolysis electrolysis oxygen Aiming at increased hydrogen combustion, the superheated steam 50 heats the liquid oxygen 5K + liquid fuel 1c + water 52a on the inner wall of the theoretical combustion chamber 4Y to achieve the superheated steam 50, fuel, oxygen, inner wall protection combustion or ultrahigh pressure / high temperature combustion at the optimum temperature. The high-pressure high-temperature combustion gas control valve 5a is opened, the theoretical expansion engine 3P is driven, the generator 1 is driven, the storage battery 1A is charged, the storage battery drive wheel 4J is driven, and the CO2 exhaust 1/10 fuel cost 1/10 operation Profit rate Targeted 10 times that of existing automobiles, theoretical expansion engine 3P automobiles, various energy conservation cycle coalescence engines and coalescence methods.

図9酸素合体スクリュウ船舶39Hの理論膨張機関3P理論燃焼室4Y駆動を説明すると、横型全動翼水重力タービン8R燃料費0発電極端に安価電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dから、液体酸素5Kを受給電気+過熱蒸気を選択受給して、液体酸素5Kの理論燃焼室4Y燃焼高圧高温燃焼ガス制御弁5a開放理論膨張機関3P駆動は、液体酸素5Kを液体圧縮することで、圧縮容積仕事率を空気圧縮の21/60000容積圧縮仕事率にし、液体酸素5K+液体燃料1c+水52aを、液体燃料ポンプ4a+液体酸素ポンプ4b+水ポンプ4cで圧縮50〜200MPa等超高圧に圧縮して、液体酸素制御弁5T+液体燃料制御弁1K+水制御弁5Qを開放、理論燃焼室4Y内壁等で最適温度に加熱し、図5過熱蒸気制御弁25+酸素制御弁24D+燃料制御弁25bを開放、例えば酸素アセチレンバーナー複数中心付近3000℃以上燃焼で外周高圧高温過熱蒸気50を加熱して、過熱蒸気50の一部を中心付近に吸引熱分解電気分解酸素水素増大燃焼狙いにし、過熱蒸気50により理論燃焼室4Y内壁の液体酸素5K+液体燃料1c+水52aを加熱して、最適温度の過熱蒸気50や燃料や酸素や内壁の保護燃焼や超高圧高温燃焼にし、高圧高温燃焼ガス制御弁5aを開放理論膨張機関3P複数駆動を選択可能として、スクリュウ駆動して酸素合体スクリュウ船舶39Hを駆動し、CO2排気1/10燃料費1/10運用利益率既存船舶の10倍狙う、酸素合体スクリュウ船舶39Hにする、各種エネルギ保存サイクル合体機関及び合体方法にする。 FIG. 9 Explaining the drive of the theoretical expansion engine 3P theoretical combustion chamber 4Y of the oxygen coalescence screw ship 39H: horizontal full-blade water gravity turbine 8R fuel cost 0 power generation extremely cheap electricity production of electricity + liquid air cold heat + superheated steam temperature heat supply Liquid oxygen 5K is received from the equipment 3D and electricity + superheated steam is selectively received, and the theoretical combustion chamber 4Y combustion high pressure high temperature combustion gas control valve 5a of the liquid oxygen 5K is opened. The theoretical expansion engine 3P drive compresses the liquid oxygen 5K. Thus, the compression volume work rate is set to 21/60000 volume compression work rate of air compression, and the liquid oxygen 5K + liquid fuel 1c + water 52a is compressed to an ultrahigh pressure such as 50 to 200 MPa by the liquid fuel pump 4a + liquid oxygen pump 4b + water pump 4c. After compression, the liquid oxygen control valve 5T + liquid fuel control valve 1K + water control valve 5Q is opened, heated to the optimum temperature on the inner wall of the theoretical combustion chamber 4Y, etc. Open steam control valve 25 + oxygen control valve 24D + fuel control valve 25b, for example, heat the outer peripheral high-pressure high-temperature superheated steam 50 by combustion at 3000 ° C. or more in the vicinity of a plurality of oxygen acetylene burners, and suck a part of the superheated steam 50 near the center Aiming at increased combustion of electrolysis / oxygen / hydrogen hydrogen, the superheated steam 50 heats the liquid oxygen 5K + liquid fuel 1c + water 52a on the inner wall of the theoretical combustion chamber 4Y to protect the superheated steam 50, fuel, oxygen, and inner wall at the optimum temperature, High-pressure high-temperature combustion, open high-pressure high-temperature combustion gas control valve 5a can be selected multiple open theoretical expansion engine 3P drive, screw drive to drive the oxygen coalesced screw ship 39H, CO2 exhaust 1/10 fuel cost 1/10 operating profit Establishing an oxygen coalescence screw ship 39H, aiming at 10 times the rate of existing ships, various energy conservation cycle coalescence engines and coalescence methods .

図10酸素合体スクリュウ噴射船舶39Kの、理論燃焼室4Yによる酸素合体水噴射部88K理論膨張機関3P駆動を説明すると、横型全動翼水重力タービン8R燃料費0発電極端に安価電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dから、液体酸素5Kを受給電気+過熱蒸気を選択受給して、理論膨張機関3Pによるスクリュウ駆動は図5横軸1h駆動や図9説明と同様駆動とし、酸素合体水噴射部88Kに理論燃焼室4Yを図6説明のように移動して、空気28a入口を前向き拡大して可能な限り直線に近付けた噴射推進として具備し、先頭理論燃焼室4Y燃焼ガス噴射ノズル6Y周囲には吸入空気路5bを具備して、ロケット燃焼にジェット燃焼追加船底に気泡最大噴射し、流線型理論燃焼室4Y複数を用途に合わせて直列具備や吸入空気路具備として、液体酸素5K圧縮で空気容積圧縮仕事率の21/60000容積圧縮仕事率にし、図6の流線型理論燃焼室4Yは用途に合せて適当数選択使用して、燃焼ガス噴射ノズル6Y噴射して空気吸引噴射し水を吸引噴射推進する、大型船舶や小型船舶や高速船舶や超高速船舶に対応し、ロケット燃焼にジェット燃焼追加した燃焼量増大にして、酸素合体水噴射部88K超高圧大量燃焼100倍出力狙いとし、既存船舶の10倍速度狙い噴射推進にして、同一速度CO2排気1/10燃料費1/10運用利益率既存船舶の10倍狙う、酸素合体水噴射部88Kにする、各種エネルギ保存サイクル合体機関及び合体方法にする。 FIG. 10 The oxygen combined water injection part 88K theoretical expansion engine 3P driving by the theoretical combustion chamber 4Y of the oxygen combined screw injection ship 39K will be described. The horizontal full-blade water gravity turbine 8R fuel cost 0 power generation + Liquid air cooling heat + superheated steam temperature supply facility 3D receives liquid oxygen 5K + selectively receives superheated steam, and the screw drive by the theoretical expansion engine 3P is driven in the same manner as in FIG. The theoretical combustion chamber 4Y is moved to the oxygen combined water injection section 88K as illustrated in FIG. 6 and the air 28a inlet is expanded forward to be as close to a straight line as possible, and the leading theoretical combustion chamber 4Y is combusted. A suction air passage 5b is provided around the gas injection nozzle 6Y, and bubbles are injected at the bottom of the jet combustion additional vessel for rocket combustion, and a plurality of streamlined theoretical combustion chambers 4Y are adapted to the application. Composed of a line and intake air passage, liquid oxygen 5K compression is set to 21/60000 volumetric compression work rate of air volumetric compression work rate, and the streamlined theoretical combustion chamber 4Y in FIG. Corresponding to large vessels, small vessels, high-speed vessels and ultra-high-speed vessels that inject gas suction nozzle 6Y and suck air and propel water, increase the combustion amount by adding jet combustion to rocket combustion, oxygen combined water Injecting unit 88K super high pressure mass combustion 100 times output target, aiming at 10 times speed injection promotion of existing ship, same speed CO2 exhaust 1/10 fuel cost 1/10 operating profit rate 10 times target existing ship oxygen combined water Various energy storage cycle coalescence engines and coalescence methods are used for the injection unit 88K.

図11酸素合体噴射船舶39Jの、理論燃焼室4Yによる酸素合体水噴射部88K駆動を説明すると、横型全動翼水重力タービン8R燃料費0発電極端に安価電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dから、液体酸素5Kを受給電気+過熱蒸気を選択受給して、酸素合体水噴射部88Kに理論燃焼室4Yを図6説明のように移動、先頭理論燃焼室4Y燃焼ガス噴射ノズル6Y周囲には吸入空気路5bを具備し、ジェット燃焼追加する流線型理論燃焼室4Y複数を用途に合わせて選択具備として、液体酸素5K圧縮で空気容積圧縮仕事率の21/60000容積圧縮仕事率にし、図6の流線型理論燃焼室4Yは用途に合せて適当数選択使用して、大型船舶や小型船舶や高速船舶や超高速船舶に対応し、ロケット燃焼にジェット燃焼追加した燃焼量増大にして、酸素合体水噴射部88K超高圧大量燃焼100倍出力狙いとし、既存船舶の10倍速度狙い噴射推進にして、同一速度CO2排気1/10燃料費1/10運用利益率既存船舶の10倍狙う、酸素合体水噴射部88Kにする、各種エネルギ保存サイクル合体機関及び合体方法にする。 FIG. 11 The oxygen coalescence water injection unit 88K driven by the theoretical combustion chamber 4Y of the oxygen coalescence injection ship 39J will be described. Horizontal full-blade water gravity turbine 8R Fuel cost 0 Electricity + liquid air cold heat + Receives liquid oxygen 5K from the superheated steam temperature supply facility 3D, selectively receives electricity + superheated steam, moves the theoretical combustion chamber 4Y to the oxygen combined water injection unit 88K as illustrated in FIG. 6, and the leading theoretical combustion chamber 4Y combustion gas An intake air passage 5b is provided around the injection nozzle 6Y, and a plurality of streamlined theoretical combustion chambers 4Y for adding jet combustion are selected according to the application, and the volumetric compression work of 21/60000 volumetric compression work with liquid oxygen 5K compression. The streamlined theoretical combustion chamber 4Y shown in FIG. 6 can be used by selecting an appropriate number according to the application, and can be used for large ships, small ships, high-speed ships, and ultra-high speed ships. Increase the amount of combustion added combustion, aim for oxygen combined water injection unit 88K ultra high pressure mass combustion 100 times output, and aim for 10 times speed injection propulsion of existing ships, same speed CO2 exhaust 1/10 fuel cost 1/10 operation Profit rate 10 times that of existing ships, oxygen coalescence water injection unit 88K, various energy storage cycle coalescence engine and coalescence method.

図12酸素合体噴射飛行機39Lの、理論燃焼室4Yによる酸素合体空気噴射部88A駆動を説明すると、横型全動翼水重力タービン8R燃料費0発電極端に安価電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dから、液体酸素5Kを受給電気+過熱蒸気を選択受給して、酸素合体空気噴射部88Aに理論燃焼室4Yを図7説明のように移動、先頭理論燃焼室4Y燃焼ガス噴射ノズル6Y周囲には吸入空気路5bを具備し、ジェット燃焼追加する流線型理論燃焼室4Y複数を用途に合わせて選択具備として、液体酸素5K圧縮で空気容積圧縮仕事率の21/60000容積圧縮仕事率にし、図7の流線型理論燃焼室4Yは用途に合せて適当数選択使用して、燃焼ガス噴射ノズル6Y噴射して大気中は空気吸引噴射ジェット燃焼噴射推進し、宇宙上昇時にはロケット燃焼により宇宙に到達する宇宙往還の各種飛行機にして、酸素合体空気噴射部88K超高圧大量燃焼100倍出力狙いとし、燃料費0に近い宇宙利用全盛1日に地球を16周する等地球上何処でも日帰り旅行を可能にして、大気中同一速度CO2排気1/10燃料費1/10運用利益率既存飛行機の10倍狙う、酸素合体空気噴射部88Aにする、各種エネルギ保存サイクル合体機関及び合体方法にする。 FIG. 12 illustrates the driving of the oxygen coalesced air injection unit 88A driven by the theoretical combustion chamber 4Y of the oxygen coalesced jet plane 39L. The horizontal full-blade water gravity turbine 8R has a fuel cost of 0 power generation. Receives liquid oxygen 5K from the superheated steam temperature / heat supply facility 3D and selectively receives the superheated steam + the superheated steam, moves the theoretical combustion chamber 4Y to the oxygen combined air injection unit 88A as illustrated in FIG. 7, and the leading theoretical combustion chamber 4Y combustion gas An intake air passage 5b is provided around the injection nozzle 6Y, and a plurality of streamlined theoretical combustion chambers 4Y for adding jet combustion are selected according to the application, and the volumetric compression work of 21/60000 volumetric compression work with liquid oxygen 5K compression. The streamlined theoretical combustion chamber 4Y of FIG. 7 is selected and used in an appropriate number according to the application, and the combustion gas injection nozzle 6Y is injected and air suction injection jet combustion injection is performed in the atmosphere. Proceed and make various planes that return to space by rocket combustion at the time of space ascent, aim for oxygen combined air injection unit 88K super high pressure mass combustion 100 times output, and make the earth on the first day of space use near the fuel cost 0 16-round trips anywhere on the earth, allowing for a day trip anywhere in the atmosphere, CO2 exhaust 1/10 fuel cost 1/10 operating profit rate 10 times that of existing aircraft Use a storage cycle coalescence engine and coalescence method.

図13酸素合体プロペラ飛行機39Mの、図5理論燃焼室4Y理論膨張機関3Pによるプロペラ7A駆動を説明すると、横型全動翼水重力タービン8R燃料費0発電極端に安価電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備3Dから、液体酸素5Kを受給電気+過熱蒸気を選択受給して、圧縮50〜200MPa等とし、液体酸素制御弁5T+液体燃料制御弁1K+水制御弁5Qを開放して、理論燃焼室4Y内壁等で最適温度に加熱し、過熱蒸気制御弁25+酸素制御弁24D+燃料制御弁25bを開放、例えば酸素アセチレンバーナー複数中心付近3000℃以上燃焼で外周高圧高温過熱蒸気50を加熱して、過熱蒸気50の一部を中心付近に吸引熱分解電気分解酸素水素増大燃焼狙いにし、過熱蒸気50により理論燃焼室4Y内壁の液体酸素5K+液体燃料1c+水52aを加熱して、最適温度の過熱蒸気50や燃料や酸素や内壁の保護燃焼や超高圧高温燃焼にし、高圧高温燃焼ガス制御弁5a開放理論膨張機関3P駆動して、横軸1hによりプロペラ7A駆動や回転翼7B駆動にし、大気中同一速度CO2排気1/10燃料費1/10運用利益率既存飛行機の10倍狙う、プロペラ飛行機等にし図12と合体酸素合体プロペラ噴射飛行機39Nにする、各種エネルギ保存サイクル合体機関及び合体方法にする。 FIG. 13 Driving the propeller 7A of the oxygen combined propeller plane 39M by the theoretical combustion chamber 4Y theoretical expansion engine 3P in FIG. 5 will be described. Horizontal full-blade water gravity turbine 8R Fuel cost 0 power generation Electricity + liquid air of extremely cheap electricity production Receiving liquid oxygen 5K from cold / superheated steam temperature supply facility 3D, selectively receiving electricity + superheated steam, compression 50-200 MPa, etc., opening liquid oxygen control valve 5T + liquid fuel control valve 1K + water control valve 5Q Then, heat up to the optimum temperature on the inner wall of the theoretical combustion chamber 4Y, etc., and open the superheated steam control valve 25 + oxygen control valve 24D + fuel control valve 25b, for example, heat the outer peripheral high-pressure high-temperature superheated steam 50 by combustion at 3000 ° C. or more near multiple oxygen acetylene burners. Then, a part of the superheated steam 50 is aimed to increase the combustion by suction pyrolysis electrolysis oxygen hydrogen hydrogen near the center, and the theoretical combustion chamber 4Y is heated by the superheated steam 50. Liquid oxygen 5K on the wall + liquid fuel 1c + water 52a is heated to produce superheated steam 50, fuel, oxygen, inner wall protection combustion or ultrahigh pressure / high temperature combustion at the optimum temperature, and high pressure / high temperature combustion gas control valve 5a is opened. Then, the propeller 7A drive and the rotor blade 7B drive by the horizontal axis 1h, the same speed CO2 exhaust in the atmosphere 1/10 fuel cost 1/10 operating profit rate 10 times that of the existing airplane, propeller airplane etc. A combined propeller-injection airplane 39N is used.

資源価格0燃料費0発電の原価を原子力発電の1/2以下狙う、横型全動翼水重力タービン8R発電を既存揚水発電と比較説明すると、揚水発電の発電部分に、真空中の重力加速度とウォータージェット加工機の水噴射速度マッハ3を追加し、仕事率が速度に比例+高さに比例+10倍速度1/10質量垂直水駆動+全動翼横軸1h二重反転駆動で、真空中重力加速度9.8m/秒の威力を最大として、世界最高建築物高さ828mに100組垂直具備で1台発電とし、既存揚水発電と同一水量100倍発電量等の横型全動翼水重力タービン8R発電で、極端に安価発電にする可能性がある。 Compared to the existing pumped storage power generation, the horizontal full-blade hydrogravity turbine 8R power generation aiming at a resource price of 0 fuel cost of 0 power generation less than 1/2 of nuclear power generation is explained. Water jet speed Mach 3 of water jet processing machine is added, work rate is proportional to speed + proportional to height + 10 times speed 1/10 mass vertical water drive + all blade horizontal axis 1h counter reversal drive, in vacuum Horizontal type full-blade hydrogravity turbine with maximum power of 9.8m / s, power generation of 100 units vertically with the world's highest building height of 828m, and 100 times the same amount of water as existing pumped power generation 8R power generation may lead to extremely cheap power generation.

資源価格0燃料費0発電の原価を原子力発電の1/2以下狙う、横型全動翼水重力タービン8R発電を既存火力原子力蒸気タービン発電と比較説明の過程で、ボイルの法則により大気圧100℃760mmHgで水の1700倍容積の水蒸気は、排気温度29℃真空度30mmHg蒸気圧で水の43000倍容積水蒸気となり、既存蒸気タービン最終動翼群蒸気速度を音速と仮定すると、入口高圧動翼群蒸気速度は音速の1/100速度以下仕事率最低のため、最高仕事率の最終動翼群と比較説明する。水の駆動容積が水蒸気29℃容積の1/43000容積29℃水駆動の場合、円筒タービン翼群8A駆動で同発電量となり、1/215容積水駆動で200倍発電量100組連結の1台で20000倍発電量となる等、小学校理科で計算すると極端に安価発電を天文学的大発電量にする可能性がある。 In the process of comparing the horizontal full-blade water gravity turbine 8R power generation with the existing thermal power nuclear steam turbine power generation, aiming to reduce the resource price 0 fuel cost 0 power generation to less than 1/2 of the nuclear power generation, according to Boyle's law Steam of 1,700 times the volume of water at 760 mmHg becomes 43,000 times the volume of water at an exhaust temperature of 29 ° C. and a vacuum pressure of 30 mmHg, and assuming that the existing steam turbine final blade group steam velocity is the sonic velocity, the inlet high pressure blade group steam Since the speed is less than 1 / 100th of the speed of sound and the work rate is the lowest, the comparison will be made with the last blade group having the highest work rate. When the water drive volume is 1 / 433,000 volume 29 ° C water drive of the steam 29 ° C volume, the same amount of power is generated by driving the cylindrical turbine blade group 8A, and 100 units of 200 times the amount of generated power are connected by 1/215 volume water drive. If it is calculated by elementary school science, such as a power generation amount of 20000 times, there is a possibility that extremely low-priced power generation becomes an astronomical large power generation amount.

横型全動翼水重力タービン8R発電極端に安価発電の、電気製造物全盛として電気+液体空気冷熱+過熱蒸気温熱供給設備3Dより過熱蒸気を受給して、海底や永久凍土地下のメタンハイドレートに注入囲い設けてメタン回収や永久凍土地帯の牧草地放牧変換や、オイルサンド地帯やオイルシェール地帯や老朽石油採取地帯でも過熱蒸気注入し、夫々囲い設けて気化回収液化保存等として、食品会社では過熱蒸気安価受給して安価食料品大量製造等とし、農業用や工業用や産業用や鉱業用に使用して温熱利用全盛にする可能性がある。 Horizontal type full-blade water gravity turbine 8R power generation Extremely low-cost power generation, as an electric product prime, it receives superheated steam from electricity + liquid air cold heat + superheated steam temperature supply facility 3D to methane hydrate under the seabed or permafrost Injecting enclosures provide methane recovery, conversion to pasture grazing in permafrost areas, superheated steam injection even in oil sands, oil shale, and old oil extraction areas, and gasification recovery liquefaction and preservation in food enclosures. There is a possibility of receiving cheap steam for mass production of cheap food products, etc., and using it for agriculture, industry, industry, mining, etc.

横型全動翼水重力タービン8R発電極端に安価発電の、電気製造物全盛として電気+液体空気冷熱+過熱蒸気温熱供給設備3Dより液体酸素5Kを受給して、液体酸素で駆動する自動車や船舶や飛行機等とし、液体酸素5Kを液体圧縮することで空気容積圧縮仕事率の21/60000容積圧縮仕事率にして、理論膨張機関3Pや酸素合体水噴射部88Kや酸素合体空気噴射部88Aを駆動し、自動車ではCO2排気や燃料費を1/10に近付ける可能性があり、船舶は同一燃料費で10倍速度に近付ける可能性があり、飛行機は宇宙到達費用を1/50万等として、宇宙利用全盛として地球上何処でも日帰り旅行にする等、冷熱利用全盛の大革命にする可能性がある。 Horizontal full-blade water gravity turbine 8R power generation Extremely inexpensive power generation, as an electric product prime, electric + liquid air cold heat + superheated steam temperature supply equipment 3D receives liquid oxygen 5K, and is driven by liquid oxygen With an airplane or the like, liquid oxygen 5K is liquid-compressed to obtain 21/60000 volumetric compression work rate of the air volumetric compression work rate, and the theoretical expansion engine 3P, the oxygen combined water injection unit 88K, and the oxygen combined air injection unit 88A are driven. In the case of automobiles, CO2 emissions and fuel costs may approach 1/10. Ships may approach 10 times the speed with the same fuel cost. There is a possibility that it will become a major revolution in the use of cold energy, such as making day trips anywhere on the earth as a prime.

0:各種エネルギ保存サイクル合体機関(各種熱エネルギは空気温度として熱ポンプで圧縮熱回収して、液体空気冷熱+過熱蒸気温熱に分割保存使用・重力エネルギは上昇保存噴射真空中重力加速度加速して発電電力で変換使用する各種エネルギ合体エンジン合体手段) 0:各種エネルギ保存サイクル合体機関及び合体方法(各種熱エネルギは太陽熱や地熱で加熱等空気温度として熱ポンプで圧縮熱回収して、液体空気冷熱+過熱蒸気温熱に分割保存使用・500℃以下液体金属使用時は保温装置で保温保存使用・衝撃エネルギはタービン翼や小径金属球にシリコン樹脂被覆やフッ素樹脂被覆を設け作用時間の保存延長に使用・重力エネルギは上昇装置により上昇保存噴射真空中重力加速度加速して発電電力で変換使用する各種エネルギ合体エンジン及び各種エネルギ合体手段) 1:発電機、 1A:蓄電池、 1B:圧力機関(酸素圧力歯車機関・酸素圧力往復機関・水圧力歯車機関・水圧力往復機関等液体圧縮で圧縮仕事率を1/600として圧縮機やポンプを各種圧力機関にする) 1C:アルコール、 1D:燃料噴射ポンプ、 1F:復水ポンプ、 1G:1〜複数段熱ポンプ(熱エネルギを空気温度とし熱ポンプ(各種空気圧縮機)で複数回圧縮2Cの2X2Y2Zで複数回熱回収温熱50+冷熱28aで分割保存) 1K:液体燃料制御弁、 1L:水制御弁、 1Y:複数段燃焼室(液体酸素と液体窒素を別圧縮50〜200MPa燃焼ガスと窒素ガス別製造し、1Yに燃焼ガス噴射燃料噴射燃焼内外の水蒸気加熱を複数回実施して噴射又は排気する) 1b:燃料(液体燃料+液化可能気体燃料) 1b:燃料(液体燃料+液化可能気体燃料) 1b:燃料管(燃料噴射温度が最適温度になるように具備する) 1c:液体燃料、 1d:水銀、 1g:重力加速部、 1h:横軸(外側軸装置と内側軸装置の回転方向交互にする軸) 1J:燃料制御弁、 1K:液体燃料制御弁、 2:太陽光加熱器(長レンズで太陽光を直線状に集めて高温部形成吸入空気を加熱) 2a:自然現象高速化(空気中では変化略0の残飯類が近くの川に移動すると一夜で0に近付く膨大な微生物量を人類の食糧増大に利用) 2a:自然現象高速化(発電では海水に冷熱28aを混合自然現象高速化した海水を海底に供給窒素や酸素やCO2等の栄養分を供給微生物増大して魚類やコンブ等食糧大増大する装置) 2a:自然現象高速化(船舶では海中に窒素や酸素やCO2等の栄養分を供給微生物の消化能力を森林の数万倍狙い植物プランクトンや海草等を増殖食物連鎖等により魚類やコンブ類等人類の食糧を増大) 2b:水抵抗僅少(船底に空気+燃焼ガス+過熱蒸気を超高速噴射して水抵抗僅少にする) 2c:断熱材、 2d:長レンズ(凸レンズ断面を直線状に延長矩形とし、複数使用で焦点距離最短レンズ幅最大狙う) 2e:水面、 2g:比重大物質加速方向、 2A:耐熱材、 2B:熱吸収材、 2C:1〜複数段圧縮熱回収器(熱エネルギを空気温度とし熱ポンプで複数回圧縮2Cの2X2Y2Z等各種熱交換器で複数回熱回収利用して残りを温熱50+液体冷熱28aに分割保存) 2E:比重大物質(合金含む、白金球・金球・タングステン合金粉末焼結球・銀球・銅球・錫球・鉛球・亜鉛球・アルミニウム球・インジウム・カドミウム・ガリウム・タリウム・ビスマス等比重の大きい物質) 2E:比重大物質(製造法は小径程衝撃エネルギが低減するため例えば溶融鋼を空気中に噴射高速衝突粉砕空気冷却水冷却で超小径鋼球等製造) 2E:比重大物質(シリコン樹脂被覆やケイ素樹脂被覆の、被覆白金合金球・被覆金合金球・被覆タングステン合金粉末焼結球・被覆銀合金球・被覆ビスマス合金球・被覆銅合金球・被覆錫合金球・被覆鉛合金球・被覆亜鉛合金球・被覆アルミニウム合金球) 2F:比重大物質上昇装置(重力エネルギを上昇保存) 2H:冷熱海水混合器(海水に冷熱を混合自然現象高速化の過程で過熱蒸気気化熱を冷却復水にする装置) 2X:空気熱交換器(空気を熱ポンプで圧縮高温として熱回収圧縮空気質量無限増大や圧力無限上昇狙う) 2Y:圧縮空気熱交換器(高温空気や燃焼ガスで空気冷熱+過熱蒸気温熱製造する) 2Z:比重大物質熱交換器(500度以下液体金属の温度管理等で使用) 3a:撥水鍍金、 3A:撥水コーティング、 3B:水圧力往復機関(多段酸素圧力往復機関で水や水蒸気を多段加熱して多段水圧力往復機関を駆動する) 3D:電気+液体空気冷熱+過熱蒸気温熱供給設備(重力発電電気で冷熱+温熱製造し液体酸素や液体窒素を供給自動車や船舶や飛行機を駆動や過熱蒸気で供給メタンハイドレートに注入メタンを回収等電気+冷熱+温熱利用全盛にする) 3E:比重大物質(水銀や水等常温で液体の比重大物質) 3E:比重大物質(低融点合金の500度以下液体で安定高温液体合金) 3F:酸素圧力往復機関(液体酸素と液体窒素と燃料を噴射燃焼50〜200MPa燃焼ガスとし、膨張の過程で燃料噴射多段燃焼して多段酸素圧力往復機関を駆動する) 3G:理論燃焼歯車機関(液体酸素+液体燃料+水を圧縮加熱して噴射燃焼する) 3H:往復ピストン、 3J:理論燃焼往復機関(液体酸素+液体燃料+水を圧縮加熱して噴射燃焼する) 3K:外接歯車 3L:複数段燃焼室、 3M:水蒸気圧力往復機関(多段酸素圧力往復機関で水や水蒸気を多段加熱して多段水蒸気圧力往復機関を駆動する) 3N:水蒸気圧力歯車機関(多段酸素圧力歯車機関で水や水蒸気を多段加熱して多段水蒸気圧力歯車機関を駆動する) 3P:理論膨張機関(ボイルの法則気体の体積は圧力に反比例する理論で最良機関) 3R:理論ガスタービン(気体の体積は圧力に反比例対応の理論最良ガスタービン) 3S:理論蒸気タービン(気体の体積は圧力に反比例対応の理論最良蒸気タービン) 3T:理論気体圧縮機(気体の体積は圧力に反比例対応の理論最良気体圧縮機) 3V:ポンプ機関(既存各種ポンプをエンジンで使用) 3X:圧縮機機関(既存各種圧縮機をエンジンで使用) 3Y:二重反転機関(気体の体積は圧力に反比例対応のエンジン) 3Z:酸素圧力歯車機関(液体酸素と液体窒素と燃料噴射燃焼して50〜200MPa燃焼ガスとし内周外周の水や水蒸気を多段燃焼加熱して多段水圧力歯車機関を連動する) 3a:撥水鍍金、 3b:撥水コーティング、 4C:対向同期歯車、 4D:直列同回転歯車、 4F:燃焼ガス往復機関、 4H:熱吸収管(長レンズ2dで太陽光を熱吸収管に直線状に集めて管内空気温度を最高に加熱して菅外空気温度も上昇する) 4J:蓄電池駆動車輪、 4K:理論膨張機関自動車、 4W:理論圧縮室、 4Y:理論燃焼室(水蒸気の中で高温燃焼して水の熱分解電気分解燃焼狙い化合物0狙い燃焼室) 4Z:燃焼ガス歯車機関、 4X:タービン翼断面(断面積を拡大表面積増大) 4a:液体燃料ポンプ、 4b:液体酸素ポンプ、 4c:水ポンプ、 4d:歯車装置、 4e:ローラー、 4f:回転支持部、 5a:高圧高温燃焼ガス制御弁、 5A:給気弁、 5B:冷却ヒレ、 5C:排気室 5D:排気弁 5E:給気室 5F:酸素加熱室 5G:水蒸気加熱室、 5H:水加熱室、 5K:液体酸素、 5K:液体酸素室、 5L:液体窒素、 5L:液体窒素室、 5M:高圧高温燃焼ガス、 5M:高圧高温燃焼ガス室、 5N:高圧高温水蒸気室、 5N:高圧高温水蒸気、 5P:水蒸気制御弁、 5Q:水制御弁、 5T:液体酸素制御弁、 6:最終圧縮翼、 6A:過熱蒸気噴射ノズル、 6B:圧縮空気噴射ノズル、 6E:比重大物質噴射ノズル、 6W:比重大物質加速機(液体比重大物質3E圧力と比重差利用して比重大物質3Eや2E混合噴射) 6X:燃料噴射ノズル、 6X:アフターバーナー(吸引空気流に燃料噴射冷熱28a燃焼流6Yに合流燃焼して燃料燃焼量大増大で宇宙上昇) 6Y:燃焼ガス噴射ノズル(冷熱28a燃焼流) 6Z:水蒸気噴射ノズル、 7A:プロペラ、 7B:回転翼、 7C:スクリュー、 8c:タービン翼(円筒外面に直線長大タービン翼を設けて内周や外周の全自動加工や軽量化を狙う) 8d:上側膨張翼群、 8e:下側膨張翼群、 8f:組立タービン翼群、 8g:上側圧縮翼群、 8h:下側圧縮翼群、 8j:組立圧縮翼群、 8A:円筒タービン翼群(横型円筒タービン翼群として全自動加工や精密組立可能にする) 8R:横型全動翼タービン(対向全動翼弾み車タービン直列全動翼弾み車タービン食込全動翼弾み車タービン) 8R:横型全動翼タービン(円筒外面に直線長大タービン翼を設けて内周や外周の全自動加工や軽量化を狙う) 8R:横型全動翼水重力タービン(既存蒸気タービンは静翼で堰き止め出力が0に近付くため全動翼を必須とし仕事率が白金球の1/3.6万等僅少なため水の真空度上昇中の重力加速度使用必須とする) 9:耐摩耗環状組立(8cを含む比重大物質流路のみ超硬合金で環状製造軽量化する嵌合組立方法にする) 9A:円筒環状組立(耐摩耗円筒環状組立て動翼群6種類にすることで構造簡単や部品数僅少や全自動加工容易や組立容易や軽量化容易等にする) 9A:円筒環状組立(入口固定外翼60E+外側環状翼60G+出口固定外翼60J嵌合で円筒外側動翼群60Dを構成し、入口固定内翼60F+内側環状翼60H+出口固定内翼60K嵌合で円筒内側動翼群60Cを構成する円筒部) 10:船体、 10A:船室、 10b:操縦室、 10c:制御室、 10d:客室、 10e:貨物室、 16:水平軸板(精密組立を容易にする円盤) 16A:水平軸、 11D:気体専用冷却室、 21:太陽光加熱器(吸入空気路を熱吸収管4H内にも設けて主使用する) 24:燃焼ガス制御弁、 24A:圧縮空気制御弁、 25:過熱蒸気制御弁、 25b:燃料制御弁、 28a:空気、 28a:冷熱(空気28aを熱ポンプで圧縮して圧縮空気熱量の過熱蒸気50温熱+液体酸素や液体窒素を含む圧縮空気28a冷熱に分割保存) 28b:圧縮空気熱量、 28A:吸入空気路、 28B:空気路入口、 38:回転案内具、 38a:飛行胴、 38b:飛行翼、 38c:飛行尾翼、 38d:垂直翼、 38e:翼前縁心、 38g:水上翼、 38h:浮上艇、 38B:空気吸引噴射船舶(79S79T79Y79Z具備) 38C:水吸引噴射船舶(79U79X具備) 39A:太陽熱重力飛行機、 39B:太陽熱重力回転飛行機、 39C:太陽熱重力ヘリコプター、 39D:スクリュー船舶、 39G:太陽熱重力飛行船舶、 39H:酸素合体スクリュー船舶、 39J:酸素合体噴射船舶、 39K:酸素合体スクリュー噴射船舶、 39L:酸素合体噴射飛行機、 39M:酸素合体プロペラ飛行機、 39N:酸素合体プロペラ噴射飛行機、 39P:酸素合体回転翼飛行機、 40A:方向舵、 49:燃焼ガス、 50:過熱蒸気、 50:過熱蒸気室、 50:温熱(空気28aを熱ポンプで圧縮して圧縮空気熱量の過熱蒸気50温熱+圧縮空気28a冷熱に分割保存) 50A:水蒸気、 51:空気抽出器、 51:合流抽出器(合流するための抽出器) 51A:空気抽出室、 52a:水、 52a:海洋深層水、 52b:高温水、 52d:温熱(50から変化) 52e:冷熱(28aから変化) 55B:変速装置、 60A:内側軸装置(タービン翼具備装置) 60B:外側軸装置(タービン翼具備装置) 60C:円筒内側動翼群(耐摩耗円筒環状組立固定動翼群を含めて全自動加工容易組立容易にする) 60D:円筒外側動翼群(耐摩耗円筒環状組立固定動翼群を含めて全自動加工容易組立容易にする) 60E:入口固定外翼(外側動翼群を環状組立固定する入口翼) 60F:入口固定内翼(内側動翼群を環状組立固定する入口翼) 60G:外側環状翼(外側動翼群を環状組立する中間翼) 60H:内側環状翼(内側動翼群を環状組立する中間翼) 60J:出口固定外翼(外側動翼群を環状組立固定する出口翼) 60K:出口固定内翼(内側動翼群を環状組立固定する出口翼) 76:歯車装置(磁気摩擦動
力伝達装置を含む) 77B:半筒形外箱、 77F:噴射部外箱、 77G:円筒回転部、 77a:タービン外箱、 80:軸受(磁気軸受+空気軸受含) 80a:推力軸受(磁気軸受+空気軸受含) 80A:継手、 80B:締付具、 80E:液体合体噴射部(高圧高温燃焼ガス5M高圧高温水蒸気室5Nを受給して5Mに複数回燃料噴射燃焼して5Nを内周と内周外周から複数回加熱して噴射し、空気吸引噴射する) 80F:液体合体噴射部(高圧高温燃焼ガス5M高圧高温水蒸気室5Nを受給して5Mに複数回燃料噴射燃焼して5Nを内周と内周外周から複数回加熱して噴射し、空気吸引流複数か所にも燃料噴射燃焼噴射して、空気吸引噴射する) 80V:液体合体噴射部(高圧高温燃焼ガス5M高圧高温水蒸気室5Nを受給して5Mに複数回燃料噴射燃焼して5Nを内周と外周と内周外周から複数回加熱して噴射し、空気吸引流複数か所にも燃料噴射燃焼噴射して、空気吸引噴射する) 80W:液体合体噴射部(高圧高温燃焼ガス5M高圧高温水蒸気室5Nを受給して5Mに複数回燃料噴射燃焼して5Nを内周と外周と内周外周から複数回加熱して噴射し、空気吸引噴射する) 80S:液体空気吸引ウォータージェット(高圧高温燃焼ガス5M高圧高温水蒸気室5Nを受給して5Mに複数回燃料噴射燃焼して5Nを内周と外周と内周外周から複数回加熱して噴射し、空気吸引噴射して水を吸引噴射する) 80T:液体空気吸引ウォータージェット(高圧高温燃焼ガス5M高圧高温水蒸気室5Nを受給して5Mに複数回燃料噴射燃焼して5Nを内周と外周と内周外周から複数回加熱して噴射し、空気吸引流複数か所にも燃料噴射燃焼噴射して、空気吸引噴射して水を吸引噴射する) 80U:液体水吸引ウォータージェット(高圧高温燃焼ガス5M高圧高温水蒸気室5Nを受給して5Mに複数回燃料噴射燃焼して5Nを内周と外周と内周外周から複数回加熱して噴射し、水を吸引噴射する) 80X:液体水吸引ウォータージェット(高圧高温燃焼ガス5M高圧高温水蒸気室5Nを受給して5Mに複数回燃料噴射燃焼して5Nを内周と内周外周から複数回加熱して噴射し、水を吸引噴射する) 80Y:液体空気吸引ウォータージェット(高圧高温燃焼ガス5M高圧高温水蒸気室5Nを受給して5Mに複数回燃料噴射燃焼して5Nを内周と内周外周から複数回加熱して噴射し、空気吸引噴射して水を吸引噴射する) 80Z:液体空気吸引ウォータージェット(高圧高温燃焼ガス5M高圧高温水蒸気室5Nを受給して5Mに複数回燃料噴射燃焼して5Nを内周と内周外周から複数回加熱して噴射し、空気吸引流複数か所にも燃料噴射燃焼噴射して、空気吸引噴射して水を吸引噴射する) 84:二重反転磁気摩擦装置(固定部具備内側動翼群と外側動翼群を略同速度反対回転にする装置) 84Y:二重反転歯車装置(既存技術で同様にする) 85:二重反転磁気装置(磁石利用歯車高さ僅少から無接触にし横軸1h歯車により相互逆回転にする) 85Y:二重反転歯車装置(既存横軸1h歯車により相互逆回転にする) 88A:酸素合体空気噴射部(ロケット燃焼+ジェット燃焼+水蒸気噴射等と合体噴射) 88K:酸素合体水噴射部(ロケット燃焼+ジェット燃焼+水蒸気噴射等と合体噴射) 95a:燃焼ガス溜、 95b:圧縮空気溜、 95c:過熱蒸気溜、 103:冷熱回収器、
0: Various energy storage cycle coalesced engine (various heat energy is compressed and recovered by heat pump as air temperature and divided into liquid air cold heat + superheated steam heat) Gravity energy rises storage spray accelerates gravitational acceleration in vacuum 0: Various energy storage cycle coalescing engine and coalescence method (various heat energy is heated by solar heat or geothermal heat, etc., and is recovered by compressing heat with a heat pump as liquid temperature, liquid air cooling + Divided and stored in superheated steam temperature ・ Used with a heat retaining device when using liquid metal under 500 ℃ ・ Shock energy is used to extend the working time by providing silicon blade coating or fluorine resin coating on turbine blades and small metal balls・ Gravity energy is increased by a lifting device Preservation of jets Accelerating gravitational acceleration in vacuum and using various energy combinations Engine and various energy merging means) 1: generator, 1A: storage battery, 1B: pressure engine (oxygen pressure gear engine, oxygen pressure reciprocating engine, water pressure gear engine, water pressure reciprocating engine, etc.) 1C: alcohol, 1D: fuel injection pump, 1F: condensate pump, 1G: 1 to multi-stage heat pump (heat pump with heat energy as air temperature (various air compression) ) Multiple times compression 2C 2X2Y2Z, 2 times 2X2Y2Z, divided and stored multiple times with heat recovery hot / cold 50 + cold 28a) 1K: Liquid fuel control valve, 1L: Water control valve, 1Y: Multistage combustion chamber (compresses liquid oxygen and liquid nitrogen separately) 50 to 200 MPa Combustion gas and nitrogen gas are produced separately, and 1Y is subjected to a plurality of times of steam heating inside and outside the combustion gas injection fuel injection combustion to inject or exhaust) 1b: Fuel (liquid fuel 1b: Fuel (liquid fuel + liquefiable gas fuel) 1b: Fuel pipe (provided so that the fuel injection temperature becomes the optimum temperature) 1c: Liquid fuel, 1d: Mercury, 1g: Gravity acceleration unit, 1h: Horizontal axis (axis that alternates the rotation direction of the outer shaft device and the inner shaft device) 1J: Fuel control valve, 1K: Liquid fuel control valve, 2: Solar heater (collects sunlight in a straight line with a long lens) 2a: Acceleration of natural phenomenon (uses enormous amount of microorganisms that approach zero when overnight leftover food changes in the air move to a nearby river to increase human food) 2a : Natural phenomenon acceleration (In the power generation, cold water 28a is mixed with seawater. Natural phenomenon acceleration seawater is supplied to the seabed. Nutrients such as nitrogen, oxygen and CO2 are supplied. Microorganisms increase to increase foods such as fish and kombu.) 2a: Speeding up natural phenomena (on ships Supplying nutrients such as nitrogen, oxygen, and CO2 into the sea Aiming at tens of thousands of times the digestive ability of microorganisms in the forest, increasing phytoplankton, seaweed, etc. to increase human food such as fish and kombu through food chain etc.) 2b: Low water resistance (Air + combustion gas + superheated steam is jetted to the bottom of the ship at a high speed to minimize water resistance) 2c: Heat insulating material, 2d: Long lens (convex lens cross-section is linearly extended rectangle, multiple lenses are used and focal length is the shortest lens width) 2e: water surface, 2g: specific material acceleration direction, 2A: heat-resistant material, 2B: heat-absorbing material, 2C: 1 to multi-stage compression heat recovery device (heat energy is air temperature and compressed multiple times with heat pump 2C 2E2Y2Z and other heat exchangers are used for heat recovery multiple times, and the rest is divided and stored in hot 50 + liquid cold 28a. 2E: Specific material (including alloys, platinum balls, gold balls, tungsten alloy powder sintered balls, silver balls, Copper ball Substances with large specific gravity such as tin spheres, lead spheres, zinc spheres, aluminum spheres, indium, cadmium, gallium, thallium, and bismuth) 2E: Specific critical substances (The manufacturing method reduces the impact energy as the diameter decreases. 2E: Specific critical material (coated platinum alloy balls, coated gold alloy balls, coated tungsten alloy powder sintered balls, coated silver with silicon resin coating or silicon resin coating) Alloy balls / Coated bismuth alloy balls / Coated copper alloy balls / Coated tin alloy balls / Coated lead alloy balls / Coated zinc alloy balls / Coated aluminum alloy balls) 2F: Specific critical material elevating device (gravity energy increased storage) 2H: Cold heat Sea water mixer (mixing cold water into sea water, a device that cools and condenses superheated steam vaporization heat in the process of speeding up natural phenomena) 2X: Air heat exchanger (air is compressed with a heat pump to a high temperature) 2Y: Compressed air heat exchanger (produces cold air and superheated steam with hot air or combustion gas) 2Z: Specific material heat exchanger (500 degrees or less) 3a: Water repellent plating, 3A: Water repellent coating, 3B: Water pressure reciprocating engine (Multistage oxygen pressure reciprocating engine heats water and water vapor in multiple stages to drive the multistage water pressure reciprocating engine) ) 3D: Electricity + liquid air cooling + superheated steam temperature supply equipment (cooling + heat production by gravity power generation and supplying liquid oxygen and liquid nitrogen Driving cars, ships and airplanes and supplying with superheated steam Methane injected into methane hydrate 3E: Specific critical substances (specific critical substances that are liquid at room temperature, such as mercury and water) 3E: Specific critical substances (low-melting-point, low-melting-point liquid, stable high-temperature liquid alloys) 3F: Oxygen pressure reciprocating engine (liquid oxygen, liquid nitrogen, and fuel are injected and burned into 50 to 200 MPa combustion gas, and fuel injection multistage combustion is driven during expansion to drive the multistage oxygen pressure reciprocating engine) 3G: Theoretical combustion gear engine ( 3H: Reciprocating piston, 3J: Theoretical combustion reciprocating engine (compressing and heating liquid oxygen + liquid fuel + water for injection combustion) 3K: External gear 3L: Multistage combustion chamber, 3M: Steam pressure reciprocating engine (Multistage oxygen pressure reciprocating engine heats water and steam in multiple stages to drive the multistage steam pressure reciprocating engine) 3N: Steam pressure gear engine (Multistage oxygen pressure gear engine 3P: Theoretical expansion engine (Boil's law The volume of gas is inversely proportional to pressure, the best engine) 3R: Theoretical gas -Bin (Theoretical best gas turbine whose gas volume is inversely proportional to pressure) 3S: Theoretical steam turbine (Theoretical best steam turbine whose gas volume is inversely proportional to pressure) 3T: Theoretical gas compressor (Gas volume is inversely proportional to pressure Corresponding theoretical best gas compressor) 3V: Pump engine (uses existing pumps in engine) 3X: Compressor engine (uses existing compressors in engine) 3Y: Counter-rotating engine (gas volume is inversely proportional to pressure) 3Z: Oxygen pressure gear engine (Liquid oxygen, liquid nitrogen, and fuel injection combustion to 50-200MPa combustion gas, water and steam on the inner and outer circumferences are burned and heated in multiple stages, and the multistage water pressure gear engine is linked) 3a: water-repellent plating, 3b: water-repellent coating, 4C: counter-synchronous gear, 4D: series co-rotating gear, 4F: combustion gas reciprocating engine, 4H: heat absorption tube (long lens 2) d) Collects sunlight in a heat absorption tube in a straight line and heats the tube air temperature to the maximum to increase the outside air temperature. 4J: Battery drive wheel, 4K: Theoretical expansion engine vehicle, 4W: Theoretical compression chamber, 4Y: Theoretical combustion chamber (combustion chamber for high-temperature pyrolysis electrolysis combustion of water by steam in steam) 0Z: Combustion gas gear engine, 4X: Turbine blade cross section (increase cross-sectional area and increase surface area) 4a: Liquid fuel pump, 4b: Liquid oxygen pump, 4c: Water pump, 4d: Gear device, 4e: Roller, 4f: Rotation support, 5a: High-pressure and high-temperature combustion gas control valve, 5A: Supply valve, 5B: Cooling fin, 5C: Exhaust chamber 5D: Exhaust valve 5E: Supply chamber 5F: Oxygen heating chamber 5G: Steam heating chamber, 5H: Water heating chamber, 5K: Liquid oxygen, 5K: Liquid oxygen chamber, 5L: Liquid nitrogen, 5L: Liquid nitrogen Chamber, 5M: High pressure Hot combustion gas, 5M: high pressure high temperature combustion gas chamber, 5N: high pressure high temperature steam chamber, 5N: high pressure high temperature steam, 5P: steam control valve, 5Q: water control valve, 5T: liquid oxygen control valve, 6: final compression blade, 6A: Superheated steam injection nozzle, 6B: Compressed air injection nozzle, 6E: Specific critical substance injection nozzle, 6W: Specific critical substance accelerator (liquid specific critical substance 3E pressure and specific gravity difference using specific gravity difference 3E and 2E mixed injection 6X: Fuel injection nozzle, 6X: Afterburner (combustion combined with the fuel injection cold heat 28a combustion flow 6Y in the suction air flow and rising in space due to a large increase in fuel combustion amount) 6Y: Combustion gas injection nozzle (cool heat 28a combustion flow) 6Z: Steam injection nozzle, 7A: Propeller, 7B: Rotary blade, 7C: Screw, 8c: Turbine blade (A straight and long turbine blade is provided on the outer surface of the cylinder to fully automatically process the inner and outer circumferences. 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, 8A: Cylindrical turbine blade group (Enables fully automatic machining and precision assembly as a horizontal cylindrical turbine blade group) 8R: Horizontal full-blade turbine (opposite full-blade propeller turbine series full-blade propeller turbine turbine biting full-blade propeller turbine) 8R : Horizontal type full-blade turbine (Aiming at full automatic machining and weight reduction of inner and outer circumferences by providing straight and long turbine blades on the outer surface of the cylinder) 8R: Horizontal type full-blade hydrogravity turbine (existing steam turbine is dammed with stationary blades) (9) Wear-resistant annular assembly (8c) Since the output approaches 0, all moving blades are essential, and the work rate is as small as 1 / 360,000 of platinum spheres. Cemented carbide only in specific material flow paths containing 9A: Cylindrical ring assembly (6 wear-resistant cylindrical ring assembly blade groups are used to simplify the structure, reduce the number of parts, facilitate fully automatic processing, facilitate assembly, and reduce weight easily. 9A: Cylindrical annular assembly (inlet fixed outer blade 60E + outer annular blade 60G + outlet fixed outer blade 60J is fitted to form a cylindrical outer blade group 60D, inlet fixed inner blade 60F + inner annular blade 60H + outlet fixed inner blade) 10: Hull, 10A: cabin, 10b: cockpit, 10c: control room, 10d: cabin, 10e: cargo compartment, 16: horizontal shaft plate (precision) 16A: Horizontal axis, 11D: Cooling chamber dedicated to gas, 21: Solar heater (mainly used with the intake air path provided in the heat absorption pipe 4H) 24: Combustion gas control valve, 24A: compressed air 25a: Fuel control valve, 25a: Fuel control valve, 28a: Air, 28a: Cold heat (The air 28a is compressed with a heat pump, and the compressed air calorie contains 50 warm heat + liquid oxygen and liquid nitrogen. 28b: Compressed air calorie, 28A: Intake air path, 28B: Air path inlet, 38: Rotating guide, 38a: Flight trunk, 38b: Flight wing, 38c: Flight tail, 38d: Vertical Wings, 38e: Wing leading edge, 38g: Water wing, 38h: Levitation boat, 38B: Air suction jet ship (with 79S79T79Y79Z) 38C: Water suction jet ship (with 79U79X) 39A: Solar thermal gravity plane, 39B: Solar thermal gravity rotation Airplane, 39C: Solar gravity helicopter, 39D: Screw ship, 39G: Solar gravity ship, 39H: Oxygen coal New ship, 39J: oxygen coalescence injection ship, 39K: oxygen coalescence screw injection ship, 39L: oxygen coalescence injection airplane, 39M: oxygen coalescence propeller airplane, 39N: oxygen coalescence propeller injection airplane, 39P: oxygen coalescence rotorcraft, 40A: Rudder, 49: Combustion gas, 50: Superheated steam, 50: Superheated steam chamber, 50: Warmth (compressed air 28a is compressed with a heat pump, and is divided and stored into superheated steam 50 heat of compressed air calorie + compressed air 28a cold) 50A: Water vapor, 51: Air extractor, 51: Combined extractor (extractor for joining) 51A: Air extraction chamber, 52a: Water, 52a: Deep ocean water, 52b: Hot water, 52d: Thermal (change from 50) 52e: Cold (changed from 28a) 55B: Transmission, 60A: Inner shaft device (equipment with turbine blades) 60B: Outer shaft device (tar 60C: Cylindrical inner moving blade group (Wear resistant cylindrical annular assembly fixed moving blade group including fully automatic machining easy assembly) 60D: Cylindrical outer moving blade group (Abrasion resistant cylindrical annular assembly fixed moving blade) 60E: Inlet fixed outer wing (inlet wing for annular assembly fixing outer rotor blade group) 60F: Inlet fixed inner wing (inlet wing for annular assembly fixing inner rotor group) 60G: Outer annular blade (intermediate blade for annular assembly of outer rotor blade group) 60H: Inner annular blade (intermediate blade for annular assembly of inner rotor blade group) 60J: Outlet fixed outer blade (outer rotor blade group is annularly assembled and fixed) 60K: Outlet fixed inner wing (exit wing for annular assembly fixing inner blade group) 76: Gear device (including magnetic friction power transmission device) 77B: Semi-cylindrical outer box, 77F: Injection unit outer box 77G: Cylindrical rotating part, 77a: Turbine outer box, 80: Bearing (including magnetic bearing + air bearing) 80a: Thrust bearing (including magnetic bearing + air bearing) 80A: Joint, 80B: Fastener, 80E: Liquid coalescence injection part (High pressure high temperature combustion gas 5M High pressure high temperature steam chamber 5N 80N: Liquid coalescence injection unit (high pressure high temperature combustion gas 5M high pressure high temperature steam) Receiving the chamber 5N and injecting and burning the fuel several times to 5M, heating and injecting 5N from the inner periphery and the inner and outer periphery multiple times, and also injecting and injecting the fuel into the air suction flow at several locations, 80V: Liquid combined injection section (High pressure high temperature combustion gas 5M High pressure high temperature steam chamber 5N is received and fuel injected and burned to 5M multiple times, and 5N is heated and injected multiple times from the inner periphery, outer periphery and inner periphery outer periphery , Fuel injection at multiple locations 80W: Liquid coalescence injection unit (receives high pressure / high temperature combustion gas 5M high pressure / high temperature steam chamber 5N and injects and burns fuel 5M multiple times to 5M for inner circumference, outer circumference and inner circumference outer circumference 80S: Liquid air suction water jet (receives high-pressure high-temperature combustion gas 5M high-pressure high-temperature steam chamber 5N, and fuel-injects and combusts multiple times 5M to 5N as the inner periphery) 80T: Liquid air suction water jet (receives high pressure high temperature combustion gas 5M, high pressure high temperature steam chamber 5N and multiple to 5M) 5N is heated and injected multiple times from the inner circumference, outer circumference, and inner circumference outer circumference, and fuel injection combustion injection is also carried out at a plurality of locations of the air suction flow, and air suction injection is performed to suck and inject water. 80U Liquid water suction water jet (high pressure high temperature combustion gas 5M receiving high pressure high temperature steam chamber 5N, fuel injection combustion in 5M multiple times, 5N is heated multiple times from the inner periphery, outer periphery and inner periphery outer periphery to inject water, 80X: Liquid water suction water jet (high pressure high temperature combustion gas 5M receiving high pressure high temperature steam chamber 5N, fuel injection combustion into 5M multiple times, 5N is heated multiple times from the inner periphery and inner periphery outer periphery and injected 80Y: Liquid air suction water jet (receives high pressure high temperature combustion gas 5M, high pressure high temperature steam chamber 5N, and injects and burns fuel 5M multiple times, 5N multiple times from the inner periphery and inner periphery outer periphery 80Z: Liquid air suction water jet (high pressure high temperature combustion gas 5M received high pressure high temperature steam chamber 5N and fueled to 5M multiple times) (2) Heating and injecting 5N from the inner periphery and inner and outer periphery a plurality of times and spraying, and fuel injection combustion injection to a plurality of locations of air suction flow, air suction injection and water suction injection) 84: Two Heavy reversal magnetic friction device (equipment for rotating the inner moving blade group and the outer moving blade group having a fixed portion at substantially the same speed and opposite rotation) 84Y: Counter rotating gear device (same as existing technology) 85: Counter rotating magnetic device (Magnet-utilized gear height is slight to non-contact and reciprocally rotated with a horizontal shaft 1h gear) 85Y: Counter-rotating gear device (reciprocally reversed with an existing horizontal shaft 1h gear) 88A: Oxygen combined air injection unit ( Rocket combustion + jet combustion + steam injection and combined injection) 88K: oxygen combined water injection unit (rocket combustion + jet combustion + steam injection and combined injection) 95a: combustion gas reservoir, 95b: compressed air reservoir, 95c: superheated steam Tame 103: Heat recovery unit,

Claims (371)

耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、横型全動翼水重力タービン(8R)1〜20組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotations, and horizontal full-rotor blade water gravity Various energy storage cycle coalescing engine and coalescence method for generating 1-20 sets of turbine (8R). 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、横型全動翼水重力タービン(8R)21〜40組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotations, and horizontal full-rotor blade water gravity Various energy storage cycle coalescence engine and coalescence method for generating turbine (8R) 21 to 40 sets of power. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、横型全動翼水重力タービン(8R)41〜60組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotations, and horizontal full-rotor blade water gravity Various energy storage cycle coalescence engine and coalescence method for generating turbine (8R) 41-60 sets of power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、横型全動翼水重力タービン(8R)61〜80組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotations, and horizontal full-rotor blade water gravity Various energy storage cycle coalescence engine and coalescence method for generating turbine (8R) 61-80 sets of power. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、横型全動翼水重力タービン(8R)81〜100組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotations, and horizontal full-rotor blade water gravity Various energy storage cycle coalescence engine and coalescence method for generating turbine (8R) 81-100 power sets. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、横型全動翼水重力タービン(8R)101〜120発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotations, and horizontal full-rotor blade water gravity Various energy storage cycle coalescence engine and coalescence method for generating turbine (8R) 101-120 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、横型全動翼水重力タービン(8R)121〜140組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotations, and horizontal full-rotor blade water gravity Various energy storage cycle coalescence engine and coalescence method for generating turbine (8R) 121-140 sets of power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、横型全動翼水重力タービン(8R)141〜160組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotations, and horizontal full-rotor blade water gravity Various energy storage cycle coalescence engines and coalescence methods for generating turbines (8R) 141 to 160 sets. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、横型全動翼水重力タービン(8R)161〜180組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotations, and horizontal full-rotor blade water gravity Various energy storage cycle coalescence engines and coalescence methods for generating turbine (8R) 161-180 power sets. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、横型全動翼水重力タービン(8R)181〜200組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotations, and horizontal full-rotor blade water gravity Various energy storage cycle coalescence engine and coalescence method for generating turbine (8R) 181 to 200 sets of power. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する横型全動翼水重力タービン(8R)1〜20組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating 1 to 20 sets of horizontal full-blade water gravity turbines (8R) driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する横型全動翼水重力タービン(8R)21〜40組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 21-40 power generation driven by injection at .about.3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する横型全動翼水重力タービン(8R)41〜60組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all-blade water gravity turbine (8R) 41-60 power generation driven by injection at .about.3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する横型全動翼水重力タービン(8R)61〜80組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all-blade water gravity turbine (8R) 61-80 power generation driven by injection at .about.3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する横型全動翼水重力タービン(8R)81〜100組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating 100 to 100 sets of horizontal full blade hydrogravity turbine (8R) driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する横型全動翼水重力タービン(8R)101〜120発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all-blade hydrogravity turbine (8R) 101-120 generating electric power at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する横型全動翼水重力タービン(8R)121〜140組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all-blade water gravity turbine (8R) 121-140 set power generation driven by ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する横型全動翼水重力タービン(8R)141〜160組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 141 to 160 sets of electric power driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する横型全動翼水重力タービン(8R)161〜180組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 161-180 sets of power driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する横型全動翼水重力タービン(8R)181〜200組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all blade hydrogravity turbine (8R) 181 to 200 sets that are driven by injection at .about.3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する横型全動翼水重力タービン(8R)1〜20組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating 1 to 20 sets of horizontal all-blade water gravity turbines (8R) driven by injection as described above. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する横型全動翼水重力タービン(8R)21〜40組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 21-40 power generation driven by injection as described above. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する横型全動翼水重力タービン(8R)41〜60組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 41-60 power generation driven by injection as described above. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する横型全動翼水重力タービン(8R)61〜80組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all-blade water gravity turbine (8R) 61-80 power generation driven by injection as described above. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する横型全動翼水重力タービン(8R)81〜100組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating 100-100 sets of horizontal all-blade water gravity turbine (8R) driven by injection as described above. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する横型全動翼水重力タービン(8R)101〜120発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all-blade water gravity turbine (8R) 101-120 generating electric power as described above. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する横型全動翼水重力タービン(8R)121〜140組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescing engines and coalescence methods for generating a horizontal all-blade water gravity turbine (8R) 121-140 power generation set by injection driving as described above. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する横型全動翼水重力タービン(8R)141〜160組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all-blade water gravity turbine (8R) 141 to 160 sets of electric power to be injected as described above. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する横型全動翼水重力タービン(8R)161〜180組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all blade hydrogravity turbine (8R) 161-180 power generation driven by injection as described above. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する横型全動翼水重力タービン(8R)181〜200組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all-blade water gravity turbine (8R) 181 to 200 sets of electric power to be injected as described above. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)1〜20組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal shafts (16A), and a set of each set rotating in the same vertical direction and at the same speed, allowing the entire inner diameter to be cut. Various energy storage cycle coalescence engine and coalescence method for generating 1 to 20 sets of diameter horizontal full blade hydrogravity turbine (8R). 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)21〜40組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal shafts (16A), and a set of each set rotating in the same vertical direction and at the same speed, allowing the entire inner diameter to be cut. Various energy storage cycle coalescing engines and coalescence methods for generating 21-40 sets of horizontal full-blade water gravity turbines (8R) with a diameter. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)41〜60組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal shafts (16A), and a set of each set rotating in the same vertical direction and at the same speed, allowing the entire inner diameter to be cut. Various energy storage cycle coalescence engines and coalescence methods for generating 41 to 60 sets of horizontal all-blade water gravity turbines (8R) having a diameter. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)61〜80組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal shafts (16A), and a set of each set rotating in the same vertical direction and at the same speed, allowing the entire inner diameter to be cut. Various energy storage cycle coalescence engines and coalescence methods for generating 61 to 80 sets of horizontal all blade hydrogravity turbines (8R) of diameter. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)81〜100組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal shafts (16A), and a set of each set rotating in the same vertical direction and at the same speed, allowing the entire inner diameter to be cut. Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 81-100 power generation of diameter. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)101〜120発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal shafts (16A), and a set of each set rotating in the same vertical direction and at the same speed, allowing the entire inner diameter to be cut. Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all blade hydrogravity turbine (8R) 101-120 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)121〜140組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal shafts (16A), and a set of each set rotating in the same vertical direction and at the same speed, allowing the entire inner diameter to be cut. Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 121-140 sets of power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)141〜160組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal shafts (16A), and a set of each set rotating in the same vertical direction and at the same speed, allowing the entire inner diameter to be cut. Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 141-160 sets of power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)161〜180組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal shafts (16A), and a set of each set rotating in the same vertical direction and at the same speed, allowing the entire inner diameter to be cut. Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all-blade water gravity turbine (8R) 161-180 sets of diameters. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)181〜200組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) A pair of counter-synchronous rotations, a series of co-rotating gears (4D) between the horizontal shafts (16A), and a set of each set rotating in the same vertical direction and at the same speed, allowing the entire inner diameter to be cut. Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 181 to 200 sets of power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)1〜20組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating 1 to 20 sets of horizontal full-blade hydrogravity turbine (8R) with the maximum inner diameter capable of cutting the entire inner diameter, driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)21〜40組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a full-width horizontal full-blade hydrogravity turbine (8R) 21 to 40 sets of electric power that can be cut all over the inner surface driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)41〜60組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating 41-60 sets of horizontal full-blade hydrogravity turbines (8R) of the maximum diameter, which are capable of cutting the entire inner diameter, driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)61〜80組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescing engines and coalescence methods for generating a set of 80 to 80 sets of full-width horizontal moving blade hydrogravity turbines (8R) with an inner diameter that can be driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)81〜100組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescing engines and coalescence methods for generating a power generation of a horizontal full-blade hydrogravity turbine (8R) 81-100 with the maximum inner diameter capable of cutting the inside diameter driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)101〜120発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all-blade hydrogravity turbine (8R) 101-120 with the maximum diameter, capable of cutting the entire inner diameter, driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)121〜140組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a full-width horizontal full-blade hydrogravity turbine (8R) 121-140 set with the maximum inner diameter capable of cutting the inside diameter driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)141〜160組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 141-160 set of the maximum diameter, which can be cut all over the inside diameter driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)161〜180組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all-blade water-gravity turbine (8R) 161-180 sets of the maximum diameter, which are capable of cutting the entire inner diameter, driven by injection at -3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1〜3で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)181〜200組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a full-width horizontal full-blade hydrogravity turbine (8R) 181 to 200 sets of electric power that can be cut through the inner diameter driven by injection at ~ 3. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)1〜20組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a set of 1 to 20 sets of horizontal full blade hydrogravity turbines (8R) of the maximum diameter that can be cut by the entire inner diameter that can be driven by injection. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)21〜40組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various types of energy storage cycle coalescence engine and coalescence method for generating a horizontal full-blade hydrogravity turbine (8R) 21 to 40 sets of the maximum-diameter experimentally capable of cutting the entire inner diameter that is driven by injection. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)41〜60組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating 41-60 sets of full-width horizontal moving blade water gravity turbines (8R) having the maximum inner diameter capable of cutting the inside diameter by injection driving as described above. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)61〜80組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a set of power generators of the horizontal full-blade hydrogravity turbine (8R) 61-80 with the maximum inner diameter capable of cutting the entire inner diameter, which is driven by injection. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)81〜100組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a set of horizontal full-wing blade water gravity turbines (8R) 81 to 100 with the maximum inner diameter capable of cutting the entire inner diameter that are driven by injection. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)101〜120発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various types of energy storage cycle coalescence engine and coalescence method for generating a horizontal full-blade hydrogravity turbine (8R) 101-120 with the maximum test diameter capable of cutting the entire inner diameter, which is driven by injection. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)121〜140組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescing engines and coalescence methods for generating a horizontal all-blade hydrogravity turbine (8R) 121 to 140 sets of the maximum diameter that can be cut by the entire inner diameter that can be driven by injection. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)141〜160組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all-blade water gravity turbine (8R) 141 to 160 sets of the maximum diameter, which can be cut all over the inner diameter, which is driven by injection. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)161〜180組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various energy storage cycle coalescence engines and coalescence methods for generating a set of horizontal full-blade hydrogravity turbines (8R) 161-180 having the maximum diameter, which are capable of cutting the entire inner diameter, which are driven by injection. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定1組とし、水平軸(16A)に対向同期歯車(4C)具備して1組の対向同期回転にして、水平軸(16A)の間に直列同回転歯車(4D)具備し、1組夫々の垂直同方向同速度回転にして、水(3E)マッハ1以上で噴射駆動する内径全面切削可能実験最大径の横型全動翼水重力タービン(8R)181〜200組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A horizontal shaft (16A) is fixed to both sides of the cylindrical turbine blade group (8A) with a horizontal shaft plate (16), and a pair of opposed synchronous gears (4C) is mounted on the horizontal shaft (16A). ) And a pair of counter-synchronized rotations, a series of co-rotating gears (4D) between the horizontal axes (16A), a pair of vertical and same-direction rotating speeds, and water (3E) Mach 1 Various types of energy storage cycle coalescence engine and coalescence method for generating a horizontal all-blade hydrogravity turbine (8R) 181 to 200 sets of the maximum-diameter test capable of cutting the entire inner diameter that is driven by injection. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、対向直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)1〜20組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A pair of two horizontal shafts (16A) fixed with horizontal shaft plates (16) on both sides of the cylindrical turbine blade group (8A), which is a wear-resistant super-water-repellent plating (3a), to form an opposed series full blade impeller turbine. Various energy storage cycle coalescing engine and coalescence method for generating 1-20 sets of horizontal full blade water gravity turbine (8R). 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、対向直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)21〜40組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A pair of two horizontal shafts (16A) fixed with horizontal shaft plates (16) on both sides of the cylindrical turbine blade group (8A), which is a wear-resistant super-water-repellent plating (3a), to form an opposed series full blade impeller turbine. Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all-blade water gravity turbine (8R) 21-40 sets of power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、対向直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)41〜60組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A pair of two horizontal shafts (16A) fixed with horizontal shaft plates (16) on both sides of the cylindrical turbine blade group (8A), which is a wear-resistant super-water-repellent plating (3a), to form an opposed series full blade impeller turbine. Various energy storage cycle coalescence engine and coalescence method for generating a horizontal full blade water gravity turbine (8R) 41-60 sets of power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、対向直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)61〜80組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A pair of two horizontal shafts (16A) fixed with horizontal shaft plates (16) on both sides of the cylindrical turbine blade group (8A), which is a wear-resistant super-water-repellent plating (3a), to form an opposed series full blade impeller turbine. Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all blade hydrogravity turbine (8R) 61-80 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、対向直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)81〜100組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A pair of two horizontal shafts (16A) fixed with horizontal shaft plates (16) on both sides of the cylindrical turbine blade group (8A), which is a wear-resistant super-water-repellent plating (3a), to form an opposed series full blade impeller turbine. Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 81-100 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、対向直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)100〜120組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A pair of two horizontal shafts (16A) fixed with horizontal shaft plates (16) on both sides of the cylindrical turbine blade group (8A), which is a wear-resistant super-water-repellent plating (3a), to form an opposed series full blade impeller turbine. Various energy storage cycle coalescence engines and coalescence methods for generating 100 to 120 sets of horizontal full-blade water gravity turbine (8R). 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、対向直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)121〜140組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A pair of two horizontal shafts (16A) fixed with horizontal shaft plates (16) on both sides of the cylindrical turbine blade group (8A), which is a wear-resistant super-water-repellent plating (3a), to form an opposed series full blade impeller turbine. Various energy storage cycle coalescing engines and coalescence methods for generating a horizontal all blade hydrogravity turbine (8R) 121-140 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、対向直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)141〜160組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A pair of two horizontal shafts (16A) fixed with horizontal shaft plates (16) on both sides of the cylindrical turbine blade group (8A), which is a wear-resistant super-water-repellent plating (3a), to form an opposed series full blade impeller turbine. Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 141-160 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、対向直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)161〜180組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A pair of two horizontal shafts (16A) fixed with horizontal shaft plates (16) on both sides of the cylindrical turbine blade group (8A), which is a wear-resistant super-water-repellent plating (3a), to form an opposed series full blade impeller turbine. Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all blade hydrogravity turbine (8R) 161-180 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、対向直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)181〜200組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A pair of two horizontal shafts (16A) fixed with horizontal shaft plates (16) on both sides of the cylindrical turbine blade group (8A), which is a wear-resistant super-water-repellent plating (3a), to form an opposed series full blade impeller turbine. Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all blade hydrogravity turbine (8R) 181 to 200 power sets. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)1〜20組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type as a series full blade impeller turbine, with a set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16). Various energy storage cycle coalescence engine and coalescence method for generating 1 to 20 sets of all-blade water gravity turbine (8R). 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)21〜40組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type as a series full blade impeller turbine, with a set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16). Various energy storage cycle coalescence engine and coalescence method for generating 21 to 40 sets of all-blade water gravity turbine (8R). 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)41〜60組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type as a series full blade impeller turbine, with a set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16). Various energy storage cycle coalescing engines and coalescence methods for generating 41 to 60 sets of all blade hydrogravity turbines (8R). 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)61〜80組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type as a series full blade impeller turbine, with a set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16). Various energy storage cycle coalescing engine and coalescence method for generating all-blade water gravity turbine (8R) 61-80 sets of power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)81〜100組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type as a series full blade impeller turbine, with a set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16). Various energy storage cycle coalescing engine and coalescence method for generating all-blade water gravity turbine (8R) 81-100 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)100〜120組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type as a series full blade impeller turbine, with a set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16). Various energy storage cycle coalescence engine and coalescence method for generating 100-120 sets of all-blade water gravity turbine (8R). 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)121〜140組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type as a series full blade impeller turbine, with a set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16). Various energy storage cycle coalescence engine and coalescence method for generating all blades of water gravity turbine (8R) 121-140 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)141〜160組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type as a series full blade impeller turbine, with a set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16). Various energy storage cycle coalescence engine and coalescence method for generating all blades of water gravity turbine (8R) 141-160 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)161〜180組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type as a series full blade impeller turbine, with a set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16). Various energy storage cycle coalescence engine and coalescence method for generating all-blade water gravity turbine (8R) 161-180 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)181〜200組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type as a series full blade impeller turbine, with a set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16). Various energy storage cycle coalescence engine and coalescence method for generating all blades of water gravity turbine (8R) 181 to 200 sets. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、食込直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)1〜20組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16), which is a wear-resistant super water-repellent plating (3a). Various energy storage cycle coalescence engine and coalescence method for generating 1 to 20 sets of horizontal all-blade water gravity turbine (8R). 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、食込直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)21〜40組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16), which is a wear-resistant super water-repellent plating (3a). Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all-blade water gravity turbine (8R) 21-40 sets of power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、食込直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)41〜60組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16), which is a wear-resistant super water-repellent plating (3a). Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all blade water gravity turbine (8R) 41-60 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、食込直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)61〜80組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16), which is a wear-resistant super water-repellent plating (3a). Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 61-80 sets of power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、食込直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)81〜100組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16), which is a wear-resistant super water-repellent plating (3a). Various energy storage cycle coalescence engines and coalescence methods for generating a horizontal all blade water gravity turbine (8R) 81-100 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、食込直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)100〜120組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16), which is a wear-resistant super water-repellent plating (3a). Various energy storage cycle coalescence engines and coalescence methods for generating 100 to 120 sets of horizontal full-blade water gravity turbines (8R). 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、食込直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)121〜140組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16), which is a wear-resistant super water-repellent plating (3a). Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade water gravity turbine (8R) 121-140 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、食込直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)141〜160組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16), which is a wear-resistant super water-repellent plating (3a). Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade hydrogravity turbine (8R) 141-160 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、食込直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)161〜180組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16), which is a wear-resistant super water-repellent plating (3a). Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade water gravity turbine (8R) 161-180 power generation. 耐摩耗超撥水鍍金(3a)とした、円筒タービン翼群(8A)両側に水平軸(16A)を水平軸板(16)で固定2個1組とし、食込直列全動翼弾み車タービンとした横型全動翼水重力タービン(8R)181〜200組発電にする各種エネルギ保存サイクル合体機関及び合体方法。   A set of two horizontal shafts (16A) fixed on both sides of the cylindrical turbine blade group (8A) by a horizontal shaft plate (16), which is a wear-resistant super water-repellent plating (3a). Various energy storage cycle coalescence engine and coalescence method for generating a horizontal all blade water gravity turbine (8R) 181 to 200 sets of power generation. 太陽光加熱器(21)を水面に浮力を設けて具備して、太陽光加熱空気を竪型全動翼水重力タービン(8R)極端に安価発電電気駆動の、1〜複数段熱ポンプ(1G)で吸入複数回圧縮し、圧縮毎に1〜複数段圧縮熱回収器(2C)で熱回収して、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)にする各種エネルギ保存サイクル合体機関及び合体方法。   A solar heater (21) is provided with buoyancy on the surface of the water, and solar heated air is a vertical all-blade hydrogravity turbine (8R), which is an extremely inexpensive power generation electric drive, 1 to multi-stage heat pump (1G ), And multiple energy storage cycle coalescing engines that make electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) by recovering heat with 1 to multistage compression heat recovery device (2C) for each compression. And coalescing method. 太陽光加熱器(21)を水面に浮力を設けて具備して、太陽光を東から西に直角維持回転制御する回転支持部(4f)等を具備し、太陽光加熱空気を竪型全動翼水重力タービン(8R)極端に安価発電電気駆動の、1〜複数段熱ポンプ(1G)で吸入複数回圧縮し、圧縮毎に1〜複数段圧縮熱回収器(2C)で熱回収して、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)にする各種エネルギ保存サイクル合体機関及び合体方法。   A solar heater (21) is provided with buoyancy on the water surface, and a rotation support part (4f) that controls rotation of the sunlight at a right angle from east to west is provided. The bladed water gravity turbine (8R) is an extremely inexpensive power generation electric drive, 1 to multi-stage heat pump (1G) compressed by suction multiple times, and each compression is heat recovered by 1 to multi-stage compression heat recovery unit (2C) , Various energy storage cycle coalescence engine and coalescence method to make electricity + liquid air cold heat + superheated steam heat supply equipment (3D). 太陽光加熱器(21)を水面に浮力を設けて具備して、太陽光を東から西に直角維持回転制御する回転支持部(4f)等を具備し、歯車装置(4d)やローラー(4e)により円筒回転部(77G)として、太陽光を上下方向直角維持回転制御する装置とし、太陽光加熱空気を竪型全動翼水重力タービン(8R)極端に安価発電電気駆動の、1〜複数段熱ポンプ(1G)で吸入複数回圧縮し、圧縮毎に1〜複数段圧縮熱回収器(2C)で熱回収して、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)にする各種エネルギ保存サイクル合体機関及び合体方法。   The solar heater (21) is provided with buoyancy on the water surface, and includes a rotation support part (4f) that controls rotation of the sunlight at a right angle from east to west, and includes a gear device (4d) and a roller (4e). ) As a cylindrical rotating part (77G), and a device that controls rotation by maintaining the vertical angle at right angles in the vertical direction, and solar heating air is a vertical all-blade hydrogravity turbine (8R). Various types of compression by suction multiple times with a stage heat pump (1G) and heat recovery with 1 to multiple stage compression heat recovery units (2C) for each compression to make electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) Energy conservation cycle coalescence engine and coalescence method. 太陽光加熱器(21)を水面に浮力を設けて具備して、太陽光を東から西に直角維持回転制御する回転支持部(4f)等を具備し、歯車装置(4d)やローラー(4e)により円筒回転部(77G)として、太陽光を上下方向直角維持回転制御する装置とし、浮力利用により東西方向直角維持回転制御する装置として、太陽光を熱吸収管(4H)中心に直線照射内部空気(28a)温度を最高にし、竪型全動翼水重力タービン(8R)極端に安価発電電気駆動の、1〜複数段熱ポンプ(1G)で吸入複数回圧縮し、圧縮毎に1〜複数段圧縮熱回収器(2C)で熱回収して、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)にする各種エネルギ保存サイクル合体機関及び合体方法。   The solar heater (21) is provided with buoyancy on the water surface, and includes a rotation support part (4f) that controls rotation of the sunlight at a right angle from east to west, and includes a gear device (4d) and a roller (4e). ) As a cylindrical rotating part (77G) as a device for controlling the rotation of sunlight at a right angle in the vertical direction, and as a device for controlling rotation at a right angle in the east-west direction by using buoyancy. The maximum temperature of the air (28a), the vertical all blade hydrogravity turbine (8R), extremely inexpensive power generation electric drive, 1 to multi-stage heat pump (1G), compressed multiple times, 1 to multiple for each compression Various energy storage cycle coalescence engines and coalescence methods for recovering heat with a stage compression heat recovery device (2C) to make electricity + liquid air cold heat + superheated steam temperature supply equipment (3D). 太陽光加熱器(21)を水面に浮力を設けて具備して、太陽光を東から西に直角維持回転制御する回転支持部(4f)等を具備し、歯車装置(4d)やローラー(4e)により円筒回転部(77G)として、太陽光を上下方向直角維持回転制御する装置とし、浮力利用により東西方向直角維持回転制御する装置として、太陽光を熱吸収管(4H)中心に直線照射内部空気(28a)温度を最高にし、外部空気(28a)も加熱夫々の空気路(28A)高温度選択吸入として、竪型全動翼水重力タービン(8R)極端に安価発電電気駆動の、1〜複数段熱ポンプ(1G)で吸入複数回圧縮し、圧縮毎に1〜複数段圧縮熱回収器(2C)で熱回収して、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)にする各種エネルギ保存サイクル合体機関及び合体方法。   The solar heater (21) is provided with buoyancy on the water surface, and includes a rotation support part (4f) that controls rotation of the sunlight at a right angle from east to west, and includes a gear device (4d) and a roller (4e). ) As a cylindrical rotating part (77G) as a device for controlling the rotation of sunlight at a right angle in the vertical direction, and as a device for controlling rotation at a right angle in the east-west direction by using buoyancy. The maximum temperature of the air (28a), the external air (28a) is also heated, each air passage (28A) as a high-temperature selective intake, the vertical all-blade water gravity turbine (8R) is extremely inexpensive power generation electric drive, Compressed multiple times with a multi-stage heat pump (1G), and recovers heat with a multi-stage compression heat recovery unit (2C) for each compression, resulting in electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) Various energy storage cycle unit And coalescence method. 太陽光加熱器(21)を平地に円形鉄道を設けて具備して、太陽光加熱空気を竪型全動翼水重力タービン(8R)極端に安価発電電気駆動の、1〜複数段熱ポンプ(1G)で吸入複数回圧縮し、圧縮毎に1〜複数段圧縮熱回収器(2C)で熱回収して、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)にする各種エネルギ保存サイクル合体機関及び合体方法。   A solar heater (21) is provided with a circular railroad on a flat ground, and solar heating air is supplied to a vertical-type all-blade water gravity turbine (8R), which is an extremely inexpensive power generation electric drive 1 to multi-stage heat pump ( Combined with various energy storage cycles, compressed by suction multiple times in 1G) and recovered in heat by 1 to multiple-stage compression heat recovery unit (2C) for each compression to make electricity + liquid air cold heat + superheated steam temperature supply facility (3D) Organization and coalescence method. 太陽光加熱器(21)を平地に円形鉄道を設けて具備して、太陽光を東から西に直角維持回転制御する回転支持部(4f)等を具備し、太陽光加熱空気を竪型全動翼水重力タービン(8R)極端に安価発電電気駆動の、1〜複数段熱ポンプ(1G)で吸入複数回圧縮し、圧縮毎に1〜複数段圧縮熱回収器(2C)で熱回収して、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)にする各種エネルギ保存サイクル合体機関及び合体方法。   A solar heater (21) is provided on a flat ground with a circular railroad, and a rotation support part (4f) that controls rotation of the sunlight at a right angle from east to west is provided. Rotating blade water gravity turbine (8R) Extremely inexpensive power generation electric drive, 1 to multi-stage heat pump (1G) compresses suction multiple times, and each compression recovers heat with 1 to multi-stage compression heat recovery unit (2C) Various energy storage cycle coalescence engines and coalescence methods that make electricity + liquid air cold heat + superheated steam temperature supply equipment (3D). 太陽光加熱器(21)を平地に円形鉄道を設けて具備して、太陽光を東から西に直角維持回転制御する回転支持部(4f)等を具備し、歯車装置(4d)やローラー(4e)により円筒回転部(77G)として、太陽光を上下方向直角維持回転制御する装置とし、太陽光加熱空気を竪型全動翼水重力タービン(8R)極端に安価発電電気駆動の、1〜複数段熱ポンプ(1G)で吸入複数回圧縮し、圧縮毎に1〜複数段圧縮熱回収器(2C)で熱回収して、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)にする各種エネルギ保存サイクル合体機関及び合体方法。   The solar heater (21) is provided with a circular railroad on a flat ground, and includes a rotation support portion (4f) for controlling rotation of the sunlight at a right angle from east to west, and a gear device (4d) and a roller ( 4e), as a cylindrical rotating part (77G), it is a device that controls the rotation of sunlight in the vertical direction at right angles. Compressed multiple times with a multi-stage heat pump (1G), and recovers heat with a multi-stage compression heat recovery unit (2C) for each compression, resulting in electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) Various energy storage cycle coalescence engines and coalescence methods. 太陽光加熱器(21)を平地に円形鉄道を設けて具備して、太陽光を東から西に直角維持回転制御する回転支持部(4f)等を具備し、歯車装置(4d)やローラー(4e)により円筒回転部(77G)として、太陽光を上下方向直角維持回転制御する装置とし、円形鉄道利用により東西方向直角維持回転制御する装置として、太陽光を熱吸収管(4H)中心に直線照射内部空気(28a)温度を最高にし、竪型全動翼水重力タービン(8R)極端に安価発電電気駆動の、1〜複数段熱ポンプ(1G)で吸入複数回圧縮し、圧縮毎に1〜複数段圧縮熱回収器(2C)で熱回収して、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)にする各種エネルギ保存サイクル合体機関及び合体方法。   The solar heater (21) is provided with a circular railroad on a flat ground, and includes a rotation support portion (4f) for controlling rotation of the sunlight at a right angle from east to west, and a gear device (4d) and a roller ( 4e) is used as a cylindrical rotating part (77G) as a device for controlling and rotating sunlight at a right angle in the vertical direction, and as a device for controlling rotation at a right angle in the east and west direction by using a circular railway, sunlight is linearly centered on the heat absorption tube (4H). Irradiated internal air (28a) temperature is maximized, vertical full-blade hydrogravity turbine (8R) is extremely inexpensive power generation electric drive, 1 to multi-stage heat pump (1G), compressed multiple times, 1 for each compression ~ Various energy storage cycle coalescence engine and coalescence method by recovering heat with multistage compression heat recovery device (2C) to make electricity + liquid air cold heat + superheated steam temperature supply facility (3D). 太陽光加熱器(21)を平地に円形鉄道を設けて具備して、太陽光を東から西に直角維持回転制御する回転支持部(4f)等を具備し、歯車装置(4d)やローラー(4e)により円筒回転部(77G)として、太陽光を上下方向直角維持回転制御する装置とし、円形鉄道利用により東西方向直角維持回転制御する装置として、太陽光を熱吸収管(4H)中心に直線照射内部空気(28a)温度を最高にし、外部空気(28a)も加熱夫々の空気路(28A)高温度選択吸入として、竪型全動翼水重力タービン(8R)極端に安価発電電気駆動の、1〜複数段熱ポンプ(1G)で吸入複数回圧縮し、圧縮毎に1〜複数段圧縮熱回収器(2C)で熱回収して、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)にする各種エネルギ保存サイクル合体機関及び合体方法。   The solar heater (21) is provided with a circular railroad on a flat ground, and includes a rotation support portion (4f) for controlling rotation of the sunlight at a right angle from east to west, and a gear device (4d) and a roller ( 4e) is used as a cylindrical rotating part (77G) as a device for controlling and rotating sunlight at a right angle in the vertical direction, and as a device for controlling rotation at a right angle in the east and west direction by using a circular railway, sunlight is linearly centered on the heat absorption tube (4H). Irradiation internal air (28a) temperature is maximized, external air (28a) is also heated for each air passage (28A) as a high temperature selective suction, vertical all blade hydrogravity turbine (8R) extremely inexpensive power generation electric drive, 1 to multi-stage heat pump (1G), suction multiple times compression, and heat is recovered with 1 to multi-stage compression heat recovery unit (2C) for each compression, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) Various energy conservation cycle Union organizations and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より受給して、海底のメタンハイドレートに過熱蒸気温熱注入メタンを回収する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receiving power from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) of extremely inexpensive power generation electricity production, recovering superheated steam heat injection methane into methane hydrate on the sea floor Various energy storage cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より受給して、海底のメタンハイドレートに過熱蒸気温熱注入メタンを液体窒素(5L)冷却液体メタンで回収する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Received from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) of extremely inexpensive power generation electricity production, liquid superheated steam temperature heat injection methane into the methane hydrate on the sea floor Various energy storage cycle coalescence engines and coalescence methods for recovery with nitrogen (5L) cooled liquid methane. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より受給して、永久凍土地下のメタンハイドレートに過熱蒸気温熱注入メタンを回収する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R), an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature supply facility (3D), and superheated steam temperature heat injection methane into methane hydrate under permafrost Various energy storage cycle coalescence engine and coalescence method for recovering 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より受給して、永久凍土地下のメタンハイドレートに過熱蒸気温熱注入メタンを液体窒素(5L)冷却液体メタンで回収する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Received from electricity, liquid air cold heat + superheated steam temperature supply equipment (3D), extremely inexpensive power generation electricity production, superheated steam temperature heat injection methane into methane hydrate under permafrost land Various energy storage cycle coalescing engines and coalescence methods for recovering methane with liquid nitrogen (5L) cooled liquid methane. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より受給して、永久凍土地下のメタンハイドレートに過熱蒸気温熱注入囲い設けてメタン回収や牧草地放牧事業等にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), an extremely inexpensive generator for electricity generation, received from electricity + liquid air cold heat + superheated steam temperature supply facility (3D), and superheated steam temperature heat injection enclosure to methane hydrate under permafrost land Various energy conservation cycle coalescence engines and coalescence methods that are provided for methane recovery and pasture grazing projects. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より受給して、オイルサンド地帯に過熱蒸気注入囲い設けて回収する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Received from electricity + liquid air cold heat + superheated steam temperature supply facility (3D) of extremely inexpensive power generation electricity production, various recovered by installing superheated steam injection enclosure in oil sand zone Energy conservation cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より受給して、オイルシェール地帯に過熱蒸気注入囲い設けて回収する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Received from electricity + liquid air cold heat + superheated steam temperature supply facility (3D) of extremely cheap electricity generation electricity production, various types of recovered by installing superheated steam injection enclosure in oil shale area Energy conservation cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より受給して、老朽石油採取地帯に過熱蒸気注入囲い設けて回収する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R) Received from electricity + liquid air cold heat + superheated steam temperature supply facility (3D) of extremely inexpensive power generation electricity production, and recovered by installing a superheated steam injection enclosure in an old oil extraction zone Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より受給して、食品製造業等では過熱蒸気安価受給して安価食料品大量生産にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Received from electricity + liquid air cold heat + superheated steam temperature supply facility (3D) of extremely low cost electricity production, food manufacturing industry etc. received superheated steam cheaply and cheap food Various energy conservation cycle coalescence engines and coalescence methods for mass production. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価過熱蒸気を受給して、農業用や工業用や産業用や鉱業用に使用して温熱利用全盛にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electric power generation, receives cheap superheated steam from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), for agricultural, industrial and industrial use. Various energy conservation cycle coalescence engines and coalescence methods used for mining to make the best use of thermal energy. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動して自動車駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 theoretical combustion chamber (4Y) various energy storage cycle coalescence engine and coalescence method for driving automobile by driving theoretical expansion engine (3P) as ultra high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動して自動車駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescence engines and coalescence methods that drive a theoretical expansion engine (3P) as an ultra-high pressure fuel combustion to drive an automobile. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動して自動車駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Combustion chamber (4Y) various energy storage cycle coalescence engine and coalescence method for driving automobile by driving theoretical expansion engine (3P) as ultra-high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動発電機(1)駆動蓄電池(1A)に蓄電して蓄電池駆動車輪(4J)回転理論膨張機関自動車(4K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 theoretical combustion chamber (4Y) Super high pressure fuel combustion theoretical expansion engine (3P) drive generator (1) drive storage battery (1A) and storage battery drive wheel (4J) rotation theoretical expansion engine automobile (4K ) Various energy storage cycle coalescence engines and coalescence methods to be driven. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動発電機(1)駆動蓄電池(1A)に蓄電して蓄電池駆動車輪(4J)回転理論膨張機関自動車(4K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Theoretical expansion engine (3P) drive generator (1) Drive storage battery (1A) as ultra-high pressure fuel combustion and storage battery drive wheel (4J) Rotation theoretical expansion engine Automobile (4K) various energy storage cycle coalescence engine And coalescing method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動発電機(1)駆動蓄電池(1A)に蓄電して蓄電池駆動車輪(4J)回転理論膨張機関自動車(4K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various types of energy storage for storing combustion battery (4Y) ultrahigh pressure fuel combustion in theoretical expansion engine (3P) drive generator (1) drive storage battery (1A) and driving storage battery drive wheel (4J) rotation theoretical expansion engine automobile (4K) Cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動発電機(1)駆動蓄電池(1A)に蓄電して蓄電池駆動車輪(4J)回転と普通車輪回転が可能な理論膨張機関自動車(4K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Theoretical combustion chamber (4Y) to be 21/60000 Ultra high pressure fuel combustion Theoretical expansion engine (3P) drive generator (1) The drive battery (1A) is charged and the battery drive wheel (4J) rotation and normal wheel rotation are possible Various energy storage cycle coalescing engine and coalescence method for driving a theoretical expansion engine vehicle (4K). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動発電機(1)駆動蓄電池(1A)に蓄電して蓄電池駆動車輪(4J)回転と普通車輪回転が可能な理論膨張機関自動車(4K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Theoretical expansion engine (3P) drive generator (1) Drives the storage battery (1A) as super high pressure fuel combustion and drives the storage battery drive wheel (4J) and the theoretical expansion engine car (4K) that can rotate the normal wheel Various energy storage cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動発電機(1)駆動蓄電池(1A)に蓄電して蓄電池駆動車輪(4J)回転と普通車輪回転が可能な理論膨張機関自動車(4K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory The combustion chamber (4Y) Theoretical expansion engine vehicle capable of accumulating in the theoretical expansion engine (3P) drive generator (1) drive storage battery (1A) as ultrahigh pressure fuel combustion and rotating the battery drive wheel (4J) and normal wheel rotation ( 4K) Various energy storage cycle coalescence engines and coalescence methods to be driven. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動して理論膨張機関自動車(4K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 theoretical combustion chamber (4Y) various energy storage cycle coalescence engine and coalescence method for driving theoretical expansion engine (3P) and driving theoretical expansion engine automobile (4K) as ultra high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動してスクリュー(7C)回転船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 theoretical combustion chamber (4Y) various energy storage cycle coalescence engine and coalescence method for driving a theoretical expansion engine (3P) and driving a screw (7C) rotating ship as ultra high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動してスクリュー(7C)回転船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescence engines and coalescence methods for driving a theoretical expansion engine (3P) and driving a screw (7C) rotating ship as ultra-high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動してスクリュー(7C)回転船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engines and coalescence methods for driving a theoretical expansion engine (3P) as a combustion chamber (4Y) ultrahigh pressure fuel combustion and driving a screw (7C) rotating ship. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Various energy storage cycle coalescence engine and coalescence method for driving the theoretical expansion engine (3P) multiple times and screw (7C) multiple rotation ship as the theoretical combustion chamber (4Y) ultra high pressure fuel combustion to 21/60000. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescing engines and coalescence methods for driving a plurality of theoretical expansion engines (3P) and driving a screw (7C) a plurality of rotations as ultra-high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engines and coalescence methods in which a combustion chamber (4Y) ultra-high pressure fuel combustion is driven by a plurality of theoretical expansion engines (3P) and a screw (7C) is driven by a plurality of rotation ships. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転酸素合体スクリュー船舶(39H)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical Combustion Chamber (4Y) Ultra-high pressure fuel combustion Theoretical expansion engine (3P) multiple drive and screw (7C) multi-rotation oxygen coalescence screw ship (39H) driven various energy storage cycle coalescence engine and coalescence method . 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転酸素合体スクリュー船舶(39H)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescence engines and coalescence methods that drive multiple theoretical expansion engines (3P) and screw (7C) multi-rotation oxygen coalescence screw ship (39H) as ultra-high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転酸素合体スクリュー船舶(39H)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engines and coalescence methods for driving a plurality of theoretical expansion engines (3P) and driving a screw (7C) multi-rotation oxygen coalescence screw ship (39H) as combustion chamber (4Y) ultra-high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動して酸素合体スクリュー船舶(39H)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 theoretical combustion chamber (4Y) various energy storage cycle coalescence engine and coalescence method for driving the theoretical expansion engine (3P) and driving the oxygen coalescence screw ship (39H) as ultra high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動してスクリュー(7C)回転酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical combustion chamber (4Y) Super-high pressure fuel combustion Theoretical expansion engine (3P) drive and screw (7C) rotary oxygen coalescence water injection part (88K) Merge method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動してスクリュー(7C)回転酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescence engines and coalescence methods for driving a theoretical expansion engine (3P) as super-high pressure fuel combustion and driving a screw (7C) rotary oxygen coalescence water injection part (88K) injection propulsion ship. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動してスクリュー(7C)回転酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engines and coalescence methods for driving a theoretical expansion engine (3P) as a combustion chamber (4Y) ultrahigh pressure fuel combustion and driving a screw (7C) rotary oxygen coalescence water injection part (88K) injection propulsion ship. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 theoretical combustion chamber (4Y) Ultra high pressure fuel combustion, theoretical expansion engine (3P) multiple drive, screw (7C) multi-rotation oxygen coalescence water injection part (88K) injection propulsion ship drive various energy conservation cycle coalescence Organization and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescence engines and coalescence methods that drive multiple theoretical expansion engines (3P) as ultra-high pressure fuel combustion to drive a screw (7C) multi-rotation oxygen coalescence water injection unit (88K) injection propulsion ship. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engines and coalescence methods for driving a combustion chamber (4Y) ultra-high pressure fuel combustion by driving a plurality of theoretical expansion engines (3P) and driving a screw (7C) multi-rotation oxygen coalescence water injection part (88K) injection propulsion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転酸素合体水噴射部(88K)噴射推進酸素合体スクリュー噴射船舶(39K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical combustion chamber (4Y) Ultra-high pressure fuel combustion Theoretical expansion engine (3P) multiple drive and screw (7C) multi-rotation oxygen combined water injection part (88K) injection propulsion oxygen combined screw injection ship (39K) Various energy storage cycle coalescence engines and coalescence methods to be driven. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転酸素合体水噴射部(88K)噴射推進酸素合体スクリュー噴射船舶(39K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescence engines that drive multiple theoretical expansion engines (3P) as ultra-high pressure fuel combustion to drive screws (7C) multi-rotation oxygen coalescence water injection part (88K) injection propulsion oxygen coalescence screw injection vessel (39K), and Merge method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してスクリュー(7C)複数回転酸素合体水噴射部(88K)噴射推進酸素合体スクリュー噴射船舶(39K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycles for driving the combustion chamber (4Y) ultra-high pressure fuel combustion with multiple theoretical expansion engines (3P) and driving with screw (7C) multi-turn oxygen combined water injection unit (88K) injection propulsion oxygen combined screw injection ship (39K) Merger engine and merger method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動して酸素合体水噴射部(88K)噴射推進酸素合体スクリュー噴射船舶(39K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical combustion chamber (4Y) Ultra-high pressure fuel combustion Theoretical expansion engine (3P) drive and oxygen coalescence water injection part (88K) Injection propulsion oxygen coalescence screw injection ship (39K) Organization and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする流線型理論燃焼室(4Y)複数超高圧燃料燃焼噴射推進とした酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Streamlined theoretical combustion chamber (4Y) Oxygen coalescence water injection part (88K) injection propulsion with multiple ultrahigh pressure fuel combustion injection propulsion Various energy storage cycle coalescence engines and coalescence methods for driving a ship. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、流線型理論燃焼室(4Y)複数超高圧燃料燃焼噴射推進とした酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, streamlined theoretical combustion chamber (4Y) Oxygen coalescence water injection part (88K) injection propulsion ship driven by multiple ultrahigh pressure fuel combustion injection propulsion and various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、流線型理論燃焼室(4Y)複数超高圧燃料燃焼噴射推進とした酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, streamlined Oxygen coalescence water injection part (88K) injection propulsion ship driven by a theoretical combustion chamber (4Y) multiple ultrahigh pressure fuel combustion injection propulsion, and various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Various energy storage cycle coalescence engines and coalescence methods for driving an oxygen coalescence water injection part (88K) injection propulsion ship with multiple ultrahigh pressure fuel combustion injection propulsion including a streamlined theoretical combustion chamber (4Y) air suction flow path to 21/60000. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, streamlined theoretical combustion chamber (4Y) Oxygen coalescence water injection part (88K) injection propulsion ship driven by multiple ultrahigh pressure fuel combustion injection propulsion including air suction passages Various energy storage cycle coalescence engines and coalescence methods for driving a ship. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体水噴射部(88K)噴射推進船舶駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, streamlined Various energy storage cycle coalescence engine and coalescence method for driving oxygen combined water injection part (88K) injection propulsion ship equipped with theoretical combustion chamber (4Y) air suction flow path and multiple super high pressure fuel combustion injection propulsion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体水噴射部(88K)噴射推進酸素合体噴射船舶(39J)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Streamlined Theoretical Combustion Chamber (4Y) Oxygen Combined Water Injection Unit (88K) Injection Propulsion Oxygen Combined Injection Ship (39J) with Multiple Ultra High Pressure Fuel Combustion Injection Propulsion including Air Suction Channel Merger engine and merger method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体水噴射部(88K)噴射推進酸素合体噴射船舶(39J)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, streamlined theoretical combustion chamber (4Y) Oxygen coalescence water injection part (88K) injection propulsion oxygen coalescence injection ship (39J) driven by multiple ultrahigh pressure fuel combustion injection propulsion including air suction flow paths and various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体水噴射部(88K)噴射推進酸素合体噴射船舶(39J)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, streamlined Various energy storage cycle coalescence engines and coalescence methods for driving oxygen coalescence water injection part (88K) injection propulsion oxygen coalescence injection ship (39J) with a plurality of super high pressure fuel combustion injection propulsion including a theoretical combustion chamber (4Y) air suction flow path. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする流線型理論燃焼室(4Y)複数とした酸素合体水噴射部(88K)噴射推進酸素合体噴射船舶(39J)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Various energy storage cycle coalescence engines and coalescence methods for driving 21/60000 streamlined theoretical combustion chambers (4Y) to drive a plurality of oxygen coalescence water injection sections (88K) injection propulsion oxygen coalescence injection ship (39J). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする流線型理論燃焼室(4Y)複数超高圧燃料燃焼噴射推進とした酸素合体空気噴射部(88A)噴射推進飛行機にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Various energy storage cycle coalescence engines and coalescence methods to make an oxygen coalescence air injection part (88A) injection propulsion airplane that is 21/60000 streamlined theoretical combustion chamber (4Y) multiple ultrahigh pressure fuel combustion injection propulsion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、流線型理論燃焼室(4Y)複数超高圧燃料燃焼噴射推進とした酸素合体空気噴射部(88A)噴射推進飛行機にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, streamlined theoretical combustion chamber (4Y) Various energy storage cycle coalescence engines and coalescence methods for making an oxygen coalescence air injection part (88A) injection propulsion airplane that is propelled by multiple ultrahigh pressure fuel combustion injection. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、流線型理論燃焼室(4Y)複数超高圧燃料燃焼噴射推進とした酸素合体空気噴射部(88A)噴射推進飛行機にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, streamlined Various energy storage cycle coalescence engines and coalescence methods for a theoretical combustion chamber (4Y) oxygen coalescence air injection part (88A) injection propulsion airplane with multiple ultrahigh pressure fuel combustion injection propulsion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体空気噴射部(88A)噴射推進飛行機にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Various energy storage cycle coalescence engines and coalescence methods for an oxygen coalesced air injection part (88A) injection propulsion airplane with multiple ultrahigh pressure fuel combustion injection propulsion including a streamlined theoretical combustion chamber (4Y) air suction flow path of 21/60000. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体空気噴射部(88A)噴射推進飛行機にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, streamlined theoretical combustion chamber (4Y) Oxygen coalesced air injection part (88A) including a plurality of ultra-high pressure fuel combustion injection propelled including air suction flow paths (88A) Various energy storage cycle coalescing engines and coalescence methods for making an injection propulsion airplane. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体空気噴射部(88A)噴射推進飛行機にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, streamlined Various energy storage cycle coalescence engines and coalescence methods for making an oxygen coalesced air injection part (88A) injection propulsion airplane that is equipped with a theoretical combustion chamber (4Y) air suction flow path and includes multiple ultrahigh pressure fuel combustion injection propulsion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体空気噴射部(88A)噴射推進酸素合体噴射飛行機(39L)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Streamlined Theoretical Combustion Chamber (4Y) Oxygen Combined Air Injection Unit (88A) Injection Propulsion Oxygen Combined Injection Plane (39L) Driven by Plural Ultra High Pressure Fuel Combustion Injection Propulsion including Air Suction Channel Merger engine and merger method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体空気噴射部(88A)噴射推進酸素合体噴射飛行機(39L)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, streamlined theoretical combustion chamber (4Y) Various energy storage cycle coalescence engines and coalescence methods for driving an oxygen coalescence air injection section (88A) injection propulsion oxygen coalescence injection plane (39L) including a plurality of ultrahigh pressure fuel combustion injection propulsion including air suction channels. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、流線型理論燃焼室(4Y)空気吸引流路具備含む複数超高圧燃料燃焼噴射推進とした酸素合体空気噴射部(88A)噴射推進酸素合体噴射飛行機(39L)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, streamlined Various energy storage cycle coalescence engines and coalescence methods for driving oxygen coalescence air injection part (88A) injection propulsion oxygen coalescence jet airplane (39L) with a theoretical combustion chamber (4Y) air suction flow path including multiple ultrahigh pressure fuel combustion injection propulsion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする流線型理論燃焼室(4Y)複数とした酸素合体空気噴射部(88A)噴射推進酸素合体噴射飛行機(39L)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Various energy storage cycle coalescence engines and coalescence methods for driving 21/60000 streamlined theoretical combustion chambers (4Y) to drive a plurality of oxygen coalescence air injection sections (88A) injection propulsion oxygen coalescence injection airplanes (39L). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動してプロペラ(7A)回転飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Various energy storage cycle coalescence engine and coalescence method for driving the theoretical expansion engine (3P) and propeller (7A) rotating airplane as theoretical combustion chamber (4Y) ultra high pressure fuel combustion to 21/60000. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動してプロペラ(7A)回転飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescing engines and coalescence methods for driving a theoretical expansion engine (3P) and propeller (7A) rotating airplane as ultra-high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動してプロペラ(7A)回転飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engine and coalescence method in which the combustion chamber (4Y) is driven by a theoretical expansion engine (3P) as an ultra-high pressure fuel combustion and is driven by a propeller (7A) rotating airplane. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してプロペラ(7A)複数回転飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Various energy storage cycle coalescence engines and coalescence methods in which a theoretical combustion chamber (4Y) is driven to 21/60000, and a plurality of theoretical expansion engines (3P) are driven as a high pressure fuel combustion to drive a propeller (7A). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してプロペラ(7A)複数回転飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescing engines and coalescence methods for driving a plurality of theoretical expansion engines (3P) and propellers (7A) for multiple revolution airplanes as ultrahigh pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してプロペラ(7A)複数回転飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engine and coalescence method in which combustion chamber (4Y) ultrahigh pressure fuel combustion is driven by multiple theoretical expansion engines (3P) and propeller (7A) multiple revolution airplanes. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してプロペラ(7A)複数回転酸素合体プロペラ飛行機(39M)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical Combustion Chamber (4Y) Ultra High Pressure Fuel Combustion Theoretical Expansion Engine (3P) Multiple Drives Propeller (7A) Multi-Rotation Oxygen Combined Propeller Plane (39M) Various Energy Conservation Cycle Combined Engine and Combined Method . 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してプロペラ(7A)複数回転酸素合体プロペラ飛行機(39M)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescence engines and coalescence methods for driving a plurality of theoretical expansion engines (3P) and propellers (7A) multi-rotation oxygen coalescence propeller airplanes (39M) as ultra-high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動してプロペラ(7A)複数回転酸素合体プロペラ飛行機(39M)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engines and coalescence methods in which a combustion chamber (4Y) ultrahigh pressure fuel combustion is driven by a plurality of theoretical expansion engines (3P) and a propeller (7A) multi-rotation oxygen coalescence propeller airplane (39M). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動してプロペラ(7A)回転酸素合体プロペラ飛行機(39M)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Various energy storage cycle coalescence engine and coalescence method for driving a theoretical expansion engine (3P) as a combustion chamber (4Y) ultrahigh pressure fuel combustion to 21/60000 and driving a propeller (7A) rotating oxygen coalescence propeller airplane (39M). 横型全動翼水重力タービン(R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動回転翼(7B)回転して飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low cost electric power production, and compresses the compressed volume of air Theoretical combustion chamber (4Y) to be 21/60000, a theoretical expansion engine (3P) driven rotor blade (7B) as an ultra-high pressure fuel combustion, and various energy storage cycle coalescence engines and coalescence methods for driving an airplane. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動回転翼(7B)回転して飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) A theoretical expansion engine (3P) driven rotor blade (7B) as an ultra-high pressure fuel combustion, and various energy storage cycle coalescing engines and coalescence methods for driving an airplane. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動回転翼(7B)回転して飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engine and coalescence method in which the combustion chamber (4Y) ultra-high pressure fuel combustion rotates the theoretical expansion engine (3P) drive rotor blade (7B) to drive the airplane. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動回転翼(7B)複数回転して飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Theoretical combustion chamber (4Y) of 21/60000 Ultra high pressure fuel combustion Theoretical expansion engine (3P) Multiple drive rotor blades (7B) Various energy storage cycle coalescence engines and coalescence methods that drive the aircraft by multiple revolutions. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動回転翼(7B)複数回転して飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Theoretical expansion engine (3P), multiple drive rotor blades (7B), and various energy storage cycle coalescence engines and coalescence methods that drive the aircraft by multiple revolutions as ultra-high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動回転翼(7B)複数回転して飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Combustion chamber (4Y) Various energy storage cycle coalescence engine and coalescence method for driving an airplane by rotating a theoretical expansion engine (3P), multiple drive rotor blades (7B) as ultrahigh pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動回転翼(7B)複数回転して酸素合体回転翼飛行機(39P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical combustion chamber (4Y) Ultra-high pressure fuel combustion Theoretical expansion engine (3P) Multiple drive rotor blade (7B) Various energy storage cycle coalescence engine driven by multiple rotation and oxygen combined rotor blade airplane (39P) Merge method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動回転翼(7B)複数回転して酸素合体回転翼飛行機(39P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescence engines and coalescence methods for driving a theoretical expansion engine (3P), multiple drive rotor blades (7B), and an oxygen coalescence rotor blade airplane (39P) as ultrahigh pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動回転翼(7B)複数回転して酸素合体回転翼飛行機(39P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engines and coalescence methods for driving a combustion chamber (4Y) ultrahigh pressure fuel combustion with a theoretical expansion engine (3P), multiple drive rotor blades (7B), and multiple oxygen rotor blade airplanes (39P). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動回転翼(7B)回転して酸素合体回転翼飛行機(39P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical Combustion Chamber (4Y) Various Energy Conservation Cycle Combined Engine and Combined Method for Rotating Theoretical Expansion Engine (3P) Drive Rotor (7B) and Oxygen Combined Rotor Airplane (39P) as Ultra High Pressure Fuel Combustion . 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動プロペラ(7A)回転し酸素合体空気噴射部(88A)噴射推進飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Theoretical combustion chamber (4Y) to be 21/60000 Ultra high pressure fuel combustion Theoretical expansion engine (3P) drive propeller (7A) Rotating oxygen uniting air injection unit (88A) Various energy storage cycle uniting engine driving unit Method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動プロペラ(7A)回転し酸素合体空気噴射部(88A)噴射推進飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Various energy storage cycle coalescence engines and coalescence methods for driving a theoretical expansion engine (3P) drive propeller (7A) as an ultrahigh pressure fuel combustion and driving an oxygen coalescence air injection unit (88A) injection propulsion airplane. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動プロペラ(7A)回転し酸素合体空気噴射部(88A)噴射推進飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engine and coalescence method for driving a theoretical expansion engine (3P) drive propeller (7A) and driving an oxygen coalescence air injection part (88A) injection propulsion airplane as combustion chamber (4Y) ultrahigh pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動プロペラ(7A)複数回転し酸素合体空気噴射部(88A)噴射推進飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical Combustion Chamber (4Y) Super High Pressure Fuel Combustion Theoretical Expansion Engine (3P) Multiple Drive Propeller (7A) Multiple Rotating Oxygen Combined Air Injection Unit (88A) Injection Propulsion Plane Driven Various Energy Conservation Cycle Combined Engine And coalescing method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動プロペラ(7A)複数回転し酸素合体空気噴射部(88A)噴射推進飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Theoretical expansion engine (3P), multiple drive propeller (7A), and oxygen combined air injection unit (88A) as a super high pressure fuel combustion. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動プロペラ(7A)複数回転し酸素合体空気噴射部(88A)噴射推進飛行機駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engines and coalescence methods for driving a combustion chamber (4Y) ultra-high pressure fuel combustion with a theoretical expansion engine (3P), multiple drive propeller (7A), multiple rotations, and an oxygen coalescence air injection unit (88A) injection propulsion airplane drive. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動プロペラ(7A)複数回転し酸素合体空気噴射部(88A)噴射推進酸素合体プロペラ噴射飛行機(39N)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 theoretical combustion chamber (4Y) ultra-high pressure fuel combustion theoretical expansion engine (3P) multiple drive propeller (7A) multiple rotation oxygen combined air injection unit (88A) injection propulsion oxygen combined propeller injection airplane (39N) drive Various energy storage cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動プロペラ(7A)複数回転し酸素合体空気噴射部(88A)噴射推進酸素合体プロペラ噴射飛行機(39N)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) Theoretical expansion engine (3P) multi-drive propeller (7A) as a super-high pressure fuel combustion multiple oxygen storage air injection unit (88A) injection propulsion oxygen combination propeller injection airplane (39N) driven various energy storage cycle combination engine and combination Method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)複数駆動プロペラ(7A)複数回転し酸素合体空気噴射部(88A)噴射推進酸素合体プロペラ噴射飛行機(39N)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Combustion chamber (4Y) Super-high pressure fuel combustion Theoretical expansion engine (3P) Multiple drive propeller (7A) Multiple rotations and oxygen combination air injection unit (88A) Injection propulsion oxygen combination propeller injection plane (39N) Organization and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として理論膨張機関(3P)駆動プロペラ(7A)回転し酸素合体空気噴射部(88A)噴射推進酸素合体プロペラ噴射飛行機(39N)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical combustion chamber (4Y) As the ultra high pressure fuel combustion, the theoretical expansion engine (3P) drive propeller (7A) rotates, and the oxygen combined air injection part (88A) injection propulsion oxygen combined propeller injection airplane (39N) drives Energy conservation cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放燃焼ガス噴射ノズル(6Y)より高圧高温燃焼ガス(50)を噴射して理論膨張機関(3P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical combustion chamber (4Y) Ultra high pressure fuel combustion High pressure high temperature combustion gas control valve (5a) High pressure high temperature combustion gas (50) is injected from the open combustion gas injection nozzle (6Y), and the theoretical expansion engine (3P ) Various energy storage cycle coalescence engines and coalescence methods to be driven. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放燃焼ガス噴射ノズル(6Y)より高圧高温燃焼ガス(50)を噴射して理論膨張機関(3P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) High-pressure and high-temperature combustion gas control valve (5a) as an ultra-high pressure fuel combustion Various high-pressure high-temperature combustion gas (50) is injected from an open combustion gas injection nozzle (6Y) and driven by a theoretical expansion engine (3P). And coalescing method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放燃焼ガス噴射ノズル(6Y)より高圧高温燃焼ガス(50)を噴射して理論膨張機関(3P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various kinds of energy storage for driving a theoretical expansion engine (3P) by injecting a high-pressure high-temperature combustion gas (50) from a high-pressure high-temperature combustion gas control valve (5a) open combustion gas injection nozzle (6Y) as combustion chamber (4Y) ultrahigh-pressure fuel combustion Cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放燃焼ガス噴射ノズル(6Y)より高圧高温燃焼ガス(50)を噴射して上側膨張翼(8d)下側膨張翼(8e)を横軸(1h)二重反転する理論膨張機関(3P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical combustion chamber (4Y) Ultra high pressure fuel combustion High pressure high temperature combustion gas control valve (5a) High pressure high temperature combustion gas (50) is injected from the open combustion gas injection nozzle (6Y), and the upper expansion blade (8d ) Various energy storage cycle coalescence engine and coalescence method for driving a theoretical expansion engine (3P) that reversely inverts the lower expansion blade (8e) on the horizontal axis (1h). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放燃焼ガス噴射ノズル(6Y)より高圧高温燃焼ガス(50)を噴射して上側膨張翼(8d)下側膨張翼(8e)を横軸(1h)二重反転する理論膨張機関(3P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) High pressure and high temperature combustion gas control valve (5a) for high pressure fuel combustion (5a) High pressure and high temperature combustion gas (50) is injected from the open combustion gas injection nozzle (6Y), and the upper expansion blade (8d) and the lower expansion blade (8e) Horizontal axis (1h) Theoretical expansion engine (3P) that is doubly reversed, and various energy storage cycle coalescence engines and coalescence methods that are driven. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放燃焼ガス噴射ノズル(6Y)より高圧高温燃焼ガス(50)を噴射して上側膨張翼(8d)下側膨張翼(8e)を横軸(1h)二重反転する理論膨張機関(3P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory High pressure high temperature combustion gas control valve (5a) High pressure high temperature combustion gas (50) is injected from combustion chamber (4Y) ultra high pressure fuel combustion from open combustion gas injection nozzle (6Y), and upper expansion blade (8d) lower expansion blade ( 8e) Various energy storage cycle coalescence engines and coalescence methods for driving the theoretical expansion engine (3P) that reverses the horizontal axis (1h). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放燃焼ガス噴射ノズル(6Y)より高圧高温燃焼ガス(50)を噴射して上側膨張翼(8d)下側膨張翼(8e)を横軸(1h)二重反転組立タービン翼(8f)組立の理論膨張機関(3P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical combustion chamber (4Y) Ultra high pressure fuel combustion High pressure high temperature combustion gas control valve (5a) High pressure high temperature combustion gas (50) is injected from the open combustion gas injection nozzle (6Y), and the upper expansion blade (8d ) Various energy storage cycle coalescence engines and coalescence methods for driving the lower expansion blade (8e) to the theoretical expansion engine (3P) of the horizontal axis (1h) counter rotating assembly turbine blade (8f) assembly. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放燃焼ガス噴射ノズル(6Y)より高圧高温燃焼ガス(50)を噴射して上側膨張翼(8d)下側膨張翼(8e)を横軸(1h)二重反転組立タービン翼(8f)組立の理論膨張機関(3P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) High pressure and high temperature combustion gas control valve (5a) for high pressure fuel combustion (5a) High pressure and high temperature combustion gas (50) is injected from the open combustion gas injection nozzle (6Y), and the upper expansion blade (8d) and the lower expansion blade (8e) Various energy storage cycle coalescence engines and coalescence methods for driving a horizontal expansion shaft (1h), a counter-rotating assembly turbine blade (8f), and a theoretical expansion engine (3P). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放燃焼ガス噴射ノズル(6Y)より高圧高温燃焼ガス(50)を噴射して上側膨張翼(8d)下側膨張翼(8e)を横軸(1h)二重反転組立タービン翼(8f)組立の理論膨張機関(3P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory High pressure high temperature combustion gas control valve (5a) High pressure high temperature combustion gas (50) is injected from combustion chamber (4Y) ultra high pressure fuel combustion from open combustion gas injection nozzle (6Y), and upper expansion blade (8d) lower expansion blade ( 8e) Various energy storage cycle coalescence engines and coalescence methods for driving the theoretical expansion engine (3P) of the horizontal axis (1h) counter rotating assembly turbine blade (8f) assembly. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放空気吸引燃焼量増大し、燃焼ガス噴射ノズル(6Y)より高圧高温燃焼ガス(50)を噴射して上側膨張翼(8d)下側膨張翼(8e)を横軸(1h)二重反転組立タービン翼(8f)組立の理論膨張機関(3P)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 theoretical combustion chamber (4Y) high pressure high temperature combustion gas control valve (5a) as high pressure fuel combustion increases open air suction combustion amount, high pressure high temperature combustion gas (50) is injected from combustion gas injection nozzle (6Y) Then, various energy storage cycle coalescence engines and coalescence methods for driving the upper expansion blade (8d) and the lower expansion blade (8e) to the theoretical expansion engine (3P) of the horizontal axis (1h) counter rotating assembly turbine blade (8f) assembly. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放円周方向380度拡大膨張する理論膨張機関(3P)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical combustion chamber (4Y) High-pressure high-temperature combustion gas control valve (5a) as an ultra-high-pressure fuel combustion Various energy storage cycle coalescence engine and coalescence to open a theoretical expansion engine (3P) expanding 380 degrees in the circumferential direction Method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放円周方向380度拡大膨張する理論膨張機関(3P)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) A high-pressure high-temperature combustion gas control valve (5a) as an ultrahigh-pressure fuel combustion (5a) various energy storage cycle coalescing engines and coalescence methods for a theoretical expansion engine (3P) that expands and expands 380 degrees in the circumferential direction. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放円周方向380度拡大膨張する理論膨張機関(3P)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engines and coalescence methods that make the combustion chamber (4Y) ultrahigh pressure fuel combustion into a high-pressure high-temperature combustion gas control valve (5a) open theoretical expansion engine (3P) that expands and expands 380 degrees in the circumferential direction. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放円周方向380度拡大膨張で最大駆動速度にする理論膨張機関(3P)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical combustion chamber (4Y) High-pressure high-temperature combustion gas control valve (5a) as an ultra-high pressure fuel combustion Various energy storage to make the theoretical expansion engine (3P) open maximum expansion speed by 380 degrees expansion in the circumferential direction Cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放円周方向380度拡大膨張で最大駆動速度にする理論膨張機関(3P)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) High-pressure and high-temperature combustion gas control valve (5a) as an ultra-high pressure fuel combustion, various energy storage cycle coalescence engines and coalescence methods to make the theoretical expansion engine (3P) open at a maximum drive speed by 380 degrees expansion in the circumferential direction. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放円周方向380度拡大膨張で最大駆動速度にする理論膨張機関(3P)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engine and coalescence method to make the combustion chamber (4Y) ultrahigh pressure fuel combustion high pressure high temperature combustion gas control valve (5a) open theoretical expansion engine (3P) with maximum expansion speed by expansion of 380 degrees in the circumferential direction . 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放円周方向380度拡大膨張と二重反転で最大駆動速度にする理論膨張機関(3P)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air Theoretical combustion chamber (4Y) to be 21/60000 High pressure high temperature combustion gas control valve (5a) as super high pressure fuel combustion Opened in the theoretical expansion engine (3P) with maximum expansion speed by 380 degree expansion and counter rotation Various energy storage cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放円周方向380度拡大膨張と二重反転で最大駆動速度にする理論膨張機関(3P)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) High-pressure and high-temperature combustion gas control valve as ultra-high pressure fuel combustion (5a) Opening in the circumferential direction 380 degree expansion and theoretical expansion engine (3P) for maximum driving speed by double reversal Method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放円周方向380度拡大膨張と二重反転で最大駆動速度にする理論膨張機関(3P)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Combustion chamber (4Y) Ultra high pressure fuel combustion High pressure high temperature combustion gas control valve (5a) Opening in the circumferential direction 380 degree expansion and theoretical expansion engine (3P) that maximizes driving speed by double reversal and combined with various energy storage cycles Organization and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、圧縮容積を空気圧縮の21/60000にする理論燃焼室(4Y)超高圧燃料燃焼として高圧高温燃焼ガス制御弁(5a)開放円周方向380度拡大膨張と二重反転にする理論膨張機関(3P)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely inexpensive power generation electric production, compresses the compressed volume of air 21/60000 Theoretical combustion chamber (4Y) High-pressure high-temperature combustion gas control valve (5a) as an ultra-high pressure fuel combustion Open energy 380 degree expansion expansion and double expansion Theoretical expansion engine (3P) to reverse inversion Cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、液体燃料(1c)や水(52a)と共に液体圧縮し、圧縮容積を空気圧縮の21/60000容積等で超高圧圧縮燃料噴射燃焼する理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production, liquid fuel (1c) Various energy storage cycle coalescence engines and coalescence methods that compress the liquid together with water (52a) and make the compression volume into a theoretical combustion chamber (4Y) in which the compression volume is 21/60000 volume of air compression or the like. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、液体燃料(1c)や水(52a)と共に液体圧縮し、圧縮容積を空気圧縮の21/60000容積等で超高圧圧縮燃料噴射燃焼する理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives liquid fuel (1c) by receiving cheap liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production ) And water (52a), and various energy storage cycle coalescing engines and coalescence methods that form a theoretical combustion chamber (4Y) in which the compression volume is 21/60000 volume of air compression or the like, and the ultrahigh pressure compression fuel injection combustion is performed. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、液体燃料(1c)や水(52a)と共に液体圧縮し、圧縮容積を空気圧縮の21/60000容積等で超高圧圧縮燃料噴射燃焼する理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely cheaply generated electricity, and produces liquid Various energy storage cycle coalescence engine and coalescence method that compresses liquid together with fuel (1c) and water (52a), and makes the compression volume a theoretical combustion chamber (4Y) that burns and burns ultra-high-pressure compressed fuel with air compression of 21/60000 volume, etc. . 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、液体燃料(1c)や水(52a)と共に液体圧縮して理論燃焼室(4Y)内壁で最適温度に加熱する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production, liquid fuel (1c) Various energy storage cycle coalescence engines and coalescence methods that compress liquid with water (52a) and heat to the optimum temperature on the inner wall of the theoretical combustion chamber (4Y). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、液体燃料(1c)や水(52a)と共に液体圧縮して理論燃焼室(4Y)内壁で最適温度に加熱する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives liquid fuel (1c) by receiving cheap liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production ) And water (52a), and various energy storage cycle coalescence engines and coalescence methods that are heated to the optimum temperature on the inner wall of the theoretical combustion chamber (4Y). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、液体燃料(1c)や水(52a)と共に液体圧縮して理論燃焼室(4Y)内壁で最適温度に加熱する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely cheaply generated electricity, and produces liquid Various energy storage cycle coalescence engines and coalescence methods that compress liquid with fuel (1c) and water (52a) and heat to the optimum temperature on the inner wall of the theoretical combustion chamber (4Y). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、液体燃料(1c)や水(52a)と共に液体圧縮して理論燃焼室(4Y)内壁で最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production, liquid fuel (1c) Combined with various energy storage cycles to open the heated oxygen control valve (24D) + fuel control valve (25b) + superheated steam control valve (25) to the optimum temperature on the inner wall of the theoretical combustion chamber (4Y) by liquid compression with water (52a) Organization and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、液体燃料(1c)や水(52a)と共に液体圧縮して理論燃焼室(4Y)内壁で最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives liquid fuel (1c) by receiving cheap liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production ) And water (52a) and liquid compression to open the heated oxygen control valve (24D) + fuel control valve (25b) + superheated steam control valve (25) to the optimum temperature on the inner wall of the theoretical combustion chamber (4Y) Cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、液体燃料(1c)や水(52a)と共に液体圧縮して理論燃焼室(4Y)内壁で最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely cheaply generated electricity, and produces liquid Liquid oxygen compression with fuel (1c) and water (52a) is performed and the heated oxygen control valve (24D) + fuel control valve (25b) + superheated steam control valve (25) is opened to the optimum temperature on the inner wall of the theoretical combustion chamber (4Y). Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+過熱蒸気を受給して、液体燃料(1c)や水(52a)と共に液体圧縮して理論燃焼室(4Y)内壁で最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放受給過熱蒸気と共に噴射する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electric power generation, receives low-priced liquid oxygen (5K) + superheated steam from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), and liquid fuel ( 1c) and water (52a) are compressed with liquid, and the heated oxygen control valve (24D) + fuel control valve (25b) + superheated steam control valve (25) is opened to the optimum temperature on the inner wall of the theoretical combustion chamber (4Y). Various energy storage cycle coalescence engine and coalescence method for injecting together. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放酸素燃料バーナー中心付近複数3000℃以上燃焼で外周過熱蒸気(50)を加熱する理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production, heating oxygen control to the optimum temperature Various types of the valve (24D) + fuel control valve (25b) + superheated steam control valve (25) are made into a theoretical combustion chamber (4Y) that heats the outer superheated steam (50) by burning at 3000 ° C. or more near the center of the open oxygen fuel burner. Energy conservation cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放酸素燃料バーナー中心付近複数3000℃以上燃焼で外周過熱蒸気(50)を加熱する理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply facility (3D), which is extremely inexpensive power generator, and heats it to the optimum temperature Oxygen control valve (24D) + fuel control valve (25b) + superheated steam control valve (25) is opened to the theoretical combustion chamber (4Y) that heats the outer superheated steam (50) by burning at 3000 ° C or more near the center of the open oxygen fuel burner. Various energy storage cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放酸素燃料バーナー中心付近複数3000℃以上燃焼で外周過熱蒸気(50)を加熱する理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity + superheated steam and is optimal. Heating oxygen control valve (24D) + fuel control valve (25b) + superheated steam control valve (25) to the temperature Theoretical combustion chamber for heating the outer superheated steam (50) by combustion at 3000 ° C or more near the center of the oxygen fuel burner ( 4Y) Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放酸素燃料バーナー中心付近複数3000℃以上燃焼で外周過熱蒸気(50)を加熱一部を中心付近に吸引熱分解電気分解狙う理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production, heating oxygen control to the optimum temperature Valve (24D) + Fuel control valve (25b) + Superheated steam control valve (25) is opened near the center of the oxygen fuel burner. Various energy storage cycle coalescing engine and coalescence method for a theoretical combustion chamber (4Y) aimed at decomposition. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放酸素燃料バーナー中心付近複数3000℃以上燃焼で外周過熱蒸気(50)を加熱一部を中心付近に吸引熱分解電気分解狙う理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply facility (3D), which is extremely inexpensive power generator, and heats it to the optimum temperature Open the oxygen control valve (24D) + fuel control valve (25b) + superheated steam control valve (25) near the center of the oxygen fuel burner. Various energy storage cycle coalescence engine and coalescence method to make theoretical combustion chamber (4Y) aimed at decomposition electrolysis. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放酸素燃料バーナー中心付近複数3000℃以上燃焼で外周過熱蒸気(50)を加熱一部を中心付近に吸引熱分解電気分解狙う理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity + superheated steam and is optimal. Heated oxygen control valve (24D) + fuel control valve (25b) + superheated steam control valve (25) open near the center of the oxygen fuel burner Heating the peripheral superheated steam (50) by burning more than 3000 ° C near the center Various energy storage cycle coalescence engine and coalescence method to make the theoretical combustion chamber (4Y) aiming at suction pyrolysis electrolysis. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放酸素燃料バーナー中心付近複数3000℃以上燃焼で外周過熱蒸気(50)を加熱一部を中心付近に吸引熱分解電気分解酸素水素増大燃焼狙う理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production, heating oxygen control to the optimum temperature Valve (24D) + Fuel control valve (25b) + Superheated steam control valve (25) is opened near the center of the oxygen fuel burner. Various energy storage cycle coalescence engine and coalescence method to make the theoretical combustion chamber (4Y) aiming at the combustion with increased cracked oxygen hydrogen. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放酸素燃料バーナー中心付近複数3000℃以上燃焼で外周過熱蒸気(50)を加熱一部を中心付近に吸引熱分解電気分解酸素水素増大燃焼狙う理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R) Receives cheap liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply facility (3D), which is extremely inexpensive power generator, and heats it to the optimum temperature Open the oxygen control valve (24D) + fuel control valve (25b) + superheated steam control valve (25) near the center of the oxygen fuel burner. Various energy storage cycle coalescing engine and coalescence method for a theoretical combustion chamber (4Y) aiming at increased combustion of electrolysis oxygen hydrogen hydrogen. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放酸素燃料バーナー中心付近複数3000℃以上燃焼で外周過熱蒸気(50)を加熱一部を中心付近に吸引熱分解電気分解酸素水素増大燃焼狙う理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity + superheated steam and is optimal. Heated oxygen control valve (24D) + fuel control valve (25b) + superheated steam control valve (25) open near the center of the oxygen fuel burner Heating the peripheral superheated steam (50) by burning more than 3000 ° C near the center Various energy storage cycle coalescence engine and coalescence method to make the theoretical combustion chamber (4Y) aiming at the increased combustion by suction pyrolysis electrolysis oxygen hydrogen. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+過熱蒸気を受給して、最適温度に加熱酸素制御弁(24D)+燃料制御弁(25b)+過熱蒸気制御弁(25)を開放酸素燃料バーナー中心付近複数3000℃以上燃焼で受給過熱蒸気含む外周過熱蒸気(50)を加熱一部を中心付近に吸引熱分解電気分解酸素水素増大燃焼狙う理論燃焼室(4Y)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + superheated steam to the optimum temperature Heated oxygen control valve (24D) + fuel control valve (25b) + superheated steam control valve (25) is opened in the vicinity of the center of the oxygen fuel burner. Various energy storage cycle coalescing engine and coalescence method to make the theoretical combustion chamber (4Y) aiming at increased combustion by suction pyrolysis electrolysis oxygen hydrogen hydrogen near the center. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)噴射加速噴射の酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, theoretical combustion chamber (4Y) As a streamline type, various energy storage cycle coalescing engines and coalescence methods in which a plurality of in-line combustion gas (49) oxygen merging water injection part (88K) for accelerating injection are provided. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)噴射加速噴射の酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( Various energy storage cycle coalescing engines and coalescence methods in which a combustion gas (49) injection accelerating injection oxygen merging water injection part (88K) having a plurality of in-line combustion streams (4Y) as a streamline type. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)噴射加速噴射の酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engines and coalescence methods in which the combustion chamber (4Y) is a streamlined type and a plurality of in-line combustion gas (49) oxygen acceleration water injection parts (88K) for injection acceleration injection. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して使用する酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, theoretical combustion chamber (4Y) A streamlined combustion gas (49) with a series of combustion gases (49Y) and oxygen combined water injection part (88K) using (4Y) inner wall and combustion flow inner wall (5d) oxygen + fuel + superheated steam heated at optimum temperature Energy conservation cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して使用する酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) is a streamlined combustion gas (49) with a series of combustion gas (49Y) and oxygen combined fuel injection unit (88K) that uses oxygen + fuel + superheated steam on the inner wall and combustion flow inner wall (5d) at the optimum temperature Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して使用する酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Oxygen combined water injection unit (5Y) with an oxygen + fuel + superheated steam (4Y) inner wall and combustion flow inner wall (5d) heated at an optimal temperature with a combustion chamber (4Y) having a streamlined combustion chamber (4). 88K), various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)燃焼等にする酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, theoretical combustion chamber (4Y) Oxygen combined water with the combustion gas (49) in the form of a streamline and (4Y) inner wall or combustion flow inner wall (5d) with oxygen + fuel + superheated steam heated to the optimum temperature for combustion in the theoretical combustion chamber (4Y), etc. Various energy storage cycle coalescence engine and coalescence method in the injection section (88K). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)燃焼等にする酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) is a streamlined combustion gas (49) with a plurality of in-line combustion gases (49), oxygen (4Y) inner wall and combustion flow inner wall (5d) oxygen + fuel + superheated steam is heated to the optimum temperature to make the theoretical combustion chamber (4Y) combustion, etc. Various energy storage cycle coalescence engine and coalescence method in the coalescence water injection part (88K). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)燃焼等にする酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Combustion chamber (4Y) is streamlined and combustion gas (49) is provided in series. (4Y) inner wall and combustion flow inner wall (5d) oxygen + fuel + superheated steam is heated at optimum temperature, theoretical combustion chamber (4Y) combustion, etc. Various energy storage cycle coalescence engines and coalescence methods in the oxygen coalescence water injection section (88K). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+過熱蒸気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+受給加熱蒸気を含む過熱蒸気を最適温度加熱して理論燃焼室(4Y)燃焼等にする酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), an extremely inexpensive generator for electric power generation, receives liquid oxygen (5K) + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), theoretical combustion chamber (4Y) is a streamlined combustion gas (49) comprising a plurality of series combustion gas (49Y) and (4Y) inner wall and combustion flow inner wall (5d) oxygen + fuel + superheated steam containing received heating steam is heated to an optimum temperature to generate a theoretical combustion chamber (4Y ) Various energy storage cycle coalescence engines and coalescence methods in the oxygen coalescence water injection part (88K) for combustion or the like. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解狙いの酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R), which is an extremely inexpensive generator for electric power generation, receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), oxygen + on each inner wall Various energy storage cycles in which the fuel + superheated steam is heated to the optimum temperature and the oxygen combustion burner (88K) is used for the oxygen combustion burner at the center of the theoretical combustion chamber (4Y) and burns at 3000 ° C or more for superheated steam suction pyrolysis electrolysis Merger engine and merger method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解狙いの酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, Oxygen + fuel + superheated steam is heated to the optimum temperature, and the energy in the theoretical combustion chamber (4Y) near the center of the oxygen fuel burner is burned at 3000 ° C for more than 3000 ° C, and the oxygen combined water injection part (88K) is aimed at superheated steam suction pyrolysis electrolysis Storage cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解狙いの酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives cheap liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electricity production, respectively. Oxygen + fuel + superheated steam is heated at the optimum temperature on the inner wall of the chamber, and the oxygen combustion burner near the center of the theoretical combustion chamber (4Y) burns more than 3000 ° C into the oxygen combined water injection part (88K) aimed at superheated steam suction pyrolysis electrolysis Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解酸素水素増大燃焼狙いの酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R), which is an extremely inexpensive generator for electric power generation, receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), oxygen + on each inner wall The fuel + superheated steam is heated at the optimum temperature, and the oxygen combustion burner near the center of the theoretical combustion chamber (4Y) is burned at 3000 ° C or more to make an oxygen coalescence water injection part (88K) aimed at superheated steam suction pyrolysis electrolysis oxygen hydrogen increase combustion Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解酸素水素増大燃焼狙いの酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, Oxygen + fuel + superheated steam is heated to the optimum temperature, near the center of the theoretical combustion chamber (4Y), oxygen fuel burner burned at 3000 ° C or more, superheated steam suction pyrolysis electrolysis oxygen hydrogen water injection part aimed at increasing oxygen hydrogen combustion (88K) Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解酸素水素増大燃焼狙いの酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives cheap liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electricity production, respectively. Oxygen + fuel + superheated steam is heated at the optimum temperature on the inner wall of the combustion chamber (4Y) near the center of the oxygen fuel burner. Combustion of more than 3000 ° C with superheated steam suction pyrolysis electrolysis Oxygen hydrogen increased combustion target oxygen combined water injection unit (88K) Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で燃焼流内壁(5d)外周過熱蒸気溜(95c)の過熱蒸気(50)を加熱噴射する酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R), which is an extremely inexpensive generator for electric power generation, receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), oxygen + on each inner wall The fuel + superheated steam is heated at the optimum temperature, and the superheated steam (50) in the combustion flow inner wall (5d) outer peripheral superheated steam reservoir (95c) is heated and injected by combustion in the vicinity of the theoretical combustion chamber (4Y) near the center of the oxygen fuel burner at 3000 ° C or more. Various energy storage cycle coalescence engines and coalescence methods in an oxygen coalescence water injection section (88K). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で燃焼流内壁(5d)外周過熱蒸気溜(95c)の過熱蒸気(50)を加熱噴射する酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, Oxygen + fuel + superheated steam is heated to the optimum temperature to heat the superheated steam (50) in the combustion flow inner wall (5d) outer peripheral superheated steam pool (95c) by burning more than 3000 ° C near the center of the theoretical combustion chamber (4Y). Various energy storage cycle coalescence engines and coalescence methods in an oxygen coalescence water injection part (88K) for injection. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で燃焼流内壁(5d)外周過熱蒸気溜(95c)の過熱蒸気(50)を加熱噴射する酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives cheap liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electricity production, respectively. The oxygen + fuel + superheated steam is heated at the optimum temperature on the inner wall of the combustion chamber, and the theoretical combustion chamber (4Y) near the center of the oxygen fuel burner burns at a temperature of 3000 ° C. or more. ) And an energy storage cycle coalescence engine and a coalescence method using an oxygen coalescence water injection unit (88K) that injects heat. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+過熱蒸気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で燃焼流内壁(5d)外周過熱蒸気溜(95c)の受給過熱蒸気を含む過熱蒸気(50)を加熱噴射する酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receive cheap liquid oxygen (5K) + superheated steam, each inner wall The oxygen + fuel + superheated steam is heated at the optimum temperature and the theoretical combustion chamber (4Y) near the center oxygen fuel burner burns at 3000 ° C or more and includes the superheated steam received from the combustion flow inner wall (5d) outer peripheral superheated steam reservoir (95c) Various energy storage cycle coalescence engines and coalescence methods in an oxygen coalescence water injection section (88K) that heats and jets steam (50). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、空気(28a)吸引噴射流最適箇所にも複数の流線型理論燃焼室(4Y)具備同様に燃焼噴射する酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production, air (28a) suction injection Various energy storage cycle coalescence engines and coalescence methods in an oxygen coalescence water injection section (88K) that combusts and injects a plurality of streamline type theoretical combustion chambers (4Y) at the optimum flow location. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、空気(28a)吸引噴射流最適箇所にも複数の流線型理論燃焼室(4Y)具備同様に燃焼噴射する酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electric power generation, receives electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), receives cheap liquid oxygen (5K) + electricity, and air (28a) Various energy storage cycle coalescence engines and coalescence methods in an oxygen coalescence water injecting section (88K) that combusts and injects a plurality of streamlined theoretical combustion chambers (4Y) even at the optimum location of the suction jet flow. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、空気(28a)吸引噴射流最適箇所にも複数の流線型理論燃焼室(4Y)具備同様に燃焼噴射する酸素合体水噴射部(88K)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity + superheated steam, and air (28a) Various energy storage cycle coalescence engines and coalescence methods in the oxygen coalescence water injecting section (88K) that combusts and injects a plurality of streamline type theoretical combustion chambers (4Y) even at the optimum location of the suction jet flow. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、酸素合体水噴射部(88K)にして空気入口を前向き拡大した各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) of extremely low-cost power generation electricity production, oxygen combined water injection part ( 88K), various energy storage cycle coalescing engines and coalescence methods in which the air inlet is expanded forward. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、酸素合体水噴射部(88K)にして空気入口を前向き拡大した各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal all-blade water gravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, oxygen combined water injection Various energy storage cycle coalescing engine and coalescence method in which the air inlet is expanded to the front (88K). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、酸素合体水噴射部(88K)にして空気入口を前向き拡大した各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), oxygen Various energy storage cycle coalescence engines and coalescence methods in which the coalescing water injection section (88K) is used to enlarge the air inlet forward. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、酸素合体水噴射部(88K)にして空気入口を前向き拡大して直線に近付けて船底に気泡最大噴射する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) of extremely low-cost power generation electricity production, oxygen combined water injection part ( 88K), various energy storage cycle coalescing engines and coalescence methods for enlarging the air inlet forward, approaching a straight line, and injecting the maximum amount of bubbles to the bottom of the ship. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、酸素合体水噴射部(88K)にして空気入口を前向き拡大して直線に近付けて船底に気泡最大噴射する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal all-blade water gravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, oxygen combined water injection Various energy storage cycle coalescing engine and coalescence method, in which the air inlet is enlarged forward and close to a straight line, and bubbles are maximally injected onto the bottom of the ship. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、酸素合体水噴射部(88K)にして空気入口を前向き拡大して直線に近付けて船底に気泡最大噴射する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), oxygen Various energy storage cycle coalescing engine and coalescence method in which the coalescing water injection part (88K) is used to enlarge the air inlet forward and bring it close to a straight line to inject the maximum amount of bubbles to the bottom of the ship. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+過熱蒸気を受給して、酸素合体水噴射部(88K)にして空気入口を前向き拡大して直線に近付けて船底に気泡最大噴射する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal all-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is extremely inexpensive power generation electricity production, oxygen combined water Various energy storage cycle coalescence engines and coalescence methods that use an injection section (88K) to enlarge the air inlet forward and bring it close to a straight line to inject the maximum amount of bubbles to the bottom of the ship. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)噴射加速噴射の酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, theoretical combustion chamber (4Y) As a streamline type, a plurality of energy storage cycle coalescence engines and coalescence methods in which a plurality of combustion gas (49) injection accelerating injection oxygen merging air injection portions (88A) are provided in series. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)噴射加速噴射の酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( Various energy storage cycle coalescing engines and coalescence methods in which a combustion gas (49) injection accelerating injection oxygen merging air injection part (88A) having a plurality of series in a streamlined form is used as 4Y). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)噴射加速噴射の酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Various energy storage cycle coalescence engines and coalescence methods in which the combustion chamber (4Y) is a streamlined type and a plurality of in-line combustion gas (49) oxygen acceleration air injection portions (88A) for injection acceleration injection. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して使用する酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, theoretical combustion chamber (4Y) A streamlined combustion gas (49) with various oxygen gas injection parts (88A) that use oxygen gas + fuel + superheated steam on the inner wall (4Y) and combustion flow inner wall (5d) at an optimum temperature. Energy conservation cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して使用する酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) is a streamlined type of combustion gas (49) provided in series with the oxygen combined air injection unit (88A) that uses the oxygen + fuel + superheated steam on the inner wall (5Y) and the combustion flow inner wall (5d) with the optimum temperature heating. Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して使用する酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Oxygen combined air injection unit that uses the combustion chamber (4Y) as a streamlined combustion gas (49) with a plurality of in-series combustion gases (49) and the oxygen + fuel + superheated steam on the inner wall (5Y) and combustion flow inner wall (5d) at an optimal temperature ( 88A) various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)燃焼等にする酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), which is extremely inexpensive power generation electric manufacturing, theoretical combustion chamber (4Y) A streamlined combustion gas (49) with a plurality of in-line combustion gas (4Y) and oxygen combined air (4Y) to the theoretical combustion chamber (4Y) combustion, etc. by heating the oxygen + fuel + superheated steam on the inner wall or combustion flow inner wall (5d) at the optimum temperature Various energy storage cycle coalescence engine and coalescence method in the injection section (88A). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)燃焼等にする酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), theoretical combustion chamber ( 4Y) is a streamlined combustion gas (49) with a plurality of in-line combustion gases (49), oxygen (4Y) inner wall and combustion flow inner wall (5d) oxygen + fuel + superheated steam is heated to the optimum temperature to make the theoretical combustion chamber (4Y) combustion, etc. Various energy storage cycle coalescence engine and coalescence method in the coalescence air injection section (88A). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)燃焼等にする酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), which is an extremely inexpensive power generation electric manufacturing, theory Combustion chamber (4Y) is streamlined and combustion gas (49) is provided in series. (4Y) inner wall and combustion flow inner wall (5d) oxygen + fuel + superheated steam is heated at optimum temperature, theoretical combustion chamber (4Y) combustion, etc. Various energy storage cycle coalescence engines and coalescence methods in the oxygen coalescence air injection section (88A). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+過熱蒸気を受給して、理論燃焼室(4Y)を流線型として複数直列具備の燃焼ガス(49)で(4Y)内壁や燃焼流内壁(5d)の酸素+燃料+受給加熱蒸気を含む過熱蒸気を最適温度加熱して理論燃焼室(4Y)燃焼等にする酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), an extremely inexpensive generator for electric power generation, receives liquid oxygen (5K) + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), theoretical combustion chamber (4Y) is a streamlined combustion gas (49) comprising a plurality of series combustion gas (49Y) and (4Y) inner wall and combustion flow inner wall (5d) oxygen + fuel + superheated steam containing received heating steam is heated to an optimum temperature to generate a theoretical combustion chamber (4Y ) Various energy storage cycle coalescence engines and coalescence methods in the oxygen coalescence air injection section (88A) for combustion or the like. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解狙いの酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R), which is an extremely inexpensive generator for electric power generation, receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), oxygen + on each inner wall Various energy storage cycles in which the fuel + superheated steam is heated at the optimum temperature and the oxygen combustion burner near the center of the theoretical combustion chamber (4Y) is burned at 3000 ° C or more to form an oxygen coalesced air injection unit (88A) aimed at superheated steam suction pyrolysis electrolysis Merger engine and merger method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解狙いの酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, Oxygen + fuel + superheated steam is heated to an optimal temperature, and the energy is made into an oxygen coalescence air injection unit (88A) aimed at superheated steam suction pyrolysis electrolysis by burning over 3000 ° C near the theoretical combustion chamber (4Y) oxygen fuel burner Storage cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解狙いの酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives cheap liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electricity production, respectively. Oxygen + fuel + superheated steam is heated at the optimum temperature on the inner wall of the combustion chamber (4Y) near the center of the oxygen fuel burner. Combustion at 3000 ° C or higher to superheated steam suction pyrolysis electrolysis target oxygen combined air injection part (88A) Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解酸素水素増大燃焼狙いの酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R), which is an extremely inexpensive generator for electric power generation, receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), oxygen + on each inner wall The fuel + superheated steam is heated at the optimum temperature, and the oxygen combustion burner near the center of the theoretical combustion chamber (4Y) is burned at 3000 ° C or more to form an oxygen coalescence air injection unit (88A) aimed at superheated steam suction pyrolysis electrolysis oxygen hydrogen augmentation combustion Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解酸素水素増大燃焼狙いの酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, Oxygen + fuel + superheated steam is heated to the optimum temperature, near the center of the theoretical combustion chamber (4Y), oxygen fuel burner burns at 3000 ° C or higher, superheated steam suction pyrolysis electrolysis oxygen hydrogen injection unit aimed at increasing oxygen hydrogen combustion (88A) Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で過熱蒸気吸引熱分解電気分解酸素水素増大燃焼狙いの酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives cheap liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electricity production, respectively. Oxygen + fuel + superheated steam is heated at the optimum temperature on the inner wall of the combustion chamber (4Y) near the center of the oxygen fuel burner. Combustion of more than 3000 ° C with superheated steam suction pyrolysis electrolysis Oxygen hydrogen increased combustion target oxygen combined air injection unit (88A) Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で燃焼流内壁(5d)外周過熱蒸気溜(95c)の過熱蒸気(50)を加熱噴射する酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R), which is an extremely inexpensive generator for electric power generation, receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), oxygen + on each inner wall The fuel + superheated steam is heated at the optimum temperature, and the superheated steam (50) in the combustion flow inner wall (5d) outer peripheral superheated steam reservoir (95c) is heated and injected by combustion in the vicinity of the theoretical combustion chamber (4Y) near the center of the oxygen fuel burner at 3000 ° C or more. Various energy storage cycle coalescence engines and coalescence methods in an oxygen coalescence air injection section (88A). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で燃焼流内壁(5d)外周過熱蒸気溜(95c)の過熱蒸気(50)を加熱噴射する酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, Oxygen + fuel + superheated steam is heated to the optimum temperature to heat the superheated steam (50) in the combustion flow inner wall (5d) outer peripheral superheated steam pool (95c) by burning more than 3000 ° C near the center of the theoretical combustion chamber (4Y). Various energy storage cycle coalescence engines and coalescence methods in the oxygen coalescence air injection section (88A) for injection. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で燃焼流内壁(5d)外周過熱蒸気溜(95c)の過熱蒸気(50)を加熱噴射する酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives cheap liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), which is extremely inexpensive power generation electricity production, respectively. The oxygen + fuel + superheated steam is heated at the optimum temperature on the inner wall of the combustion chamber, and the theoretical combustion chamber (4Y) near the center of the oxygen fuel burner burns at a temperature of 3000 ° C. or more. ) And an energy storage cycle coalescence engine and a coalescence method in an oxygen coalesced air injection section (88A) for heating and spraying. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+過熱蒸気を受給して、夫々の内壁で酸素+燃料+過熱蒸気を最適温度加熱して理論燃焼室(4Y)中心付近酸素燃料バーナー複数3000℃以上燃焼で燃焼流内壁(5d)外周過熱蒸気溜(95c)の受給過熱蒸気を含む過熱蒸気(50)を加熱噴射する酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receive cheap liquid oxygen (5K) + superheated steam, each inner wall The oxygen + fuel + superheated steam is heated at the optimum temperature and the theoretical combustion chamber (4Y) near the center oxygen fuel burner burns at 3000 ° C or more and includes the superheated steam received from the combustion flow inner wall (5d) outer peripheral superheated steam reservoir (95c) Various energy storage cycle coalescence engines and coalescence methods in an oxygen coalescence air injection section (88A) that heats and jets steam (50). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、空気(28a)吸引噴射流最適箇所にも複数の流線型理論燃焼室(4Y)具備同様に燃焼噴射する酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production, air (28a) suction injection Various energy storage cycle coalescence engines and coalescence methods in which an oxygen coalescence air injection section (88A) that combusts and injects a plurality of streamline type theoretical combustion chambers (4Y) at the optimum flow location. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、空気(28a)吸引噴射流最適箇所にも複数の流線型理論燃焼室(4Y)具備同様に燃焼噴射する酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electric power generation, receives electricity + liquid air cold heat + superheated steam temperature supply equipment (3D), receives cheap liquid oxygen (5K) + electricity, and air (28a) Various energy storage cycle coalescence engines and coalescence methods in an oxygen coalescence air injection section (88A) that combusts and injects a plurality of streamlined theoretical combustion chambers (4Y) at the optimum location of the suction injection flow. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、空気(28a)吸引噴射流最適箇所にも複数の流線型理論燃焼室(4Y)具備同様に燃焼噴射する酸素合体空気噴射部(88A)にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity + superheated steam, and air (28a) Various energy storage cycle coalescence engines and coalescence methods in the oxygen coalesced air injection part (88A) that combusts and injects a plurality of streamline type theoretical combustion chambers (4Y) even at the optimum place of the suction injection flow. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、酸素合体空気噴射部(88A)を回転して垂直上昇降下を可能にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production, oxygen combined air injection part ( 88A), various energy storage cycle coalescence engines and coalescence methods that enable vertical ascent and descent. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、酸素合体空気噴射部(88A)を回転して垂直上昇降下を可能にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, oxygen combined air injection Various energy storage cycle coalescing engines and coalescence methods that enable vertical ascent and descent by rotating the part (88A). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、酸素合体空気噴射部(88A)を回転して垂直上昇降下を可能にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), oxygen Various energy storage cycle coalescence engines and coalescence methods that enable vertical ascent and descent by rotating the coalescence air injection section (88A). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給して、酸素合体空気噴射部(88A)を回転して逆噴射を可能にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Receives low-priced liquid oxygen (5K) from electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D) of extremely low-cost power generation electricity production, oxygen combined air injection part ( 88A), various energy storage cycle coalescence engines and coalescence methods that enable reverse injection. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給して、酸素合体空気噴射部(88A)を回転して逆噴射を可能にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation. Electricity + liquid air cooling + superheated steam temperature supply equipment (3D) receives cheap liquid oxygen (5K) + electricity, oxygen combined air injection Various energy storage cycle coalescence engines and coalescence methods that enable reverse injection by rotating the section (88A). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給して、酸素合体空気噴射部(88A)を回転して逆噴射を可能にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + electricity + superheated steam from electricity + liquid air cold heat + superheated steam thermal supply equipment (3D), oxygen Various energy storage cycle coalescence engines and coalescence methods that enable reverse injection by rotating the coalescence air injection section (88A). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+過熱蒸気を受給して、酸素合体空気噴射部(88A)を回転して逆噴射を可能にした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal all-blade water gravity turbine (8R), which is an extremely inexpensive generator for electricity generation, receives low-priced liquid oxygen (5K) + superheated steam from electricity + liquid air cold heat + superheated steam temperature supply facility (3D), oxygen combined air Various energy storage cycle coalescence engines and coalescence methods that enable the reverse injection by rotating the injection section (88A). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+高温水(52b)を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)とした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electric manufacturing, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + hot water (52b), gas volume is Various energy storage cycle coalescing engines and coalescence methods as an electrically driven theoretical gas compressor (3T) that compresses from a large outer peripheral compressor blade aiming inversely proportional to pressure to a central short compressor blade. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)とした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R), an extremely inexpensive generator for electric power generation, receives electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), and the outer circumference of the gas volume is inversely proportional to the pressure Various energy storage cycle coalescing engines and coalescence methods using an electrically driven theoretical gas compressor (3T) that compresses a long compression blade into a central short compression blade. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+過熱蒸気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)とした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + superheated steam, gas volume is inversely proportional to pressure Various energy storage cycle coalescence engines and coalescence methods as an electrically driven theoretical gas compressor (3T) that compresses from a target outer peripheral long compression blade to a central short compression blade. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+高温水(52b)を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electric manufacturing, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + hot water (52b), gas volume is Various energy storage cycle coalescence engines and coalescence methods for sucking and compressing air as an electrically driven theoretical gas compressor (3T) that compresses from a large outer peripheral compressor blade to a central short compressor blade aimed inversely proportional to pressure. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R), an extremely inexpensive generator for electric power generation, receives electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), and the outer circumference of the gas volume is inversely proportional to the pressure Various energy storage cycle coalescence engines and coalescence methods for sucking and compressing air as an electrically driven theoretical gas compressor (3T) that compresses a long compression blade into a central short compression blade. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+過熱蒸気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + superheated steam, gas volume is inversely proportional to pressure Various energy storage cycle coalescence engines and coalescence methods for sucking and compressing air as an electrically driven theoretical gas compressor (3T) that compresses a target outer peripheral long compression blade into a central short compression blade. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+高温水(52b)を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮熱交換過熱蒸気を製造する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electric manufacturing, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + hot water (52b), gas volume is Various energy storage cycle coalescence engine and coalescence method for producing compressed heat exchange superheated steam by sucking air as an electrically driven theoretical gas compressor (3T) that compresses from a large outer peripheral compressor blade aiming inversely proportional to pressure to a central short compressor blade. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮熱交換過熱蒸気を製造する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R), an extremely inexpensive generator for electric power generation, receives electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), and the outer circumference of the gas volume is inversely proportional to the pressure Various energy storage cycle coalescence engines and coalescence methods for producing compressed heat exchange superheated steam by sucking air as an electrically driven theoretical gas compressor (3T) that compresses a long compression blade into a central short compression blade. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+過熱蒸気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮熱交換過熱蒸気を製造する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + superheated steam, gas volume is inversely proportional to pressure Various energy storage cycle coalescence engines and coalescence methods for producing compressed heat exchange superheated steam by sucking air as an electrically driven theoretical gas compressor (3T) that compresses from a target outer peripheral large compression blade to a central short compression blade. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+高温水(52b)+過熱蒸気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮熱交換過熱蒸気を製造する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) is an extremely inexpensive generator for electric power generation, receives electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), cheap electricity + hot water (52b) + superheated steam, and gas As an electrically driven theoretical gas compressor (3T) that compresses from a large outer peripheral compressor blade whose volume is inversely proportional to the pressure to a central short compressor blade, and various energy storage cycle coalescence engines and coalescence engines that produce compressed heat exchange superheated steam by sucking air Method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+高温水(52b)を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮圧縮空気熱交換器(2Y)で過熱蒸気を製造する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electric manufacturing, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + hot water (52b), gas volume is Various energy storage cycles in which superheated steam is produced with an intake-compression compressed-air heat exchanger (2Y) as an electrically driven theoretical gas compressor (3T) that compresses from a large outer peripheral compressor blade that is inversely proportional to pressure to a central short compressor blade Merger engine and merger method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮圧縮空気熱交換器(2Y)で過熱蒸気を製造する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R), an extremely inexpensive generator for electric power generation, receives electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), and the outer circumference of the gas volume is inversely proportional to the pressure Various energy storage cycle coalescence engines and coalescence methods for producing superheated steam with an intake compression air compressor (2Y) as an electrically driven theoretical gas compressor (3T) that compresses a long compression blade into a central short compression blade. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+過熱蒸気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮圧縮空気熱交換器(2Y)で過熱蒸気を製造する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + superheated steam, gas volume is inversely proportional to pressure Various energy storage cycle coalescence engines that produce superheated steam with an intake-compression compressed air heat exchanger (2Y) as an electrically driven theoretical gas compressor (3T) that compresses from a target outer peripheral long compression blade to a central short compression blade, and Merge method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+高温水(52b)を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮圧縮空気熱交換器(2Y)で過熱蒸気を製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electric manufacturing, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + hot water (52b), gas volume is As an electrically driven theoretical gas compressor (3T) that compresses from a large outer peripheral compressor blade that is inversely proportional to the pressure to a central short compressor blade, air is sucked into the compressed compressed air heat exchanger (2Y) to produce and supply superheated steam (3D) Various energy storage cycle coalescence engine and coalescence method to be supplied to 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮圧縮空気熱交換器(2Y)で過熱蒸気を製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R), an extremely inexpensive generator for electric power generation, receives electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), and the outer circumference of the gas volume is inversely proportional to the pressure Various types of energy storage for supplying superheated steam to the production and supply equipment (3D) using the intake-compression compressed air heat exchanger (2Y) as an electrically driven theoretical gas compressor (3T) that compresses from the large compressor blades to the central short compressor blades Cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+過熱蒸気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮圧縮空気熱交換器(2Y)で過熱蒸気を製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + superheated steam, gas volume is inversely proportional to pressure As an electrically driven theoretical gas compressor (3T) that compresses from the target outer peripheral large compression blade to the central short compression blade, air is supplied to the production supply facility (3D) by the intake compression air heat exchanger (2Y). Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+高温水(52b)を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮圧縮空気熱交換器(2Y)で圧縮空気+過熱蒸気を製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) Extremely inexpensive power generation electric manufacturing, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + hot water (52b), gas volume is Production and supply equipment of compressed air + superheated steam with an intake-compressed compressed air heat exchanger (2Y) as an electrically driven theoretical gas compressor (3T) that compresses from a large outer peripheral compressor blade to a central short compressor blade aiming inversely proportional to pressure Various energy storage cycle coalescence engines and coalescence methods supplied to (3D). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮圧縮空気熱交換器(2Y)で圧縮空気+過熱蒸気を製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade hydrogravity turbine (8R), an extremely inexpensive generator for electric power generation, receives electricity from electricity + liquid air cold heat + superheated steam heat supply equipment (3D), and the outer circumference of the gas volume is inversely proportional to the pressure As an electrically driven theoretical gas compressor (3T) that compresses from a large compressor blade to a central short compressor blade, air is supplied to a production supply facility (3D) by a suction compressed air heat exchanger (2Y). Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+過熱蒸気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮圧縮空気熱交換器(2Y)で圧縮空気+過熱蒸気を製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electricity production, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheap electricity + superheated steam, gas volume is inversely proportional to pressure As the electric driven theoretical gas compressor (3T) that compresses from the target outer peripheral large compressor blade to the central short compressor blade, air is sucked in and compressed compressed air heat exchanger (2Y) produces and supplies compressed air + superheated steam (3D) Various energy storage cycle coalescence engine and coalescence method to be supplied to 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価電気+高温水(52b)+過熱蒸気を受給して、気体の体積が圧力に反比例狙いの外周長大圧縮翼から中心短圧縮翼に圧縮する電気駆動の理論気体圧縮機(3T)として空気を吸入圧縮圧縮空気熱交換器(2Y)で圧縮空気+過熱蒸気を製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal type full-blade water gravity turbine (8R) is an extremely inexpensive generator for electric power generation, receives electricity + liquid air cold heat + superheated steam temperature heat supply equipment (3D), cheap electricity + hot water (52b) + superheated steam, and gas As an electrically driven theoretical gas compressor (3T) that compresses from a large outer peripheral compressor blade, whose volume is inversely proportional to the pressure, to a central short compressor blade, air is sucked into the compressed air heat exchanger (2Y) and compressed air + superheated steam Various energy storage cycle coalescence engine and coalescence method to be supplied to the production supply facility (3D). 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成とした各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods configured to be compressed into 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として空気圧縮する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescing engine and coalescence method for compressing air as a structure to be compressed into the air. 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として空気(28a)圧縮する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescing engines and coalescing methods for compressing air (28a) as a structure to be compressed into the air. 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として外周から吸入中心に空気(28a)圧縮する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescing engines and coalescence methods for compressing air (28a) from the outer periphery to the suction center as a structure to be compressed into the air. 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として外周から吸入中心に空気(28a)圧縮水を加熱する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods for heating air (28a) compressed water from the outer periphery to the suction center as a configuration for compressing the air. 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として外周から吸入中心に空気(28a)圧縮高温水を加熱する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods for heating air (28a) compressed high-temperature water from the outer periphery to the suction center as a structure to be compressed into the air. 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として外周から吸入中心に空気(28a)圧縮過熱蒸気を加熱する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods for heating air (28a) compressed superheated steam from the outer periphery to the suction center as a structure to be compressed into 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として外周から吸入中心に空気(28a)圧縮圧縮空気熱交換器(2Y)で水を加熱する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods in which water is heated by air (28a) compressed and compressed air heat exchanger (2Y) from the outer periphery to the suction center as a structure to be compressed into the air. 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として外周から吸入中心に空気(28a)圧縮圧縮空気熱交換器(2Y)で高温水を加熱する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods in which high temperature water is heated by air (28a) compressed and compressed air heat exchanger (2Y) from the outer circumference to the suction center from the outer periphery. 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として外周から吸入中心に空気(28a)圧縮圧縮空気熱交換器(2Y)で過熱蒸気を加熱する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods, in which superheated steam is heated by air (28a) compressed and compressed air heat exchanger (2Y) from the outer periphery to the suction center from the outer periphery. 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として圧縮空気熱交換器(2Y)で過熱蒸気製造する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods for producing superheated steam with a compressed air heat exchanger (2Y) as a configuration to be compressed into the air. 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として圧縮空気熱交換器(2Y)で圧縮空気+過熱蒸気製造する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods for producing compressed air + superheated steam with a compressed air heat exchanger (2Y) as a configuration to be compressed into the air. 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として圧縮空気熱交換器(2Y)で高圧圧縮空気+高圧過熱蒸気製造する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods for producing high-pressure compressed air + high-pressure superheated steam with a compressed air heat exchanger (2Y) as a structure to be compressed into the air. 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として圧縮空気熱交換器(2Y)で超高圧圧縮空気+超高圧過熱蒸気製造する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods for producing ultra-high pressure compressed air + ultra-high pressure superheated steam with a compressed air heat exchanger (2Y) as a structure to be compressed into 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として圧縮空気熱交換器(2Y)で圧縮空気+過熱蒸気製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescing engines and coalescence methods for supplying compressed air + superheated steam production and supply equipment (3D) with a compressed air heat exchanger (2Y) as a structure to be compressed into 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として圧縮空気熱交換器(2Y)で高圧圧縮空気+高圧過熱蒸気製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods to be supplied to the high pressure compressed air + high pressure superheated steam production / supply facility (3D) with a compressed air heat exchanger (2Y) as a structure to be compressed into 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として圧縮空気熱交換器(2Y)で超高圧圧縮空気+超高圧過熱蒸気製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods to be supplied to the ultra high pressure compressed air + ultra high pressure superheated steam production and supply facility (3D) by the compressed air heat exchanger (2Y) as a structure to be compressed into 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として圧縮空気熱交換器(2Y)で液体空気+超高圧過熱蒸気製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engines and coalescence methods for supplying liquid air + super high pressure superheated steam production and supply equipment (3D) with a compressed air heat exchanger (2Y) as a structure to be compressed into 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として圧縮空気熱交換器(2Y)で液体酸素+液体窒素+超高圧過熱蒸気製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engine and coalescence method for supplying to liquid oxygen + liquid nitrogen + super high pressure superheated steam production / supply facility (3D) by compressed air heat exchanger (2Y) as a structure to be compressed into 横型全動翼水重力タービン(8R)極端に安価発電電気駆動の、理論気体圧縮機(3T)を気体の体積が圧力に反比例遵守として外周長大圧縮翼(8)から中心短圧縮翼(8)に圧縮する構成として圧縮空気熱交換器(2Y)で電気+液体酸素+液体窒素+超高圧過熱蒸気製造供給設備(3D)に供給する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Extremely inexpensive power generation electric drive, theoretical gas compressor (3T) with the gas volume complying with pressure inversely proportional to the pressure, from the outer peripheral large compression blade (8) to the central short compression blade (8) Various energy storage cycle coalescence engine and coalescence method to be supplied to electricity + liquid oxygen + liquid nitrogen + super high pressure superheated steam production and supply equipment (3D) by compressed air heat exchanger (2Y) as a structure to be compressed into 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給燃料噴射燃焼して、円周方向380度膨張過程で、燃料管(25a)延長上側膨張翼群(8d)複数個所より燃料噴射燃焼する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electric power generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives low-priced liquid oxygen (5K), receives fuel injection, and burns in the circumferential direction. Various energy storage cycle coalescence engines and coalescence methods in which fuel is injected and burned from a plurality of locations in the fuel pipe (25a) and the extended upper expansion blade group (8d) in the expansion process of 380 degrees. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給燃料噴射燃焼して、円周方向380度膨張過程で、燃料管(25a)延長上側膨張翼群(8d)複数個所より燃料噴射燃焼する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature heat supply facility (3D), cheap liquid oxygen (5K) + electricity is injected and burned by fuel injection, Various energy storage cycle coalescence engines and coalescence methods in which fuel is injected and burned from a plurality of locations in the fuel pipe (25a) and the extended upper expansion blade group (8d) in the expansion process in the circumferential direction of 380 degrees. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給燃料噴射燃焼して、円周方向380度膨張過程で、燃料管(25a)延長上側膨張翼群(8d)複数個所より燃料噴射燃焼する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheaper liquid oxygen (5K) + electricity + superheated steam and fuel injection combustion In addition, various energy storage cycle coalescence engines and coalescence methods in which fuel is injected and burned from a plurality of locations in the fuel pipe (25a) and the extended upper expansion blade group (8d) in the circumferential expansion process of 380 degrees. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給燃料噴射燃焼して、円周方向380度膨張過程で、燃料管(25a)延長上側膨張翼群(8d)複数個所より燃料噴射燃焼燃焼量増大する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electric power generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives low-priced liquid oxygen (5K), receives fuel injection, and burns in the circumferential direction. Various energy storage cycle coalescence engines and coalescence methods that increase the fuel injection combustion combustion amount from a plurality of locations in the fuel pipe (25a) extended upper expansion blade group (8d) in the expansion process of 380 degrees. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給燃料噴射燃焼して、円周方向380度膨張過程で、燃料管(25a)延長上側膨張翼群(8d)複数個所より燃料噴射燃焼燃焼量増大する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature heat supply facility (3D), cheap liquid oxygen (5K) + electricity is injected and burned by fuel injection, Various energy storage cycle coalescence engines and coalescence methods that increase the fuel injection combustion combustion amount from a plurality of locations in the fuel pipe (25a) extended upper expansion blade group (8d) in the expansion process of 380 degrees in the circumferential direction. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給燃料噴射燃焼して、円周方向380度膨張過程で、燃料管(25a)延長上側膨張翼群(8d)複数個所より燃料噴射燃焼燃焼量増大する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheaper liquid oxygen (5K) + electricity + superheated steam and fuel injection combustion In the expansion process of 380 degrees in the circumferential direction, various energy storage cycle coalescence engines and coalescence methods for increasing the amount of fuel injection combustion combustion from a plurality of locations of the fuel pipe (25a) extended upper expansion blade group (8d). 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給燃料噴射燃焼して、円周方向380度膨張過程で、タービン外箱(77a)との間で空気圧縮する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electric power generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives low-priced liquid oxygen (5K), receives fuel injection, and burns in the circumferential direction. Various energy storage cycle coalescence engines and coalescence methods for compressing air with the turbine outer box (77a) in the expansion process of 380 degrees. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給燃料噴射燃焼して、円周方向380度膨張過程で、タービン外箱(77a)との間で空気圧縮する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature heat supply facility (3D), cheap liquid oxygen (5K) + electricity is injected and burned by fuel injection, Various energy storage cycle coalescence engines and coalescence methods for air compression with the turbine outer box (77a) in the expansion process in the circumferential direction of 380 degrees. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給燃料噴射燃焼して、円周方向380度膨張過程で、タービン外箱(77a)との間で空気圧縮する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheaper liquid oxygen (5K) + electricity + superheated steam and fuel injection combustion Then, various energy storage cycle coalescence engines and coalescence methods for compressing air with the turbine outer casing (77a) in the circumferential direction of 380 degrees expansion process. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+過熱蒸気を受給燃料噴射燃焼して、円周方向380度膨張過程で、タービン外箱(77a)との間で空気圧縮する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cooling + superheated steam temperature supply equipment (3D), cheap liquid oxygen (5K) + superheated steam is received and injected and burned, Various energy storage cycle coalescence engines and coalescence methods for air compression with the turbine outer casing (77a) in the circumferential expansion process of 380 degrees. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給燃料噴射燃焼して、円周方向380度膨張過程で、タービン外箱(77a)との間で空気圧縮夫々上側膨張翼群(8d)下側膨張翼群(8e)複数個所噴射する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electric power generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives low-priced liquid oxygen (5K), receives fuel injection, and burns in the circumferential direction. Various energy storage cycle coalescence engines and coalescence methods in which a plurality of air compression upper expansion blade groups (8d) and lower expansion blade groups (8e) are injected into and out of the turbine outer box (77a) in a 380 degree expansion process. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給燃料噴射燃焼して、円周方向380度膨張過程で、タービン外箱(77a)との間で空気圧縮夫々上側膨張翼群(8d)下側膨張翼群(8e)複数個所噴射する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature heat supply facility (3D), cheap liquid oxygen (5K) + electricity is injected and burned by fuel injection, Various energy storage cycle coalescence engines and coalescence methods in which a plurality of air compression upper expansion blade groups (8d) and lower expansion blade groups (8e) are injected into and out of the turbine outer casing (77a) in the circumferential expansion process of 380 degrees. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給燃料噴射燃焼して、円周方向380度膨張過程で、タービン外箱(77a)との間で空気圧縮夫々上側膨張翼群(8d)下側膨張翼群(8e)複数個所噴射する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheaper liquid oxygen (5K) + electricity + superheated steam and fuel injection combustion Then, in the expansion process of 380 degrees in the circumferential direction, various energy storage cycle coalescing engines for injecting a plurality of locations of the upper compression blade groups (8d) and the lower expansion blade groups (8e), respectively, with the turbine outer casing (77a), and Merge method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給燃料噴射燃焼して、円周方向380度膨張過程で、タービン外箱(77a)との間で空気圧縮夫々上側膨張翼群(8d)下側膨張翼群(8e)複数個所噴射燃料燃焼量増大する理論膨張機関(3P)にする各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electric power generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives low-priced liquid oxygen (5K), receives fuel injection, and burns in the circumferential direction. In the expansion process of 380 degrees, air compression between the upper expansion blade group (8d) and the lower expansion blade group (8e) between the turbine outer box (77a) and the theoretical expansion engine (3P) that increases the amount of fuel injected at a plurality of locations. Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給燃料噴射燃焼して、円周方向380度膨張過程で、タービン外箱(77a)との間で空気圧縮夫々上側膨張翼群(8d)下側膨張翼群(8e)複数個所噴射燃料燃焼量増大する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature heat supply facility (3D), cheap liquid oxygen (5K) + electricity is injected and burned by fuel injection, In the expansion process of 380 degrees in the circumferential direction, various types of energy storage cycle coalescence engines that increase the amount of fuel injected by injection of air at the upper expansion blade group (8d) and the lower expansion blade group (8e) at a plurality of positions with the turbine outer casing (77a). And coalescing method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給燃料噴射燃焼して、円周方向380度膨張過程で、タービン外箱(77a)との間で空気圧縮夫々上側膨張翼群(8d)下側膨張翼群(8e)複数個所噴射燃料燃焼量増大する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheaper liquid oxygen (5K) + electricity + superheated steam and fuel injection combustion Thus, in the process of expansion in the circumferential direction of 380 degrees, various types of energy storage are performed in which the amount of injected fuel combustion increases at each of the upper expansion blade group (8d) and the lower expansion blade group (8e) between the air compression and the turbine outer casing (77a). Cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)を受給燃料噴射燃焼して、円周方向380度膨張過程で、燃料管(25a)延長上側膨張翼群(8d)複数個所より燃料噴射燃焼し、タービン外箱(77a)との間で空気圧縮夫々上側膨張翼群(8d)下側膨張翼群(8e)複数個所噴射燃料燃焼量増大する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electric power generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives low-priced liquid oxygen (5K), receives fuel injection, and burns in the circumferential direction. During the 380 degree expansion process, fuel is injected and burned from a plurality of locations in the fuel pipe (25a) and the extended upper expansion blade group (8d), and the lower expansion of each of the upper expansion blade group (8d) is compressed with the turbine outer casing (77a). Blade group (8e) Various energy storage cycle coalescence engine and coalescence method for increasing the amount of fuel combustion at multiple locations. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気を受給燃料噴射燃焼して、円周方向380度膨張過程で、燃料管(25a)延長上側膨張翼群(8d)複数個所より燃料噴射燃焼し、タービン外箱(77a)との間で空気圧縮夫々上側膨張翼群(8d)下側膨張翼群(8e)複数個所噴射燃料燃焼量増大する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature heat supply facility (3D), cheap liquid oxygen (5K) + electricity is injected and burned by fuel injection, In the expansion process of 380 degrees in the circumferential direction, fuel is injected and combusted from a plurality of locations in the fuel pipe (25a) and the extended upper expansion blade group (8d), and is compressed between the turbine outer casing (77a) and the upper expansion blade group (8d). Side expansion blade group (8e) Various energy storage cycle coalescence engine and coalescence method for increasing the amount of fuel injected at a plurality of locations. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+電気+過熱蒸気を受給燃料噴射燃焼して、円周方向380度膨張過程で、燃料管(25a)延長上側膨張翼群(8d)複数個所より燃料噴射燃焼し、タービン外箱(77a)との間で空気圧縮夫々上側膨張翼群(8d)下側膨張翼群(8e)複数個所噴射燃料燃焼量増大する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cold heat + superheated steam temperature supply equipment (3D) receives cheaper liquid oxygen (5K) + electricity + superheated steam and fuel injection combustion Then, in the expansion process of 380 degrees in the circumferential direction, the fuel pipe (25a) extends the upper expansion blade group (8d), fuel is injected and combusted from a plurality of locations, and air compression is performed between the upper expansion blade groups (77a). 8d) Lower expansion blade group (8e) Various energy storage cycle coalescing engines and coalescence methods for increasing the amount of fuel injected at a plurality of locations. 横型全動翼水重力タービン(8R)極端に安価発電電気製造の、電気+液体空気冷熱+過熱蒸気温熱供給設備(3D)より安価液体酸素(5K)+過熱蒸気を受給燃料噴射燃焼して、円周方向380度膨張過程で、燃料管(25a)延長上側膨張翼群(8d)複数個所より燃料噴射燃焼し、タービン外箱(77a)との間で空気圧縮夫々上側膨張翼群(8d)下側膨張翼群(8e)複数個所噴射燃料燃焼量増大する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R) is an extremely inexpensive generator for electricity generation, electricity + liquid air cooling + superheated steam temperature supply equipment (3D), cheap liquid oxygen (5K) + superheated steam is received and injected and burned, During the expansion process of 380 degrees in the circumferential direction, the fuel pipe (25a) and the upper expansion blade group (8d) are fuel-injected and combusted from a plurality of locations, and air compression is performed between the upper expansion blade group (8d) and the turbine outer casing (77a). Lower expansion blade group (8e) Various energy storage cycle coalescence engine and coalescence method for increasing the amount of fuel injected at multiple locations. 横型全動翼水重力タービン(8R)真空中超高圧垂直下方に水噴射し重力加速度加速して円筒タービン翼群(8A)水平軸(16A)対向同期歯車(4C)直列同回転歯車(4D)回転して複数タービンで発電する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade hydrogravity turbine (8R) Ultra-high pressure vertically under vacuum, water jet sprayed and accelerated by gravitational acceleration, cylindrical turbine blade group (8A) horizontal axis (16A) counter-synchronous gear (4C) series rotation gear (4D) rotation Various energy storage cycle coalescence engines and coalescence methods for generating power with a plurality of turbines. 横型全動翼水重力タービン(8R)真空中超高圧垂直下方に水噴射し重力加速度加速して円筒タービン翼群(8A)水平軸(16A)直列同回転歯車(4D)回転して複数タービンで発電する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full blade hydrogravity turbine (8R) Ultra-high pressure vertically under vacuum, water acceleration is accelerated, gravity acceleration is accelerated, cylindrical turbine blade group (8A) horizontal axis (16A) in-line co-rotating gear (4D) rotates, and power is generated by multiple turbines Various energy storage cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)真空中超高圧垂直下方に水噴射し重力加速度加速して円筒タービン翼群(8A)水平軸(16A)回転して円筒タービン翼群(8A)多数発電する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full blade water gravity turbine (8R) Ultra-high pressure vertically under vacuum, water jet is accelerated, gravitational acceleration is accelerated, cylindrical turbine blade group (8A) horizontal axis (16A) rotates and various types of cylindrical turbine blade group (8A) generate a lot of power Energy conservation cycle coalescence engine and coalescence method. 横型全動翼水重力タービン(8R)真空中超高圧垂直下方に水噴射し重力加速度加速して円筒タービン翼群(8A)水平軸(16A)回転して円筒タービン翼群(8A)20組発電する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full blade water gravity turbine (8R) Ultra-high pressure vertically under vacuum, water jet is accelerated, gravity acceleration is accelerated, cylindrical turbine blade group (8A) horizontal axis (16A) rotates and 20 sets of cylindrical turbine blade group (8A) generate power Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)真空中超高圧垂直下方に水噴射し重力加速度加速して円筒タービン翼群(8A)水平軸(16A)回転して円筒タービン翼群(8A)40組発電する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full blade hydrogravity turbine (8R) Ultra-high pressure vertically under vacuum, water jet is accelerated, gravity acceleration is accelerated, cylindrical turbine blade group (8A) horizontal axis (16A) is rotated, and 40 sets of cylindrical turbine blade group (8A) are generated. Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)真空中超高圧垂直下方に水噴射し重力加速度加速して円筒タービン翼群(8A)水平軸(16A)回転して円筒タービン翼群(8A)80組発電する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R) Ultra-high pressure vertically under vacuum, water jet is accelerated, gravity acceleration is accelerated, cylindrical turbine blade group (8A) is rotated by horizontal axis (16A), and 80 sets of cylindrical turbine blade group (8A) are generated. Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)真空中超高圧垂直下方に水噴射し重力加速度加速して円筒タービン翼群(8A)水平軸(16A)回転して円筒タービン翼群(8A)100組発電する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full-blade water gravity turbine (8R) Ultra-high pressure vertically under vacuum, water jet is accelerated, gravity acceleration is accelerated, cylindrical turbine blade group (8A) horizontal axis (16A) rotates and 100 sets of cylindrical turbine blade group (8A) generate power Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)真空中超高圧垂直下方に水噴射し重力加速度加速して円筒タービン翼群(8A)水平軸(16A)回転して円筒タービン翼群(8A)150組発電する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full blade hydrogravity turbine (8R) Ultra-high pressure vertically under vacuum, water jet accelerated, gravity acceleration accelerated, cylindrical turbine blade group (8A) horizontal axis (16A) rotated to generate 150 sets of cylindrical turbine blade group (8A) Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)真空中超高圧垂直下方に水噴射し重力加速度加速して円筒タービン翼群(8A)水平軸(16A)回転して円筒タービン翼群(8A)200組発電する各種エネルギ保存サイクル合体機関及び合体方法。   Horizontal full blade hydrogravity turbine (8R) Ultra-high pressure vertically under vacuum, water jet is accelerated, gravity acceleration is accelerated, cylindrical turbine blade group (8A) horizontal axis (16A) rotates to generate 200 sets of cylindrical turbine blade group (8A) Various energy storage cycle coalescence engines and coalescence methods. 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼+ジェット燃焼として酸素合体水噴射部(88K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescence engines and coalescence methods for driving a horizontal full-blade water gravity turbine (8R) power generation electric product + rocket combustion + jet combustion as an oxygen coalescence water injection unit (88K). 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼2箇所+ジェット燃焼2箇所として酸素合体水噴射部(88K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescence engines and coalescence methods for driving an oxygen coalescence water injection section (88K) as a horizontal full-blade water gravity turbine (8R) power generation electrical product + two rocket combustion + two jet combustion locations. 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼3箇所+ジェット燃焼3箇所として酸素合体水噴射部(88K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescence engines and coalescence methods that drive the oxygen coalescence water injection unit (88K) as a horizontal full blade water gravity turbine (8R) power generation electric product + three rocket combustion + three jet combustion locations. 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼4箇所+ジェット燃焼4箇所として酸素合体水噴射部(88K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescence engine and coalescence method for driving oxygen combined water injection unit (88K) as horizontal full-blade water gravity turbine (8R) power generation electrical product + rocket combustion 4 locations + jet combustion 4 locations. 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼5箇所+ジェット燃焼5箇所として酸素合体水噴射部(88K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescence engine and coalescence method for driving oxygen coalescence water injection part (88K) as horizontal full-blade water gravity turbine (8R) power generation electric product + rocket combustion 5 locations + jet combustion 5 locations. 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼6箇所+ジェット燃焼6箇所として酸素合体水噴射部(88K)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescence engines and coalescence methods for driving an oxygen coalescence water injection part (88K) as a horizontal full-blade water gravity turbine (8R) power generation electric product + rocket combustion 6 locations + jet combustion 6 locations. 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼+ジェット燃焼として酸素合体空気噴射部(88A)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescence engine and coalescence method for driving a horizontal all blade water gravity turbine (8R) power generation electric product + rocket combustion + jet combustion as an oxygen coalescence air injection unit (88A). 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼2箇所+ジェット燃焼2箇所として酸素合体空気噴射部(88A)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescence engines and coalescence methods for driving an oxygen coalescence air injection unit (88A) as a horizontal full-blade water gravity turbine (8R) power generation electrical product + two rocket combustion + two jet combustion locations. 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼3箇所+ジェット燃焼3箇所として酸素合体空気噴射部(88A)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescence engines and coalescence methods for driving an oxygen coalescence air injection unit (88A) as a horizontal full-blade water gravity turbine (8R) power generation electric product + three rocket combustion + three jet combustion locations. 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼4箇所+ジェット燃焼4箇所として酸素合体空気噴射部(88A)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescing engines and coalescence methods for driving an oxygen coalescence air injection unit (88A) as a horizontal full-blade water gravity turbine (8R) power generation electric product + rocket combustion 4 places + jet combustion 4 places. 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼5箇所+ジェット燃焼5箇所として酸素合体空気噴射部(88A)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescence engines and coalescence methods for driving the oxygen coalesced air injection unit (88A) as a horizontal full blade water gravity turbine (8R) power generation electric product + rocket combustion 5 locations + jet combustion 5 locations. 横型全動翼水重力タービン(8R)発電電気製造物+ロケット燃焼6箇所+ジェット燃焼6箇所として酸素合体空気噴射部(88A)駆動する各種エネルギ保存サイクル合体機関及び合体方法。   Various energy storage cycle coalescing engines and coalescence methods for driving the oxygen coalesced air injection unit (88A) as horizontal full-blade water gravity turbine (8R) power generation electric product + rocket combustion 6 places + jet combustion 6 places.
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